aboutsummaryrefslogtreecommitdiffstats
path: root/drivers/net
diff options
context:
space:
mode:
authorDavid S. Miller <davem@davemloft.net>2005-09-27 18:24:13 -0400
committerDavid S. Miller <davem@davemloft.net>2005-09-27 18:24:13 -0400
commit1f26dac32057baaf67d10b45c6b5277db862911d (patch)
treeb9a6872f69deb7642f7034dcd39c29cac5e78222 /drivers/net
parenta79af59efd20990473d579b1d8d70bb120f0920c (diff)
[NET]: Add Sun Cassini driver.
Written by Adrian Sun (asun@darksunrising.com). Ported to 2.6.x by Tom 'spot' Callaway <tcallawa@redhat.com>. Further cleaned up and integrated by David S. Miller Signed-off-by: David S. Miller <davem@davemloft.net>
Diffstat (limited to 'drivers/net')
-rw-r--r--drivers/net/Kconfig8
-rw-r--r--drivers/net/Makefile1
-rw-r--r--drivers/net/cassini.c5311
-rw-r--r--drivers/net/cassini.h4425
4 files changed, 9745 insertions, 0 deletions
diff --git a/drivers/net/Kconfig b/drivers/net/Kconfig
index 96f14ab1c1f5..2a908c4690a7 100644
--- a/drivers/net/Kconfig
+++ b/drivers/net/Kconfig
@@ -548,6 +548,14 @@ config SUNGEM
548 Support for the Sun GEM chip, aka Sun GigabitEthernet/P 2.0. See also 548 Support for the Sun GEM chip, aka Sun GigabitEthernet/P 2.0. See also
549 <http://www.sun.com/products-n-solutions/hardware/docs/pdf/806-3985-10.pdf>. 549 <http://www.sun.com/products-n-solutions/hardware/docs/pdf/806-3985-10.pdf>.
550 550
551config CASSINI
552 tristate "Sun Cassini support"
553 depends on NET_ETHERNET && PCI
554 select CRC32
555 help
556 Support for the Sun Cassini chip, aka Sun GigaSwift Ethernet. See also
557 <http://www.sun.com/products-n-solutions/hardware/docs/pdf/817-4341-10.pdf>
558
551config NET_VENDOR_3COM 559config NET_VENDOR_3COM
552 bool "3COM cards" 560 bool "3COM cards"
553 depends on NET_ETHERNET && (ISA || EISA || MCA || PCI) 561 depends on NET_ETHERNET && (ISA || EISA || MCA || PCI)
diff --git a/drivers/net/Makefile b/drivers/net/Makefile
index 8645c843cf4d..8aeec9f2495b 100644
--- a/drivers/net/Makefile
+++ b/drivers/net/Makefile
@@ -28,6 +28,7 @@ obj-$(CONFIG_SUNQE) += sunqe.o
28obj-$(CONFIG_SUNBMAC) += sunbmac.o 28obj-$(CONFIG_SUNBMAC) += sunbmac.o
29obj-$(CONFIG_MYRI_SBUS) += myri_sbus.o 29obj-$(CONFIG_MYRI_SBUS) += myri_sbus.o
30obj-$(CONFIG_SUNGEM) += sungem.o sungem_phy.o 30obj-$(CONFIG_SUNGEM) += sungem.o sungem_phy.o
31obj-$(CONFIG_CASSINI) += cassini.o
31 32
32obj-$(CONFIG_MACE) += mace.o 33obj-$(CONFIG_MACE) += mace.o
33obj-$(CONFIG_BMAC) += bmac.o 34obj-$(CONFIG_BMAC) += bmac.o
diff --git a/drivers/net/cassini.c b/drivers/net/cassini.c
new file mode 100644
index 000000000000..69cb368247e7
--- /dev/null
+++ b/drivers/net/cassini.c
@@ -0,0 +1,5311 @@
1/* cassini.c: Sun Microsystems Cassini(+) ethernet driver.
2 *
3 * Copyright (C) 2004 Sun Microsystems Inc.
4 * Copyright (C) 2003 Adrian Sun (asun@darksunrising.com)
5 *
6 * This program is free software; you can redistribute it and/or
7 * modify it under the terms of the GNU General Public License as
8 * published by the Free Software Foundation; either version 2 of the
9 * License, or (at your option) any later version.
10 *
11 * This program is distributed in the hope that it will be useful,
12 * but WITHOUT ANY WARRANTY; without even the implied warranty of
13 * MERCHANTABILITY or FITNESS FOR A PARTICULAR PURPOSE. See the
14 * GNU General Public License for more details.
15 *
16 * You should have received a copy of the GNU General Public License
17 * along with this program; if not, write to the Free Software
18 * Foundation, Inc., 59 Temple Place - Suite 330, Boston, MA
19 * 02111-1307, USA.
20 *
21 * This driver uses the sungem driver (c) David Miller
22 * (davem@redhat.com) as its basis.
23 *
24 * The cassini chip has a number of features that distinguish it from
25 * the gem chip:
26 * 4 transmit descriptor rings that are used for either QoS (VLAN) or
27 * load balancing (non-VLAN mode)
28 * batching of multiple packets
29 * multiple CPU dispatching
30 * page-based RX descriptor engine with separate completion rings
31 * Gigabit support (GMII and PCS interface)
32 * MIF link up/down detection works
33 *
34 * RX is handled by page sized buffers that are attached as fragments to
35 * the skb. here's what's done:
36 * -- driver allocates pages at a time and keeps reference counts
37 * on them.
38 * -- the upper protocol layers assume that the header is in the skb
39 * itself. as a result, cassini will copy a small amount (64 bytes)
40 * to make them happy.
41 * -- driver appends the rest of the data pages as frags to skbuffs
42 * and increments the reference count
43 * -- on page reclamation, the driver swaps the page with a spare page.
44 * if that page is still in use, it frees its reference to that page,
45 * and allocates a new page for use. otherwise, it just recycles the
46 * the page.
47 *
48 * NOTE: cassini can parse the header. however, it's not worth it
49 * as long as the network stack requires a header copy.
50 *
51 * TX has 4 queues. currently these queues are used in a round-robin
52 * fashion for load balancing. They can also be used for QoS. for that
53 * to work, however, QoS information needs to be exposed down to the driver
54 * level so that subqueues get targetted to particular transmit rings.
55 * alternatively, the queues can be configured via use of the all-purpose
56 * ioctl.
57 *
58 * RX DATA: the rx completion ring has all the info, but the rx desc
59 * ring has all of the data. RX can conceivably come in under multiple
60 * interrupts, but the INT# assignment needs to be set up properly by
61 * the BIOS and conveyed to the driver. PCI BIOSes don't know how to do
62 * that. also, the two descriptor rings are designed to distinguish between
63 * encrypted and non-encrypted packets, but we use them for buffering
64 * instead.
65 *
66 * by default, the selective clear mask is set up to process rx packets.
67 */
68
69#include <linux/config.h>
70#include <linux/version.h>
71
72#include <linux/module.h>
73#include <linux/kernel.h>
74#include <linux/types.h>
75#include <linux/compiler.h>
76#include <linux/slab.h>
77#include <linux/delay.h>
78#include <linux/init.h>
79#include <linux/ioport.h>
80#include <linux/pci.h>
81#include <linux/mm.h>
82#include <linux/highmem.h>
83#include <linux/list.h>
84#include <linux/dma-mapping.h>
85
86#include <linux/netdevice.h>
87#include <linux/etherdevice.h>
88#include <linux/skbuff.h>
89#include <linux/ethtool.h>
90#include <linux/crc32.h>
91#include <linux/random.h>
92#include <linux/mii.h>
93#include <linux/ip.h>
94#include <linux/tcp.h>
95
96#include <net/checksum.h>
97
98#include <asm/atomic.h>
99#include <asm/system.h>
100#include <asm/io.h>
101#include <asm/byteorder.h>
102#include <asm/uaccess.h>
103
104#define cas_page_map(x) kmap_atomic((x), KM_SKB_DATA_SOFTIRQ)
105#define cas_page_unmap(x) kunmap_atomic((x), KM_SKB_DATA_SOFTIRQ)
106#define CAS_NCPUS num_online_cpus()
107
108#if defined(CONFIG_CASSINI_NAPI) && defined(HAVE_NETDEV_POLL)
109#define USE_NAPI
110#define cas_skb_release(x) netif_receive_skb(x)
111#else
112#define cas_skb_release(x) netif_rx(x)
113#endif
114
115/* select which firmware to use */
116#define USE_HP_WORKAROUND
117#define HP_WORKAROUND_DEFAULT /* select which firmware to use as default */
118#define CAS_HP_ALT_FIRMWARE cas_prog_null /* alternate firmware */
119
120#include "cassini.h"
121
122#define USE_TX_COMPWB /* use completion writeback registers */
123#define USE_CSMA_CD_PROTO /* standard CSMA/CD */
124#define USE_RX_BLANK /* hw interrupt mitigation */
125#undef USE_ENTROPY_DEV /* don't test for entropy device */
126
127/* NOTE: these aren't useable unless PCI interrupts can be assigned.
128 * also, we need to make cp->lock finer-grained.
129 */
130#undef USE_PCI_INTB
131#undef USE_PCI_INTC
132#undef USE_PCI_INTD
133#undef USE_QOS
134
135#undef USE_VPD_DEBUG /* debug vpd information if defined */
136
137/* rx processing options */
138#define USE_PAGE_ORDER /* specify to allocate large rx pages */
139#define RX_DONT_BATCH 0 /* if 1, don't batch flows */
140#define RX_COPY_ALWAYS 0 /* if 0, use frags */
141#define RX_COPY_MIN 64 /* copy a little to make upper layers happy */
142#undef RX_COUNT_BUFFERS /* define to calculate RX buffer stats */
143
144#define DRV_MODULE_NAME "cassini"
145#define PFX DRV_MODULE_NAME ": "
146#define DRV_MODULE_VERSION "1.4"
147#define DRV_MODULE_RELDATE "1 July 2004"
148
149#define CAS_DEF_MSG_ENABLE \
150 (NETIF_MSG_DRV | \
151 NETIF_MSG_PROBE | \
152 NETIF_MSG_LINK | \
153 NETIF_MSG_TIMER | \
154 NETIF_MSG_IFDOWN | \
155 NETIF_MSG_IFUP | \
156 NETIF_MSG_RX_ERR | \
157 NETIF_MSG_TX_ERR)
158
159/* length of time before we decide the hardware is borked,
160 * and dev->tx_timeout() should be called to fix the problem
161 */
162#define CAS_TX_TIMEOUT (HZ)
163#define CAS_LINK_TIMEOUT (22*HZ/10)
164#define CAS_LINK_FAST_TIMEOUT (1)
165
166/* timeout values for state changing. these specify the number
167 * of 10us delays to be used before giving up.
168 */
169#define STOP_TRIES_PHY 1000
170#define STOP_TRIES 5000
171
172/* specify a minimum frame size to deal with some fifo issues
173 * max mtu == 2 * page size - ethernet header - 64 - swivel =
174 * 2 * page_size - 0x50
175 */
176#define CAS_MIN_FRAME 97
177#define CAS_1000MB_MIN_FRAME 255
178#define CAS_MIN_MTU 60
179#define CAS_MAX_MTU min(((cp->page_size << 1) - 0x50), 9000)
180
181#if 1
182/*
183 * Eliminate these and use separate atomic counters for each, to
184 * avoid a race condition.
185 */
186#else
187#define CAS_RESET_MTU 1
188#define CAS_RESET_ALL 2
189#define CAS_RESET_SPARE 3
190#endif
191
192static char version[] __devinitdata =
193 DRV_MODULE_NAME ".c:v" DRV_MODULE_VERSION " (" DRV_MODULE_RELDATE ")\n";
194
195MODULE_AUTHOR("Adrian Sun (asun@darksunrising.com)");
196MODULE_DESCRIPTION("Sun Cassini(+) ethernet driver");
197MODULE_LICENSE("GPL");
198MODULE_PARM(cassini_debug, "i");
199MODULE_PARM_DESC(cassini_debug, "Cassini bitmapped debugging message enable value");
200MODULE_PARM(link_mode, "i");
201MODULE_PARM_DESC(link_mode, "default link mode");
202
203/*
204 * Work around for a PCS bug in which the link goes down due to the chip
205 * being confused and never showing a link status of "up."
206 */
207#define DEFAULT_LINKDOWN_TIMEOUT 5
208/*
209 * Value in seconds, for user input.
210 */
211static int linkdown_timeout = DEFAULT_LINKDOWN_TIMEOUT;
212MODULE_PARM(linkdown_timeout, "i");
213MODULE_PARM_DESC(linkdown_timeout,
214"min reset interval in sec. for PCS linkdown issue; disabled if not positive");
215
216/*
217 * value in 'ticks' (units used by jiffies). Set when we init the
218 * module because 'HZ' in actually a function call on some flavors of
219 * Linux. This will default to DEFAULT_LINKDOWN_TIMEOUT * HZ.
220 */
221static int link_transition_timeout;
222
223
224static int cassini_debug = -1; /* -1 == use CAS_DEF_MSG_ENABLE as value */
225static int link_mode;
226
227static u16 link_modes[] __devinitdata = {
228 BMCR_ANENABLE, /* 0 : autoneg */
229 0, /* 1 : 10bt half duplex */
230 BMCR_SPEED100, /* 2 : 100bt half duplex */
231 BMCR_FULLDPLX, /* 3 : 10bt full duplex */
232 BMCR_SPEED100|BMCR_FULLDPLX, /* 4 : 100bt full duplex */
233 CAS_BMCR_SPEED1000|BMCR_FULLDPLX /* 5 : 1000bt full duplex */
234};
235
236static struct pci_device_id cas_pci_tbl[] __devinitdata = {
237 { PCI_VENDOR_ID_SUN, PCI_DEVICE_ID_SUN_CASSINI,
238 PCI_ANY_ID, PCI_ANY_ID, 0, 0, 0UL },
239 { PCI_VENDOR_ID_NS, PCI_DEVICE_ID_NS_SATURN,
240 PCI_ANY_ID, PCI_ANY_ID, 0, 0, 0UL },
241 { 0, }
242};
243
244MODULE_DEVICE_TABLE(pci, cas_pci_tbl);
245
246static void cas_set_link_modes(struct cas *cp);
247
248static inline void cas_lock_tx(struct cas *cp)
249{
250 int i;
251
252 for (i = 0; i < N_TX_RINGS; i++)
253 spin_lock(&cp->tx_lock[i]);
254}
255
256static inline void cas_lock_all(struct cas *cp)
257{
258 spin_lock_irq(&cp->lock);
259 cas_lock_tx(cp);
260}
261
262/* WTZ: QA was finding deadlock problems with the previous
263 * versions after long test runs with multiple cards per machine.
264 * See if replacing cas_lock_all with safer versions helps. The
265 * symptoms QA is reporting match those we'd expect if interrupts
266 * aren't being properly restored, and we fixed a previous deadlock
267 * with similar symptoms by using save/restore versions in other
268 * places.
269 */
270#define cas_lock_all_save(cp, flags) \
271do { \
272 struct cas *xxxcp = (cp); \
273 spin_lock_irqsave(&xxxcp->lock, flags); \
274 cas_lock_tx(xxxcp); \
275} while (0)
276
277static inline void cas_unlock_tx(struct cas *cp)
278{
279 int i;
280
281 for (i = N_TX_RINGS; i > 0; i--)
282 spin_unlock(&cp->tx_lock[i - 1]);
283}
284
285static inline void cas_unlock_all(struct cas *cp)
286{
287 cas_unlock_tx(cp);
288 spin_unlock_irq(&cp->lock);
289}
290
291#define cas_unlock_all_restore(cp, flags) \
292do { \
293 struct cas *xxxcp = (cp); \
294 cas_unlock_tx(xxxcp); \
295 spin_unlock_irqrestore(&xxxcp->lock, flags); \
296} while (0)
297
298static void cas_disable_irq(struct cas *cp, const int ring)
299{
300 /* Make sure we won't get any more interrupts */
301 if (ring == 0) {
302 writel(0xFFFFFFFF, cp->regs + REG_INTR_MASK);
303 return;
304 }
305
306 /* disable completion interrupts and selectively mask */
307 if (cp->cas_flags & CAS_FLAG_REG_PLUS) {
308 switch (ring) {
309#if defined (USE_PCI_INTB) || defined(USE_PCI_INTC) || defined(USE_PCI_INTD)
310#ifdef USE_PCI_INTB
311 case 1:
312#endif
313#ifdef USE_PCI_INTC
314 case 2:
315#endif
316#ifdef USE_PCI_INTD
317 case 3:
318#endif
319 writel(INTRN_MASK_CLEAR_ALL | INTRN_MASK_RX_EN,
320 cp->regs + REG_PLUS_INTRN_MASK(ring));
321 break;
322#endif
323 default:
324 writel(INTRN_MASK_CLEAR_ALL, cp->regs +
325 REG_PLUS_INTRN_MASK(ring));
326 break;
327 }
328 }
329}
330
331static inline void cas_mask_intr(struct cas *cp)
332{
333 int i;
334
335 for (i = 0; i < N_RX_COMP_RINGS; i++)
336 cas_disable_irq(cp, i);
337}
338
339static void cas_enable_irq(struct cas *cp, const int ring)
340{
341 if (ring == 0) { /* all but TX_DONE */
342 writel(INTR_TX_DONE, cp->regs + REG_INTR_MASK);
343 return;
344 }
345
346 if (cp->cas_flags & CAS_FLAG_REG_PLUS) {
347 switch (ring) {
348#if defined (USE_PCI_INTB) || defined(USE_PCI_INTC) || defined(USE_PCI_INTD)
349#ifdef USE_PCI_INTB
350 case 1:
351#endif
352#ifdef USE_PCI_INTC
353 case 2:
354#endif
355#ifdef USE_PCI_INTD
356 case 3:
357#endif
358 writel(INTRN_MASK_RX_EN, cp->regs +
359 REG_PLUS_INTRN_MASK(ring));
360 break;
361#endif
362 default:
363 break;
364 }
365 }
366}
367
368static inline void cas_unmask_intr(struct cas *cp)
369{
370 int i;
371
372 for (i = 0; i < N_RX_COMP_RINGS; i++)
373 cas_enable_irq(cp, i);
374}
375
376static inline void cas_entropy_gather(struct cas *cp)
377{
378#ifdef USE_ENTROPY_DEV
379 if ((cp->cas_flags & CAS_FLAG_ENTROPY_DEV) == 0)
380 return;
381
382 batch_entropy_store(readl(cp->regs + REG_ENTROPY_IV),
383 readl(cp->regs + REG_ENTROPY_IV),
384 sizeof(uint64_t)*8);
385#endif
386}
387
388static inline void cas_entropy_reset(struct cas *cp)
389{
390#ifdef USE_ENTROPY_DEV
391 if ((cp->cas_flags & CAS_FLAG_ENTROPY_DEV) == 0)
392 return;
393
394 writel(BIM_LOCAL_DEV_PAD | BIM_LOCAL_DEV_PROM | BIM_LOCAL_DEV_EXT,
395 cp->regs + REG_BIM_LOCAL_DEV_EN);
396 writeb(ENTROPY_RESET_STC_MODE, cp->regs + REG_ENTROPY_RESET);
397 writeb(0x55, cp->regs + REG_ENTROPY_RAND_REG);
398
399 /* if we read back 0x0, we don't have an entropy device */
400 if (readb(cp->regs + REG_ENTROPY_RAND_REG) == 0)
401 cp->cas_flags &= ~CAS_FLAG_ENTROPY_DEV;
402#endif
403}
404
405/* access to the phy. the following assumes that we've initialized the MIF to
406 * be in frame rather than bit-bang mode
407 */
408static u16 cas_phy_read(struct cas *cp, int reg)
409{
410 u32 cmd;
411 int limit = STOP_TRIES_PHY;
412
413 cmd = MIF_FRAME_ST | MIF_FRAME_OP_READ;
414 cmd |= CAS_BASE(MIF_FRAME_PHY_ADDR, cp->phy_addr);
415 cmd |= CAS_BASE(MIF_FRAME_REG_ADDR, reg);
416 cmd |= MIF_FRAME_TURN_AROUND_MSB;
417 writel(cmd, cp->regs + REG_MIF_FRAME);
418
419 /* poll for completion */
420 while (limit-- > 0) {
421 udelay(10);
422 cmd = readl(cp->regs + REG_MIF_FRAME);
423 if (cmd & MIF_FRAME_TURN_AROUND_LSB)
424 return (cmd & MIF_FRAME_DATA_MASK);
425 }
426 return 0xFFFF; /* -1 */
427}
428
429static int cas_phy_write(struct cas *cp, int reg, u16 val)
430{
431 int limit = STOP_TRIES_PHY;
432 u32 cmd;
433
434 cmd = MIF_FRAME_ST | MIF_FRAME_OP_WRITE;
435 cmd |= CAS_BASE(MIF_FRAME_PHY_ADDR, cp->phy_addr);
436 cmd |= CAS_BASE(MIF_FRAME_REG_ADDR, reg);
437 cmd |= MIF_FRAME_TURN_AROUND_MSB;
438 cmd |= val & MIF_FRAME_DATA_MASK;
439 writel(cmd, cp->regs + REG_MIF_FRAME);
440
441 /* poll for completion */
442 while (limit-- > 0) {
443 udelay(10);
444 cmd = readl(cp->regs + REG_MIF_FRAME);
445 if (cmd & MIF_FRAME_TURN_AROUND_LSB)
446 return 0;
447 }
448 return -1;
449}
450
451static void cas_phy_powerup(struct cas *cp)
452{
453 u16 ctl = cas_phy_read(cp, MII_BMCR);
454
455 if ((ctl & BMCR_PDOWN) == 0)
456 return;
457 ctl &= ~BMCR_PDOWN;
458 cas_phy_write(cp, MII_BMCR, ctl);
459}
460
461static void cas_phy_powerdown(struct cas *cp)
462{
463 u16 ctl = cas_phy_read(cp, MII_BMCR);
464
465 if (ctl & BMCR_PDOWN)
466 return;
467 ctl |= BMCR_PDOWN;
468 cas_phy_write(cp, MII_BMCR, ctl);
469}
470
471/* cp->lock held. note: the last put_page will free the buffer */
472static int cas_page_free(struct cas *cp, cas_page_t *page)
473{
474 pci_unmap_page(cp->pdev, page->dma_addr, cp->page_size,
475 PCI_DMA_FROMDEVICE);
476 __free_pages(page->buffer, cp->page_order);
477 kfree(page);
478 return 0;
479}
480
481#ifdef RX_COUNT_BUFFERS
482#define RX_USED_ADD(x, y) ((x)->used += (y))
483#define RX_USED_SET(x, y) ((x)->used = (y))
484#else
485#define RX_USED_ADD(x, y)
486#define RX_USED_SET(x, y)
487#endif
488
489/* local page allocation routines for the receive buffers. jumbo pages
490 * require at least 8K contiguous and 8K aligned buffers.
491 */
492static cas_page_t *cas_page_alloc(struct cas *cp, const int flags)
493{
494 cas_page_t *page;
495
496 page = kmalloc(sizeof(cas_page_t), flags);
497 if (!page)
498 return NULL;
499
500 INIT_LIST_HEAD(&page->list);
501 RX_USED_SET(page, 0);
502 page->buffer = alloc_pages(flags, cp->page_order);
503 if (!page->buffer)
504 goto page_err;
505 page->dma_addr = pci_map_page(cp->pdev, page->buffer, 0,
506 cp->page_size, PCI_DMA_FROMDEVICE);
507 return page;
508
509page_err:
510 kfree(page);
511 return NULL;
512}
513
514/* initialize spare pool of rx buffers, but allocate during the open */
515static void cas_spare_init(struct cas *cp)
516{
517 spin_lock(&cp->rx_inuse_lock);
518 INIT_LIST_HEAD(&cp->rx_inuse_list);
519 spin_unlock(&cp->rx_inuse_lock);
520
521 spin_lock(&cp->rx_spare_lock);
522 INIT_LIST_HEAD(&cp->rx_spare_list);
523 cp->rx_spares_needed = RX_SPARE_COUNT;
524 spin_unlock(&cp->rx_spare_lock);
525}
526
527/* used on close. free all the spare buffers. */
528static void cas_spare_free(struct cas *cp)
529{
530 struct list_head list, *elem, *tmp;
531
532 /* free spare buffers */
533 INIT_LIST_HEAD(&list);
534 spin_lock(&cp->rx_spare_lock);
535 list_splice(&cp->rx_spare_list, &list);
536 INIT_LIST_HEAD(&cp->rx_spare_list);
537 spin_unlock(&cp->rx_spare_lock);
538 list_for_each_safe(elem, tmp, &list) {
539 cas_page_free(cp, list_entry(elem, cas_page_t, list));
540 }
541
542 INIT_LIST_HEAD(&list);
543#if 1
544 /*
545 * Looks like Adrian had protected this with a different
546 * lock than used everywhere else to manipulate this list.
547 */
548 spin_lock(&cp->rx_inuse_lock);
549 list_splice(&cp->rx_inuse_list, &list);
550 INIT_LIST_HEAD(&cp->rx_inuse_list);
551 spin_unlock(&cp->rx_inuse_lock);
552#else
553 spin_lock(&cp->rx_spare_lock);
554 list_splice(&cp->rx_inuse_list, &list);
555 INIT_LIST_HEAD(&cp->rx_inuse_list);
556 spin_unlock(&cp->rx_spare_lock);
557#endif
558 list_for_each_safe(elem, tmp, &list) {
559 cas_page_free(cp, list_entry(elem, cas_page_t, list));
560 }
561}
562
563/* replenish spares if needed */
564static void cas_spare_recover(struct cas *cp, const int flags)
565{
566 struct list_head list, *elem, *tmp;
567 int needed, i;
568
569 /* check inuse list. if we don't need any more free buffers,
570 * just free it
571 */
572
573 /* make a local copy of the list */
574 INIT_LIST_HEAD(&list);
575 spin_lock(&cp->rx_inuse_lock);
576 list_splice(&cp->rx_inuse_list, &list);
577 INIT_LIST_HEAD(&cp->rx_inuse_list);
578 spin_unlock(&cp->rx_inuse_lock);
579
580 list_for_each_safe(elem, tmp, &list) {
581 cas_page_t *page = list_entry(elem, cas_page_t, list);
582
583 if (page_count(page->buffer) > 1)
584 continue;
585
586 list_del(elem);
587 spin_lock(&cp->rx_spare_lock);
588 if (cp->rx_spares_needed > 0) {
589 list_add(elem, &cp->rx_spare_list);
590 cp->rx_spares_needed--;
591 spin_unlock(&cp->rx_spare_lock);
592 } else {
593 spin_unlock(&cp->rx_spare_lock);
594 cas_page_free(cp, page);
595 }
596 }
597
598 /* put any inuse buffers back on the list */
599 if (!list_empty(&list)) {
600 spin_lock(&cp->rx_inuse_lock);
601 list_splice(&list, &cp->rx_inuse_list);
602 spin_unlock(&cp->rx_inuse_lock);
603 }
604
605 spin_lock(&cp->rx_spare_lock);
606 needed = cp->rx_spares_needed;
607 spin_unlock(&cp->rx_spare_lock);
608 if (!needed)
609 return;
610
611 /* we still need spares, so try to allocate some */
612 INIT_LIST_HEAD(&list);
613 i = 0;
614 while (i < needed) {
615 cas_page_t *spare = cas_page_alloc(cp, flags);
616 if (!spare)
617 break;
618 list_add(&spare->list, &list);
619 i++;
620 }
621
622 spin_lock(&cp->rx_spare_lock);
623 list_splice(&list, &cp->rx_spare_list);
624 cp->rx_spares_needed -= i;
625 spin_unlock(&cp->rx_spare_lock);
626}
627
628/* pull a page from the list. */
629static cas_page_t *cas_page_dequeue(struct cas *cp)
630{
631 struct list_head *entry;
632 int recover;
633
634 spin_lock(&cp->rx_spare_lock);
635 if (list_empty(&cp->rx_spare_list)) {
636 /* try to do a quick recovery */
637 spin_unlock(&cp->rx_spare_lock);
638 cas_spare_recover(cp, GFP_ATOMIC);
639 spin_lock(&cp->rx_spare_lock);
640 if (list_empty(&cp->rx_spare_list)) {
641 if (netif_msg_rx_err(cp))
642 printk(KERN_ERR "%s: no spare buffers "
643 "available.\n", cp->dev->name);
644 spin_unlock(&cp->rx_spare_lock);
645 return NULL;
646 }
647 }
648
649 entry = cp->rx_spare_list.next;
650 list_del(entry);
651 recover = ++cp->rx_spares_needed;
652 spin_unlock(&cp->rx_spare_lock);
653
654 /* trigger the timer to do the recovery */
655 if ((recover & (RX_SPARE_RECOVER_VAL - 1)) == 0) {
656#if 1
657 atomic_inc(&cp->reset_task_pending);
658 atomic_inc(&cp->reset_task_pending_spare);
659 schedule_work(&cp->reset_task);
660#else
661 atomic_set(&cp->reset_task_pending, CAS_RESET_SPARE);
662 schedule_work(&cp->reset_task);
663#endif
664 }
665 return list_entry(entry, cas_page_t, list);
666}
667
668
669static void cas_mif_poll(struct cas *cp, const int enable)
670{
671 u32 cfg;
672
673 cfg = readl(cp->regs + REG_MIF_CFG);
674 cfg &= (MIF_CFG_MDIO_0 | MIF_CFG_MDIO_1);
675
676 if (cp->phy_type & CAS_PHY_MII_MDIO1)
677 cfg |= MIF_CFG_PHY_SELECT;
678
679 /* poll and interrupt on link status change. */
680 if (enable) {
681 cfg |= MIF_CFG_POLL_EN;
682 cfg |= CAS_BASE(MIF_CFG_POLL_REG, MII_BMSR);
683 cfg |= CAS_BASE(MIF_CFG_POLL_PHY, cp->phy_addr);
684 }
685 writel((enable) ? ~(BMSR_LSTATUS | BMSR_ANEGCOMPLETE) : 0xFFFF,
686 cp->regs + REG_MIF_MASK);
687 writel(cfg, cp->regs + REG_MIF_CFG);
688}
689
690/* Must be invoked under cp->lock */
691static void cas_begin_auto_negotiation(struct cas *cp, struct ethtool_cmd *ep)
692{
693 u16 ctl;
694#if 1
695 int lcntl;
696 int changed = 0;
697 int oldstate = cp->lstate;
698 int link_was_not_down = !(oldstate == link_down);
699#endif
700 /* Setup link parameters */
701 if (!ep)
702 goto start_aneg;
703 lcntl = cp->link_cntl;
704 if (ep->autoneg == AUTONEG_ENABLE)
705 cp->link_cntl = BMCR_ANENABLE;
706 else {
707 cp->link_cntl = 0;
708 if (ep->speed == SPEED_100)
709 cp->link_cntl |= BMCR_SPEED100;
710 else if (ep->speed == SPEED_1000)
711 cp->link_cntl |= CAS_BMCR_SPEED1000;
712 if (ep->duplex == DUPLEX_FULL)
713 cp->link_cntl |= BMCR_FULLDPLX;
714 }
715#if 1
716 changed = (lcntl != cp->link_cntl);
717#endif
718start_aneg:
719 if (cp->lstate == link_up) {
720 printk(KERN_INFO "%s: PCS link down.\n",
721 cp->dev->name);
722 } else {
723 if (changed) {
724 printk(KERN_INFO "%s: link configuration changed\n",
725 cp->dev->name);
726 }
727 }
728 cp->lstate = link_down;
729 cp->link_transition = LINK_TRANSITION_LINK_DOWN;
730 if (!cp->hw_running)
731 return;
732#if 1
733 /*
734 * WTZ: If the old state was link_up, we turn off the carrier
735 * to replicate everything we do elsewhere on a link-down
736 * event when we were already in a link-up state..
737 */
738 if (oldstate == link_up)
739 netif_carrier_off(cp->dev);
740 if (changed && link_was_not_down) {
741 /*
742 * WTZ: This branch will simply schedule a full reset after
743 * we explicitly changed link modes in an ioctl. See if this
744 * fixes the link-problems we were having for forced mode.
745 */
746 atomic_inc(&cp->reset_task_pending);
747 atomic_inc(&cp->reset_task_pending_all);
748 schedule_work(&cp->reset_task);
749 cp->timer_ticks = 0;
750 mod_timer(&cp->link_timer, jiffies + CAS_LINK_TIMEOUT);
751 return;
752 }
753#endif
754 if (cp->phy_type & CAS_PHY_SERDES) {
755 u32 val = readl(cp->regs + REG_PCS_MII_CTRL);
756
757 if (cp->link_cntl & BMCR_ANENABLE) {
758 val |= (PCS_MII_RESTART_AUTONEG | PCS_MII_AUTONEG_EN);
759 cp->lstate = link_aneg;
760 } else {
761 if (cp->link_cntl & BMCR_FULLDPLX)
762 val |= PCS_MII_CTRL_DUPLEX;
763 val &= ~PCS_MII_AUTONEG_EN;
764 cp->lstate = link_force_ok;
765 }
766 cp->link_transition = LINK_TRANSITION_LINK_CONFIG;
767 writel(val, cp->regs + REG_PCS_MII_CTRL);
768
769 } else {
770 cas_mif_poll(cp, 0);
771 ctl = cas_phy_read(cp, MII_BMCR);
772 ctl &= ~(BMCR_FULLDPLX | BMCR_SPEED100 |
773 CAS_BMCR_SPEED1000 | BMCR_ANENABLE);
774 ctl |= cp->link_cntl;
775 if (ctl & BMCR_ANENABLE) {
776 ctl |= BMCR_ANRESTART;
777 cp->lstate = link_aneg;
778 } else {
779 cp->lstate = link_force_ok;
780 }
781 cp->link_transition = LINK_TRANSITION_LINK_CONFIG;
782 cas_phy_write(cp, MII_BMCR, ctl);
783 cas_mif_poll(cp, 1);
784 }
785
786 cp->timer_ticks = 0;
787 mod_timer(&cp->link_timer, jiffies + CAS_LINK_TIMEOUT);
788}
789
790/* Must be invoked under cp->lock. */
791static int cas_reset_mii_phy(struct cas *cp)
792{
793 int limit = STOP_TRIES_PHY;
794 u16 val;
795
796 cas_phy_write(cp, MII_BMCR, BMCR_RESET);
797 udelay(100);
798 while (limit--) {
799 val = cas_phy_read(cp, MII_BMCR);
800 if ((val & BMCR_RESET) == 0)
801 break;
802 udelay(10);
803 }
804 return (limit <= 0);
805}
806
807static void cas_saturn_firmware_load(struct cas *cp)
808{
809 cas_saturn_patch_t *patch = cas_saturn_patch;
810
811 cas_phy_powerdown(cp);
812
813 /* expanded memory access mode */
814 cas_phy_write(cp, DP83065_MII_MEM, 0x0);
815
816 /* pointer configuration for new firmware */
817 cas_phy_write(cp, DP83065_MII_REGE, 0x8ff9);
818 cas_phy_write(cp, DP83065_MII_REGD, 0xbd);
819 cas_phy_write(cp, DP83065_MII_REGE, 0x8ffa);
820 cas_phy_write(cp, DP83065_MII_REGD, 0x82);
821 cas_phy_write(cp, DP83065_MII_REGE, 0x8ffb);
822 cas_phy_write(cp, DP83065_MII_REGD, 0x0);
823 cas_phy_write(cp, DP83065_MII_REGE, 0x8ffc);
824 cas_phy_write(cp, DP83065_MII_REGD, 0x39);
825
826 /* download new firmware */
827 cas_phy_write(cp, DP83065_MII_MEM, 0x1);
828 cas_phy_write(cp, DP83065_MII_REGE, patch->addr);
829 while (patch->addr) {
830 cas_phy_write(cp, DP83065_MII_REGD, patch->val);
831 patch++;
832 }
833
834 /* enable firmware */
835 cas_phy_write(cp, DP83065_MII_REGE, 0x8ff8);
836 cas_phy_write(cp, DP83065_MII_REGD, 0x1);
837}
838
839
840/* phy initialization */
841static void cas_phy_init(struct cas *cp)
842{
843 u16 val;
844
845 /* if we're in MII/GMII mode, set up phy */
846 if (CAS_PHY_MII(cp->phy_type)) {
847 writel(PCS_DATAPATH_MODE_MII,
848 cp->regs + REG_PCS_DATAPATH_MODE);
849
850 cas_mif_poll(cp, 0);
851 cas_reset_mii_phy(cp); /* take out of isolate mode */
852
853 if (PHY_LUCENT_B0 == cp->phy_id) {
854 /* workaround link up/down issue with lucent */
855 cas_phy_write(cp, LUCENT_MII_REG, 0x8000);
856 cas_phy_write(cp, MII_BMCR, 0x00f1);
857 cas_phy_write(cp, LUCENT_MII_REG, 0x0);
858
859 } else if (PHY_BROADCOM_B0 == (cp->phy_id & 0xFFFFFFFC)) {
860 /* workarounds for broadcom phy */
861 cas_phy_write(cp, BROADCOM_MII_REG8, 0x0C20);
862 cas_phy_write(cp, BROADCOM_MII_REG7, 0x0012);
863 cas_phy_write(cp, BROADCOM_MII_REG5, 0x1804);
864 cas_phy_write(cp, BROADCOM_MII_REG7, 0x0013);
865 cas_phy_write(cp, BROADCOM_MII_REG5, 0x1204);
866 cas_phy_write(cp, BROADCOM_MII_REG7, 0x8006);
867 cas_phy_write(cp, BROADCOM_MII_REG5, 0x0132);
868 cas_phy_write(cp, BROADCOM_MII_REG7, 0x8006);
869 cas_phy_write(cp, BROADCOM_MII_REG5, 0x0232);
870 cas_phy_write(cp, BROADCOM_MII_REG7, 0x201F);
871 cas_phy_write(cp, BROADCOM_MII_REG5, 0x0A20);
872
873 } else if (PHY_BROADCOM_5411 == cp->phy_id) {
874 val = cas_phy_read(cp, BROADCOM_MII_REG4);
875 val = cas_phy_read(cp, BROADCOM_MII_REG4);
876 if (val & 0x0080) {
877 /* link workaround */
878 cas_phy_write(cp, BROADCOM_MII_REG4,
879 val & ~0x0080);
880 }
881
882 } else if (cp->cas_flags & CAS_FLAG_SATURN) {
883 writel((cp->phy_type & CAS_PHY_MII_MDIO0) ?
884 SATURN_PCFG_FSI : 0x0,
885 cp->regs + REG_SATURN_PCFG);
886
887 /* load firmware to address 10Mbps auto-negotiation
888 * issue. NOTE: this will need to be changed if the
889 * default firmware gets fixed.
890 */
891 if (PHY_NS_DP83065 == cp->phy_id) {
892 cas_saturn_firmware_load(cp);
893 }
894 cas_phy_powerup(cp);
895 }
896
897 /* advertise capabilities */
898 val = cas_phy_read(cp, MII_BMCR);
899 val &= ~BMCR_ANENABLE;
900 cas_phy_write(cp, MII_BMCR, val);
901 udelay(10);
902
903 cas_phy_write(cp, MII_ADVERTISE,
904 cas_phy_read(cp, MII_ADVERTISE) |
905 (ADVERTISE_10HALF | ADVERTISE_10FULL |
906 ADVERTISE_100HALF | ADVERTISE_100FULL |
907 CAS_ADVERTISE_PAUSE |
908 CAS_ADVERTISE_ASYM_PAUSE));
909
910 if (cp->cas_flags & CAS_FLAG_1000MB_CAP) {
911 /* make sure that we don't advertise half
912 * duplex to avoid a chip issue
913 */
914 val = cas_phy_read(cp, CAS_MII_1000_CTRL);
915 val &= ~CAS_ADVERTISE_1000HALF;
916 val |= CAS_ADVERTISE_1000FULL;
917 cas_phy_write(cp, CAS_MII_1000_CTRL, val);
918 }
919
920 } else {
921 /* reset pcs for serdes */
922 u32 val;
923 int limit;
924
925 writel(PCS_DATAPATH_MODE_SERDES,
926 cp->regs + REG_PCS_DATAPATH_MODE);
927
928 /* enable serdes pins on saturn */
929 if (cp->cas_flags & CAS_FLAG_SATURN)
930 writel(0, cp->regs + REG_SATURN_PCFG);
931
932 /* Reset PCS unit. */
933 val = readl(cp->regs + REG_PCS_MII_CTRL);
934 val |= PCS_MII_RESET;
935 writel(val, cp->regs + REG_PCS_MII_CTRL);
936
937 limit = STOP_TRIES;
938 while (limit-- > 0) {
939 udelay(10);
940 if ((readl(cp->regs + REG_PCS_MII_CTRL) &
941 PCS_MII_RESET) == 0)
942 break;
943 }
944 if (limit <= 0)
945 printk(KERN_WARNING "%s: PCS reset bit would not "
946 "clear [%08x].\n", cp->dev->name,
947 readl(cp->regs + REG_PCS_STATE_MACHINE));
948
949 /* Make sure PCS is disabled while changing advertisement
950 * configuration.
951 */
952 writel(0x0, cp->regs + REG_PCS_CFG);
953
954 /* Advertise all capabilities except half-duplex. */
955 val = readl(cp->regs + REG_PCS_MII_ADVERT);
956 val &= ~PCS_MII_ADVERT_HD;
957 val |= (PCS_MII_ADVERT_FD | PCS_MII_ADVERT_SYM_PAUSE |
958 PCS_MII_ADVERT_ASYM_PAUSE);
959 writel(val, cp->regs + REG_PCS_MII_ADVERT);
960
961 /* enable PCS */
962 writel(PCS_CFG_EN, cp->regs + REG_PCS_CFG);
963
964 /* pcs workaround: enable sync detect */
965 writel(PCS_SERDES_CTRL_SYNCD_EN,
966 cp->regs + REG_PCS_SERDES_CTRL);
967 }
968}
969
970
971static int cas_pcs_link_check(struct cas *cp)
972{
973 u32 stat, state_machine;
974 int retval = 0;
975
976 /* The link status bit latches on zero, so you must
977 * read it twice in such a case to see a transition
978 * to the link being up.
979 */
980 stat = readl(cp->regs + REG_PCS_MII_STATUS);
981 if ((stat & PCS_MII_STATUS_LINK_STATUS) == 0)
982 stat = readl(cp->regs + REG_PCS_MII_STATUS);
983
984 /* The remote-fault indication is only valid
985 * when autoneg has completed.
986 */
987 if ((stat & (PCS_MII_STATUS_AUTONEG_COMP |
988 PCS_MII_STATUS_REMOTE_FAULT)) ==
989 (PCS_MII_STATUS_AUTONEG_COMP | PCS_MII_STATUS_REMOTE_FAULT)) {
990 if (netif_msg_link(cp))
991 printk(KERN_INFO "%s: PCS RemoteFault\n",
992 cp->dev->name);
993 }
994
995 /* work around link detection issue by querying the PCS state
996 * machine directly.
997 */
998 state_machine = readl(cp->regs + REG_PCS_STATE_MACHINE);
999 if ((state_machine & PCS_SM_LINK_STATE_MASK) != SM_LINK_STATE_UP) {
1000 stat &= ~PCS_MII_STATUS_LINK_STATUS;
1001 } else if (state_machine & PCS_SM_WORD_SYNC_STATE_MASK) {
1002 stat |= PCS_MII_STATUS_LINK_STATUS;
1003 }
1004
1005 if (stat & PCS_MII_STATUS_LINK_STATUS) {
1006 if (cp->lstate != link_up) {
1007 if (cp->opened) {
1008 cp->lstate = link_up;
1009 cp->link_transition = LINK_TRANSITION_LINK_UP;
1010
1011 cas_set_link_modes(cp);
1012 netif_carrier_on(cp->dev);
1013 }
1014 }
1015 } else if (cp->lstate == link_up) {
1016 cp->lstate = link_down;
1017 if (link_transition_timeout != 0 &&
1018 cp->link_transition != LINK_TRANSITION_REQUESTED_RESET &&
1019 !cp->link_transition_jiffies_valid) {
1020 /*
1021 * force a reset, as a workaround for the
1022 * link-failure problem. May want to move this to a
1023 * point a bit earlier in the sequence. If we had
1024 * generated a reset a short time ago, we'll wait for
1025 * the link timer to check the status until a
1026 * timer expires (link_transistion_jiffies_valid is
1027 * true when the timer is running.) Instead of using
1028 * a system timer, we just do a check whenever the
1029 * link timer is running - this clears the flag after
1030 * a suitable delay.
1031 */
1032 retval = 1;
1033 cp->link_transition = LINK_TRANSITION_REQUESTED_RESET;
1034 cp->link_transition_jiffies = jiffies;
1035 cp->link_transition_jiffies_valid = 1;
1036 } else {
1037 cp->link_transition = LINK_TRANSITION_ON_FAILURE;
1038 }
1039 netif_carrier_off(cp->dev);
1040 if (cp->opened && netif_msg_link(cp)) {
1041 printk(KERN_INFO "%s: PCS link down.\n",
1042 cp->dev->name);
1043 }
1044
1045 /* Cassini only: if you force a mode, there can be
1046 * sync problems on link down. to fix that, the following
1047 * things need to be checked:
1048 * 1) read serialink state register
1049 * 2) read pcs status register to verify link down.
1050 * 3) if link down and serial link == 0x03, then you need
1051 * to global reset the chip.
1052 */
1053 if ((cp->cas_flags & CAS_FLAG_REG_PLUS) == 0) {
1054 /* should check to see if we're in a forced mode */
1055 stat = readl(cp->regs + REG_PCS_SERDES_STATE);
1056 if (stat == 0x03)
1057 return 1;
1058 }
1059 } else if (cp->lstate == link_down) {
1060 if (link_transition_timeout != 0 &&
1061 cp->link_transition != LINK_TRANSITION_REQUESTED_RESET &&
1062 !cp->link_transition_jiffies_valid) {
1063 /* force a reset, as a workaround for the
1064 * link-failure problem. May want to move
1065 * this to a point a bit earlier in the
1066 * sequence.
1067 */
1068 retval = 1;
1069 cp->link_transition = LINK_TRANSITION_REQUESTED_RESET;
1070 cp->link_transition_jiffies = jiffies;
1071 cp->link_transition_jiffies_valid = 1;
1072 } else {
1073 cp->link_transition = LINK_TRANSITION_STILL_FAILED;
1074 }
1075 }
1076
1077 return retval;
1078}
1079
1080static int cas_pcs_interrupt(struct net_device *dev,
1081 struct cas *cp, u32 status)
1082{
1083 u32 stat = readl(cp->regs + REG_PCS_INTR_STATUS);
1084
1085 if ((stat & PCS_INTR_STATUS_LINK_CHANGE) == 0)
1086 return 0;
1087 return cas_pcs_link_check(cp);
1088}
1089
1090static int cas_txmac_interrupt(struct net_device *dev,
1091 struct cas *cp, u32 status)
1092{
1093 u32 txmac_stat = readl(cp->regs + REG_MAC_TX_STATUS);
1094
1095 if (!txmac_stat)
1096 return 0;
1097
1098 if (netif_msg_intr(cp))
1099 printk(KERN_DEBUG "%s: txmac interrupt, txmac_stat: 0x%x\n",
1100 cp->dev->name, txmac_stat);
1101
1102 /* Defer timer expiration is quite normal,
1103 * don't even log the event.
1104 */
1105 if ((txmac_stat & MAC_TX_DEFER_TIMER) &&
1106 !(txmac_stat & ~MAC_TX_DEFER_TIMER))
1107 return 0;
1108
1109 spin_lock(&cp->stat_lock[0]);
1110 if (txmac_stat & MAC_TX_UNDERRUN) {
1111 printk(KERN_ERR "%s: TX MAC xmit underrun.\n",
1112 dev->name);
1113 cp->net_stats[0].tx_fifo_errors++;
1114 }
1115
1116 if (txmac_stat & MAC_TX_MAX_PACKET_ERR) {
1117 printk(KERN_ERR "%s: TX MAC max packet size error.\n",
1118 dev->name);
1119 cp->net_stats[0].tx_errors++;
1120 }
1121
1122 /* The rest are all cases of one of the 16-bit TX
1123 * counters expiring.
1124 */
1125 if (txmac_stat & MAC_TX_COLL_NORMAL)
1126 cp->net_stats[0].collisions += 0x10000;
1127
1128 if (txmac_stat & MAC_TX_COLL_EXCESS) {
1129 cp->net_stats[0].tx_aborted_errors += 0x10000;
1130 cp->net_stats[0].collisions += 0x10000;
1131 }
1132
1133 if (txmac_stat & MAC_TX_COLL_LATE) {
1134 cp->net_stats[0].tx_aborted_errors += 0x10000;
1135 cp->net_stats[0].collisions += 0x10000;
1136 }
1137 spin_unlock(&cp->stat_lock[0]);
1138
1139 /* We do not keep track of MAC_TX_COLL_FIRST and
1140 * MAC_TX_PEAK_ATTEMPTS events.
1141 */
1142 return 0;
1143}
1144
1145static void cas_load_firmware(struct cas *cp, cas_hp_inst_t *firmware)
1146{
1147 cas_hp_inst_t *inst;
1148 u32 val;
1149 int i;
1150
1151 i = 0;
1152 while ((inst = firmware) && inst->note) {
1153 writel(i, cp->regs + REG_HP_INSTR_RAM_ADDR);
1154
1155 val = CAS_BASE(HP_INSTR_RAM_HI_VAL, inst->val);
1156 val |= CAS_BASE(HP_INSTR_RAM_HI_MASK, inst->mask);
1157 writel(val, cp->regs + REG_HP_INSTR_RAM_DATA_HI);
1158
1159 val = CAS_BASE(HP_INSTR_RAM_MID_OUTARG, inst->outarg >> 10);
1160 val |= CAS_BASE(HP_INSTR_RAM_MID_OUTOP, inst->outop);
1161 val |= CAS_BASE(HP_INSTR_RAM_MID_FNEXT, inst->fnext);
1162 val |= CAS_BASE(HP_INSTR_RAM_MID_FOFF, inst->foff);
1163 val |= CAS_BASE(HP_INSTR_RAM_MID_SNEXT, inst->snext);
1164 val |= CAS_BASE(HP_INSTR_RAM_MID_SOFF, inst->soff);
1165 val |= CAS_BASE(HP_INSTR_RAM_MID_OP, inst->op);
1166 writel(val, cp->regs + REG_HP_INSTR_RAM_DATA_MID);
1167
1168 val = CAS_BASE(HP_INSTR_RAM_LOW_OUTMASK, inst->outmask);
1169 val |= CAS_BASE(HP_INSTR_RAM_LOW_OUTSHIFT, inst->outshift);
1170 val |= CAS_BASE(HP_INSTR_RAM_LOW_OUTEN, inst->outenab);
1171 val |= CAS_BASE(HP_INSTR_RAM_LOW_OUTARG, inst->outarg);
1172 writel(val, cp->regs + REG_HP_INSTR_RAM_DATA_LOW);
1173 ++firmware;
1174 ++i;
1175 }
1176}
1177
1178static void cas_init_rx_dma(struct cas *cp)
1179{
1180 u64 desc_dma = cp->block_dvma;
1181 u32 val;
1182 int i, size;
1183
1184 /* rx free descriptors */
1185 val = CAS_BASE(RX_CFG_SWIVEL, RX_SWIVEL_OFF_VAL);
1186 val |= CAS_BASE(RX_CFG_DESC_RING, RX_DESC_RINGN_INDEX(0));
1187 val |= CAS_BASE(RX_CFG_COMP_RING, RX_COMP_RINGN_INDEX(0));
1188 if ((N_RX_DESC_RINGS > 1) &&
1189 (cp->cas_flags & CAS_FLAG_REG_PLUS)) /* do desc 2 */
1190 val |= CAS_BASE(RX_CFG_DESC_RING1, RX_DESC_RINGN_INDEX(1));
1191 writel(val, cp->regs + REG_RX_CFG);
1192
1193 val = (unsigned long) cp->init_rxds[0] -
1194 (unsigned long) cp->init_block;
1195 writel((desc_dma + val) >> 32, cp->regs + REG_RX_DB_HI);
1196 writel((desc_dma + val) & 0xffffffff, cp->regs + REG_RX_DB_LOW);
1197 writel(RX_DESC_RINGN_SIZE(0) - 4, cp->regs + REG_RX_KICK);
1198
1199 if (cp->cas_flags & CAS_FLAG_REG_PLUS) {
1200 /* rx desc 2 is for IPSEC packets. however,
1201 * we don't it that for that purpose.
1202 */
1203 val = (unsigned long) cp->init_rxds[1] -
1204 (unsigned long) cp->init_block;
1205 writel((desc_dma + val) >> 32, cp->regs + REG_PLUS_RX_DB1_HI);
1206 writel((desc_dma + val) & 0xffffffff, cp->regs +
1207 REG_PLUS_RX_DB1_LOW);
1208 writel(RX_DESC_RINGN_SIZE(1) - 4, cp->regs +
1209 REG_PLUS_RX_KICK1);
1210 }
1211
1212 /* rx completion registers */
1213 val = (unsigned long) cp->init_rxcs[0] -
1214 (unsigned long) cp->init_block;
1215 writel((desc_dma + val) >> 32, cp->regs + REG_RX_CB_HI);
1216 writel((desc_dma + val) & 0xffffffff, cp->regs + REG_RX_CB_LOW);
1217
1218 if (cp->cas_flags & CAS_FLAG_REG_PLUS) {
1219 /* rx comp 2-4 */
1220 for (i = 1; i < MAX_RX_COMP_RINGS; i++) {
1221 val = (unsigned long) cp->init_rxcs[i] -
1222 (unsigned long) cp->init_block;
1223 writel((desc_dma + val) >> 32, cp->regs +
1224 REG_PLUS_RX_CBN_HI(i));
1225 writel((desc_dma + val) & 0xffffffff, cp->regs +
1226 REG_PLUS_RX_CBN_LOW(i));
1227 }
1228 }
1229
1230 /* read selective clear regs to prevent spurious interrupts
1231 * on reset because complete == kick.
1232 * selective clear set up to prevent interrupts on resets
1233 */
1234 readl(cp->regs + REG_INTR_STATUS_ALIAS);
1235 writel(INTR_RX_DONE | INTR_RX_BUF_UNAVAIL, cp->regs + REG_ALIAS_CLEAR);
1236 if (cp->cas_flags & CAS_FLAG_REG_PLUS) {
1237 for (i = 1; i < N_RX_COMP_RINGS; i++)
1238 readl(cp->regs + REG_PLUS_INTRN_STATUS_ALIAS(i));
1239
1240 /* 2 is different from 3 and 4 */
1241 if (N_RX_COMP_RINGS > 1)
1242 writel(INTR_RX_DONE_ALT | INTR_RX_BUF_UNAVAIL_1,
1243 cp->regs + REG_PLUS_ALIASN_CLEAR(1));
1244
1245 for (i = 2; i < N_RX_COMP_RINGS; i++)
1246 writel(INTR_RX_DONE_ALT,
1247 cp->regs + REG_PLUS_ALIASN_CLEAR(i));
1248 }
1249
1250 /* set up pause thresholds */
1251 val = CAS_BASE(RX_PAUSE_THRESH_OFF,
1252 cp->rx_pause_off / RX_PAUSE_THRESH_QUANTUM);
1253 val |= CAS_BASE(RX_PAUSE_THRESH_ON,
1254 cp->rx_pause_on / RX_PAUSE_THRESH_QUANTUM);
1255 writel(val, cp->regs + REG_RX_PAUSE_THRESH);
1256
1257 /* zero out dma reassembly buffers */
1258 for (i = 0; i < 64; i++) {
1259 writel(i, cp->regs + REG_RX_TABLE_ADDR);
1260 writel(0x0, cp->regs + REG_RX_TABLE_DATA_LOW);
1261 writel(0x0, cp->regs + REG_RX_TABLE_DATA_MID);
1262 writel(0x0, cp->regs + REG_RX_TABLE_DATA_HI);
1263 }
1264
1265 /* make sure address register is 0 for normal operation */
1266 writel(0x0, cp->regs + REG_RX_CTRL_FIFO_ADDR);
1267 writel(0x0, cp->regs + REG_RX_IPP_FIFO_ADDR);
1268
1269 /* interrupt mitigation */
1270#ifdef USE_RX_BLANK
1271 val = CAS_BASE(RX_BLANK_INTR_TIME, RX_BLANK_INTR_TIME_VAL);
1272 val |= CAS_BASE(RX_BLANK_INTR_PKT, RX_BLANK_INTR_PKT_VAL);
1273 writel(val, cp->regs + REG_RX_BLANK);
1274#else
1275 writel(0x0, cp->regs + REG_RX_BLANK);
1276#endif
1277
1278 /* interrupt generation as a function of low water marks for
1279 * free desc and completion entries. these are used to trigger
1280 * housekeeping for rx descs. we don't use the free interrupt
1281 * as it's not very useful
1282 */
1283 /* val = CAS_BASE(RX_AE_THRESH_FREE, RX_AE_FREEN_VAL(0)); */
1284 val = CAS_BASE(RX_AE_THRESH_COMP, RX_AE_COMP_VAL);
1285 writel(val, cp->regs + REG_RX_AE_THRESH);
1286 if (cp->cas_flags & CAS_FLAG_REG_PLUS) {
1287 val = CAS_BASE(RX_AE1_THRESH_FREE, RX_AE_FREEN_VAL(1));
1288 writel(val, cp->regs + REG_PLUS_RX_AE1_THRESH);
1289 }
1290
1291 /* Random early detect registers. useful for congestion avoidance.
1292 * this should be tunable.
1293 */
1294 writel(0x0, cp->regs + REG_RX_RED);
1295
1296 /* receive page sizes. default == 2K (0x800) */
1297 val = 0;
1298 if (cp->page_size == 0x1000)
1299 val = 0x1;
1300 else if (cp->page_size == 0x2000)
1301 val = 0x2;
1302 else if (cp->page_size == 0x4000)
1303 val = 0x3;
1304
1305 /* round mtu + offset. constrain to page size. */
1306 size = cp->dev->mtu + 64;
1307 if (size > cp->page_size)
1308 size = cp->page_size;
1309
1310 if (size <= 0x400)
1311 i = 0x0;
1312 else if (size <= 0x800)
1313 i = 0x1;
1314 else if (size <= 0x1000)
1315 i = 0x2;
1316 else
1317 i = 0x3;
1318
1319 cp->mtu_stride = 1 << (i + 10);
1320 val = CAS_BASE(RX_PAGE_SIZE, val);
1321 val |= CAS_BASE(RX_PAGE_SIZE_MTU_STRIDE, i);
1322 val |= CAS_BASE(RX_PAGE_SIZE_MTU_COUNT, cp->page_size >> (i + 10));
1323 val |= CAS_BASE(RX_PAGE_SIZE_MTU_OFF, 0x1);
1324 writel(val, cp->regs + REG_RX_PAGE_SIZE);
1325
1326 /* enable the header parser if desired */
1327 if (CAS_HP_FIRMWARE == cas_prog_null)
1328 return;
1329
1330 val = CAS_BASE(HP_CFG_NUM_CPU, CAS_NCPUS > 63 ? 0 : CAS_NCPUS);
1331 val |= HP_CFG_PARSE_EN | HP_CFG_SYN_INC_MASK;
1332 val |= CAS_BASE(HP_CFG_TCP_THRESH, HP_TCP_THRESH_VAL);
1333 writel(val, cp->regs + REG_HP_CFG);
1334}
1335
1336static inline void cas_rxc_init(struct cas_rx_comp *rxc)
1337{
1338 memset(rxc, 0, sizeof(*rxc));
1339 rxc->word4 = cpu_to_le64(RX_COMP4_ZERO);
1340}
1341
1342/* NOTE: we use the ENC RX DESC ring for spares. the rx_page[0,1]
1343 * flipping is protected by the fact that the chip will not
1344 * hand back the same page index while it's being processed.
1345 */
1346static inline cas_page_t *cas_page_spare(struct cas *cp, const int index)
1347{
1348 cas_page_t *page = cp->rx_pages[1][index];
1349 cas_page_t *new;
1350
1351 if (page_count(page->buffer) == 1)
1352 return page;
1353
1354 new = cas_page_dequeue(cp);
1355 if (new) {
1356 spin_lock(&cp->rx_inuse_lock);
1357 list_add(&page->list, &cp->rx_inuse_list);
1358 spin_unlock(&cp->rx_inuse_lock);
1359 }
1360 return new;
1361}
1362
1363/* this needs to be changed if we actually use the ENC RX DESC ring */
1364static cas_page_t *cas_page_swap(struct cas *cp, const int ring,
1365 const int index)
1366{
1367 cas_page_t **page0 = cp->rx_pages[0];
1368 cas_page_t **page1 = cp->rx_pages[1];
1369
1370 /* swap if buffer is in use */
1371 if (page_count(page0[index]->buffer) > 1) {
1372 cas_page_t *new = cas_page_spare(cp, index);
1373 if (new) {
1374 page1[index] = page0[index];
1375 page0[index] = new;
1376 }
1377 }
1378 RX_USED_SET(page0[index], 0);
1379 return page0[index];
1380}
1381
1382static void cas_clean_rxds(struct cas *cp)
1383{
1384 /* only clean ring 0 as ring 1 is used for spare buffers */
1385 struct cas_rx_desc *rxd = cp->init_rxds[0];
1386 int i, size;
1387
1388 /* release all rx flows */
1389 for (i = 0; i < N_RX_FLOWS; i++) {
1390 struct sk_buff *skb;
1391 while ((skb = __skb_dequeue(&cp->rx_flows[i]))) {
1392 cas_skb_release(skb);
1393 }
1394 }
1395
1396 /* initialize descriptors */
1397 size = RX_DESC_RINGN_SIZE(0);
1398 for (i = 0; i < size; i++) {
1399 cas_page_t *page = cas_page_swap(cp, 0, i);
1400 rxd[i].buffer = cpu_to_le64(page->dma_addr);
1401 rxd[i].index = cpu_to_le64(CAS_BASE(RX_INDEX_NUM, i) |
1402 CAS_BASE(RX_INDEX_RING, 0));
1403 }
1404
1405 cp->rx_old[0] = RX_DESC_RINGN_SIZE(0) - 4;
1406 cp->rx_last[0] = 0;
1407 cp->cas_flags &= ~CAS_FLAG_RXD_POST(0);
1408}
1409
1410static void cas_clean_rxcs(struct cas *cp)
1411{
1412 int i, j;
1413
1414 /* take ownership of rx comp descriptors */
1415 memset(cp->rx_cur, 0, sizeof(*cp->rx_cur)*N_RX_COMP_RINGS);
1416 memset(cp->rx_new, 0, sizeof(*cp->rx_new)*N_RX_COMP_RINGS);
1417 for (i = 0; i < N_RX_COMP_RINGS; i++) {
1418 struct cas_rx_comp *rxc = cp->init_rxcs[i];
1419 for (j = 0; j < RX_COMP_RINGN_SIZE(i); j++) {
1420 cas_rxc_init(rxc + j);
1421 }
1422 }
1423}
1424
1425#if 0
1426/* When we get a RX fifo overflow, the RX unit is probably hung
1427 * so we do the following.
1428 *
1429 * If any part of the reset goes wrong, we return 1 and that causes the
1430 * whole chip to be reset.
1431 */
1432static int cas_rxmac_reset(struct cas *cp)
1433{
1434 struct net_device *dev = cp->dev;
1435 int limit;
1436 u32 val;
1437
1438 /* First, reset MAC RX. */
1439 writel(cp->mac_rx_cfg & ~MAC_RX_CFG_EN, cp->regs + REG_MAC_RX_CFG);
1440 for (limit = 0; limit < STOP_TRIES; limit++) {
1441 if (!(readl(cp->regs + REG_MAC_RX_CFG) & MAC_RX_CFG_EN))
1442 break;
1443 udelay(10);
1444 }
1445 if (limit == STOP_TRIES) {
1446 printk(KERN_ERR "%s: RX MAC will not disable, resetting whole "
1447 "chip.\n", dev->name);
1448 return 1;
1449 }
1450
1451 /* Second, disable RX DMA. */
1452 writel(0, cp->regs + REG_RX_CFG);
1453 for (limit = 0; limit < STOP_TRIES; limit++) {
1454 if (!(readl(cp->regs + REG_RX_CFG) & RX_CFG_DMA_EN))
1455 break;
1456 udelay(10);
1457 }
1458 if (limit == STOP_TRIES) {
1459 printk(KERN_ERR "%s: RX DMA will not disable, resetting whole "
1460 "chip.\n", dev->name);
1461 return 1;
1462 }
1463
1464 mdelay(5);
1465
1466 /* Execute RX reset command. */
1467 writel(SW_RESET_RX, cp->regs + REG_SW_RESET);
1468 for (limit = 0; limit < STOP_TRIES; limit++) {
1469 if (!(readl(cp->regs + REG_SW_RESET) & SW_RESET_RX))
1470 break;
1471 udelay(10);
1472 }
1473 if (limit == STOP_TRIES) {
1474 printk(KERN_ERR "%s: RX reset command will not execute, "
1475 "resetting whole chip.\n", dev->name);
1476 return 1;
1477 }
1478
1479 /* reset driver rx state */
1480 cas_clean_rxds(cp);
1481 cas_clean_rxcs(cp);
1482
1483 /* Now, reprogram the rest of RX unit. */
1484 cas_init_rx_dma(cp);
1485
1486 /* re-enable */
1487 val = readl(cp->regs + REG_RX_CFG);
1488 writel(val | RX_CFG_DMA_EN, cp->regs + REG_RX_CFG);
1489 writel(MAC_RX_FRAME_RECV, cp->regs + REG_MAC_RX_MASK);
1490 val = readl(cp->regs + REG_MAC_RX_CFG);
1491 writel(val | MAC_RX_CFG_EN, cp->regs + REG_MAC_RX_CFG);
1492 return 0;
1493}
1494#endif
1495
1496static int cas_rxmac_interrupt(struct net_device *dev, struct cas *cp,
1497 u32 status)
1498{
1499 u32 stat = readl(cp->regs + REG_MAC_RX_STATUS);
1500
1501 if (!stat)
1502 return 0;
1503
1504 if (netif_msg_intr(cp))
1505 printk(KERN_DEBUG "%s: rxmac interrupt, stat: 0x%x\n",
1506 cp->dev->name, stat);
1507
1508 /* these are all rollovers */
1509 spin_lock(&cp->stat_lock[0]);
1510 if (stat & MAC_RX_ALIGN_ERR)
1511 cp->net_stats[0].rx_frame_errors += 0x10000;
1512
1513 if (stat & MAC_RX_CRC_ERR)
1514 cp->net_stats[0].rx_crc_errors += 0x10000;
1515
1516 if (stat & MAC_RX_LEN_ERR)
1517 cp->net_stats[0].rx_length_errors += 0x10000;
1518
1519 if (stat & MAC_RX_OVERFLOW) {
1520 cp->net_stats[0].rx_over_errors++;
1521 cp->net_stats[0].rx_fifo_errors++;
1522 }
1523
1524 /* We do not track MAC_RX_FRAME_COUNT and MAC_RX_VIOL_ERR
1525 * events.
1526 */
1527 spin_unlock(&cp->stat_lock[0]);
1528 return 0;
1529}
1530
1531static int cas_mac_interrupt(struct net_device *dev, struct cas *cp,
1532 u32 status)
1533{
1534 u32 stat = readl(cp->regs + REG_MAC_CTRL_STATUS);
1535
1536 if (!stat)
1537 return 0;
1538
1539 if (netif_msg_intr(cp))
1540 printk(KERN_DEBUG "%s: mac interrupt, stat: 0x%x\n",
1541 cp->dev->name, stat);
1542
1543 /* This interrupt is just for pause frame and pause
1544 * tracking. It is useful for diagnostics and debug
1545 * but probably by default we will mask these events.
1546 */
1547 if (stat & MAC_CTRL_PAUSE_STATE)
1548 cp->pause_entered++;
1549
1550 if (stat & MAC_CTRL_PAUSE_RECEIVED)
1551 cp->pause_last_time_recvd = (stat >> 16);
1552
1553 return 0;
1554}
1555
1556
1557/* Must be invoked under cp->lock. */
1558static inline int cas_mdio_link_not_up(struct cas *cp)
1559{
1560 u16 val;
1561
1562 switch (cp->lstate) {
1563 case link_force_ret:
1564 if (netif_msg_link(cp))
1565 printk(KERN_INFO "%s: Autoneg failed again, keeping"
1566 " forced mode\n", cp->dev->name);
1567 cas_phy_write(cp, MII_BMCR, cp->link_fcntl);
1568 cp->timer_ticks = 5;
1569 cp->lstate = link_force_ok;
1570 cp->link_transition = LINK_TRANSITION_LINK_CONFIG;
1571 break;
1572
1573 case link_aneg:
1574 val = cas_phy_read(cp, MII_BMCR);
1575
1576 /* Try forced modes. we try things in the following order:
1577 * 1000 full -> 100 full/half -> 10 half
1578 */
1579 val &= ~(BMCR_ANRESTART | BMCR_ANENABLE);
1580 val |= BMCR_FULLDPLX;
1581 val |= (cp->cas_flags & CAS_FLAG_1000MB_CAP) ?
1582 CAS_BMCR_SPEED1000 : BMCR_SPEED100;
1583 cas_phy_write(cp, MII_BMCR, val);
1584 cp->timer_ticks = 5;
1585 cp->lstate = link_force_try;
1586 cp->link_transition = LINK_TRANSITION_LINK_CONFIG;
1587 break;
1588
1589 case link_force_try:
1590 /* Downgrade from 1000 to 100 to 10 Mbps if necessary. */
1591 val = cas_phy_read(cp, MII_BMCR);
1592 cp->timer_ticks = 5;
1593 if (val & CAS_BMCR_SPEED1000) { /* gigabit */
1594 val &= ~CAS_BMCR_SPEED1000;
1595 val |= (BMCR_SPEED100 | BMCR_FULLDPLX);
1596 cas_phy_write(cp, MII_BMCR, val);
1597 break;
1598 }
1599
1600 if (val & BMCR_SPEED100) {
1601 if (val & BMCR_FULLDPLX) /* fd failed */
1602 val &= ~BMCR_FULLDPLX;
1603 else { /* 100Mbps failed */
1604 val &= ~BMCR_SPEED100;
1605 }
1606 cas_phy_write(cp, MII_BMCR, val);
1607 break;
1608 }
1609 default:
1610 break;
1611 }
1612 return 0;
1613}
1614
1615
1616/* must be invoked with cp->lock held */
1617static int cas_mii_link_check(struct cas *cp, const u16 bmsr)
1618{
1619 int restart;
1620
1621 if (bmsr & BMSR_LSTATUS) {
1622 /* Ok, here we got a link. If we had it due to a forced
1623 * fallback, and we were configured for autoneg, we
1624 * retry a short autoneg pass. If you know your hub is
1625 * broken, use ethtool ;)
1626 */
1627 if ((cp->lstate == link_force_try) &&
1628 (cp->link_cntl & BMCR_ANENABLE)) {
1629 cp->lstate = link_force_ret;
1630 cp->link_transition = LINK_TRANSITION_LINK_CONFIG;
1631 cas_mif_poll(cp, 0);
1632 cp->link_fcntl = cas_phy_read(cp, MII_BMCR);
1633 cp->timer_ticks = 5;
1634 if (cp->opened && netif_msg_link(cp))
1635 printk(KERN_INFO "%s: Got link after fallback, retrying"
1636 " autoneg once...\n", cp->dev->name);
1637 cas_phy_write(cp, MII_BMCR,
1638 cp->link_fcntl | BMCR_ANENABLE |
1639 BMCR_ANRESTART);
1640 cas_mif_poll(cp, 1);
1641
1642 } else if (cp->lstate != link_up) {
1643 cp->lstate = link_up;
1644 cp->link_transition = LINK_TRANSITION_LINK_UP;
1645
1646 if (cp->opened) {
1647 cas_set_link_modes(cp);
1648 netif_carrier_on(cp->dev);
1649 }
1650 }
1651 return 0;
1652 }
1653
1654 /* link not up. if the link was previously up, we restart the
1655 * whole process
1656 */
1657 restart = 0;
1658 if (cp->lstate == link_up) {
1659 cp->lstate = link_down;
1660 cp->link_transition = LINK_TRANSITION_LINK_DOWN;
1661
1662 netif_carrier_off(cp->dev);
1663 if (cp->opened && netif_msg_link(cp))
1664 printk(KERN_INFO "%s: Link down\n",
1665 cp->dev->name);
1666 restart = 1;
1667
1668 } else if (++cp->timer_ticks > 10)
1669 cas_mdio_link_not_up(cp);
1670
1671 return restart;
1672}
1673
1674static int cas_mif_interrupt(struct net_device *dev, struct cas *cp,
1675 u32 status)
1676{
1677 u32 stat = readl(cp->regs + REG_MIF_STATUS);
1678 u16 bmsr;
1679
1680 /* check for a link change */
1681 if (CAS_VAL(MIF_STATUS_POLL_STATUS, stat) == 0)
1682 return 0;
1683
1684 bmsr = CAS_VAL(MIF_STATUS_POLL_DATA, stat);
1685 return cas_mii_link_check(cp, bmsr);
1686}
1687
1688static int cas_pci_interrupt(struct net_device *dev, struct cas *cp,
1689 u32 status)
1690{
1691 u32 stat = readl(cp->regs + REG_PCI_ERR_STATUS);
1692
1693 if (!stat)
1694 return 0;
1695
1696 printk(KERN_ERR "%s: PCI error [%04x:%04x] ", dev->name, stat,
1697 readl(cp->regs + REG_BIM_DIAG));
1698
1699 /* cassini+ has this reserved */
1700 if ((stat & PCI_ERR_BADACK) &&
1701 ((cp->cas_flags & CAS_FLAG_REG_PLUS) == 0))
1702 printk("<No ACK64# during ABS64 cycle> ");
1703
1704 if (stat & PCI_ERR_DTRTO)
1705 printk("<Delayed transaction timeout> ");
1706 if (stat & PCI_ERR_OTHER)
1707 printk("<other> ");
1708 if (stat & PCI_ERR_BIM_DMA_WRITE)
1709 printk("<BIM DMA 0 write req> ");
1710 if (stat & PCI_ERR_BIM_DMA_READ)
1711 printk("<BIM DMA 0 read req> ");
1712 printk("\n");
1713
1714 if (stat & PCI_ERR_OTHER) {
1715 u16 cfg;
1716
1717 /* Interrogate PCI config space for the
1718 * true cause.
1719 */
1720 pci_read_config_word(cp->pdev, PCI_STATUS, &cfg);
1721 printk(KERN_ERR "%s: Read PCI cfg space status [%04x]\n",
1722 dev->name, cfg);
1723 if (cfg & PCI_STATUS_PARITY)
1724 printk(KERN_ERR "%s: PCI parity error detected.\n",
1725 dev->name);
1726 if (cfg & PCI_STATUS_SIG_TARGET_ABORT)
1727 printk(KERN_ERR "%s: PCI target abort.\n",
1728 dev->name);
1729 if (cfg & PCI_STATUS_REC_TARGET_ABORT)
1730 printk(KERN_ERR "%s: PCI master acks target abort.\n",
1731 dev->name);
1732 if (cfg & PCI_STATUS_REC_MASTER_ABORT)
1733 printk(KERN_ERR "%s: PCI master abort.\n", dev->name);
1734 if (cfg & PCI_STATUS_SIG_SYSTEM_ERROR)
1735 printk(KERN_ERR "%s: PCI system error SERR#.\n",
1736 dev->name);
1737 if (cfg & PCI_STATUS_DETECTED_PARITY)
1738 printk(KERN_ERR "%s: PCI parity error.\n",
1739 dev->name);
1740
1741 /* Write the error bits back to clear them. */
1742 cfg &= (PCI_STATUS_PARITY |
1743 PCI_STATUS_SIG_TARGET_ABORT |
1744 PCI_STATUS_REC_TARGET_ABORT |
1745 PCI_STATUS_REC_MASTER_ABORT |
1746 PCI_STATUS_SIG_SYSTEM_ERROR |
1747 PCI_STATUS_DETECTED_PARITY);
1748 pci_write_config_word(cp->pdev, PCI_STATUS, cfg);
1749 }
1750
1751 /* For all PCI errors, we should reset the chip. */
1752 return 1;
1753}
1754
1755/* All non-normal interrupt conditions get serviced here.
1756 * Returns non-zero if we should just exit the interrupt
1757 * handler right now (ie. if we reset the card which invalidates
1758 * all of the other original irq status bits).
1759 */
1760static int cas_abnormal_irq(struct net_device *dev, struct cas *cp,
1761 u32 status)
1762{
1763 if (status & INTR_RX_TAG_ERROR) {
1764 /* corrupt RX tag framing */
1765 if (netif_msg_rx_err(cp))
1766 printk(KERN_DEBUG "%s: corrupt rx tag framing\n",
1767 cp->dev->name);
1768 spin_lock(&cp->stat_lock[0]);
1769 cp->net_stats[0].rx_errors++;
1770 spin_unlock(&cp->stat_lock[0]);
1771 goto do_reset;
1772 }
1773
1774 if (status & INTR_RX_LEN_MISMATCH) {
1775 /* length mismatch. */
1776 if (netif_msg_rx_err(cp))
1777 printk(KERN_DEBUG "%s: length mismatch for rx frame\n",
1778 cp->dev->name);
1779 spin_lock(&cp->stat_lock[0]);
1780 cp->net_stats[0].rx_errors++;
1781 spin_unlock(&cp->stat_lock[0]);
1782 goto do_reset;
1783 }
1784
1785 if (status & INTR_PCS_STATUS) {
1786 if (cas_pcs_interrupt(dev, cp, status))
1787 goto do_reset;
1788 }
1789
1790 if (status & INTR_TX_MAC_STATUS) {
1791 if (cas_txmac_interrupt(dev, cp, status))
1792 goto do_reset;
1793 }
1794
1795 if (status & INTR_RX_MAC_STATUS) {
1796 if (cas_rxmac_interrupt(dev, cp, status))
1797 goto do_reset;
1798 }
1799
1800 if (status & INTR_MAC_CTRL_STATUS) {
1801 if (cas_mac_interrupt(dev, cp, status))
1802 goto do_reset;
1803 }
1804
1805 if (status & INTR_MIF_STATUS) {
1806 if (cas_mif_interrupt(dev, cp, status))
1807 goto do_reset;
1808 }
1809
1810 if (status & INTR_PCI_ERROR_STATUS) {
1811 if (cas_pci_interrupt(dev, cp, status))
1812 goto do_reset;
1813 }
1814 return 0;
1815
1816do_reset:
1817#if 1
1818 atomic_inc(&cp->reset_task_pending);
1819 atomic_inc(&cp->reset_task_pending_all);
1820 printk(KERN_ERR "%s:reset called in cas_abnormal_irq [0x%x]\n",
1821 dev->name, status);
1822 schedule_work(&cp->reset_task);
1823#else
1824 atomic_set(&cp->reset_task_pending, CAS_RESET_ALL);
1825 printk(KERN_ERR "reset called in cas_abnormal_irq\n");
1826 schedule_work(&cp->reset_task);
1827#endif
1828 return 1;
1829}
1830
1831/* NOTE: CAS_TABORT returns 1 or 2 so that it can be used when
1832 * determining whether to do a netif_stop/wakeup
1833 */
1834#define CAS_TABORT(x) (((x)->cas_flags & CAS_FLAG_TARGET_ABORT) ? 2 : 1)
1835#define CAS_ROUND_PAGE(x) (((x) + PAGE_SIZE - 1) & PAGE_MASK)
1836static inline int cas_calc_tabort(struct cas *cp, const unsigned long addr,
1837 const int len)
1838{
1839 unsigned long off = addr + len;
1840
1841 if (CAS_TABORT(cp) == 1)
1842 return 0;
1843 if ((CAS_ROUND_PAGE(off) - off) > TX_TARGET_ABORT_LEN)
1844 return 0;
1845 return TX_TARGET_ABORT_LEN;
1846}
1847
1848static inline void cas_tx_ringN(struct cas *cp, int ring, int limit)
1849{
1850 struct cas_tx_desc *txds;
1851 struct sk_buff **skbs;
1852 struct net_device *dev = cp->dev;
1853 int entry, count;
1854
1855 spin_lock(&cp->tx_lock[ring]);
1856 txds = cp->init_txds[ring];
1857 skbs = cp->tx_skbs[ring];
1858 entry = cp->tx_old[ring];
1859
1860 count = TX_BUFF_COUNT(ring, entry, limit);
1861 while (entry != limit) {
1862 struct sk_buff *skb = skbs[entry];
1863 dma_addr_t daddr;
1864 u32 dlen;
1865 int frag;
1866
1867 if (!skb) {
1868 /* this should never occur */
1869 entry = TX_DESC_NEXT(ring, entry);
1870 continue;
1871 }
1872
1873 /* however, we might get only a partial skb release. */
1874 count -= skb_shinfo(skb)->nr_frags +
1875 + cp->tx_tiny_use[ring][entry].nbufs + 1;
1876 if (count < 0)
1877 break;
1878
1879 if (netif_msg_tx_done(cp))
1880 printk(KERN_DEBUG "%s: tx[%d] done, slot %d\n",
1881 cp->dev->name, ring, entry);
1882
1883 skbs[entry] = NULL;
1884 cp->tx_tiny_use[ring][entry].nbufs = 0;
1885
1886 for (frag = 0; frag <= skb_shinfo(skb)->nr_frags; frag++) {
1887 struct cas_tx_desc *txd = txds + entry;
1888
1889 daddr = le64_to_cpu(txd->buffer);
1890 dlen = CAS_VAL(TX_DESC_BUFLEN,
1891 le64_to_cpu(txd->control));
1892 pci_unmap_page(cp->pdev, daddr, dlen,
1893 PCI_DMA_TODEVICE);
1894 entry = TX_DESC_NEXT(ring, entry);
1895
1896 /* tiny buffer may follow */
1897 if (cp->tx_tiny_use[ring][entry].used) {
1898 cp->tx_tiny_use[ring][entry].used = 0;
1899 entry = TX_DESC_NEXT(ring, entry);
1900 }
1901 }
1902
1903 spin_lock(&cp->stat_lock[ring]);
1904 cp->net_stats[ring].tx_packets++;
1905 cp->net_stats[ring].tx_bytes += skb->len;
1906 spin_unlock(&cp->stat_lock[ring]);
1907 dev_kfree_skb_irq(skb);
1908 }
1909 cp->tx_old[ring] = entry;
1910
1911 /* this is wrong for multiple tx rings. the net device needs
1912 * multiple queues for this to do the right thing. we wait
1913 * for 2*packets to be available when using tiny buffers
1914 */
1915 if (netif_queue_stopped(dev) &&
1916 (TX_BUFFS_AVAIL(cp, ring) > CAS_TABORT(cp)*(MAX_SKB_FRAGS + 1)))
1917 netif_wake_queue(dev);
1918 spin_unlock(&cp->tx_lock[ring]);
1919}
1920
1921static void cas_tx(struct net_device *dev, struct cas *cp,
1922 u32 status)
1923{
1924 int limit, ring;
1925#ifdef USE_TX_COMPWB
1926 u64 compwb = le64_to_cpu(cp->init_block->tx_compwb);
1927#endif
1928 if (netif_msg_intr(cp))
1929 printk(KERN_DEBUG "%s: tx interrupt, status: 0x%x, %lx\n",
1930 cp->dev->name, status, compwb);
1931 /* process all the rings */
1932 for (ring = 0; ring < N_TX_RINGS; ring++) {
1933#ifdef USE_TX_COMPWB
1934 /* use the completion writeback registers */
1935 limit = (CAS_VAL(TX_COMPWB_MSB, compwb) << 8) |
1936 CAS_VAL(TX_COMPWB_LSB, compwb);
1937 compwb = TX_COMPWB_NEXT(compwb);
1938#else
1939 limit = readl(cp->regs + REG_TX_COMPN(ring));
1940#endif
1941 if (cp->tx_old[ring] != limit)
1942 cas_tx_ringN(cp, ring, limit);
1943 }
1944}
1945
1946
1947static int cas_rx_process_pkt(struct cas *cp, struct cas_rx_comp *rxc,
1948 int entry, const u64 *words,
1949 struct sk_buff **skbref)
1950{
1951 int dlen, hlen, len, i, alloclen;
1952 int off, swivel = RX_SWIVEL_OFF_VAL;
1953 struct cas_page *page;
1954 struct sk_buff *skb;
1955 void *addr, *crcaddr;
1956 char *p;
1957
1958 hlen = CAS_VAL(RX_COMP2_HDR_SIZE, words[1]);
1959 dlen = CAS_VAL(RX_COMP1_DATA_SIZE, words[0]);
1960 len = hlen + dlen;
1961
1962 if (RX_COPY_ALWAYS || (words[2] & RX_COMP3_SMALL_PKT))
1963 alloclen = len;
1964 else
1965 alloclen = max(hlen, RX_COPY_MIN);
1966
1967 skb = dev_alloc_skb(alloclen + swivel + cp->crc_size);
1968 if (skb == NULL)
1969 return -1;
1970
1971 *skbref = skb;
1972 skb->dev = cp->dev;
1973 skb_reserve(skb, swivel);
1974
1975 p = skb->data;
1976 addr = crcaddr = NULL;
1977 if (hlen) { /* always copy header pages */
1978 i = CAS_VAL(RX_COMP2_HDR_INDEX, words[1]);
1979 page = cp->rx_pages[CAS_VAL(RX_INDEX_RING, i)][CAS_VAL(RX_INDEX_NUM, i)];
1980 off = CAS_VAL(RX_COMP2_HDR_OFF, words[1]) * 0x100 +
1981 swivel;
1982
1983 i = hlen;
1984 if (!dlen) /* attach FCS */
1985 i += cp->crc_size;
1986 pci_dma_sync_single_for_cpu(cp->pdev, page->dma_addr + off, i,
1987 PCI_DMA_FROMDEVICE);
1988 addr = cas_page_map(page->buffer);
1989 memcpy(p, addr + off, i);
1990 pci_dma_sync_single_for_device(cp->pdev, page->dma_addr + off, i,
1991 PCI_DMA_FROMDEVICE);
1992 cas_page_unmap(addr);
1993 RX_USED_ADD(page, 0x100);
1994 p += hlen;
1995 swivel = 0;
1996 }
1997
1998
1999 if (alloclen < (hlen + dlen)) {
2000 skb_frag_t *frag = skb_shinfo(skb)->frags;
2001
2002 /* normal or jumbo packets. we use frags */
2003 i = CAS_VAL(RX_COMP1_DATA_INDEX, words[0]);
2004 page = cp->rx_pages[CAS_VAL(RX_INDEX_RING, i)][CAS_VAL(RX_INDEX_NUM, i)];
2005 off = CAS_VAL(RX_COMP1_DATA_OFF, words[0]) + swivel;
2006
2007 hlen = min(cp->page_size - off, dlen);
2008 if (hlen < 0) {
2009 if (netif_msg_rx_err(cp)) {
2010 printk(KERN_DEBUG "%s: rx page overflow: "
2011 "%d\n", cp->dev->name, hlen);
2012 }
2013 dev_kfree_skb_irq(skb);
2014 return -1;
2015 }
2016 i = hlen;
2017 if (i == dlen) /* attach FCS */
2018 i += cp->crc_size;
2019 pci_dma_sync_single_for_cpu(cp->pdev, page->dma_addr + off, i,
2020 PCI_DMA_FROMDEVICE);
2021
2022 /* make sure we always copy a header */
2023 swivel = 0;
2024 if (p == (char *) skb->data) { /* not split */
2025 addr = cas_page_map(page->buffer);
2026 memcpy(p, addr + off, RX_COPY_MIN);
2027 pci_dma_sync_single_for_device(cp->pdev, page->dma_addr + off, i,
2028 PCI_DMA_FROMDEVICE);
2029 cas_page_unmap(addr);
2030 off += RX_COPY_MIN;
2031 swivel = RX_COPY_MIN;
2032 RX_USED_ADD(page, cp->mtu_stride);
2033 } else {
2034 RX_USED_ADD(page, hlen);
2035 }
2036 skb_put(skb, alloclen);
2037
2038 skb_shinfo(skb)->nr_frags++;
2039 skb->data_len += hlen - swivel;
2040 skb->len += hlen - swivel;
2041
2042 get_page(page->buffer);
2043 frag->page = page->buffer;
2044 frag->page_offset = off;
2045 frag->size = hlen - swivel;
2046
2047 /* any more data? */
2048 if ((words[0] & RX_COMP1_SPLIT_PKT) && ((dlen -= hlen) > 0)) {
2049 hlen = dlen;
2050 off = 0;
2051
2052 i = CAS_VAL(RX_COMP2_NEXT_INDEX, words[1]);
2053 page = cp->rx_pages[CAS_VAL(RX_INDEX_RING, i)][CAS_VAL(RX_INDEX_NUM, i)];
2054 pci_dma_sync_single_for_cpu(cp->pdev, page->dma_addr,
2055 hlen + cp->crc_size,
2056 PCI_DMA_FROMDEVICE);
2057 pci_dma_sync_single_for_device(cp->pdev, page->dma_addr,
2058 hlen + cp->crc_size,
2059 PCI_DMA_FROMDEVICE);
2060
2061 skb_shinfo(skb)->nr_frags++;
2062 skb->data_len += hlen;
2063 skb->len += hlen;
2064 frag++;
2065
2066 get_page(page->buffer);
2067 frag->page = page->buffer;
2068 frag->page_offset = 0;
2069 frag->size = hlen;
2070 RX_USED_ADD(page, hlen + cp->crc_size);
2071 }
2072
2073 if (cp->crc_size) {
2074 addr = cas_page_map(page->buffer);
2075 crcaddr = addr + off + hlen;
2076 }
2077
2078 } else {
2079 /* copying packet */
2080 if (!dlen)
2081 goto end_copy_pkt;
2082
2083 i = CAS_VAL(RX_COMP1_DATA_INDEX, words[0]);
2084 page = cp->rx_pages[CAS_VAL(RX_INDEX_RING, i)][CAS_VAL(RX_INDEX_NUM, i)];
2085 off = CAS_VAL(RX_COMP1_DATA_OFF, words[0]) + swivel;
2086 hlen = min(cp->page_size - off, dlen);
2087 if (hlen < 0) {
2088 if (netif_msg_rx_err(cp)) {
2089 printk(KERN_DEBUG "%s: rx page overflow: "
2090 "%d\n", cp->dev->name, hlen);
2091 }
2092 dev_kfree_skb_irq(skb);
2093 return -1;
2094 }
2095 i = hlen;
2096 if (i == dlen) /* attach FCS */
2097 i += cp->crc_size;
2098 pci_dma_sync_single_for_cpu(cp->pdev, page->dma_addr + off, i,
2099 PCI_DMA_FROMDEVICE);
2100 addr = cas_page_map(page->buffer);
2101 memcpy(p, addr + off, i);
2102 pci_dma_sync_single_for_device(cp->pdev, page->dma_addr + off, i,
2103 PCI_DMA_FROMDEVICE);
2104 cas_page_unmap(addr);
2105 if (p == (char *) skb->data) /* not split */
2106 RX_USED_ADD(page, cp->mtu_stride);
2107 else
2108 RX_USED_ADD(page, i);
2109
2110 /* any more data? */
2111 if ((words[0] & RX_COMP1_SPLIT_PKT) && ((dlen -= hlen) > 0)) {
2112 p += hlen;
2113 i = CAS_VAL(RX_COMP2_NEXT_INDEX, words[1]);
2114 page = cp->rx_pages[CAS_VAL(RX_INDEX_RING, i)][CAS_VAL(RX_INDEX_NUM, i)];
2115 pci_dma_sync_single_for_cpu(cp->pdev, page->dma_addr,
2116 dlen + cp->crc_size,
2117 PCI_DMA_FROMDEVICE);
2118 addr = cas_page_map(page->buffer);
2119 memcpy(p, addr, dlen + cp->crc_size);
2120 pci_dma_sync_single_for_device(cp->pdev, page->dma_addr,
2121 dlen + cp->crc_size,
2122 PCI_DMA_FROMDEVICE);
2123 cas_page_unmap(addr);
2124 RX_USED_ADD(page, dlen + cp->crc_size);
2125 }
2126end_copy_pkt:
2127 if (cp->crc_size) {
2128 addr = NULL;
2129 crcaddr = skb->data + alloclen;
2130 }
2131 skb_put(skb, alloclen);
2132 }
2133
2134 i = CAS_VAL(RX_COMP4_TCP_CSUM, words[3]);
2135 if (cp->crc_size) {
2136 /* checksum includes FCS. strip it out. */
2137 i = csum_fold(csum_partial(crcaddr, cp->crc_size, i));
2138 if (addr)
2139 cas_page_unmap(addr);
2140 }
2141 skb->csum = ntohs(i ^ 0xffff);
2142 skb->ip_summed = CHECKSUM_HW;
2143 skb->protocol = eth_type_trans(skb, cp->dev);
2144 return len;
2145}
2146
2147
2148/* we can handle up to 64 rx flows at a time. we do the same thing
2149 * as nonreassm except that we batch up the buffers.
2150 * NOTE: we currently just treat each flow as a bunch of packets that
2151 * we pass up. a better way would be to coalesce the packets
2152 * into a jumbo packet. to do that, we need to do the following:
2153 * 1) the first packet will have a clean split between header and
2154 * data. save both.
2155 * 2) each time the next flow packet comes in, extend the
2156 * data length and merge the checksums.
2157 * 3) on flow release, fix up the header.
2158 * 4) make sure the higher layer doesn't care.
2159 * because packets get coalesced, we shouldn't run into fragment count
2160 * issues.
2161 */
2162static inline void cas_rx_flow_pkt(struct cas *cp, const u64 *words,
2163 struct sk_buff *skb)
2164{
2165 int flowid = CAS_VAL(RX_COMP3_FLOWID, words[2]) & (N_RX_FLOWS - 1);
2166 struct sk_buff_head *flow = &cp->rx_flows[flowid];
2167
2168 /* this is protected at a higher layer, so no need to
2169 * do any additional locking here. stick the buffer
2170 * at the end.
2171 */
2172 __skb_insert(skb, flow->prev, (struct sk_buff *) flow, flow);
2173 if (words[0] & RX_COMP1_RELEASE_FLOW) {
2174 while ((skb = __skb_dequeue(flow))) {
2175 cas_skb_release(skb);
2176 }
2177 }
2178}
2179
2180/* put rx descriptor back on ring. if a buffer is in use by a higher
2181 * layer, this will need to put in a replacement.
2182 */
2183static void cas_post_page(struct cas *cp, const int ring, const int index)
2184{
2185 cas_page_t *new;
2186 int entry;
2187
2188 entry = cp->rx_old[ring];
2189
2190 new = cas_page_swap(cp, ring, index);
2191 cp->init_rxds[ring][entry].buffer = cpu_to_le64(new->dma_addr);
2192 cp->init_rxds[ring][entry].index =
2193 cpu_to_le64(CAS_BASE(RX_INDEX_NUM, index) |
2194 CAS_BASE(RX_INDEX_RING, ring));
2195
2196 entry = RX_DESC_ENTRY(ring, entry + 1);
2197 cp->rx_old[ring] = entry;
2198
2199 if (entry % 4)
2200 return;
2201
2202 if (ring == 0)
2203 writel(entry, cp->regs + REG_RX_KICK);
2204 else if ((N_RX_DESC_RINGS > 1) &&
2205 (cp->cas_flags & CAS_FLAG_REG_PLUS))
2206 writel(entry, cp->regs + REG_PLUS_RX_KICK1);
2207}
2208
2209
2210/* only when things are bad */
2211static int cas_post_rxds_ringN(struct cas *cp, int ring, int num)
2212{
2213 unsigned int entry, last, count, released;
2214 int cluster;
2215 cas_page_t **page = cp->rx_pages[ring];
2216
2217 entry = cp->rx_old[ring];
2218
2219 if (netif_msg_intr(cp))
2220 printk(KERN_DEBUG "%s: rxd[%d] interrupt, done: %d\n",
2221 cp->dev->name, ring, entry);
2222
2223 cluster = -1;
2224 count = entry & 0x3;
2225 last = RX_DESC_ENTRY(ring, num ? entry + num - 4: entry - 4);
2226 released = 0;
2227 while (entry != last) {
2228 /* make a new buffer if it's still in use */
2229 if (page_count(page[entry]->buffer) > 1) {
2230 cas_page_t *new = cas_page_dequeue(cp);
2231 if (!new) {
2232 /* let the timer know that we need to
2233 * do this again
2234 */
2235 cp->cas_flags |= CAS_FLAG_RXD_POST(ring);
2236 if (!timer_pending(&cp->link_timer))
2237 mod_timer(&cp->link_timer, jiffies +
2238 CAS_LINK_FAST_TIMEOUT);
2239 cp->rx_old[ring] = entry;
2240 cp->rx_last[ring] = num ? num - released : 0;
2241 return -ENOMEM;
2242 }
2243 spin_lock(&cp->rx_inuse_lock);
2244 list_add(&page[entry]->list, &cp->rx_inuse_list);
2245 spin_unlock(&cp->rx_inuse_lock);
2246 cp->init_rxds[ring][entry].buffer =
2247 cpu_to_le64(new->dma_addr);
2248 page[entry] = new;
2249
2250 }
2251
2252 if (++count == 4) {
2253 cluster = entry;
2254 count = 0;
2255 }
2256 released++;
2257 entry = RX_DESC_ENTRY(ring, entry + 1);
2258 }
2259 cp->rx_old[ring] = entry;
2260
2261 if (cluster < 0)
2262 return 0;
2263
2264 if (ring == 0)
2265 writel(cluster, cp->regs + REG_RX_KICK);
2266 else if ((N_RX_DESC_RINGS > 1) &&
2267 (cp->cas_flags & CAS_FLAG_REG_PLUS))
2268 writel(cluster, cp->regs + REG_PLUS_RX_KICK1);
2269 return 0;
2270}
2271
2272
2273/* process a completion ring. packets are set up in three basic ways:
2274 * small packets: should be copied header + data in single buffer.
2275 * large packets: header and data in a single buffer.
2276 * split packets: header in a separate buffer from data.
2277 * data may be in multiple pages. data may be > 256
2278 * bytes but in a single page.
2279 *
2280 * NOTE: RX page posting is done in this routine as well. while there's
2281 * the capability of using multiple RX completion rings, it isn't
2282 * really worthwhile due to the fact that the page posting will
2283 * force serialization on the single descriptor ring.
2284 */
2285static int cas_rx_ringN(struct cas *cp, int ring, int budget)
2286{
2287 struct cas_rx_comp *rxcs = cp->init_rxcs[ring];
2288 int entry, drops;
2289 int npackets = 0;
2290
2291 if (netif_msg_intr(cp))
2292 printk(KERN_DEBUG "%s: rx[%d] interrupt, done: %d/%d\n",
2293 cp->dev->name, ring,
2294 readl(cp->regs + REG_RX_COMP_HEAD),
2295 cp->rx_new[ring]);
2296
2297 entry = cp->rx_new[ring];
2298 drops = 0;
2299 while (1) {
2300 struct cas_rx_comp *rxc = rxcs + entry;
2301 struct sk_buff *skb;
2302 int type, len;
2303 u64 words[4];
2304 int i, dring;
2305
2306 words[0] = le64_to_cpu(rxc->word1);
2307 words[1] = le64_to_cpu(rxc->word2);
2308 words[2] = le64_to_cpu(rxc->word3);
2309 words[3] = le64_to_cpu(rxc->word4);
2310
2311 /* don't touch if still owned by hw */
2312 type = CAS_VAL(RX_COMP1_TYPE, words[0]);
2313 if (type == 0)
2314 break;
2315
2316 /* hw hasn't cleared the zero bit yet */
2317 if (words[3] & RX_COMP4_ZERO) {
2318 break;
2319 }
2320
2321 /* get info on the packet */
2322 if (words[3] & (RX_COMP4_LEN_MISMATCH | RX_COMP4_BAD)) {
2323 spin_lock(&cp->stat_lock[ring]);
2324 cp->net_stats[ring].rx_errors++;
2325 if (words[3] & RX_COMP4_LEN_MISMATCH)
2326 cp->net_stats[ring].rx_length_errors++;
2327 if (words[3] & RX_COMP4_BAD)
2328 cp->net_stats[ring].rx_crc_errors++;
2329 spin_unlock(&cp->stat_lock[ring]);
2330
2331 /* We'll just return it to Cassini. */
2332 drop_it:
2333 spin_lock(&cp->stat_lock[ring]);
2334 ++cp->net_stats[ring].rx_dropped;
2335 spin_unlock(&cp->stat_lock[ring]);
2336 goto next;
2337 }
2338
2339 len = cas_rx_process_pkt(cp, rxc, entry, words, &skb);
2340 if (len < 0) {
2341 ++drops;
2342 goto drop_it;
2343 }
2344
2345 /* see if it's a flow re-assembly or not. the driver
2346 * itself handles release back up.
2347 */
2348 if (RX_DONT_BATCH || (type == 0x2)) {
2349 /* non-reassm: these always get released */
2350 cas_skb_release(skb);
2351 } else {
2352 cas_rx_flow_pkt(cp, words, skb);
2353 }
2354
2355 spin_lock(&cp->stat_lock[ring]);
2356 cp->net_stats[ring].rx_packets++;
2357 cp->net_stats[ring].rx_bytes += len;
2358 spin_unlock(&cp->stat_lock[ring]);
2359 cp->dev->last_rx = jiffies;
2360
2361 next:
2362 npackets++;
2363
2364 /* should it be released? */
2365 if (words[0] & RX_COMP1_RELEASE_HDR) {
2366 i = CAS_VAL(RX_COMP2_HDR_INDEX, words[1]);
2367 dring = CAS_VAL(RX_INDEX_RING, i);
2368 i = CAS_VAL(RX_INDEX_NUM, i);
2369 cas_post_page(cp, dring, i);
2370 }
2371
2372 if (words[0] & RX_COMP1_RELEASE_DATA) {
2373 i = CAS_VAL(RX_COMP1_DATA_INDEX, words[0]);
2374 dring = CAS_VAL(RX_INDEX_RING, i);
2375 i = CAS_VAL(RX_INDEX_NUM, i);
2376 cas_post_page(cp, dring, i);
2377 }
2378
2379 if (words[0] & RX_COMP1_RELEASE_NEXT) {
2380 i = CAS_VAL(RX_COMP2_NEXT_INDEX, words[1]);
2381 dring = CAS_VAL(RX_INDEX_RING, i);
2382 i = CAS_VAL(RX_INDEX_NUM, i);
2383 cas_post_page(cp, dring, i);
2384 }
2385
2386 /* skip to the next entry */
2387 entry = RX_COMP_ENTRY(ring, entry + 1 +
2388 CAS_VAL(RX_COMP1_SKIP, words[0]));
2389#ifdef USE_NAPI
2390 if (budget && (npackets >= budget))
2391 break;
2392#endif
2393 }
2394 cp->rx_new[ring] = entry;
2395
2396 if (drops)
2397 printk(KERN_INFO "%s: Memory squeeze, deferring packet.\n",
2398 cp->dev->name);
2399 return npackets;
2400}
2401
2402
2403/* put completion entries back on the ring */
2404static void cas_post_rxcs_ringN(struct net_device *dev,
2405 struct cas *cp, int ring)
2406{
2407 struct cas_rx_comp *rxc = cp->init_rxcs[ring];
2408 int last, entry;
2409
2410 last = cp->rx_cur[ring];
2411 entry = cp->rx_new[ring];
2412 if (netif_msg_intr(cp))
2413 printk(KERN_DEBUG "%s: rxc[%d] interrupt, done: %d/%d\n",
2414 dev->name, ring, readl(cp->regs + REG_RX_COMP_HEAD),
2415 entry);
2416
2417 /* zero and re-mark descriptors */
2418 while (last != entry) {
2419 cas_rxc_init(rxc + last);
2420 last = RX_COMP_ENTRY(ring, last + 1);
2421 }
2422 cp->rx_cur[ring] = last;
2423
2424 if (ring == 0)
2425 writel(last, cp->regs + REG_RX_COMP_TAIL);
2426 else if (cp->cas_flags & CAS_FLAG_REG_PLUS)
2427 writel(last, cp->regs + REG_PLUS_RX_COMPN_TAIL(ring));
2428}
2429
2430
2431
2432/* cassini can use all four PCI interrupts for the completion ring.
2433 * rings 3 and 4 are identical
2434 */
2435#if defined(USE_PCI_INTC) || defined(USE_PCI_INTD)
2436static inline void cas_handle_irqN(struct net_device *dev,
2437 struct cas *cp, const u32 status,
2438 const int ring)
2439{
2440 if (status & (INTR_RX_COMP_FULL_ALT | INTR_RX_COMP_AF_ALT))
2441 cas_post_rxcs_ringN(dev, cp, ring);
2442}
2443
2444static irqreturn_t cas_interruptN(int irq, void *dev_id, struct pt_regs *regs)
2445{
2446 struct net_device *dev = dev_id;
2447 struct cas *cp = netdev_priv(dev);
2448 unsigned long flags;
2449 int ring;
2450 u32 status = readl(cp->regs + REG_PLUS_INTRN_STATUS(ring));
2451
2452 /* check for shared irq */
2453 if (status == 0)
2454 return IRQ_NONE;
2455
2456 ring = (irq == cp->pci_irq_INTC) ? 2 : 3;
2457 spin_lock_irqsave(&cp->lock, flags);
2458 if (status & INTR_RX_DONE_ALT) { /* handle rx separately */
2459#ifdef USE_NAPI
2460 cas_mask_intr(cp);
2461 netif_rx_schedule(dev);
2462#else
2463 cas_rx_ringN(cp, ring, 0);
2464#endif
2465 status &= ~INTR_RX_DONE_ALT;
2466 }
2467
2468 if (status)
2469 cas_handle_irqN(dev, cp, status, ring);
2470 spin_unlock_irqrestore(&cp->lock, flags);
2471 return IRQ_HANDLED;
2472}
2473#endif
2474
2475#ifdef USE_PCI_INTB
2476/* everything but rx packets */
2477static inline void cas_handle_irq1(struct cas *cp, const u32 status)
2478{
2479 if (status & INTR_RX_BUF_UNAVAIL_1) {
2480 /* Frame arrived, no free RX buffers available.
2481 * NOTE: we can get this on a link transition. */
2482 cas_post_rxds_ringN(cp, 1, 0);
2483 spin_lock(&cp->stat_lock[1]);
2484 cp->net_stats[1].rx_dropped++;
2485 spin_unlock(&cp->stat_lock[1]);
2486 }
2487
2488 if (status & INTR_RX_BUF_AE_1)
2489 cas_post_rxds_ringN(cp, 1, RX_DESC_RINGN_SIZE(1) -
2490 RX_AE_FREEN_VAL(1));
2491
2492 if (status & (INTR_RX_COMP_AF | INTR_RX_COMP_FULL))
2493 cas_post_rxcs_ringN(cp, 1);
2494}
2495
2496/* ring 2 handles a few more events than 3 and 4 */
2497static irqreturn_t cas_interrupt1(int irq, void *dev_id, struct pt_regs *regs)
2498{
2499 struct net_device *dev = dev_id;
2500 struct cas *cp = netdev_priv(dev);
2501 unsigned long flags;
2502 u32 status = readl(cp->regs + REG_PLUS_INTRN_STATUS(1));
2503
2504 /* check for shared interrupt */
2505 if (status == 0)
2506 return IRQ_NONE;
2507
2508 spin_lock_irqsave(&cp->lock, flags);
2509 if (status & INTR_RX_DONE_ALT) { /* handle rx separately */
2510#ifdef USE_NAPI
2511 cas_mask_intr(cp);
2512 netif_rx_schedule(dev);
2513#else
2514 cas_rx_ringN(cp, 1, 0);
2515#endif
2516 status &= ~INTR_RX_DONE_ALT;
2517 }
2518 if (status)
2519 cas_handle_irq1(cp, status);
2520 spin_unlock_irqrestore(&cp->lock, flags);
2521 return IRQ_HANDLED;
2522}
2523#endif
2524
2525static inline void cas_handle_irq(struct net_device *dev,
2526 struct cas *cp, const u32 status)
2527{
2528 /* housekeeping interrupts */
2529 if (status & INTR_ERROR_MASK)
2530 cas_abnormal_irq(dev, cp, status);
2531
2532 if (status & INTR_RX_BUF_UNAVAIL) {
2533 /* Frame arrived, no free RX buffers available.
2534 * NOTE: we can get this on a link transition.
2535 */
2536 cas_post_rxds_ringN(cp, 0, 0);
2537 spin_lock(&cp->stat_lock[0]);
2538 cp->net_stats[0].rx_dropped++;
2539 spin_unlock(&cp->stat_lock[0]);
2540 } else if (status & INTR_RX_BUF_AE) {
2541 cas_post_rxds_ringN(cp, 0, RX_DESC_RINGN_SIZE(0) -
2542 RX_AE_FREEN_VAL(0));
2543 }
2544
2545 if (status & (INTR_RX_COMP_AF | INTR_RX_COMP_FULL))
2546 cas_post_rxcs_ringN(dev, cp, 0);
2547}
2548
2549static irqreturn_t cas_interrupt(int irq, void *dev_id, struct pt_regs *regs)
2550{
2551 struct net_device *dev = dev_id;
2552 struct cas *cp = netdev_priv(dev);
2553 unsigned long flags;
2554 u32 status = readl(cp->regs + REG_INTR_STATUS);
2555
2556 if (status == 0)
2557 return IRQ_NONE;
2558
2559 spin_lock_irqsave(&cp->lock, flags);
2560 if (status & (INTR_TX_ALL | INTR_TX_INTME)) {
2561 cas_tx(dev, cp, status);
2562 status &= ~(INTR_TX_ALL | INTR_TX_INTME);
2563 }
2564
2565 if (status & INTR_RX_DONE) {
2566#ifdef USE_NAPI
2567 cas_mask_intr(cp);
2568 netif_rx_schedule(dev);
2569#else
2570 cas_rx_ringN(cp, 0, 0);
2571#endif
2572 status &= ~INTR_RX_DONE;
2573 }
2574
2575 if (status)
2576 cas_handle_irq(dev, cp, status);
2577 spin_unlock_irqrestore(&cp->lock, flags);
2578 return IRQ_HANDLED;
2579}
2580
2581
2582#ifdef USE_NAPI
2583static int cas_poll(struct net_device *dev, int *budget)
2584{
2585 struct cas *cp = netdev_priv(dev);
2586 int i, enable_intr, todo, credits;
2587 u32 status = readl(cp->regs + REG_INTR_STATUS);
2588 unsigned long flags;
2589
2590 spin_lock_irqsave(&cp->lock, flags);
2591 cas_tx(dev, cp, status);
2592 spin_unlock_irqrestore(&cp->lock, flags);
2593
2594 /* NAPI rx packets. we spread the credits across all of the
2595 * rxc rings
2596 */
2597 todo = min(*budget, dev->quota);
2598
2599 /* to make sure we're fair with the work we loop through each
2600 * ring N_RX_COMP_RING times with a request of
2601 * todo / N_RX_COMP_RINGS
2602 */
2603 enable_intr = 1;
2604 credits = 0;
2605 for (i = 0; i < N_RX_COMP_RINGS; i++) {
2606 int j;
2607 for (j = 0; j < N_RX_COMP_RINGS; j++) {
2608 credits += cas_rx_ringN(cp, j, todo / N_RX_COMP_RINGS);
2609 if (credits >= todo) {
2610 enable_intr = 0;
2611 goto rx_comp;
2612 }
2613 }
2614 }
2615
2616rx_comp:
2617 *budget -= credits;
2618 dev->quota -= credits;
2619
2620 /* final rx completion */
2621 spin_lock_irqsave(&cp->lock, flags);
2622 if (status)
2623 cas_handle_irq(dev, cp, status);
2624
2625#ifdef USE_PCI_INTB
2626 if (N_RX_COMP_RINGS > 1) {
2627 status = readl(cp->regs + REG_PLUS_INTRN_STATUS(1));
2628 if (status)
2629 cas_handle_irq1(dev, cp, status);
2630 }
2631#endif
2632
2633#ifdef USE_PCI_INTC
2634 if (N_RX_COMP_RINGS > 2) {
2635 status = readl(cp->regs + REG_PLUS_INTRN_STATUS(2));
2636 if (status)
2637 cas_handle_irqN(dev, cp, status, 2);
2638 }
2639#endif
2640
2641#ifdef USE_PCI_INTD
2642 if (N_RX_COMP_RINGS > 3) {
2643 status = readl(cp->regs + REG_PLUS_INTRN_STATUS(3));
2644 if (status)
2645 cas_handle_irqN(dev, cp, status, 3);
2646 }
2647#endif
2648 spin_unlock_irqrestore(&cp->lock, flags);
2649 if (enable_intr) {
2650 netif_rx_complete(dev);
2651 cas_unmask_intr(cp);
2652 return 0;
2653 }
2654 return 1;
2655}
2656#endif
2657
2658#ifdef CONFIG_NET_POLL_CONTROLLER
2659static void cas_netpoll(struct net_device *dev)
2660{
2661 struct cas *cp = netdev_priv(dev);
2662
2663 cas_disable_irq(cp, 0);
2664 cas_interrupt(cp->pdev->irq, dev, NULL);
2665 cas_enable_irq(cp, 0);
2666
2667#ifdef USE_PCI_INTB
2668 if (N_RX_COMP_RINGS > 1) {
2669 /* cas_interrupt1(); */
2670 }
2671#endif
2672#ifdef USE_PCI_INTC
2673 if (N_RX_COMP_RINGS > 2) {
2674 /* cas_interruptN(); */
2675 }
2676#endif
2677#ifdef USE_PCI_INTD
2678 if (N_RX_COMP_RINGS > 3) {
2679 /* cas_interruptN(); */
2680 }
2681#endif
2682}
2683#endif
2684
2685static void cas_tx_timeout(struct net_device *dev)
2686{
2687 struct cas *cp = netdev_priv(dev);
2688
2689 printk(KERN_ERR "%s: transmit timed out, resetting\n", dev->name);
2690 if (!cp->hw_running) {
2691 printk("%s: hrm.. hw not running!\n", dev->name);
2692 return;
2693 }
2694
2695 printk(KERN_ERR "%s: MIF_STATE[%08x]\n",
2696 dev->name, readl(cp->regs + REG_MIF_STATE_MACHINE));
2697
2698 printk(KERN_ERR "%s: MAC_STATE[%08x]\n",
2699 dev->name, readl(cp->regs + REG_MAC_STATE_MACHINE));
2700
2701 printk(KERN_ERR "%s: TX_STATE[%08x:%08x:%08x] "
2702 "FIFO[%08x:%08x:%08x] SM1[%08x] SM2[%08x]\n",
2703 dev->name,
2704 readl(cp->regs + REG_TX_CFG),
2705 readl(cp->regs + REG_MAC_TX_STATUS),
2706 readl(cp->regs + REG_MAC_TX_CFG),
2707 readl(cp->regs + REG_TX_FIFO_PKT_CNT),
2708 readl(cp->regs + REG_TX_FIFO_WRITE_PTR),
2709 readl(cp->regs + REG_TX_FIFO_READ_PTR),
2710 readl(cp->regs + REG_TX_SM_1),
2711 readl(cp->regs + REG_TX_SM_2));
2712
2713 printk(KERN_ERR "%s: RX_STATE[%08x:%08x:%08x]\n",
2714 dev->name,
2715 readl(cp->regs + REG_RX_CFG),
2716 readl(cp->regs + REG_MAC_RX_STATUS),
2717 readl(cp->regs + REG_MAC_RX_CFG));
2718
2719 printk(KERN_ERR "%s: HP_STATE[%08x:%08x:%08x:%08x]\n",
2720 dev->name,
2721 readl(cp->regs + REG_HP_STATE_MACHINE),
2722 readl(cp->regs + REG_HP_STATUS0),
2723 readl(cp->regs + REG_HP_STATUS1),
2724 readl(cp->regs + REG_HP_STATUS2));
2725
2726#if 1
2727 atomic_inc(&cp->reset_task_pending);
2728 atomic_inc(&cp->reset_task_pending_all);
2729 schedule_work(&cp->reset_task);
2730#else
2731 atomic_set(&cp->reset_task_pending, CAS_RESET_ALL);
2732 schedule_work(&cp->reset_task);
2733#endif
2734}
2735
2736static inline int cas_intme(int ring, int entry)
2737{
2738 /* Algorithm: IRQ every 1/2 of descriptors. */
2739 if (!(entry & ((TX_DESC_RINGN_SIZE(ring) >> 1) - 1)))
2740 return 1;
2741 return 0;
2742}
2743
2744
2745static void cas_write_txd(struct cas *cp, int ring, int entry,
2746 dma_addr_t mapping, int len, u64 ctrl, int last)
2747{
2748 struct cas_tx_desc *txd = cp->init_txds[ring] + entry;
2749
2750 ctrl |= CAS_BASE(TX_DESC_BUFLEN, len);
2751 if (cas_intme(ring, entry))
2752 ctrl |= TX_DESC_INTME;
2753 if (last)
2754 ctrl |= TX_DESC_EOF;
2755 txd->control = cpu_to_le64(ctrl);
2756 txd->buffer = cpu_to_le64(mapping);
2757}
2758
2759static inline void *tx_tiny_buf(struct cas *cp, const int ring,
2760 const int entry)
2761{
2762 return cp->tx_tiny_bufs[ring] + TX_TINY_BUF_LEN*entry;
2763}
2764
2765static inline dma_addr_t tx_tiny_map(struct cas *cp, const int ring,
2766 const int entry, const int tentry)
2767{
2768 cp->tx_tiny_use[ring][tentry].nbufs++;
2769 cp->tx_tiny_use[ring][entry].used = 1;
2770 return cp->tx_tiny_dvma[ring] + TX_TINY_BUF_LEN*entry;
2771}
2772
2773static inline int cas_xmit_tx_ringN(struct cas *cp, int ring,
2774 struct sk_buff *skb)
2775{
2776 struct net_device *dev = cp->dev;
2777 int entry, nr_frags, frag, tabort, tentry;
2778 dma_addr_t mapping;
2779 unsigned long flags;
2780 u64 ctrl;
2781 u32 len;
2782
2783 spin_lock_irqsave(&cp->tx_lock[ring], flags);
2784
2785 /* This is a hard error, log it. */
2786 if (TX_BUFFS_AVAIL(cp, ring) <=
2787 CAS_TABORT(cp)*(skb_shinfo(skb)->nr_frags + 1)) {
2788 netif_stop_queue(dev);
2789 spin_unlock_irqrestore(&cp->tx_lock[ring], flags);
2790 printk(KERN_ERR PFX "%s: BUG! Tx Ring full when "
2791 "queue awake!\n", dev->name);
2792 return 1;
2793 }
2794
2795 ctrl = 0;
2796 if (skb->ip_summed == CHECKSUM_HW) {
2797 u64 csum_start_off, csum_stuff_off;
2798
2799 csum_start_off = (u64) (skb->h.raw - skb->data);
2800 csum_stuff_off = (u64) ((skb->h.raw + skb->csum) - skb->data);
2801
2802 ctrl = TX_DESC_CSUM_EN |
2803 CAS_BASE(TX_DESC_CSUM_START, csum_start_off) |
2804 CAS_BASE(TX_DESC_CSUM_STUFF, csum_stuff_off);
2805 }
2806
2807 entry = cp->tx_new[ring];
2808 cp->tx_skbs[ring][entry] = skb;
2809
2810 nr_frags = skb_shinfo(skb)->nr_frags;
2811 len = skb_headlen(skb);
2812 mapping = pci_map_page(cp->pdev, virt_to_page(skb->data),
2813 offset_in_page(skb->data), len,
2814 PCI_DMA_TODEVICE);
2815
2816 tentry = entry;
2817 tabort = cas_calc_tabort(cp, (unsigned long) skb->data, len);
2818 if (unlikely(tabort)) {
2819 /* NOTE: len is always > tabort */
2820 cas_write_txd(cp, ring, entry, mapping, len - tabort,
2821 ctrl | TX_DESC_SOF, 0);
2822 entry = TX_DESC_NEXT(ring, entry);
2823
2824 memcpy(tx_tiny_buf(cp, ring, entry), skb->data +
2825 len - tabort, tabort);
2826 mapping = tx_tiny_map(cp, ring, entry, tentry);
2827 cas_write_txd(cp, ring, entry, mapping, tabort, ctrl,
2828 (nr_frags == 0));
2829 } else {
2830 cas_write_txd(cp, ring, entry, mapping, len, ctrl |
2831 TX_DESC_SOF, (nr_frags == 0));
2832 }
2833 entry = TX_DESC_NEXT(ring, entry);
2834
2835 for (frag = 0; frag < nr_frags; frag++) {
2836 skb_frag_t *fragp = &skb_shinfo(skb)->frags[frag];
2837
2838 len = fragp->size;
2839 mapping = pci_map_page(cp->pdev, fragp->page,
2840 fragp->page_offset, len,
2841 PCI_DMA_TODEVICE);
2842
2843 tabort = cas_calc_tabort(cp, fragp->page_offset, len);
2844 if (unlikely(tabort)) {
2845 void *addr;
2846
2847 /* NOTE: len is always > tabort */
2848 cas_write_txd(cp, ring, entry, mapping, len - tabort,
2849 ctrl, 0);
2850 entry = TX_DESC_NEXT(ring, entry);
2851
2852 addr = cas_page_map(fragp->page);
2853 memcpy(tx_tiny_buf(cp, ring, entry),
2854 addr + fragp->page_offset + len - tabort,
2855 tabort);
2856 cas_page_unmap(addr);
2857 mapping = tx_tiny_map(cp, ring, entry, tentry);
2858 len = tabort;
2859 }
2860
2861 cas_write_txd(cp, ring, entry, mapping, len, ctrl,
2862 (frag + 1 == nr_frags));
2863 entry = TX_DESC_NEXT(ring, entry);
2864 }
2865
2866 cp->tx_new[ring] = entry;
2867 if (TX_BUFFS_AVAIL(cp, ring) <= CAS_TABORT(cp)*(MAX_SKB_FRAGS + 1))
2868 netif_stop_queue(dev);
2869
2870 if (netif_msg_tx_queued(cp))
2871 printk(KERN_DEBUG "%s: tx[%d] queued, slot %d, skblen %d, "
2872 "avail %d\n",
2873 dev->name, ring, entry, skb->len,
2874 TX_BUFFS_AVAIL(cp, ring));
2875 writel(entry, cp->regs + REG_TX_KICKN(ring));
2876 spin_unlock_irqrestore(&cp->tx_lock[ring], flags);
2877 return 0;
2878}
2879
2880static int cas_start_xmit(struct sk_buff *skb, struct net_device *dev)
2881{
2882 struct cas *cp = netdev_priv(dev);
2883
2884 /* this is only used as a load-balancing hint, so it doesn't
2885 * need to be SMP safe
2886 */
2887 static int ring;
2888
2889 skb = skb_padto(skb, cp->min_frame_size);
2890 if (!skb)
2891 return 0;
2892
2893 /* XXX: we need some higher-level QoS hooks to steer packets to
2894 * individual queues.
2895 */
2896 if (cas_xmit_tx_ringN(cp, ring++ & N_TX_RINGS_MASK, skb))
2897 return 1;
2898 dev->trans_start = jiffies;
2899 return 0;
2900}
2901
2902static void cas_init_tx_dma(struct cas *cp)
2903{
2904 u64 desc_dma = cp->block_dvma;
2905 unsigned long off;
2906 u32 val;
2907 int i;
2908
2909 /* set up tx completion writeback registers. must be 8-byte aligned */
2910#ifdef USE_TX_COMPWB
2911 off = offsetof(struct cas_init_block, tx_compwb);
2912 writel((desc_dma + off) >> 32, cp->regs + REG_TX_COMPWB_DB_HI);
2913 writel((desc_dma + off) & 0xffffffff, cp->regs + REG_TX_COMPWB_DB_LOW);
2914#endif
2915
2916 /* enable completion writebacks, enable paced mode,
2917 * disable read pipe, and disable pre-interrupt compwbs
2918 */
2919 val = TX_CFG_COMPWB_Q1 | TX_CFG_COMPWB_Q2 |
2920 TX_CFG_COMPWB_Q3 | TX_CFG_COMPWB_Q4 |
2921 TX_CFG_DMA_RDPIPE_DIS | TX_CFG_PACED_MODE |
2922 TX_CFG_INTR_COMPWB_DIS;
2923
2924 /* write out tx ring info and tx desc bases */
2925 for (i = 0; i < MAX_TX_RINGS; i++) {
2926 off = (unsigned long) cp->init_txds[i] -
2927 (unsigned long) cp->init_block;
2928
2929 val |= CAS_TX_RINGN_BASE(i);
2930 writel((desc_dma + off) >> 32, cp->regs + REG_TX_DBN_HI(i));
2931 writel((desc_dma + off) & 0xffffffff, cp->regs +
2932 REG_TX_DBN_LOW(i));
2933 /* don't zero out the kick register here as the system
2934 * will wedge
2935 */
2936 }
2937 writel(val, cp->regs + REG_TX_CFG);
2938
2939 /* program max burst sizes. these numbers should be different
2940 * if doing QoS.
2941 */
2942#ifdef USE_QOS
2943 writel(0x800, cp->regs + REG_TX_MAXBURST_0);
2944 writel(0x1600, cp->regs + REG_TX_MAXBURST_1);
2945 writel(0x2400, cp->regs + REG_TX_MAXBURST_2);
2946 writel(0x4800, cp->regs + REG_TX_MAXBURST_3);
2947#else
2948 writel(0x800, cp->regs + REG_TX_MAXBURST_0);
2949 writel(0x800, cp->regs + REG_TX_MAXBURST_1);
2950 writel(0x800, cp->regs + REG_TX_MAXBURST_2);
2951 writel(0x800, cp->regs + REG_TX_MAXBURST_3);
2952#endif
2953}
2954
2955/* Must be invoked under cp->lock. */
2956static inline void cas_init_dma(struct cas *cp)
2957{
2958 cas_init_tx_dma(cp);
2959 cas_init_rx_dma(cp);
2960}
2961
2962/* Must be invoked under cp->lock. */
2963static u32 cas_setup_multicast(struct cas *cp)
2964{
2965 u32 rxcfg = 0;
2966 int i;
2967
2968 if (cp->dev->flags & IFF_PROMISC) {
2969 rxcfg |= MAC_RX_CFG_PROMISC_EN;
2970
2971 } else if (cp->dev->flags & IFF_ALLMULTI) {
2972 for (i=0; i < 16; i++)
2973 writel(0xFFFF, cp->regs + REG_MAC_HASH_TABLEN(i));
2974 rxcfg |= MAC_RX_CFG_HASH_FILTER_EN;
2975
2976 } else {
2977 u16 hash_table[16];
2978 u32 crc;
2979 struct dev_mc_list *dmi = cp->dev->mc_list;
2980 int i;
2981
2982 /* use the alternate mac address registers for the
2983 * first 15 multicast addresses
2984 */
2985 for (i = 1; i <= CAS_MC_EXACT_MATCH_SIZE; i++) {
2986 if (!dmi) {
2987 writel(0x0, cp->regs + REG_MAC_ADDRN(i*3 + 0));
2988 writel(0x0, cp->regs + REG_MAC_ADDRN(i*3 + 1));
2989 writel(0x0, cp->regs + REG_MAC_ADDRN(i*3 + 2));
2990 continue;
2991 }
2992 writel((dmi->dmi_addr[4] << 8) | dmi->dmi_addr[5],
2993 cp->regs + REG_MAC_ADDRN(i*3 + 0));
2994 writel((dmi->dmi_addr[2] << 8) | dmi->dmi_addr[3],
2995 cp->regs + REG_MAC_ADDRN(i*3 + 1));
2996 writel((dmi->dmi_addr[0] << 8) | dmi->dmi_addr[1],
2997 cp->regs + REG_MAC_ADDRN(i*3 + 2));
2998 dmi = dmi->next;
2999 }
3000
3001 /* use hw hash table for the next series of
3002 * multicast addresses
3003 */
3004 memset(hash_table, 0, sizeof(hash_table));
3005 while (dmi) {
3006 crc = ether_crc_le(ETH_ALEN, dmi->dmi_addr);
3007 crc >>= 24;
3008 hash_table[crc >> 4] |= 1 << (15 - (crc & 0xf));
3009 dmi = dmi->next;
3010 }
3011 for (i=0; i < 16; i++)
3012 writel(hash_table[i], cp->regs +
3013 REG_MAC_HASH_TABLEN(i));
3014 rxcfg |= MAC_RX_CFG_HASH_FILTER_EN;
3015 }
3016
3017 return rxcfg;
3018}
3019
3020/* must be invoked under cp->stat_lock[N_TX_RINGS] */
3021static void cas_clear_mac_err(struct cas *cp)
3022{
3023 writel(0, cp->regs + REG_MAC_COLL_NORMAL);
3024 writel(0, cp->regs + REG_MAC_COLL_FIRST);
3025 writel(0, cp->regs + REG_MAC_COLL_EXCESS);
3026 writel(0, cp->regs + REG_MAC_COLL_LATE);
3027 writel(0, cp->regs + REG_MAC_TIMER_DEFER);
3028 writel(0, cp->regs + REG_MAC_ATTEMPTS_PEAK);
3029 writel(0, cp->regs + REG_MAC_RECV_FRAME);
3030 writel(0, cp->regs + REG_MAC_LEN_ERR);
3031 writel(0, cp->regs + REG_MAC_ALIGN_ERR);
3032 writel(0, cp->regs + REG_MAC_FCS_ERR);
3033 writel(0, cp->regs + REG_MAC_RX_CODE_ERR);
3034}
3035
3036
3037static void cas_mac_reset(struct cas *cp)
3038{
3039 int i;
3040
3041 /* do both TX and RX reset */
3042 writel(0x1, cp->regs + REG_MAC_TX_RESET);
3043 writel(0x1, cp->regs + REG_MAC_RX_RESET);
3044
3045 /* wait for TX */
3046 i = STOP_TRIES;
3047 while (i-- > 0) {
3048 if (readl(cp->regs + REG_MAC_TX_RESET) == 0)
3049 break;
3050 udelay(10);
3051 }
3052
3053 /* wait for RX */
3054 i = STOP_TRIES;
3055 while (i-- > 0) {
3056 if (readl(cp->regs + REG_MAC_RX_RESET) == 0)
3057 break;
3058 udelay(10);
3059 }
3060
3061 if (readl(cp->regs + REG_MAC_TX_RESET) |
3062 readl(cp->regs + REG_MAC_RX_RESET))
3063 printk(KERN_ERR "%s: mac tx[%d]/rx[%d] reset failed [%08x]\n",
3064 cp->dev->name, readl(cp->regs + REG_MAC_TX_RESET),
3065 readl(cp->regs + REG_MAC_RX_RESET),
3066 readl(cp->regs + REG_MAC_STATE_MACHINE));
3067}
3068
3069
3070/* Must be invoked under cp->lock. */
3071static void cas_init_mac(struct cas *cp)
3072{
3073 unsigned char *e = &cp->dev->dev_addr[0];
3074 int i;
3075#ifdef CONFIG_CASSINI_MULTICAST_REG_WRITE
3076 u32 rxcfg;
3077#endif
3078 cas_mac_reset(cp);
3079
3080 /* setup core arbitration weight register */
3081 writel(CAWR_RR_DIS, cp->regs + REG_CAWR);
3082
3083 /* XXX Use pci_dma_burst_advice() */
3084#if !defined(CONFIG_SPARC64) && !defined(CONFIG_ALPHA)
3085 /* set the infinite burst register for chips that don't have
3086 * pci issues.
3087 */
3088 if ((cp->cas_flags & CAS_FLAG_TARGET_ABORT) == 0)
3089 writel(INF_BURST_EN, cp->regs + REG_INF_BURST);
3090#endif
3091
3092 writel(0x1BF0, cp->regs + REG_MAC_SEND_PAUSE);
3093
3094 writel(0x00, cp->regs + REG_MAC_IPG0);
3095 writel(0x08, cp->regs + REG_MAC_IPG1);
3096 writel(0x04, cp->regs + REG_MAC_IPG2);
3097
3098 /* change later for 802.3z */
3099 writel(0x40, cp->regs + REG_MAC_SLOT_TIME);
3100
3101 /* min frame + FCS */
3102 writel(ETH_ZLEN + 4, cp->regs + REG_MAC_FRAMESIZE_MIN);
3103
3104 /* Ethernet payload + header + FCS + optional VLAN tag. NOTE: we
3105 * specify the maximum frame size to prevent RX tag errors on
3106 * oversized frames.
3107 */
3108 writel(CAS_BASE(MAC_FRAMESIZE_MAX_BURST, 0x2000) |
3109 CAS_BASE(MAC_FRAMESIZE_MAX_FRAME,
3110 (CAS_MAX_MTU + ETH_HLEN + 4 + 4)),
3111 cp->regs + REG_MAC_FRAMESIZE_MAX);
3112
3113 /* NOTE: crc_size is used as a surrogate for half-duplex.
3114 * workaround saturn half-duplex issue by increasing preamble
3115 * size to 65 bytes.
3116 */
3117 if ((cp->cas_flags & CAS_FLAG_SATURN) && cp->crc_size)
3118 writel(0x41, cp->regs + REG_MAC_PA_SIZE);
3119 else
3120 writel(0x07, cp->regs + REG_MAC_PA_SIZE);
3121 writel(0x04, cp->regs + REG_MAC_JAM_SIZE);
3122 writel(0x10, cp->regs + REG_MAC_ATTEMPT_LIMIT);
3123 writel(0x8808, cp->regs + REG_MAC_CTRL_TYPE);
3124
3125 writel((e[5] | (e[4] << 8)) & 0x3ff, cp->regs + REG_MAC_RANDOM_SEED);
3126
3127 writel(0, cp->regs + REG_MAC_ADDR_FILTER0);
3128 writel(0, cp->regs + REG_MAC_ADDR_FILTER1);
3129 writel(0, cp->regs + REG_MAC_ADDR_FILTER2);
3130 writel(0, cp->regs + REG_MAC_ADDR_FILTER2_1_MASK);
3131 writel(0, cp->regs + REG_MAC_ADDR_FILTER0_MASK);
3132
3133 /* setup mac address in perfect filter array */
3134 for (i = 0; i < 45; i++)
3135 writel(0x0, cp->regs + REG_MAC_ADDRN(i));
3136
3137 writel((e[4] << 8) | e[5], cp->regs + REG_MAC_ADDRN(0));
3138 writel((e[2] << 8) | e[3], cp->regs + REG_MAC_ADDRN(1));
3139 writel((e[0] << 8) | e[1], cp->regs + REG_MAC_ADDRN(2));
3140
3141 writel(0x0001, cp->regs + REG_MAC_ADDRN(42));
3142 writel(0xc200, cp->regs + REG_MAC_ADDRN(43));
3143 writel(0x0180, cp->regs + REG_MAC_ADDRN(44));
3144
3145#ifndef CONFIG_CASSINI_MULTICAST_REG_WRITE
3146 cp->mac_rx_cfg = cas_setup_multicast(cp);
3147#else
3148 /* WTZ: Do what Adrian did in cas_set_multicast. Doing
3149 * a writel does not seem to be necessary because Cassini
3150 * seems to preserve the configuration when we do the reset.
3151 * If the chip is in trouble, though, it is not clear if we
3152 * can really count on this behavior. cas_set_multicast uses
3153 * spin_lock_irqsave, but we are called only in cas_init_hw and
3154 * cas_init_hw is protected by cas_lock_all, which calls
3155 * spin_lock_irq (so it doesn't need to save the flags, and
3156 * we should be OK for the writel, as that is the only
3157 * difference).
3158 */
3159 cp->mac_rx_cfg = rxcfg = cas_setup_multicast(cp);
3160 writel(rxcfg, cp->regs + REG_MAC_RX_CFG);
3161#endif
3162 spin_lock(&cp->stat_lock[N_TX_RINGS]);
3163 cas_clear_mac_err(cp);
3164 spin_unlock(&cp->stat_lock[N_TX_RINGS]);
3165
3166 /* Setup MAC interrupts. We want to get all of the interesting
3167 * counter expiration events, but we do not want to hear about
3168 * normal rx/tx as the DMA engine tells us that.
3169 */
3170 writel(MAC_TX_FRAME_XMIT, cp->regs + REG_MAC_TX_MASK);
3171 writel(MAC_RX_FRAME_RECV, cp->regs + REG_MAC_RX_MASK);
3172
3173 /* Don't enable even the PAUSE interrupts for now, we
3174 * make no use of those events other than to record them.
3175 */
3176 writel(0xffffffff, cp->regs + REG_MAC_CTRL_MASK);
3177}
3178
3179/* Must be invoked under cp->lock. */
3180static void cas_init_pause_thresholds(struct cas *cp)
3181{
3182 /* Calculate pause thresholds. Setting the OFF threshold to the
3183 * full RX fifo size effectively disables PAUSE generation
3184 */
3185 if (cp->rx_fifo_size <= (2 * 1024)) {
3186 cp->rx_pause_off = cp->rx_pause_on = cp->rx_fifo_size;
3187 } else {
3188 int max_frame = (cp->dev->mtu + ETH_HLEN + 4 + 4 + 64) & ~63;
3189 if (max_frame * 3 > cp->rx_fifo_size) {
3190 cp->rx_pause_off = 7104;
3191 cp->rx_pause_on = 960;
3192 } else {
3193 int off = (cp->rx_fifo_size - (max_frame * 2));
3194 int on = off - max_frame;
3195 cp->rx_pause_off = off;
3196 cp->rx_pause_on = on;
3197 }
3198 }
3199}
3200
3201static int cas_vpd_match(const void __iomem *p, const char *str)
3202{
3203 int len = strlen(str) + 1;
3204 int i;
3205
3206 for (i = 0; i < len; i++) {
3207 if (readb(p + i) != str[i])
3208 return 0;
3209 }
3210 return 1;
3211}
3212
3213
3214/* get the mac address by reading the vpd information in the rom.
3215 * also get the phy type and determine if there's an entropy generator.
3216 * NOTE: this is a bit convoluted for the following reasons:
3217 * 1) vpd info has order-dependent mac addresses for multinic cards
3218 * 2) the only way to determine the nic order is to use the slot
3219 * number.
3220 * 3) fiber cards don't have bridges, so their slot numbers don't
3221 * mean anything.
3222 * 4) we don't actually know we have a fiber card until after
3223 * the mac addresses are parsed.
3224 */
3225static int cas_get_vpd_info(struct cas *cp, unsigned char *dev_addr,
3226 const int offset)
3227{
3228 void __iomem *p = cp->regs + REG_EXPANSION_ROM_RUN_START;
3229 void __iomem *base, *kstart;
3230 int i, len;
3231 int found = 0;
3232#define VPD_FOUND_MAC 0x01
3233#define VPD_FOUND_PHY 0x02
3234
3235 int phy_type = CAS_PHY_MII_MDIO0; /* default phy type */
3236 int mac_off = 0;
3237
3238 /* give us access to the PROM */
3239 writel(BIM_LOCAL_DEV_PROM | BIM_LOCAL_DEV_PAD,
3240 cp->regs + REG_BIM_LOCAL_DEV_EN);
3241
3242 /* check for an expansion rom */
3243 if (readb(p) != 0x55 || readb(p + 1) != 0xaa)
3244 goto use_random_mac_addr;
3245
3246 /* search for beginning of vpd */
3247 base = 0;
3248 for (i = 2; i < EXPANSION_ROM_SIZE; i++) {
3249 /* check for PCIR */
3250 if ((readb(p + i + 0) == 0x50) &&
3251 (readb(p + i + 1) == 0x43) &&
3252 (readb(p + i + 2) == 0x49) &&
3253 (readb(p + i + 3) == 0x52)) {
3254 base = p + (readb(p + i + 8) |
3255 (readb(p + i + 9) << 8));
3256 break;
3257 }
3258 }
3259
3260 if (!base || (readb(base) != 0x82))
3261 goto use_random_mac_addr;
3262
3263 i = (readb(base + 1) | (readb(base + 2) << 8)) + 3;
3264 while (i < EXPANSION_ROM_SIZE) {
3265 if (readb(base + i) != 0x90) /* no vpd found */
3266 goto use_random_mac_addr;
3267
3268 /* found a vpd field */
3269 len = readb(base + i + 1) | (readb(base + i + 2) << 8);
3270
3271 /* extract keywords */
3272 kstart = base + i + 3;
3273 p = kstart;
3274 while ((p - kstart) < len) {
3275 int klen = readb(p + 2);
3276 int j;
3277 char type;
3278
3279 p += 3;
3280
3281 /* look for the following things:
3282 * -- correct length == 29
3283 * 3 (type) + 2 (size) +
3284 * 18 (strlen("local-mac-address") + 1) +
3285 * 6 (mac addr)
3286 * -- VPD Instance 'I'
3287 * -- VPD Type Bytes 'B'
3288 * -- VPD data length == 6
3289 * -- property string == local-mac-address
3290 *
3291 * -- correct length == 24
3292 * 3 (type) + 2 (size) +
3293 * 12 (strlen("entropy-dev") + 1) +
3294 * 7 (strlen("vms110") + 1)
3295 * -- VPD Instance 'I'
3296 * -- VPD Type String 'B'
3297 * -- VPD data length == 7
3298 * -- property string == entropy-dev
3299 *
3300 * -- correct length == 18
3301 * 3 (type) + 2 (size) +
3302 * 9 (strlen("phy-type") + 1) +
3303 * 4 (strlen("pcs") + 1)
3304 * -- VPD Instance 'I'
3305 * -- VPD Type String 'S'
3306 * -- VPD data length == 4
3307 * -- property string == phy-type
3308 *
3309 * -- correct length == 23
3310 * 3 (type) + 2 (size) +
3311 * 14 (strlen("phy-interface") + 1) +
3312 * 4 (strlen("pcs") + 1)
3313 * -- VPD Instance 'I'
3314 * -- VPD Type String 'S'
3315 * -- VPD data length == 4
3316 * -- property string == phy-interface
3317 */
3318 if (readb(p) != 'I')
3319 goto next;
3320
3321 /* finally, check string and length */
3322 type = readb(p + 3);
3323 if (type == 'B') {
3324 if ((klen == 29) && readb(p + 4) == 6 &&
3325 cas_vpd_match(p + 5,
3326 "local-mac-address")) {
3327 if (mac_off++ > offset)
3328 goto next;
3329
3330 /* set mac address */
3331 for (j = 0; j < 6; j++)
3332 dev_addr[j] =
3333 readb(p + 23 + j);
3334 goto found_mac;
3335 }
3336 }
3337
3338 if (type != 'S')
3339 goto next;
3340
3341#ifdef USE_ENTROPY_DEV
3342 if ((klen == 24) &&
3343 cas_vpd_match(p + 5, "entropy-dev") &&
3344 cas_vpd_match(p + 17, "vms110")) {
3345 cp->cas_flags |= CAS_FLAG_ENTROPY_DEV;
3346 goto next;
3347 }
3348#endif
3349
3350 if (found & VPD_FOUND_PHY)
3351 goto next;
3352
3353 if ((klen == 18) && readb(p + 4) == 4 &&
3354 cas_vpd_match(p + 5, "phy-type")) {
3355 if (cas_vpd_match(p + 14, "pcs")) {
3356 phy_type = CAS_PHY_SERDES;
3357 goto found_phy;
3358 }
3359 }
3360
3361 if ((klen == 23) && readb(p + 4) == 4 &&
3362 cas_vpd_match(p + 5, "phy-interface")) {
3363 if (cas_vpd_match(p + 19, "pcs")) {
3364 phy_type = CAS_PHY_SERDES;
3365 goto found_phy;
3366 }
3367 }
3368found_mac:
3369 found |= VPD_FOUND_MAC;
3370 goto next;
3371
3372found_phy:
3373 found |= VPD_FOUND_PHY;
3374
3375next:
3376 p += klen;
3377 }
3378 i += len + 3;
3379 }
3380
3381use_random_mac_addr:
3382 if (found & VPD_FOUND_MAC)
3383 goto done;
3384
3385 /* Sun MAC prefix then 3 random bytes. */
3386 printk(PFX "MAC address not found in ROM VPD\n");
3387 dev_addr[0] = 0x08;
3388 dev_addr[1] = 0x00;
3389 dev_addr[2] = 0x20;
3390 get_random_bytes(dev_addr + 3, 3);
3391
3392done:
3393 writel(0, cp->regs + REG_BIM_LOCAL_DEV_EN);
3394 return phy_type;
3395}
3396
3397/* check pci invariants */
3398static void cas_check_pci_invariants(struct cas *cp)
3399{
3400 struct pci_dev *pdev = cp->pdev;
3401 u8 rev;
3402
3403 cp->cas_flags = 0;
3404 pci_read_config_byte(pdev, PCI_REVISION_ID, &rev);
3405 if ((pdev->vendor == PCI_VENDOR_ID_SUN) &&
3406 (pdev->device == PCI_DEVICE_ID_SUN_CASSINI)) {
3407 if (rev >= CAS_ID_REVPLUS)
3408 cp->cas_flags |= CAS_FLAG_REG_PLUS;
3409 if (rev < CAS_ID_REVPLUS02u)
3410 cp->cas_flags |= CAS_FLAG_TARGET_ABORT;
3411
3412 /* Original Cassini supports HW CSUM, but it's not
3413 * enabled by default as it can trigger TX hangs.
3414 */
3415 if (rev < CAS_ID_REV2)
3416 cp->cas_flags |= CAS_FLAG_NO_HW_CSUM;
3417 } else {
3418 /* Only sun has original cassini chips. */
3419 cp->cas_flags |= CAS_FLAG_REG_PLUS;
3420
3421 /* We use a flag because the same phy might be externally
3422 * connected.
3423 */
3424 if ((pdev->vendor == PCI_VENDOR_ID_NS) &&
3425 (pdev->device == PCI_DEVICE_ID_NS_SATURN))
3426 cp->cas_flags |= CAS_FLAG_SATURN;
3427 }
3428}
3429
3430
3431static int cas_check_invariants(struct cas *cp)
3432{
3433 struct pci_dev *pdev = cp->pdev;
3434 u32 cfg;
3435 int i;
3436
3437 /* get page size for rx buffers. */
3438 cp->page_order = 0;
3439#ifdef USE_PAGE_ORDER
3440 if (PAGE_SHIFT < CAS_JUMBO_PAGE_SHIFT) {
3441 /* see if we can allocate larger pages */
3442 struct page *page = alloc_pages(GFP_ATOMIC,
3443 CAS_JUMBO_PAGE_SHIFT -
3444 PAGE_SHIFT);
3445 if (page) {
3446 __free_pages(page, CAS_JUMBO_PAGE_SHIFT - PAGE_SHIFT);
3447 cp->page_order = CAS_JUMBO_PAGE_SHIFT - PAGE_SHIFT;
3448 } else {
3449 printk(PFX "MTU limited to %d bytes\n", CAS_MAX_MTU);
3450 }
3451 }
3452#endif
3453 cp->page_size = (PAGE_SIZE << cp->page_order);
3454
3455 /* Fetch the FIFO configurations. */
3456 cp->tx_fifo_size = readl(cp->regs + REG_TX_FIFO_SIZE) * 64;
3457 cp->rx_fifo_size = RX_FIFO_SIZE;
3458
3459 /* finish phy determination. MDIO1 takes precedence over MDIO0 if
3460 * they're both connected.
3461 */
3462 cp->phy_type = cas_get_vpd_info(cp, cp->dev->dev_addr,
3463 PCI_SLOT(pdev->devfn));
3464 if (cp->phy_type & CAS_PHY_SERDES) {
3465 cp->cas_flags |= CAS_FLAG_1000MB_CAP;
3466 return 0; /* no more checking needed */
3467 }
3468
3469 /* MII */
3470 cfg = readl(cp->regs + REG_MIF_CFG);
3471 if (cfg & MIF_CFG_MDIO_1) {
3472 cp->phy_type = CAS_PHY_MII_MDIO1;
3473 } else if (cfg & MIF_CFG_MDIO_0) {
3474 cp->phy_type = CAS_PHY_MII_MDIO0;
3475 }
3476
3477 cas_mif_poll(cp, 0);
3478 writel(PCS_DATAPATH_MODE_MII, cp->regs + REG_PCS_DATAPATH_MODE);
3479
3480 for (i = 0; i < 32; i++) {
3481 u32 phy_id;
3482 int j;
3483
3484 for (j = 0; j < 3; j++) {
3485 cp->phy_addr = i;
3486 phy_id = cas_phy_read(cp, MII_PHYSID1) << 16;
3487 phy_id |= cas_phy_read(cp, MII_PHYSID2);
3488 if (phy_id && (phy_id != 0xFFFFFFFF)) {
3489 cp->phy_id = phy_id;
3490 goto done;
3491 }
3492 }
3493 }
3494 printk(KERN_ERR PFX "MII phy did not respond [%08x]\n",
3495 readl(cp->regs + REG_MIF_STATE_MACHINE));
3496 return -1;
3497
3498done:
3499 /* see if we can do gigabit */
3500 cfg = cas_phy_read(cp, MII_BMSR);
3501 if ((cfg & CAS_BMSR_1000_EXTEND) &&
3502 cas_phy_read(cp, CAS_MII_1000_EXTEND))
3503 cp->cas_flags |= CAS_FLAG_1000MB_CAP;
3504 return 0;
3505}
3506
3507/* Must be invoked under cp->lock. */
3508static inline void cas_start_dma(struct cas *cp)
3509{
3510 int i;
3511 u32 val;
3512 int txfailed = 0;
3513
3514 /* enable dma */
3515 val = readl(cp->regs + REG_TX_CFG) | TX_CFG_DMA_EN;
3516 writel(val, cp->regs + REG_TX_CFG);
3517 val = readl(cp->regs + REG_RX_CFG) | RX_CFG_DMA_EN;
3518 writel(val, cp->regs + REG_RX_CFG);
3519
3520 /* enable the mac */
3521 val = readl(cp->regs + REG_MAC_TX_CFG) | MAC_TX_CFG_EN;
3522 writel(val, cp->regs + REG_MAC_TX_CFG);
3523 val = readl(cp->regs + REG_MAC_RX_CFG) | MAC_RX_CFG_EN;
3524 writel(val, cp->regs + REG_MAC_RX_CFG);
3525
3526 i = STOP_TRIES;
3527 while (i-- > 0) {
3528 val = readl(cp->regs + REG_MAC_TX_CFG);
3529 if ((val & MAC_TX_CFG_EN))
3530 break;
3531 udelay(10);
3532 }
3533 if (i < 0) txfailed = 1;
3534 i = STOP_TRIES;
3535 while (i-- > 0) {
3536 val = readl(cp->regs + REG_MAC_RX_CFG);
3537 if ((val & MAC_RX_CFG_EN)) {
3538 if (txfailed) {
3539 printk(KERN_ERR
3540 "%s: enabling mac failed [tx:%08x:%08x].\n",
3541 cp->dev->name,
3542 readl(cp->regs + REG_MIF_STATE_MACHINE),
3543 readl(cp->regs + REG_MAC_STATE_MACHINE));
3544 }
3545 goto enable_rx_done;
3546 }
3547 udelay(10);
3548 }
3549 printk(KERN_ERR "%s: enabling mac failed [%s:%08x:%08x].\n",
3550 cp->dev->name,
3551 (txfailed? "tx,rx":"rx"),
3552 readl(cp->regs + REG_MIF_STATE_MACHINE),
3553 readl(cp->regs + REG_MAC_STATE_MACHINE));
3554
3555enable_rx_done:
3556 cas_unmask_intr(cp); /* enable interrupts */
3557 writel(RX_DESC_RINGN_SIZE(0) - 4, cp->regs + REG_RX_KICK);
3558 writel(0, cp->regs + REG_RX_COMP_TAIL);
3559
3560 if (cp->cas_flags & CAS_FLAG_REG_PLUS) {
3561 if (N_RX_DESC_RINGS > 1)
3562 writel(RX_DESC_RINGN_SIZE(1) - 4,
3563 cp->regs + REG_PLUS_RX_KICK1);
3564
3565 for (i = 1; i < N_RX_COMP_RINGS; i++)
3566 writel(0, cp->regs + REG_PLUS_RX_COMPN_TAIL(i));
3567 }
3568}
3569
3570/* Must be invoked under cp->lock. */
3571static void cas_read_pcs_link_mode(struct cas *cp, int *fd, int *spd,
3572 int *pause)
3573{
3574 u32 val = readl(cp->regs + REG_PCS_MII_LPA);
3575 *fd = (val & PCS_MII_LPA_FD) ? 1 : 0;
3576 *pause = (val & PCS_MII_LPA_SYM_PAUSE) ? 0x01 : 0x00;
3577 if (val & PCS_MII_LPA_ASYM_PAUSE)
3578 *pause |= 0x10;
3579 *spd = 1000;
3580}
3581
3582/* Must be invoked under cp->lock. */
3583static void cas_read_mii_link_mode(struct cas *cp, int *fd, int *spd,
3584 int *pause)
3585{
3586 u32 val;
3587
3588 *fd = 0;
3589 *spd = 10;
3590 *pause = 0;
3591
3592 /* use GMII registers */
3593 val = cas_phy_read(cp, MII_LPA);
3594 if (val & CAS_LPA_PAUSE)
3595 *pause = 0x01;
3596
3597 if (val & CAS_LPA_ASYM_PAUSE)
3598 *pause |= 0x10;
3599
3600 if (val & LPA_DUPLEX)
3601 *fd = 1;
3602 if (val & LPA_100)
3603 *spd = 100;
3604
3605 if (cp->cas_flags & CAS_FLAG_1000MB_CAP) {
3606 val = cas_phy_read(cp, CAS_MII_1000_STATUS);
3607 if (val & (CAS_LPA_1000FULL | CAS_LPA_1000HALF))
3608 *spd = 1000;
3609 if (val & CAS_LPA_1000FULL)
3610 *fd = 1;
3611 }
3612}
3613
3614/* A link-up condition has occurred, initialize and enable the
3615 * rest of the chip.
3616 *
3617 * Must be invoked under cp->lock.
3618 */
3619static void cas_set_link_modes(struct cas *cp)
3620{
3621 u32 val;
3622 int full_duplex, speed, pause;
3623
3624 full_duplex = 0;
3625 speed = 10;
3626 pause = 0;
3627
3628 if (CAS_PHY_MII(cp->phy_type)) {
3629 cas_mif_poll(cp, 0);
3630 val = cas_phy_read(cp, MII_BMCR);
3631 if (val & BMCR_ANENABLE) {
3632 cas_read_mii_link_mode(cp, &full_duplex, &speed,
3633 &pause);
3634 } else {
3635 if (val & BMCR_FULLDPLX)
3636 full_duplex = 1;
3637
3638 if (val & BMCR_SPEED100)
3639 speed = 100;
3640 else if (val & CAS_BMCR_SPEED1000)
3641 speed = (cp->cas_flags & CAS_FLAG_1000MB_CAP) ?
3642 1000 : 100;
3643 }
3644 cas_mif_poll(cp, 1);
3645
3646 } else {
3647 val = readl(cp->regs + REG_PCS_MII_CTRL);
3648 cas_read_pcs_link_mode(cp, &full_duplex, &speed, &pause);
3649 if ((val & PCS_MII_AUTONEG_EN) == 0) {
3650 if (val & PCS_MII_CTRL_DUPLEX)
3651 full_duplex = 1;
3652 }
3653 }
3654
3655 if (netif_msg_link(cp))
3656 printk(KERN_INFO "%s: Link up at %d Mbps, %s-duplex.\n",
3657 cp->dev->name, speed, (full_duplex ? "full" : "half"));
3658
3659 val = MAC_XIF_TX_MII_OUTPUT_EN | MAC_XIF_LINK_LED;
3660 if (CAS_PHY_MII(cp->phy_type)) {
3661 val |= MAC_XIF_MII_BUFFER_OUTPUT_EN;
3662 if (!full_duplex)
3663 val |= MAC_XIF_DISABLE_ECHO;
3664 }
3665 if (full_duplex)
3666 val |= MAC_XIF_FDPLX_LED;
3667 if (speed == 1000)
3668 val |= MAC_XIF_GMII_MODE;
3669 writel(val, cp->regs + REG_MAC_XIF_CFG);
3670
3671 /* deal with carrier and collision detect. */
3672 val = MAC_TX_CFG_IPG_EN;
3673 if (full_duplex) {
3674 val |= MAC_TX_CFG_IGNORE_CARRIER;
3675 val |= MAC_TX_CFG_IGNORE_COLL;
3676 } else {
3677#ifndef USE_CSMA_CD_PROTO
3678 val |= MAC_TX_CFG_NEVER_GIVE_UP_EN;
3679 val |= MAC_TX_CFG_NEVER_GIVE_UP_LIM;
3680#endif
3681 }
3682 /* val now set up for REG_MAC_TX_CFG */
3683
3684 /* If gigabit and half-duplex, enable carrier extension
3685 * mode. increase slot time to 512 bytes as well.
3686 * else, disable it and make sure slot time is 64 bytes.
3687 * also activate checksum bug workaround
3688 */
3689 if ((speed == 1000) && !full_duplex) {
3690 writel(val | MAC_TX_CFG_CARRIER_EXTEND,
3691 cp->regs + REG_MAC_TX_CFG);
3692
3693 val = readl(cp->regs + REG_MAC_RX_CFG);
3694 val &= ~MAC_RX_CFG_STRIP_FCS; /* checksum workaround */
3695 writel(val | MAC_RX_CFG_CARRIER_EXTEND,
3696 cp->regs + REG_MAC_RX_CFG);
3697
3698 writel(0x200, cp->regs + REG_MAC_SLOT_TIME);
3699
3700 cp->crc_size = 4;
3701 /* minimum size gigabit frame at half duplex */
3702 cp->min_frame_size = CAS_1000MB_MIN_FRAME;
3703
3704 } else {
3705 writel(val, cp->regs + REG_MAC_TX_CFG);
3706
3707 /* checksum bug workaround. don't strip FCS when in
3708 * half-duplex mode
3709 */
3710 val = readl(cp->regs + REG_MAC_RX_CFG);
3711 if (full_duplex) {
3712 val |= MAC_RX_CFG_STRIP_FCS;
3713 cp->crc_size = 0;
3714 cp->min_frame_size = CAS_MIN_MTU;
3715 } else {
3716 val &= ~MAC_RX_CFG_STRIP_FCS;
3717 cp->crc_size = 4;
3718 cp->min_frame_size = CAS_MIN_FRAME;
3719 }
3720 writel(val & ~MAC_RX_CFG_CARRIER_EXTEND,
3721 cp->regs + REG_MAC_RX_CFG);
3722 writel(0x40, cp->regs + REG_MAC_SLOT_TIME);
3723 }
3724
3725 if (netif_msg_link(cp)) {
3726 if (pause & 0x01) {
3727 printk(KERN_INFO "%s: Pause is enabled "
3728 "(rxfifo: %d off: %d on: %d)\n",
3729 cp->dev->name,
3730 cp->rx_fifo_size,
3731 cp->rx_pause_off,
3732 cp->rx_pause_on);
3733 } else if (pause & 0x10) {
3734 printk(KERN_INFO "%s: TX pause enabled\n",
3735 cp->dev->name);
3736 } else {
3737 printk(KERN_INFO "%s: Pause is disabled\n",
3738 cp->dev->name);
3739 }
3740 }
3741
3742 val = readl(cp->regs + REG_MAC_CTRL_CFG);
3743 val &= ~(MAC_CTRL_CFG_SEND_PAUSE_EN | MAC_CTRL_CFG_RECV_PAUSE_EN);
3744 if (pause) { /* symmetric or asymmetric pause */
3745 val |= MAC_CTRL_CFG_SEND_PAUSE_EN;
3746 if (pause & 0x01) { /* symmetric pause */
3747 val |= MAC_CTRL_CFG_RECV_PAUSE_EN;
3748 }
3749 }
3750 writel(val, cp->regs + REG_MAC_CTRL_CFG);
3751 cas_start_dma(cp);
3752}
3753
3754/* Must be invoked under cp->lock. */
3755static void cas_init_hw(struct cas *cp, int restart_link)
3756{
3757 if (restart_link)
3758 cas_phy_init(cp);
3759
3760 cas_init_pause_thresholds(cp);
3761 cas_init_mac(cp);
3762 cas_init_dma(cp);
3763
3764 if (restart_link) {
3765 /* Default aneg parameters */
3766 cp->timer_ticks = 0;
3767 cas_begin_auto_negotiation(cp, NULL);
3768 } else if (cp->lstate == link_up) {
3769 cas_set_link_modes(cp);
3770 netif_carrier_on(cp->dev);
3771 }
3772}
3773
3774/* Must be invoked under cp->lock. on earlier cassini boards,
3775 * SOFT_0 is tied to PCI reset. we use this to force a pci reset,
3776 * let it settle out, and then restore pci state.
3777 */
3778static void cas_hard_reset(struct cas *cp)
3779{
3780 writel(BIM_LOCAL_DEV_SOFT_0, cp->regs + REG_BIM_LOCAL_DEV_EN);
3781 udelay(20);
3782 pci_restore_state(cp->pdev);
3783}
3784
3785
3786static void cas_global_reset(struct cas *cp, int blkflag)
3787{
3788 int limit;
3789
3790 /* issue a global reset. don't use RSTOUT. */
3791 if (blkflag && !CAS_PHY_MII(cp->phy_type)) {
3792 /* For PCS, when the blkflag is set, we should set the
3793 * SW_REST_BLOCK_PCS_SLINK bit to prevent the results of
3794 * the last autonegotiation from being cleared. We'll
3795 * need some special handling if the chip is set into a
3796 * loopback mode.
3797 */
3798 writel((SW_RESET_TX | SW_RESET_RX | SW_RESET_BLOCK_PCS_SLINK),
3799 cp->regs + REG_SW_RESET);
3800 } else {
3801 writel(SW_RESET_TX | SW_RESET_RX, cp->regs + REG_SW_RESET);
3802 }
3803
3804 /* need to wait at least 3ms before polling register */
3805 mdelay(3);
3806
3807 limit = STOP_TRIES;
3808 while (limit-- > 0) {
3809 u32 val = readl(cp->regs + REG_SW_RESET);
3810 if ((val & (SW_RESET_TX | SW_RESET_RX)) == 0)
3811 goto done;
3812 udelay(10);
3813 }
3814 printk(KERN_ERR "%s: sw reset failed.\n", cp->dev->name);
3815
3816done:
3817 /* enable various BIM interrupts */
3818 writel(BIM_CFG_DPAR_INTR_ENABLE | BIM_CFG_RMA_INTR_ENABLE |
3819 BIM_CFG_RTA_INTR_ENABLE, cp->regs + REG_BIM_CFG);
3820
3821 /* clear out pci error status mask for handled errors.
3822 * we don't deal with DMA counter overflows as they happen
3823 * all the time.
3824 */
3825 writel(0xFFFFFFFFU & ~(PCI_ERR_BADACK | PCI_ERR_DTRTO |
3826 PCI_ERR_OTHER | PCI_ERR_BIM_DMA_WRITE |
3827 PCI_ERR_BIM_DMA_READ), cp->regs +
3828 REG_PCI_ERR_STATUS_MASK);
3829
3830 /* set up for MII by default to address mac rx reset timeout
3831 * issue
3832 */
3833 writel(PCS_DATAPATH_MODE_MII, cp->regs + REG_PCS_DATAPATH_MODE);
3834}
3835
3836static void cas_reset(struct cas *cp, int blkflag)
3837{
3838 u32 val;
3839
3840 cas_mask_intr(cp);
3841 cas_global_reset(cp, blkflag);
3842 cas_mac_reset(cp);
3843 cas_entropy_reset(cp);
3844
3845 /* disable dma engines. */
3846 val = readl(cp->regs + REG_TX_CFG);
3847 val &= ~TX_CFG_DMA_EN;
3848 writel(val, cp->regs + REG_TX_CFG);
3849
3850 val = readl(cp->regs + REG_RX_CFG);
3851 val &= ~RX_CFG_DMA_EN;
3852 writel(val, cp->regs + REG_RX_CFG);
3853
3854 /* program header parser */
3855 if ((cp->cas_flags & CAS_FLAG_TARGET_ABORT) ||
3856 (CAS_HP_ALT_FIRMWARE == cas_prog_null)) {
3857 cas_load_firmware(cp, CAS_HP_FIRMWARE);
3858 } else {
3859 cas_load_firmware(cp, CAS_HP_ALT_FIRMWARE);
3860 }
3861
3862 /* clear out error registers */
3863 spin_lock(&cp->stat_lock[N_TX_RINGS]);
3864 cas_clear_mac_err(cp);
3865 spin_unlock(&cp->stat_lock[N_TX_RINGS]);
3866}
3867
3868/* Shut down the chip, must be called with pm_sem held. */
3869static void cas_shutdown(struct cas *cp)
3870{
3871 unsigned long flags;
3872
3873 /* Make us not-running to avoid timers respawning */
3874 cp->hw_running = 0;
3875
3876 del_timer_sync(&cp->link_timer);
3877
3878 /* Stop the reset task */
3879#if 0
3880 while (atomic_read(&cp->reset_task_pending_mtu) ||
3881 atomic_read(&cp->reset_task_pending_spare) ||
3882 atomic_read(&cp->reset_task_pending_all))
3883 schedule();
3884
3885#else
3886 while (atomic_read(&cp->reset_task_pending))
3887 schedule();
3888#endif
3889 /* Actually stop the chip */
3890 cas_lock_all_save(cp, flags);
3891 cas_reset(cp, 0);
3892 if (cp->cas_flags & CAS_FLAG_SATURN)
3893 cas_phy_powerdown(cp);
3894 cas_unlock_all_restore(cp, flags);
3895}
3896
3897static int cas_change_mtu(struct net_device *dev, int new_mtu)
3898{
3899 struct cas *cp = netdev_priv(dev);
3900
3901 if (new_mtu < CAS_MIN_MTU || new_mtu > CAS_MAX_MTU)
3902 return -EINVAL;
3903
3904 dev->mtu = new_mtu;
3905 if (!netif_running(dev) || !netif_device_present(dev))
3906 return 0;
3907
3908 /* let the reset task handle it */
3909#if 1
3910 atomic_inc(&cp->reset_task_pending);
3911 if ((cp->phy_type & CAS_PHY_SERDES)) {
3912 atomic_inc(&cp->reset_task_pending_all);
3913 } else {
3914 atomic_inc(&cp->reset_task_pending_mtu);
3915 }
3916 schedule_work(&cp->reset_task);
3917#else
3918 atomic_set(&cp->reset_task_pending, (cp->phy_type & CAS_PHY_SERDES) ?
3919 CAS_RESET_ALL : CAS_RESET_MTU);
3920 printk(KERN_ERR "reset called in cas_change_mtu\n");
3921 schedule_work(&cp->reset_task);
3922#endif
3923
3924 flush_scheduled_work();
3925 return 0;
3926}
3927
3928static void cas_clean_txd(struct cas *cp, int ring)
3929{
3930 struct cas_tx_desc *txd = cp->init_txds[ring];
3931 struct sk_buff *skb, **skbs = cp->tx_skbs[ring];
3932 u64 daddr, dlen;
3933 int i, size;
3934
3935 size = TX_DESC_RINGN_SIZE(ring);
3936 for (i = 0; i < size; i++) {
3937 int frag;
3938
3939 if (skbs[i] == NULL)
3940 continue;
3941
3942 skb = skbs[i];
3943 skbs[i] = NULL;
3944
3945 for (frag = 0; frag <= skb_shinfo(skb)->nr_frags; frag++) {
3946 int ent = i & (size - 1);
3947
3948 /* first buffer is never a tiny buffer and so
3949 * needs to be unmapped.
3950 */
3951 daddr = le64_to_cpu(txd[ent].buffer);
3952 dlen = CAS_VAL(TX_DESC_BUFLEN,
3953 le64_to_cpu(txd[ent].control));
3954 pci_unmap_page(cp->pdev, daddr, dlen,
3955 PCI_DMA_TODEVICE);
3956
3957 if (frag != skb_shinfo(skb)->nr_frags) {
3958 i++;
3959
3960 /* next buffer might by a tiny buffer.
3961 * skip past it.
3962 */
3963 ent = i & (size - 1);
3964 if (cp->tx_tiny_use[ring][ent].used)
3965 i++;
3966 }
3967 }
3968 dev_kfree_skb_any(skb);
3969 }
3970
3971 /* zero out tiny buf usage */
3972 memset(cp->tx_tiny_use[ring], 0, size*sizeof(*cp->tx_tiny_use[ring]));
3973}
3974
3975/* freed on close */
3976static inline void cas_free_rx_desc(struct cas *cp, int ring)
3977{
3978 cas_page_t **page = cp->rx_pages[ring];
3979 int i, size;
3980
3981 size = RX_DESC_RINGN_SIZE(ring);
3982 for (i = 0; i < size; i++) {
3983 if (page[i]) {
3984 cas_page_free(cp, page[i]);
3985 page[i] = NULL;
3986 }
3987 }
3988}
3989
3990static void cas_free_rxds(struct cas *cp)
3991{
3992 int i;
3993
3994 for (i = 0; i < N_RX_DESC_RINGS; i++)
3995 cas_free_rx_desc(cp, i);
3996}
3997
3998/* Must be invoked under cp->lock. */
3999static void cas_clean_rings(struct cas *cp)
4000{
4001 int i;
4002
4003 /* need to clean all tx rings */
4004 memset(cp->tx_old, 0, sizeof(*cp->tx_old)*N_TX_RINGS);
4005 memset(cp->tx_new, 0, sizeof(*cp->tx_new)*N_TX_RINGS);
4006 for (i = 0; i < N_TX_RINGS; i++)
4007 cas_clean_txd(cp, i);
4008
4009 /* zero out init block */
4010 memset(cp->init_block, 0, sizeof(struct cas_init_block));
4011 cas_clean_rxds(cp);
4012 cas_clean_rxcs(cp);
4013}
4014
4015/* allocated on open */
4016static inline int cas_alloc_rx_desc(struct cas *cp, int ring)
4017{
4018 cas_page_t **page = cp->rx_pages[ring];
4019 int size, i = 0;
4020
4021 size = RX_DESC_RINGN_SIZE(ring);
4022 for (i = 0; i < size; i++) {
4023 if ((page[i] = cas_page_alloc(cp, GFP_KERNEL)) == NULL)
4024 return -1;
4025 }
4026 return 0;
4027}
4028
4029static int cas_alloc_rxds(struct cas *cp)
4030{
4031 int i;
4032
4033 for (i = 0; i < N_RX_DESC_RINGS; i++) {
4034 if (cas_alloc_rx_desc(cp, i) < 0) {
4035 cas_free_rxds(cp);
4036 return -1;
4037 }
4038 }
4039 return 0;
4040}
4041
4042static void cas_reset_task(void *data)
4043{
4044 struct cas *cp = (struct cas *) data;
4045#if 0
4046 int pending = atomic_read(&cp->reset_task_pending);
4047#else
4048 int pending_all = atomic_read(&cp->reset_task_pending_all);
4049 int pending_spare = atomic_read(&cp->reset_task_pending_spare);
4050 int pending_mtu = atomic_read(&cp->reset_task_pending_mtu);
4051
4052 if (pending_all == 0 && pending_spare == 0 && pending_mtu == 0) {
4053 /* We can have more tasks scheduled than actually
4054 * needed.
4055 */
4056 atomic_dec(&cp->reset_task_pending);
4057 return;
4058 }
4059#endif
4060 /* The link went down, we reset the ring, but keep
4061 * DMA stopped. Use this function for reset
4062 * on error as well.
4063 */
4064 if (cp->hw_running) {
4065 unsigned long flags;
4066
4067 /* Make sure we don't get interrupts or tx packets */
4068 netif_device_detach(cp->dev);
4069 cas_lock_all_save(cp, flags);
4070
4071 if (cp->opened) {
4072 /* We call cas_spare_recover when we call cas_open.
4073 * but we do not initialize the lists cas_spare_recover
4074 * uses until cas_open is called.
4075 */
4076 cas_spare_recover(cp, GFP_ATOMIC);
4077 }
4078#if 1
4079 /* test => only pending_spare set */
4080 if (!pending_all && !pending_mtu)
4081 goto done;
4082#else
4083 if (pending == CAS_RESET_SPARE)
4084 goto done;
4085#endif
4086 /* when pending == CAS_RESET_ALL, the following
4087 * call to cas_init_hw will restart auto negotiation.
4088 * Setting the second argument of cas_reset to
4089 * !(pending == CAS_RESET_ALL) will set this argument
4090 * to 1 (avoiding reinitializing the PHY for the normal
4091 * PCS case) when auto negotiation is not restarted.
4092 */
4093#if 1
4094 cas_reset(cp, !(pending_all > 0));
4095 if (cp->opened)
4096 cas_clean_rings(cp);
4097 cas_init_hw(cp, (pending_all > 0));
4098#else
4099 cas_reset(cp, !(pending == CAS_RESET_ALL));
4100 if (cp->opened)
4101 cas_clean_rings(cp);
4102 cas_init_hw(cp, pending == CAS_RESET_ALL);
4103#endif
4104
4105done:
4106 cas_unlock_all_restore(cp, flags);
4107 netif_device_attach(cp->dev);
4108 }
4109#if 1
4110 atomic_sub(pending_all, &cp->reset_task_pending_all);
4111 atomic_sub(pending_spare, &cp->reset_task_pending_spare);
4112 atomic_sub(pending_mtu, &cp->reset_task_pending_mtu);
4113 atomic_dec(&cp->reset_task_pending);
4114#else
4115 atomic_set(&cp->reset_task_pending, 0);
4116#endif
4117}
4118
4119static void cas_link_timer(unsigned long data)
4120{
4121 struct cas *cp = (struct cas *) data;
4122 int mask, pending = 0, reset = 0;
4123 unsigned long flags;
4124
4125 if (link_transition_timeout != 0 &&
4126 cp->link_transition_jiffies_valid &&
4127 ((jiffies - cp->link_transition_jiffies) >
4128 (link_transition_timeout))) {
4129 /* One-second counter so link-down workaround doesn't
4130 * cause resets to occur so fast as to fool the switch
4131 * into thinking the link is down.
4132 */
4133 cp->link_transition_jiffies_valid = 0;
4134 }
4135
4136 if (!cp->hw_running)
4137 return;
4138
4139 spin_lock_irqsave(&cp->lock, flags);
4140 cas_lock_tx(cp);
4141 cas_entropy_gather(cp);
4142
4143 /* If the link task is still pending, we just
4144 * reschedule the link timer
4145 */
4146#if 1
4147 if (atomic_read(&cp->reset_task_pending_all) ||
4148 atomic_read(&cp->reset_task_pending_spare) ||
4149 atomic_read(&cp->reset_task_pending_mtu))
4150 goto done;
4151#else
4152 if (atomic_read(&cp->reset_task_pending))
4153 goto done;
4154#endif
4155
4156 /* check for rx cleaning */
4157 if ((mask = (cp->cas_flags & CAS_FLAG_RXD_POST_MASK))) {
4158 int i, rmask;
4159
4160 for (i = 0; i < MAX_RX_DESC_RINGS; i++) {
4161 rmask = CAS_FLAG_RXD_POST(i);
4162 if ((mask & rmask) == 0)
4163 continue;
4164
4165 /* post_rxds will do a mod_timer */
4166 if (cas_post_rxds_ringN(cp, i, cp->rx_last[i]) < 0) {
4167 pending = 1;
4168 continue;
4169 }
4170 cp->cas_flags &= ~rmask;
4171 }
4172 }
4173
4174 if (CAS_PHY_MII(cp->phy_type)) {
4175 u16 bmsr;
4176 cas_mif_poll(cp, 0);
4177 bmsr = cas_phy_read(cp, MII_BMSR);
4178 /* WTZ: Solaris driver reads this twice, but that
4179 * may be due to the PCS case and the use of a
4180 * common implementation. Read it twice here to be
4181 * safe.
4182 */
4183 bmsr = cas_phy_read(cp, MII_BMSR);
4184 cas_mif_poll(cp, 1);
4185 readl(cp->regs + REG_MIF_STATUS); /* avoid dups */
4186 reset = cas_mii_link_check(cp, bmsr);
4187 } else {
4188 reset = cas_pcs_link_check(cp);
4189 }
4190
4191 if (reset)
4192 goto done;
4193
4194 /* check for tx state machine confusion */
4195 if ((readl(cp->regs + REG_MAC_TX_STATUS) & MAC_TX_FRAME_XMIT) == 0) {
4196 u32 val = readl(cp->regs + REG_MAC_STATE_MACHINE);
4197 u32 wptr, rptr;
4198 int tlm = CAS_VAL(MAC_SM_TLM, val);
4199
4200 if (((tlm == 0x5) || (tlm == 0x3)) &&
4201 (CAS_VAL(MAC_SM_ENCAP_SM, val) == 0)) {
4202 if (netif_msg_tx_err(cp))
4203 printk(KERN_DEBUG "%s: tx err: "
4204 "MAC_STATE[%08x]\n",
4205 cp->dev->name, val);
4206 reset = 1;
4207 goto done;
4208 }
4209
4210 val = readl(cp->regs + REG_TX_FIFO_PKT_CNT);
4211 wptr = readl(cp->regs + REG_TX_FIFO_WRITE_PTR);
4212 rptr = readl(cp->regs + REG_TX_FIFO_READ_PTR);
4213 if ((val == 0) && (wptr != rptr)) {
4214 if (netif_msg_tx_err(cp))
4215 printk(KERN_DEBUG "%s: tx err: "
4216 "TX_FIFO[%08x:%08x:%08x]\n",
4217 cp->dev->name, val, wptr, rptr);
4218 reset = 1;
4219 }
4220
4221 if (reset)
4222 cas_hard_reset(cp);
4223 }
4224
4225done:
4226 if (reset) {
4227#if 1
4228 atomic_inc(&cp->reset_task_pending);
4229 atomic_inc(&cp->reset_task_pending_all);
4230 schedule_work(&cp->reset_task);
4231#else
4232 atomic_set(&cp->reset_task_pending, CAS_RESET_ALL);
4233 printk(KERN_ERR "reset called in cas_link_timer\n");
4234 schedule_work(&cp->reset_task);
4235#endif
4236 }
4237
4238 if (!pending)
4239 mod_timer(&cp->link_timer, jiffies + CAS_LINK_TIMEOUT);
4240 cas_unlock_tx(cp);
4241 spin_unlock_irqrestore(&cp->lock, flags);
4242}
4243
4244/* tiny buffers are used to avoid target abort issues with
4245 * older cassini's
4246 */
4247static void cas_tx_tiny_free(struct cas *cp)
4248{
4249 struct pci_dev *pdev = cp->pdev;
4250 int i;
4251
4252 for (i = 0; i < N_TX_RINGS; i++) {
4253 if (!cp->tx_tiny_bufs[i])
4254 continue;
4255
4256 pci_free_consistent(pdev, TX_TINY_BUF_BLOCK,
4257 cp->tx_tiny_bufs[i],
4258 cp->tx_tiny_dvma[i]);
4259 cp->tx_tiny_bufs[i] = NULL;
4260 }
4261}
4262
4263static int cas_tx_tiny_alloc(struct cas *cp)
4264{
4265 struct pci_dev *pdev = cp->pdev;
4266 int i;
4267
4268 for (i = 0; i < N_TX_RINGS; i++) {
4269 cp->tx_tiny_bufs[i] =
4270 pci_alloc_consistent(pdev, TX_TINY_BUF_BLOCK,
4271 &cp->tx_tiny_dvma[i]);
4272 if (!cp->tx_tiny_bufs[i]) {
4273 cas_tx_tiny_free(cp);
4274 return -1;
4275 }
4276 }
4277 return 0;
4278}
4279
4280
4281static int cas_open(struct net_device *dev)
4282{
4283 struct cas *cp = netdev_priv(dev);
4284 int hw_was_up, err;
4285 unsigned long flags;
4286
4287 down(&cp->pm_sem);
4288
4289 hw_was_up = cp->hw_running;
4290
4291 /* The power-management semaphore protects the hw_running
4292 * etc. state so it is safe to do this bit without cp->lock
4293 */
4294 if (!cp->hw_running) {
4295 /* Reset the chip */
4296 cas_lock_all_save(cp, flags);
4297 /* We set the second arg to cas_reset to zero
4298 * because cas_init_hw below will have its second
4299 * argument set to non-zero, which will force
4300 * autonegotiation to start.
4301 */
4302 cas_reset(cp, 0);
4303 cp->hw_running = 1;
4304 cas_unlock_all_restore(cp, flags);
4305 }
4306
4307 if (cas_tx_tiny_alloc(cp) < 0)
4308 return -ENOMEM;
4309
4310 /* alloc rx descriptors */
4311 err = -ENOMEM;
4312 if (cas_alloc_rxds(cp) < 0)
4313 goto err_tx_tiny;
4314
4315 /* allocate spares */
4316 cas_spare_init(cp);
4317 cas_spare_recover(cp, GFP_KERNEL);
4318
4319 /* We can now request the interrupt as we know it's masked
4320 * on the controller. cassini+ has up to 4 interrupts
4321 * that can be used, but you need to do explicit pci interrupt
4322 * mapping to expose them
4323 */
4324 if (request_irq(cp->pdev->irq, cas_interrupt,
4325 SA_SHIRQ, dev->name, (void *) dev)) {
4326 printk(KERN_ERR "%s: failed to request irq !\n",
4327 cp->dev->name);
4328 err = -EAGAIN;
4329 goto err_spare;
4330 }
4331
4332 /* init hw */
4333 cas_lock_all_save(cp, flags);
4334 cas_clean_rings(cp);
4335 cas_init_hw(cp, !hw_was_up);
4336 cp->opened = 1;
4337 cas_unlock_all_restore(cp, flags);
4338
4339 netif_start_queue(dev);
4340 up(&cp->pm_sem);
4341 return 0;
4342
4343err_spare:
4344 cas_spare_free(cp);
4345 cas_free_rxds(cp);
4346err_tx_tiny:
4347 cas_tx_tiny_free(cp);
4348 up(&cp->pm_sem);
4349 return err;
4350}
4351
4352static int cas_close(struct net_device *dev)
4353{
4354 unsigned long flags;
4355 struct cas *cp = netdev_priv(dev);
4356
4357 /* Make sure we don't get distracted by suspend/resume */
4358 down(&cp->pm_sem);
4359
4360 netif_stop_queue(dev);
4361
4362 /* Stop traffic, mark us closed */
4363 cas_lock_all_save(cp, flags);
4364 cp->opened = 0;
4365 cas_reset(cp, 0);
4366 cas_phy_init(cp);
4367 cas_begin_auto_negotiation(cp, NULL);
4368 cas_clean_rings(cp);
4369 cas_unlock_all_restore(cp, flags);
4370
4371 free_irq(cp->pdev->irq, (void *) dev);
4372 cas_spare_free(cp);
4373 cas_free_rxds(cp);
4374 cas_tx_tiny_free(cp);
4375 up(&cp->pm_sem);
4376 return 0;
4377}
4378
4379static struct {
4380 const char name[ETH_GSTRING_LEN];
4381} ethtool_cassini_statnames[] = {
4382 {"collisions"},
4383 {"rx_bytes"},
4384 {"rx_crc_errors"},
4385 {"rx_dropped"},
4386 {"rx_errors"},
4387 {"rx_fifo_errors"},
4388 {"rx_frame_errors"},
4389 {"rx_length_errors"},
4390 {"rx_over_errors"},
4391 {"rx_packets"},
4392 {"tx_aborted_errors"},
4393 {"tx_bytes"},
4394 {"tx_dropped"},
4395 {"tx_errors"},
4396 {"tx_fifo_errors"},
4397 {"tx_packets"}
4398};
4399#define CAS_NUM_STAT_KEYS (sizeof(ethtool_cassini_statnames)/ETH_GSTRING_LEN)
4400
4401static struct {
4402 const int offsets; /* neg. values for 2nd arg to cas_read_phy */
4403} ethtool_register_table[] = {
4404 {-MII_BMSR},
4405 {-MII_BMCR},
4406 {REG_CAWR},
4407 {REG_INF_BURST},
4408 {REG_BIM_CFG},
4409 {REG_RX_CFG},
4410 {REG_HP_CFG},
4411 {REG_MAC_TX_CFG},
4412 {REG_MAC_RX_CFG},
4413 {REG_MAC_CTRL_CFG},
4414 {REG_MAC_XIF_CFG},
4415 {REG_MIF_CFG},
4416 {REG_PCS_CFG},
4417 {REG_SATURN_PCFG},
4418 {REG_PCS_MII_STATUS},
4419 {REG_PCS_STATE_MACHINE},
4420 {REG_MAC_COLL_EXCESS},
4421 {REG_MAC_COLL_LATE}
4422};
4423#define CAS_REG_LEN (sizeof(ethtool_register_table)/sizeof(int))
4424#define CAS_MAX_REGS (sizeof (u32)*CAS_REG_LEN)
4425
4426static u8 *cas_get_regs(struct cas *cp)
4427{
4428 u8 *ptr = kmalloc(CAS_MAX_REGS, GFP_KERNEL);
4429 u8 *p;
4430 int i;
4431 unsigned long flags;
4432
4433 if (!ptr)
4434 return NULL;
4435
4436 spin_lock_irqsave(&cp->lock, flags);
4437 for (i = 0, p = ptr; i < CAS_REG_LEN ; i ++, p += sizeof(u32)) {
4438 u16 hval;
4439 u32 val;
4440 if (ethtool_register_table[i].offsets < 0) {
4441 hval = cas_phy_read(cp,
4442 -ethtool_register_table[i].offsets);
4443 val = hval;
4444 } else {
4445 val= readl(cp->regs+ethtool_register_table[i].offsets);
4446 }
4447 memcpy(p, (u8 *)&val, sizeof(u32));
4448 }
4449 spin_unlock_irqrestore(&cp->lock, flags);
4450
4451 return ptr;
4452}
4453
4454static struct net_device_stats *cas_get_stats(struct net_device *dev)
4455{
4456 struct cas *cp = netdev_priv(dev);
4457 struct net_device_stats *stats = cp->net_stats;
4458 unsigned long flags;
4459 int i;
4460 unsigned long tmp;
4461
4462 /* we collate all of the stats into net_stats[N_TX_RING] */
4463 if (!cp->hw_running)
4464 return stats + N_TX_RINGS;
4465
4466 /* collect outstanding stats */
4467 /* WTZ: the Cassini spec gives these as 16 bit counters but
4468 * stored in 32-bit words. Added a mask of 0xffff to be safe,
4469 * in case the chip somehow puts any garbage in the other bits.
4470 * Also, counter usage didn't seem to mach what Adrian did
4471 * in the parts of the code that set these quantities. Made
4472 * that consistent.
4473 */
4474 spin_lock_irqsave(&cp->stat_lock[N_TX_RINGS], flags);
4475 stats[N_TX_RINGS].rx_crc_errors +=
4476 readl(cp->regs + REG_MAC_FCS_ERR) & 0xffff;
4477 stats[N_TX_RINGS].rx_frame_errors +=
4478 readl(cp->regs + REG_MAC_ALIGN_ERR) &0xffff;
4479 stats[N_TX_RINGS].rx_length_errors +=
4480 readl(cp->regs + REG_MAC_LEN_ERR) & 0xffff;
4481#if 1
4482 tmp = (readl(cp->regs + REG_MAC_COLL_EXCESS) & 0xffff) +
4483 (readl(cp->regs + REG_MAC_COLL_LATE) & 0xffff);
4484 stats[N_TX_RINGS].tx_aborted_errors += tmp;
4485 stats[N_TX_RINGS].collisions +=
4486 tmp + (readl(cp->regs + REG_MAC_COLL_NORMAL) & 0xffff);
4487#else
4488 stats[N_TX_RINGS].tx_aborted_errors +=
4489 readl(cp->regs + REG_MAC_COLL_EXCESS);
4490 stats[N_TX_RINGS].collisions += readl(cp->regs + REG_MAC_COLL_EXCESS) +
4491 readl(cp->regs + REG_MAC_COLL_LATE);
4492#endif
4493 cas_clear_mac_err(cp);
4494
4495 /* saved bits that are unique to ring 0 */
4496 spin_lock(&cp->stat_lock[0]);
4497 stats[N_TX_RINGS].collisions += stats[0].collisions;
4498 stats[N_TX_RINGS].rx_over_errors += stats[0].rx_over_errors;
4499 stats[N_TX_RINGS].rx_frame_errors += stats[0].rx_frame_errors;
4500 stats[N_TX_RINGS].rx_fifo_errors += stats[0].rx_fifo_errors;
4501 stats[N_TX_RINGS].tx_aborted_errors += stats[0].tx_aborted_errors;
4502 stats[N_TX_RINGS].tx_fifo_errors += stats[0].tx_fifo_errors;
4503 spin_unlock(&cp->stat_lock[0]);
4504
4505 for (i = 0; i < N_TX_RINGS; i++) {
4506 spin_lock(&cp->stat_lock[i]);
4507 stats[N_TX_RINGS].rx_length_errors +=
4508 stats[i].rx_length_errors;
4509 stats[N_TX_RINGS].rx_crc_errors += stats[i].rx_crc_errors;
4510 stats[N_TX_RINGS].rx_packets += stats[i].rx_packets;
4511 stats[N_TX_RINGS].tx_packets += stats[i].tx_packets;
4512 stats[N_TX_RINGS].rx_bytes += stats[i].rx_bytes;
4513 stats[N_TX_RINGS].tx_bytes += stats[i].tx_bytes;
4514 stats[N_TX_RINGS].rx_errors += stats[i].rx_errors;
4515 stats[N_TX_RINGS].tx_errors += stats[i].tx_errors;
4516 stats[N_TX_RINGS].rx_dropped += stats[i].rx_dropped;
4517 stats[N_TX_RINGS].tx_dropped += stats[i].tx_dropped;
4518 memset(stats + i, 0, sizeof(struct net_device_stats));
4519 spin_unlock(&cp->stat_lock[i]);
4520 }
4521 spin_unlock_irqrestore(&cp->stat_lock[N_TX_RINGS], flags);
4522 return stats + N_TX_RINGS;
4523}
4524
4525
4526static void cas_set_multicast(struct net_device *dev)
4527{
4528 struct cas *cp = netdev_priv(dev);
4529 u32 rxcfg, rxcfg_new;
4530 unsigned long flags;
4531 int limit = STOP_TRIES;
4532
4533 if (!cp->hw_running)
4534 return;
4535
4536 spin_lock_irqsave(&cp->lock, flags);
4537 rxcfg = readl(cp->regs + REG_MAC_RX_CFG);
4538
4539 /* disable RX MAC and wait for completion */
4540 writel(rxcfg & ~MAC_RX_CFG_EN, cp->regs + REG_MAC_RX_CFG);
4541 while (readl(cp->regs + REG_MAC_RX_CFG) & MAC_RX_CFG_EN) {
4542 if (!limit--)
4543 break;
4544 udelay(10);
4545 }
4546
4547 /* disable hash filter and wait for completion */
4548 limit = STOP_TRIES;
4549 rxcfg &= ~(MAC_RX_CFG_PROMISC_EN | MAC_RX_CFG_HASH_FILTER_EN);
4550 writel(rxcfg & ~MAC_RX_CFG_EN, cp->regs + REG_MAC_RX_CFG);
4551 while (readl(cp->regs + REG_MAC_RX_CFG) & MAC_RX_CFG_HASH_FILTER_EN) {
4552 if (!limit--)
4553 break;
4554 udelay(10);
4555 }
4556
4557 /* program hash filters */
4558 cp->mac_rx_cfg = rxcfg_new = cas_setup_multicast(cp);
4559 rxcfg |= rxcfg_new;
4560 writel(rxcfg, cp->regs + REG_MAC_RX_CFG);
4561 spin_unlock_irqrestore(&cp->lock, flags);
4562}
4563
4564/* Eventually add support for changing the advertisement
4565 * on autoneg.
4566 */
4567static int cas_ethtool_ioctl(struct net_device *dev, void *ep_user)
4568{
4569 struct cas *cp = netdev_priv(dev);
4570 u16 bmcr;
4571 int full_duplex, speed, pause;
4572 struct ethtool_cmd ecmd;
4573 unsigned long flags;
4574 enum link_state linkstate = link_up;
4575
4576 if (copy_from_user(&ecmd, ep_user, sizeof(ecmd)))
4577 return -EFAULT;
4578
4579 switch(ecmd.cmd) {
4580 case ETHTOOL_GDRVINFO: {
4581 struct ethtool_drvinfo info = { cmd: ETHTOOL_GDRVINFO };
4582
4583 strncpy(info.driver, DRV_MODULE_NAME,
4584 ETHTOOL_BUSINFO_LEN);
4585 strncpy(info.version, DRV_MODULE_VERSION,
4586 ETHTOOL_BUSINFO_LEN);
4587 info.fw_version[0] = '\0';
4588 strncpy(info.bus_info, pci_name(cp->pdev),
4589 ETHTOOL_BUSINFO_LEN);
4590 info.regdump_len = cp->casreg_len < CAS_MAX_REGS ?
4591 cp->casreg_len : CAS_MAX_REGS;
4592 info.n_stats = CAS_NUM_STAT_KEYS;
4593 if (copy_to_user(ep_user, &info, sizeof(info)))
4594 return -EFAULT;
4595
4596 return 0;
4597 }
4598
4599 case ETHTOOL_GSET:
4600 ecmd.advertising = 0;
4601 ecmd.supported = SUPPORTED_Autoneg;
4602 if (cp->cas_flags & CAS_FLAG_1000MB_CAP) {
4603 ecmd.supported |= SUPPORTED_1000baseT_Full;
4604 ecmd.advertising |= ADVERTISED_1000baseT_Full;
4605 }
4606
4607 /* Record PHY settings if HW is on. */
4608 spin_lock_irqsave(&cp->lock, flags);
4609 bmcr = 0;
4610 linkstate = cp->lstate;
4611 if (CAS_PHY_MII(cp->phy_type)) {
4612 ecmd.port = PORT_MII;
4613 ecmd.transceiver = (cp->cas_flags & CAS_FLAG_SATURN) ?
4614 XCVR_INTERNAL : XCVR_EXTERNAL;
4615 ecmd.phy_address = cp->phy_addr;
4616 ecmd.advertising |= ADVERTISED_TP | ADVERTISED_MII |
4617 ADVERTISED_10baseT_Half |
4618 ADVERTISED_10baseT_Full |
4619 ADVERTISED_100baseT_Half |
4620 ADVERTISED_100baseT_Full;
4621
4622 ecmd.supported |=
4623 (SUPPORTED_10baseT_Half |
4624 SUPPORTED_10baseT_Full |
4625 SUPPORTED_100baseT_Half |
4626 SUPPORTED_100baseT_Full |
4627 SUPPORTED_TP | SUPPORTED_MII);
4628
4629 if (cp->hw_running) {
4630 cas_mif_poll(cp, 0);
4631 bmcr = cas_phy_read(cp, MII_BMCR);
4632 cas_read_mii_link_mode(cp, &full_duplex,
4633 &speed, &pause);
4634 cas_mif_poll(cp, 1);
4635 }
4636
4637 } else {
4638 ecmd.port = PORT_FIBRE;
4639 ecmd.transceiver = XCVR_INTERNAL;
4640 ecmd.phy_address = 0;
4641 ecmd.supported |= SUPPORTED_FIBRE;
4642 ecmd.advertising |= ADVERTISED_FIBRE;
4643
4644 if (cp->hw_running) {
4645 /* pcs uses the same bits as mii */
4646 bmcr = readl(cp->regs + REG_PCS_MII_CTRL);
4647 cas_read_pcs_link_mode(cp, &full_duplex,
4648 &speed, &pause);
4649 }
4650 }
4651 spin_unlock_irqrestore(&cp->lock, flags);
4652
4653 if (bmcr & BMCR_ANENABLE) {
4654 ecmd.advertising |= ADVERTISED_Autoneg;
4655 ecmd.autoneg = AUTONEG_ENABLE;
4656 ecmd.speed = ((speed == 10) ?
4657 SPEED_10 :
4658 ((speed == 1000) ?
4659 SPEED_1000 : SPEED_100));
4660 ecmd.duplex = full_duplex ? DUPLEX_FULL : DUPLEX_HALF;
4661 } else {
4662 ecmd.autoneg = AUTONEG_DISABLE;
4663 ecmd.speed =
4664 (bmcr & CAS_BMCR_SPEED1000) ?
4665 SPEED_1000 :
4666 ((bmcr & BMCR_SPEED100) ? SPEED_100:
4667 SPEED_10);
4668 ecmd.duplex =
4669 (bmcr & BMCR_FULLDPLX) ?
4670 DUPLEX_FULL : DUPLEX_HALF;
4671 }
4672 if (linkstate != link_up) {
4673 /* Force these to "unknown" if the link is not up and
4674 * autonogotiation in enabled. We can set the link
4675 * speed to 0, but not ecmd.duplex,
4676 * because its legal values are 0 and 1. Ethtool will
4677 * print the value reported in parentheses after the
4678 * word "Unknown" for unrecognized values.
4679 *
4680 * If in forced mode, we report the speed and duplex
4681 * settings that we configured.
4682 */
4683 if (cp->link_cntl & BMCR_ANENABLE) {
4684 ecmd.speed = 0;
4685 ecmd.duplex = 0xff;
4686 } else {
4687 ecmd.speed = SPEED_10;
4688 if (cp->link_cntl & BMCR_SPEED100) {
4689 ecmd.speed = SPEED_100;
4690 } else if (cp->link_cntl & CAS_BMCR_SPEED1000) {
4691 ecmd.speed = SPEED_1000;
4692 }
4693 ecmd.duplex = (cp->link_cntl & BMCR_FULLDPLX)?
4694 DUPLEX_FULL : DUPLEX_HALF;
4695 }
4696 }
4697 if (copy_to_user(ep_user, &ecmd, sizeof(ecmd)))
4698 return -EFAULT;
4699 return 0;
4700
4701 case ETHTOOL_SSET:
4702 if (!capable(CAP_NET_ADMIN))
4703 return -EPERM;
4704
4705 /* Verify the settings we care about. */
4706 if (ecmd.autoneg != AUTONEG_ENABLE &&
4707 ecmd.autoneg != AUTONEG_DISABLE)
4708 return -EINVAL;
4709
4710 if (ecmd.autoneg == AUTONEG_DISABLE &&
4711 ((ecmd.speed != SPEED_1000 &&
4712 ecmd.speed != SPEED_100 &&
4713 ecmd.speed != SPEED_10) ||
4714 (ecmd.duplex != DUPLEX_HALF &&
4715 ecmd.duplex != DUPLEX_FULL)))
4716 return -EINVAL;
4717
4718 /* Apply settings and restart link process. */
4719 spin_lock_irqsave(&cp->lock, flags);
4720 cas_begin_auto_negotiation(cp, &ecmd);
4721 spin_unlock_irqrestore(&cp->lock, flags);
4722 return 0;
4723
4724 case ETHTOOL_NWAY_RST:
4725 if ((cp->link_cntl & BMCR_ANENABLE) == 0)
4726 return -EINVAL;
4727
4728 /* Restart link process. */
4729 spin_lock_irqsave(&cp->lock, flags);
4730 cas_begin_auto_negotiation(cp, NULL);
4731 spin_unlock_irqrestore(&cp->lock, flags);
4732
4733 return 0;
4734
4735 case ETHTOOL_GWOL:
4736 case ETHTOOL_SWOL:
4737 break; /* doesn't exist */
4738
4739 /* get link status */
4740 case ETHTOOL_GLINK: {
4741 struct ethtool_value edata = { cmd: ETHTOOL_GLINK };
4742
4743 edata.data = (cp->lstate == link_up);
4744 if (copy_to_user(ep_user, &edata, sizeof(edata)))
4745 return -EFAULT;
4746 return 0;
4747 }
4748
4749 /* get message-level */
4750 case ETHTOOL_GMSGLVL: {
4751 struct ethtool_value edata = { cmd: ETHTOOL_GMSGLVL };
4752
4753 edata.data = cp->msg_enable;
4754 if (copy_to_user(ep_user, &edata, sizeof(edata)))
4755 return -EFAULT;
4756 return 0;
4757 }
4758
4759 /* set message-level */
4760 case ETHTOOL_SMSGLVL: {
4761 struct ethtool_value edata;
4762
4763 if (!capable(CAP_NET_ADMIN)) {
4764 return (-EPERM);
4765 }
4766 if (copy_from_user(&edata, ep_user, sizeof(edata)))
4767 return -EFAULT;
4768 cp->msg_enable = edata.data;
4769 return 0;
4770 }
4771
4772 case ETHTOOL_GREGS: {
4773 struct ethtool_regs edata;
4774 u8 *ptr;
4775 int len = cp->casreg_len < CAS_MAX_REGS ?
4776 cp->casreg_len: CAS_MAX_REGS;
4777
4778 if (copy_from_user(&edata, ep_user, sizeof (edata)))
4779 return -EFAULT;
4780
4781 if (edata.len > len)
4782 edata.len = len;
4783 edata.version = 0;
4784 if (copy_to_user (ep_user, &edata, sizeof(edata)))
4785 return -EFAULT;
4786
4787 /* cas_get_regs handles locks (cp->lock). */
4788 ptr = cas_get_regs(cp);
4789 if (ptr == NULL)
4790 return -ENOMEM;
4791 if (copy_to_user(ep_user + sizeof (edata), ptr, edata.len))
4792 return -EFAULT;
4793
4794 kfree(ptr);
4795 return (0);
4796 }
4797 case ETHTOOL_GSTRINGS: {
4798 struct ethtool_gstrings edata;
4799 int len;
4800
4801 if (copy_from_user(&edata, ep_user, sizeof(edata)))
4802 return -EFAULT;
4803
4804 len = edata.len;
4805 switch(edata.string_set) {
4806 case ETH_SS_STATS:
4807 edata.len = (len < CAS_NUM_STAT_KEYS) ?
4808 len : CAS_NUM_STAT_KEYS;
4809 if (copy_to_user(ep_user, &edata, sizeof(edata)))
4810 return -EFAULT;
4811
4812 if (copy_to_user(ep_user + sizeof(edata),
4813 &ethtool_cassini_statnames,
4814 (edata.len * ETH_GSTRING_LEN)))
4815 return -EFAULT;
4816 return 0;
4817 default:
4818 return -EINVAL;
4819 }
4820 }
4821 case ETHTOOL_GSTATS: {
4822 int i = 0;
4823 u64 *tmp;
4824 struct ethtool_stats edata;
4825 struct net_device_stats *stats;
4826 int len;
4827
4828 if (copy_from_user(&edata, ep_user, sizeof(edata)))
4829 return -EFAULT;
4830
4831 len = edata.n_stats;
4832 stats = cas_get_stats(cp->dev);
4833 edata.cmd = ETHTOOL_GSTATS;
4834 edata.n_stats = (len < CAS_NUM_STAT_KEYS) ?
4835 len : CAS_NUM_STAT_KEYS;
4836 if (copy_to_user(ep_user, &edata, sizeof (edata)))
4837 return -EFAULT;
4838
4839 tmp = kmalloc(sizeof(u64)*CAS_NUM_STAT_KEYS, GFP_KERNEL);
4840 if (tmp) {
4841 tmp[i++] = stats->collisions;
4842 tmp[i++] = stats->rx_bytes;
4843 tmp[i++] = stats->rx_crc_errors;
4844 tmp[i++] = stats->rx_dropped;
4845 tmp[i++] = stats->rx_errors;
4846 tmp[i++] = stats->rx_fifo_errors;
4847 tmp[i++] = stats->rx_frame_errors;
4848 tmp[i++] = stats->rx_length_errors;
4849 tmp[i++] = stats->rx_over_errors;
4850 tmp[i++] = stats->rx_packets;
4851 tmp[i++] = stats->tx_aborted_errors;
4852 tmp[i++] = stats->tx_bytes;
4853 tmp[i++] = stats->tx_dropped;
4854 tmp[i++] = stats->tx_errors;
4855 tmp[i++] = stats->tx_fifo_errors;
4856 tmp[i++] = stats->tx_packets;
4857 BUG_ON(i != CAS_NUM_STAT_KEYS);
4858
4859 i = copy_to_user(ep_user + sizeof(edata),
4860 tmp, sizeof(u64)*edata.n_stats);
4861 kfree(tmp);
4862 } else {
4863 return -ENOMEM;
4864 }
4865 if (i)
4866 return -EFAULT;
4867 return 0;
4868 }
4869 }
4870
4871 return -EOPNOTSUPP;
4872}
4873
4874static int cas_ioctl(struct net_device *dev, struct ifreq *ifr, int cmd)
4875{
4876 struct cas *cp = netdev_priv(dev);
4877 struct mii_ioctl_data *data = (struct mii_ioctl_data *)&ifr->ifr_data;
4878 unsigned long flags;
4879 int rc = -EOPNOTSUPP;
4880
4881 /* Hold the PM semaphore while doing ioctl's or we may collide
4882 * with open/close and power management and oops.
4883 */
4884 down(&cp->pm_sem);
4885 switch (cmd) {
4886 case SIOCETHTOOL:
4887 rc = cas_ethtool_ioctl(dev, ifr->ifr_data);
4888 break;
4889
4890 case SIOCGMIIPHY: /* Get address of MII PHY in use. */
4891 data->phy_id = cp->phy_addr;
4892 /* Fallthrough... */
4893
4894 case SIOCGMIIREG: /* Read MII PHY register. */
4895 spin_lock_irqsave(&cp->lock, flags);
4896 cas_mif_poll(cp, 0);
4897 data->val_out = cas_phy_read(cp, data->reg_num & 0x1f);
4898 cas_mif_poll(cp, 1);
4899 spin_unlock_irqrestore(&cp->lock, flags);
4900 rc = 0;
4901 break;
4902
4903 case SIOCSMIIREG: /* Write MII PHY register. */
4904 if (!capable(CAP_NET_ADMIN)) {
4905 rc = -EPERM;
4906 break;
4907 }
4908 spin_lock_irqsave(&cp->lock, flags);
4909 cas_mif_poll(cp, 0);
4910 rc = cas_phy_write(cp, data->reg_num & 0x1f, data->val_in);
4911 cas_mif_poll(cp, 1);
4912 spin_unlock_irqrestore(&cp->lock, flags);
4913 break;
4914 default:
4915 break;
4916 };
4917
4918 up(&cp->pm_sem);
4919 return rc;
4920}
4921
4922static int __devinit cas_init_one(struct pci_dev *pdev,
4923 const struct pci_device_id *ent)
4924{
4925 static int cas_version_printed = 0;
4926 unsigned long casreg_base, casreg_len;
4927 struct net_device *dev;
4928 struct cas *cp;
4929 int i, err, pci_using_dac;
4930 u16 pci_cmd;
4931 u8 orig_cacheline_size = 0, cas_cacheline_size = 0;
4932
4933 if (cas_version_printed++ == 0)
4934 printk(KERN_INFO "%s", version);
4935
4936 err = pci_enable_device(pdev);
4937 if (err) {
4938 printk(KERN_ERR PFX "Cannot enable PCI device, "
4939 "aborting.\n");
4940 return err;
4941 }
4942
4943 if (!(pci_resource_flags(pdev, 0) & IORESOURCE_MEM)) {
4944 printk(KERN_ERR PFX "Cannot find proper PCI device "
4945 "base address, aborting.\n");
4946 err = -ENODEV;
4947 goto err_out_disable_pdev;
4948 }
4949
4950 dev = alloc_etherdev(sizeof(*cp));
4951 if (!dev) {
4952 printk(KERN_ERR PFX "Etherdev alloc failed, aborting.\n");
4953 err = -ENOMEM;
4954 goto err_out_disable_pdev;
4955 }
4956 SET_MODULE_OWNER(dev);
4957 SET_NETDEV_DEV(dev, &pdev->dev);
4958
4959 err = pci_request_regions(pdev, dev->name);
4960 if (err) {
4961 printk(KERN_ERR PFX "Cannot obtain PCI resources, "
4962 "aborting.\n");
4963 goto err_out_free_netdev;
4964 }
4965 pci_set_master(pdev);
4966
4967 /* we must always turn on parity response or else parity
4968 * doesn't get generated properly. disable SERR/PERR as well.
4969 * in addition, we want to turn MWI on.
4970 */
4971 pci_read_config_word(pdev, PCI_COMMAND, &pci_cmd);
4972 pci_cmd &= ~PCI_COMMAND_SERR;
4973 pci_cmd |= PCI_COMMAND_PARITY;
4974 pci_write_config_word(pdev, PCI_COMMAND, pci_cmd);
4975 pci_set_mwi(pdev);
4976 /*
4977 * On some architectures, the default cache line size set
4978 * by pci_set_mwi reduces perforamnce. We have to increase
4979 * it for this case. To start, we'll print some configuration
4980 * data.
4981 */
4982#if 1
4983 pci_read_config_byte(pdev, PCI_CACHE_LINE_SIZE,
4984 &orig_cacheline_size);
4985 if (orig_cacheline_size < CAS_PREF_CACHELINE_SIZE) {
4986 cas_cacheline_size =
4987 (CAS_PREF_CACHELINE_SIZE < SMP_CACHE_BYTES) ?
4988 CAS_PREF_CACHELINE_SIZE : SMP_CACHE_BYTES;
4989 if (pci_write_config_byte(pdev,
4990 PCI_CACHE_LINE_SIZE,
4991 cas_cacheline_size)) {
4992 printk(KERN_ERR PFX "Could not set PCI cache "
4993 "line size\n");
4994 goto err_write_cacheline;
4995 }
4996 }
4997#endif
4998
4999
5000 /* Configure DMA attributes. */
5001 if (!pci_set_dma_mask(pdev, DMA_64BIT_MASK)) {
5002 pci_using_dac = 1;
5003 err = pci_set_consistent_dma_mask(pdev,
5004 DMA_64BIT_MASK);
5005 if (err < 0) {
5006 printk(KERN_ERR PFX "Unable to obtain 64-bit DMA "
5007 "for consistent allocations\n");
5008 goto err_out_free_res;
5009 }
5010
5011 } else {
5012 err = pci_set_dma_mask(pdev, DMA_32BIT_MASK);
5013 if (err) {
5014 printk(KERN_ERR PFX "No usable DMA configuration, "
5015 "aborting.\n");
5016 goto err_out_free_res;
5017 }
5018 pci_using_dac = 0;
5019 }
5020
5021 casreg_base = pci_resource_start(pdev, 0);
5022 casreg_len = pci_resource_len(pdev, 0);
5023
5024 cp = netdev_priv(dev);
5025 cp->pdev = pdev;
5026#if 1
5027 /* A value of 0 indicates we never explicitly set it */
5028 cp->orig_cacheline_size = cas_cacheline_size ? orig_cacheline_size: 0;
5029#endif
5030 cp->dev = dev;
5031 cp->msg_enable = (cassini_debug < 0) ? CAS_DEF_MSG_ENABLE :
5032 cassini_debug;
5033
5034 cp->link_transition = LINK_TRANSITION_UNKNOWN;
5035 cp->link_transition_jiffies_valid = 0;
5036
5037 spin_lock_init(&cp->lock);
5038 spin_lock_init(&cp->rx_inuse_lock);
5039 spin_lock_init(&cp->rx_spare_lock);
5040 for (i = 0; i < N_TX_RINGS; i++) {
5041 spin_lock_init(&cp->stat_lock[i]);
5042 spin_lock_init(&cp->tx_lock[i]);
5043 }
5044 spin_lock_init(&cp->stat_lock[N_TX_RINGS]);
5045 init_MUTEX(&cp->pm_sem);
5046
5047 init_timer(&cp->link_timer);
5048 cp->link_timer.function = cas_link_timer;
5049 cp->link_timer.data = (unsigned long) cp;
5050
5051#if 1
5052 /* Just in case the implementation of atomic operations
5053 * change so that an explicit initialization is necessary.
5054 */
5055 atomic_set(&cp->reset_task_pending, 0);
5056 atomic_set(&cp->reset_task_pending_all, 0);
5057 atomic_set(&cp->reset_task_pending_spare, 0);
5058 atomic_set(&cp->reset_task_pending_mtu, 0);
5059#endif
5060 INIT_WORK(&cp->reset_task, cas_reset_task, cp);
5061
5062 /* Default link parameters */
5063 if (link_mode >= 0 && link_mode <= 6)
5064 cp->link_cntl = link_modes[link_mode];
5065 else
5066 cp->link_cntl = BMCR_ANENABLE;
5067 cp->lstate = link_down;
5068 cp->link_transition = LINK_TRANSITION_LINK_DOWN;
5069 netif_carrier_off(cp->dev);
5070 cp->timer_ticks = 0;
5071
5072 /* give us access to cassini registers */
5073 cp->regs = ioremap(casreg_base, casreg_len);
5074 if (cp->regs == 0UL) {
5075 printk(KERN_ERR PFX "Cannot map device registers, "
5076 "aborting.\n");
5077 goto err_out_free_res;
5078 }
5079 cp->casreg_len = casreg_len;
5080
5081 pci_save_state(pdev);
5082 cas_check_pci_invariants(cp);
5083 cas_hard_reset(cp);
5084 cas_reset(cp, 0);
5085 if (cas_check_invariants(cp))
5086 goto err_out_iounmap;
5087
5088 cp->init_block = (struct cas_init_block *)
5089 pci_alloc_consistent(pdev, sizeof(struct cas_init_block),
5090 &cp->block_dvma);
5091 if (!cp->init_block) {
5092 printk(KERN_ERR PFX "Cannot allocate init block, "
5093 "aborting.\n");
5094 goto err_out_iounmap;
5095 }
5096
5097 for (i = 0; i < N_TX_RINGS; i++)
5098 cp->init_txds[i] = cp->init_block->txds[i];
5099
5100 for (i = 0; i < N_RX_DESC_RINGS; i++)
5101 cp->init_rxds[i] = cp->init_block->rxds[i];
5102
5103 for (i = 0; i < N_RX_COMP_RINGS; i++)
5104 cp->init_rxcs[i] = cp->init_block->rxcs[i];
5105
5106 for (i = 0; i < N_RX_FLOWS; i++)
5107 skb_queue_head_init(&cp->rx_flows[i]);
5108
5109 dev->open = cas_open;
5110 dev->stop = cas_close;
5111 dev->hard_start_xmit = cas_start_xmit;
5112 dev->get_stats = cas_get_stats;
5113 dev->set_multicast_list = cas_set_multicast;
5114 dev->do_ioctl = cas_ioctl;
5115 dev->tx_timeout = cas_tx_timeout;
5116 dev->watchdog_timeo = CAS_TX_TIMEOUT;
5117 dev->change_mtu = cas_change_mtu;
5118#ifdef USE_NAPI
5119 dev->poll = cas_poll;
5120 dev->weight = 64;
5121#endif
5122#ifdef CONFIG_NET_POLL_CONTROLLER
5123 dev->poll_controller = cas_netpoll;
5124#endif
5125 dev->irq = pdev->irq;
5126 dev->dma = 0;
5127
5128 /* Cassini features. */
5129 if ((cp->cas_flags & CAS_FLAG_NO_HW_CSUM) == 0)
5130 dev->features |= NETIF_F_HW_CSUM | NETIF_F_SG;
5131
5132 if (pci_using_dac)
5133 dev->features |= NETIF_F_HIGHDMA;
5134
5135 if (register_netdev(dev)) {
5136 printk(KERN_ERR PFX "Cannot register net device, "
5137 "aborting.\n");
5138 goto err_out_free_consistent;
5139 }
5140
5141 i = readl(cp->regs + REG_BIM_CFG);
5142 printk(KERN_INFO "%s: Sun Cassini%s (%sbit/%sMHz PCI/%s) "
5143 "Ethernet[%d] ", dev->name,
5144 (cp->cas_flags & CAS_FLAG_REG_PLUS) ? "+" : "",
5145 (i & BIM_CFG_32BIT) ? "32" : "64",
5146 (i & BIM_CFG_66MHZ) ? "66" : "33",
5147 (cp->phy_type == CAS_PHY_SERDES) ? "Fi" : "Cu", pdev->irq);
5148
5149 for (i = 0; i < 6; i++)
5150 printk("%2.2x%c", dev->dev_addr[i],
5151 i == 5 ? ' ' : ':');
5152 printk("\n");
5153
5154 pci_set_drvdata(pdev, dev);
5155 cp->hw_running = 1;
5156 cas_entropy_reset(cp);
5157 cas_phy_init(cp);
5158 cas_begin_auto_negotiation(cp, NULL);
5159 return 0;
5160
5161err_out_free_consistent:
5162 pci_free_consistent(pdev, sizeof(struct cas_init_block),
5163 cp->init_block, cp->block_dvma);
5164
5165err_out_iounmap:
5166 down(&cp->pm_sem);
5167 if (cp->hw_running)
5168 cas_shutdown(cp);
5169 up(&cp->pm_sem);
5170
5171 iounmap((void *) cp->regs);
5172
5173
5174err_out_free_res:
5175 pci_release_regions(pdev);
5176
5177err_write_cacheline:
5178 /* Try to restore it in case the error occured after we
5179 * set it.
5180 */
5181 pci_write_config_byte(pdev, PCI_CACHE_LINE_SIZE, orig_cacheline_size);
5182
5183err_out_free_netdev:
5184 free_netdev(dev);
5185
5186err_out_disable_pdev:
5187 pci_disable_device(pdev);
5188 pci_set_drvdata(pdev, NULL);
5189 return -ENODEV;
5190}
5191
5192static void __devexit cas_remove_one(struct pci_dev *pdev)
5193{
5194 struct net_device *dev = pci_get_drvdata(pdev);
5195 struct cas *cp;
5196 if (!dev)
5197 return;
5198
5199 cp = netdev_priv(dev);
5200 unregister_netdev(dev);
5201
5202 down(&cp->pm_sem);
5203 flush_scheduled_work();
5204 if (cp->hw_running)
5205 cas_shutdown(cp);
5206 up(&cp->pm_sem);
5207
5208#if 1
5209 if (cp->orig_cacheline_size) {
5210 /* Restore the cache line size if we had modified
5211 * it.
5212 */
5213 pci_write_config_byte(pdev, PCI_CACHE_LINE_SIZE,
5214 cp->orig_cacheline_size);
5215 }
5216#endif
5217 pci_free_consistent(pdev, sizeof(struct cas_init_block),
5218 cp->init_block, cp->block_dvma);
5219 iounmap((void *) cp->regs);
5220 free_netdev(dev);
5221 pci_release_regions(pdev);
5222 pci_disable_device(pdev);
5223 pci_set_drvdata(pdev, NULL);
5224}
5225
5226#ifdef CONFIG_PM
5227static int cas_suspend(struct pci_dev *pdev, u32 state)
5228{
5229 struct net_device *dev = pci_get_drvdata(pdev);
5230 struct cas *cp = netdev_priv(dev);
5231 unsigned long flags;
5232
5233 /* We hold the PM semaphore during entire driver
5234 * sleep time
5235 */
5236 down(&cp->pm_sem);
5237
5238 /* If the driver is opened, we stop the DMA */
5239 if (cp->opened) {
5240 netif_device_detach(dev);
5241
5242 cas_lock_all_save(cp, flags);
5243
5244 /* We can set the second arg of cas_reset to 0
5245 * because on resume, we'll call cas_init_hw with
5246 * its second arg set so that autonegotiation is
5247 * restarted.
5248 */
5249 cas_reset(cp, 0);
5250 cas_clean_rings(cp);
5251 cas_unlock_all_restore(cp, flags);
5252 }
5253
5254 if (cp->hw_running)
5255 cas_shutdown(cp);
5256
5257 return 0;
5258}
5259
5260static int cas_resume(struct pci_dev *pdev)
5261{
5262 struct net_device *dev = pci_get_drvdata(pdev);
5263 struct cas *cp = netdev_priv(dev);
5264
5265 printk(KERN_INFO "%s: resuming\n", dev->name);
5266
5267 cas_hard_reset(cp);
5268 if (cp->opened) {
5269 unsigned long flags;
5270 cas_lock_all_save(cp, flags);
5271 cas_reset(cp, 0);
5272 cp->hw_running = 1;
5273 cas_clean_rings(cp);
5274 cas_init_hw(cp, 1);
5275 cas_unlock_all_restore(cp, flags);
5276
5277 netif_device_attach(dev);
5278 }
5279 up(&cp->pm_sem);
5280 return 0;
5281}
5282#endif /* CONFIG_PM */
5283
5284static struct pci_driver cas_driver = {
5285 .name = DRV_MODULE_NAME,
5286 .id_table = cas_pci_tbl,
5287 .probe = cas_init_one,
5288 .remove = __devexit_p(cas_remove_one),
5289#ifdef CONFIG_PM
5290 .suspend = cas_suspend,
5291 .resume = cas_resume
5292#endif
5293};
5294
5295static int __init cas_init(void)
5296{
5297 if (linkdown_timeout > 0)
5298 link_transition_timeout = linkdown_timeout * HZ;
5299 else
5300 link_transition_timeout = 0;
5301
5302 return pci_module_init(&cas_driver);
5303}
5304
5305static void __exit cas_cleanup(void)
5306{
5307 pci_unregister_driver(&cas_driver);
5308}
5309
5310module_init(cas_init);
5311module_exit(cas_cleanup);
diff --git a/drivers/net/cassini.h b/drivers/net/cassini.h
new file mode 100644
index 000000000000..88063ef16cf6
--- /dev/null
+++ b/drivers/net/cassini.h
@@ -0,0 +1,4425 @@
1/* $Id: cassini.h,v 1.16 2004/08/17 21:15:16 zaumen Exp $
2 * cassini.h: Definitions for Sun Microsystems Cassini(+) ethernet driver.
3 *
4 * Copyright (C) 2004 Sun Microsystems Inc.
5 * Copyright (c) 2003 Adrian Sun (asun@darksunrising.com)
6 *
7 * This program is free software; you can redistribute it and/or
8 * modify it under the terms of the GNU General Public License as
9 * published by the Free Software Foundation; either version 2 of the
10 * License, or (at your option) any later version.
11 *
12 * This program is distributed in the hope that it will be useful,
13 * but WITHOUT ANY WARRANTY; without even the implied warranty of
14 * MERCHANTABILITY or FITNESS FOR A PARTICULAR PURPOSE. See the
15 * GNU General Public License for more details.
16 *
17 * You should have received a copy of the GNU General Public License
18 * along with this program; if not, write to the Free Software
19 * Foundation, Inc., 59 Temple Place - Suite 330, Boston, MA
20 * 02111-1307, USA.
21 *
22 * vendor id: 0x108E (Sun Microsystems, Inc.)
23 * device id: 0xabba (Cassini)
24 * revision ids: 0x01 = Cassini
25 * 0x02 = Cassini rev 2
26 * 0x10 = Cassini+
27 * 0x11 = Cassini+ 0.2u
28 *
29 * vendor id: 0x100b (National Semiconductor)
30 * device id: 0x0035 (DP83065/Saturn)
31 * revision ids: 0x30 = Saturn B2
32 *
33 * rings are all offset from 0.
34 *
35 * there are two clock domains:
36 * PCI: 33/66MHz clock
37 * chip: 125MHz clock
38 */
39
40#ifndef _CASSINI_H
41#define _CASSINI_H
42
43/* cassini register map: 2M memory mapped in 32-bit memory space accessible as
44 * 32-bit words. there is no i/o port access. REG_ addresses are
45 * shared between cassini and cassini+. REG_PLUS_ addresses only
46 * appear in cassini+. REG_MINUS_ addresses only appear in cassini.
47 */
48#define CAS_ID_REV2 0x02
49#define CAS_ID_REVPLUS 0x10
50#define CAS_ID_REVPLUS02u 0x11
51#define CAS_ID_REVSATURNB2 0x30
52
53/** global resources **/
54
55/* this register sets the weights for the weighted round robin arbiter. e.g.,
56 * if rx weight == 1 and tx weight == 0, rx == 2x tx transfer credit
57 * for its next turn to access the pci bus.
58 * map: 0x0 = x1, 0x1 = x2, 0x2 = x4, 0x3 = x8
59 * DEFAULT: 0x0, SIZE: 5 bits
60 */
61#define REG_CAWR 0x0004 /* core arbitration weight */
62#define CAWR_RX_DMA_WEIGHT_SHIFT 0
63#define CAWR_RX_DMA_WEIGHT_MASK 0x03 /* [0:1] */
64#define CAWR_TX_DMA_WEIGHT_SHIFT 2
65#define CAWR_TX_DMA_WEIGHT_MASK 0x0C /* [3:2] */
66#define CAWR_RR_DIS 0x10 /* [4] */
67
68/* if enabled, BIM can send bursts across PCI bus > cacheline size. burst
69 * sizes determined by length of packet or descriptor transfer and the
70 * max length allowed by the target.
71 * DEFAULT: 0x0, SIZE: 1 bit
72 */
73#define REG_INF_BURST 0x0008 /* infinite burst enable reg */
74#define INF_BURST_EN 0x1 /* enable */
75
76/* top level interrupts [0-9] are auto-cleared to 0 when the status
77 * register is read. second level interrupts [13 - 18] are cleared at
78 * the source. tx completion register 3 is replicated in [19 - 31]
79 * DEFAULT: 0x00000000, SIZE: 29 bits
80 */
81#define REG_INTR_STATUS 0x000C /* interrupt status register */
82#define INTR_TX_INTME 0x00000001 /* frame w/ INT ME desc bit set
83 xferred from host queue to
84 TX FIFO */
85#define INTR_TX_ALL 0x00000002 /* all xmit frames xferred into
86 TX FIFO. i.e.,
87 TX Kick == TX complete. if
88 PACED_MODE set, then TX FIFO
89 also empty */
90#define INTR_TX_DONE 0x00000004 /* any frame xferred into tx
91 FIFO */
92#define INTR_TX_TAG_ERROR 0x00000008 /* TX FIFO tag framing
93 corrupted. FATAL ERROR */
94#define INTR_RX_DONE 0x00000010 /* at least 1 frame xferred
95 from RX FIFO to host mem.
96 RX completion reg updated.
97 may be delayed by recv
98 intr blanking. */
99#define INTR_RX_BUF_UNAVAIL 0x00000020 /* no more receive buffers.
100 RX Kick == RX complete */
101#define INTR_RX_TAG_ERROR 0x00000040 /* RX FIFO tag framing
102 corrupted. FATAL ERROR */
103#define INTR_RX_COMP_FULL 0x00000080 /* no more room in completion
104 ring to post descriptors.
105 RX complete head incr to
106 almost reach RX complete
107 tail */
108#define INTR_RX_BUF_AE 0x00000100 /* less than the
109 programmable threshold #
110 of free descr avail for
111 hw use */
112#define INTR_RX_COMP_AF 0x00000200 /* less than the
113 programmable threshold #
114 of descr spaces for hw
115 use in completion descr
116 ring */
117#define INTR_RX_LEN_MISMATCH 0x00000400 /* len field from MAC !=
118 len of non-reassembly pkt
119 from fifo during DMA or
120 header parser provides TCP
121 header and payload size >
122 MAC packet size.
123 FATAL ERROR */
124#define INTR_SUMMARY 0x00001000 /* summary interrupt bit. this
125 bit will be set if an interrupt
126 generated on the pci bus. useful
127 when driver is polling for
128 interrupts */
129#define INTR_PCS_STATUS 0x00002000 /* PCS interrupt status register */
130#define INTR_TX_MAC_STATUS 0x00004000 /* TX MAC status register has at
131 least 1 unmasked interrupt set */
132#define INTR_RX_MAC_STATUS 0x00008000 /* RX MAC status register has at
133 least 1 unmasked interrupt set */
134#define INTR_MAC_CTRL_STATUS 0x00010000 /* MAC control status register has
135 at least 1 unmasked interrupt
136 set */
137#define INTR_MIF_STATUS 0x00020000 /* MIF status register has at least
138 1 unmasked interrupt set */
139#define INTR_PCI_ERROR_STATUS 0x00040000 /* PCI error status register in the
140 BIF has at least 1 unmasked
141 interrupt set */
142#define INTR_TX_COMP_3_MASK 0xFFF80000 /* mask for TX completion
143 3 reg data */
144#define INTR_TX_COMP_3_SHIFT 19
145#define INTR_ERROR_MASK (INTR_MIF_STATUS | INTR_PCI_ERROR_STATUS | \
146 INTR_PCS_STATUS | INTR_RX_LEN_MISMATCH | \
147 INTR_TX_MAC_STATUS | INTR_RX_MAC_STATUS | \
148 INTR_TX_TAG_ERROR | INTR_RX_TAG_ERROR | \
149 INTR_MAC_CTRL_STATUS)
150
151/* determines which status events will cause an interrupt. layout same
152 * as REG_INTR_STATUS.
153 * DEFAULT: 0xFFFFFFFF, SIZE: 16 bits
154 */
155#define REG_INTR_MASK 0x0010 /* Interrupt mask */
156
157/* top level interrupt bits that are cleared during read of REG_INTR_STATUS_ALIAS.
158 * useful when driver is polling for interrupts. layout same as REG_INTR_MASK.
159 * DEFAULT: 0x00000000, SIZE: 12 bits
160 */
161#define REG_ALIAS_CLEAR 0x0014 /* alias clear mask
162 (used w/ status alias) */
163/* same as REG_INTR_STATUS except that only bits cleared are those selected by
164 * REG_ALIAS_CLEAR
165 * DEFAULT: 0x00000000, SIZE: 29 bits
166 */
167#define REG_INTR_STATUS_ALIAS 0x001C /* interrupt status alias
168 (selective clear) */
169
170/* DEFAULT: 0x0, SIZE: 3 bits */
171#define REG_PCI_ERR_STATUS 0x1000 /* PCI error status */
172#define PCI_ERR_BADACK 0x01 /* reserved in Cassini+.
173 set if no ACK64# during ABS64 cycle
174 in Cassini. */
175#define PCI_ERR_DTRTO 0x02 /* delayed xaction timeout. set if
176 no read retry after 2^15 clocks */
177#define PCI_ERR_OTHER 0x04 /* other PCI errors */
178#define PCI_ERR_BIM_DMA_WRITE 0x08 /* BIM received 0 count DMA write req.
179 unused in Cassini. */
180#define PCI_ERR_BIM_DMA_READ 0x10 /* BIM received 0 count DMA read req.
181 unused in Cassini. */
182#define PCI_ERR_BIM_DMA_TIMEOUT 0x20 /* BIM received 255 retries during
183 DMA. unused in cassini. */
184
185/* mask for PCI status events that will set PCI_ERR_STATUS. if cleared, event
186 * causes an interrupt to be generated.
187 * DEFAULT: 0x7, SIZE: 3 bits
188 */
189#define REG_PCI_ERR_STATUS_MASK 0x1004 /* PCI Error status mask */
190
191/* used to configure PCI related parameters that are not in PCI config space.
192 * DEFAULT: 0bxx000, SIZE: 5 bits
193 */
194#define REG_BIM_CFG 0x1008 /* BIM Configuration */
195#define BIM_CFG_RESERVED0 0x001 /* reserved */
196#define BIM_CFG_RESERVED1 0x002 /* reserved */
197#define BIM_CFG_64BIT_DISABLE 0x004 /* disable 64-bit mode */
198#define BIM_CFG_66MHZ 0x008 /* (ro) 1 = 66MHz, 0 = < 66MHz */
199#define BIM_CFG_32BIT 0x010 /* (ro) 1 = 32-bit slot, 0 = 64-bit */
200#define BIM_CFG_DPAR_INTR_ENABLE 0x020 /* detected parity err enable */
201#define BIM_CFG_RMA_INTR_ENABLE 0x040 /* master abort intr enable */
202#define BIM_CFG_RTA_INTR_ENABLE 0x080 /* target abort intr enable */
203#define BIM_CFG_RESERVED2 0x100 /* reserved */
204#define BIM_CFG_BIM_DISABLE 0x200 /* stop BIM DMA. use before global
205 reset. reserved in Cassini. */
206#define BIM_CFG_BIM_STATUS 0x400 /* (ro) 1 = BIM DMA suspended.
207 reserved in Cassini. */
208#define BIM_CFG_PERROR_BLOCK 0x800 /* block PERR# to pci bus. def: 0.
209 reserved in Cassini. */
210
211/* DEFAULT: 0x00000000, SIZE: 32 bits */
212#define REG_BIM_DIAG 0x100C /* BIM Diagnostic */
213#define BIM_DIAG_MSTR_SM_MASK 0x3FFFFF00 /* PCI master controller state
214 machine bits [21:0] */
215#define BIM_DIAG_BRST_SM_MASK 0x7F /* PCI burst controller state
216 machine bits [6:0] */
217
218/* writing to SW_RESET_TX and SW_RESET_RX will issue a global
219 * reset. poll until TX and RX read back as 0's for completion.
220 */
221#define REG_SW_RESET 0x1010 /* Software reset */
222#define SW_RESET_TX 0x00000001 /* reset TX DMA engine. poll until
223 cleared to 0. */
224#define SW_RESET_RX 0x00000002 /* reset RX DMA engine. poll until
225 cleared to 0. */
226#define SW_RESET_RSTOUT 0x00000004 /* force RSTOUT# pin active (low).
227 resets PHY and anything else
228 connected to RSTOUT#. RSTOUT#
229 is also activated by local PCI
230 reset when hot-swap is being
231 done. */
232#define SW_RESET_BLOCK_PCS_SLINK 0x00000008 /* if a global reset is done with
233 this bit set, PCS and SLINK
234 modules won't be reset.
235 i.e., link won't drop. */
236#define SW_RESET_BREQ_SM_MASK 0x00007F00 /* breq state machine [6:0] */
237#define SW_RESET_PCIARB_SM_MASK 0x00070000 /* pci arbitration state bits:
238 0b000: ARB_IDLE1
239 0b001: ARB_IDLE2
240 0b010: ARB_WB_ACK
241 0b011: ARB_WB_WAT
242 0b100: ARB_RB_ACK
243 0b101: ARB_RB_WAT
244 0b110: ARB_RB_END
245 0b111: ARB_WB_END */
246#define SW_RESET_RDPCI_SM_MASK 0x00300000 /* read pci state bits:
247 0b00: RD_PCI_WAT
248 0b01: RD_PCI_RDY
249 0b11: RD_PCI_ACK */
250#define SW_RESET_RDARB_SM_MASK 0x00C00000 /* read arbitration state bits:
251 0b00: AD_IDL_RX
252 0b01: AD_ACK_RX
253 0b10: AD_ACK_TX
254 0b11: AD_IDL_TX */
255#define SW_RESET_WRPCI_SM_MASK 0x06000000 /* write pci state bits
256 0b00: WR_PCI_WAT
257 0b01: WR_PCI_RDY
258 0b11: WR_PCI_ACK */
259#define SW_RESET_WRARB_SM_MASK 0x38000000 /* write arbitration state bits:
260 0b000: ARB_IDLE1
261 0b001: ARB_IDLE2
262 0b010: ARB_TX_ACK
263 0b011: ARB_TX_WAT
264 0b100: ARB_RX_ACK
265 0b110: ARB_RX_WAT */
266
267/* Cassini only. 64-bit register used to check PCI datapath. when read,
268 * value written has both lower and upper 32-bit halves rotated to the right
269 * one bit position. e.g., FFFFFFFF FFFFFFFF -> 7FFFFFFF 7FFFFFFF
270 */
271#define REG_MINUS_BIM_DATAPATH_TEST 0x1018 /* Cassini: BIM datapath test
272 Cassini+: reserved */
273
274/* output enables are provided for each device's chip select and for the rest
275 * of the outputs from cassini to its local bus devices. two sw programmable
276 * bits are connected to general purpus control/status bits.
277 * DEFAULT: 0x7
278 */
279#define REG_BIM_LOCAL_DEV_EN 0x1020 /* BIM local device
280 output EN. default: 0x7 */
281#define BIM_LOCAL_DEV_PAD 0x01 /* address bus, RW signal, and
282 OE signal output enable on the
283 local bus interface. these
284 are shared between both local
285 bus devices. tristate when 0. */
286#define BIM_LOCAL_DEV_PROM 0x02 /* PROM chip select */
287#define BIM_LOCAL_DEV_EXT 0x04 /* secondary local bus device chip
288 select output enable */
289#define BIM_LOCAL_DEV_SOFT_0 0x08 /* sw programmable ctrl bit 0 */
290#define BIM_LOCAL_DEV_SOFT_1 0x10 /* sw programmable ctrl bit 1 */
291#define BIM_LOCAL_DEV_HW_RESET 0x20 /* internal hw reset. Cassini+ only. */
292
293/* access 24 entry BIM read and write buffers. put address in REG_BIM_BUFFER_ADDR
294 * and read/write from/to it REG_BIM_BUFFER_DATA_LOW and _DATA_HI.
295 * _DATA_HI should be the last access of the sequence.
296 * DEFAULT: undefined
297 */
298#define REG_BIM_BUFFER_ADDR 0x1024 /* BIM buffer address. for
299 purposes. */
300#define BIM_BUFFER_ADDR_MASK 0x3F /* index (0 - 23) of buffer */
301#define BIM_BUFFER_WR_SELECT 0x40 /* write buffer access = 1
302 read buffer access = 0 */
303/* DEFAULT: undefined */
304#define REG_BIM_BUFFER_DATA_LOW 0x1028 /* BIM buffer data low */
305#define REG_BIM_BUFFER_DATA_HI 0x102C /* BIM buffer data high */
306
307/* set BIM_RAM_BIST_START to start built-in self test for BIM read buffer.
308 * bit auto-clears when done with status read from _SUMMARY and _PASS bits.
309 */
310#define REG_BIM_RAM_BIST 0x102C /* BIM RAM (read buffer) BIST
311 control/status */
312#define BIM_RAM_BIST_RD_START 0x01 /* start BIST for BIM read buffer */
313#define BIM_RAM_BIST_WR_START 0x02 /* start BIST for BIM write buffer.
314 Cassini only. reserved in
315 Cassini+. */
316#define BIM_RAM_BIST_RD_PASS 0x04 /* summary BIST pass status for read
317 buffer. */
318#define BIM_RAM_BIST_WR_PASS 0x08 /* summary BIST pass status for write
319 buffer. Cassini only. reserved
320 in Cassini+. */
321#define BIM_RAM_BIST_RD_LOW_PASS 0x10 /* read low bank passes BIST */
322#define BIM_RAM_BIST_RD_HI_PASS 0x20 /* read high bank passes BIST */
323#define BIM_RAM_BIST_WR_LOW_PASS 0x40 /* write low bank passes BIST.
324 Cassini only. reserved in
325 Cassini+. */
326#define BIM_RAM_BIST_WR_HI_PASS 0x80 /* write high bank passes BIST.
327 Cassini only. reserved in
328 Cassini+. */
329
330/* ASUN: i'm not sure what this does as it's not in the spec.
331 * DEFAULT: 0xFC
332 */
333#define REG_BIM_DIAG_MUX 0x1030 /* BIM diagnostic probe mux
334 select register */
335
336/* enable probe monitoring mode and select data appearing on the P_A* bus. bit
337 * values for _SEL_HI_MASK and _SEL_LOW_MASK:
338 * 0x0: internal probe[7:0] (pci arb state, wtc empty w, wtc full w, wtc empty w,
339 * wtc empty r, post pci)
340 * 0x1: internal probe[15:8] (pci wbuf comp, pci wpkt comp, pci rbuf comp,
341 * pci rpkt comp, txdma wr req, txdma wr ack,
342 * txdma wr rdy, txdma wr xfr done)
343 * 0x2: internal probe[23:16] (txdma rd req, txdma rd ack, txdma rd rdy, rxdma rd,
344 * rd arb state, rd pci state)
345 * 0x3: internal probe[31:24] (rxdma req, rxdma ack, rxdma rdy, wrarb state,
346 * wrpci state)
347 * 0x4: pci io probe[7:0] 0x5: pci io probe[15:8]
348 * 0x6: pci io probe[23:16] 0x7: pci io probe[31:24]
349 * 0x8: pci io probe[39:32] 0x9: pci io probe[47:40]
350 * 0xa: pci io probe[55:48] 0xb: pci io probe[63:56]
351 * the following are not available in Cassini:
352 * 0xc: rx probe[7:0] 0xd: tx probe[7:0]
353 * 0xe: hp probe[7:0] 0xf: mac probe[7:0]
354 */
355#define REG_PLUS_PROBE_MUX_SELECT 0x1034 /* Cassini+: PROBE MUX SELECT */
356#define PROBE_MUX_EN 0x80000000 /* allow probe signals to be
357 driven on local bus P_A[15:0]
358 for debugging */
359#define PROBE_MUX_SUB_MUX_MASK 0x0000FF00 /* select sub module probe signals:
360 0x03 = mac[1:0]
361 0x0C = rx[1:0]
362 0x30 = tx[1:0]
363 0xC0 = hp[1:0] */
364#define PROBE_MUX_SEL_HI_MASK 0x000000F0 /* select which module to appear
365 on P_A[15:8]. see above for
366 values. */
367#define PROBE_MUX_SEL_LOW_MASK 0x0000000F /* select which module to appear
368 on P_A[7:0]. see above for
369 values. */
370
371/* values mean the same thing as REG_INTR_MASK excep that it's for INTB.
372 DEFAULT: 0x1F */
373#define REG_PLUS_INTR_MASK_1 0x1038 /* Cassini+: interrupt mask
374 register 2 for INTB */
375#define REG_PLUS_INTRN_MASK(x) (REG_PLUS_INTR_MASK_1 + ((x) - 1)*16)
376/* bits correspond to both _MASK and _STATUS registers. _ALT corresponds to
377 * all of the alternate (2-4) INTR registers while _1 corresponds to only
378 * _MASK_1 and _STATUS_1 registers.
379 * DEFAULT: 0x7 for MASK registers, 0x0 for ALIAS_CLEAR registers
380 */
381#define INTR_RX_DONE_ALT 0x01
382#define INTR_RX_COMP_FULL_ALT 0x02
383#define INTR_RX_COMP_AF_ALT 0x04
384#define INTR_RX_BUF_UNAVAIL_1 0x08
385#define INTR_RX_BUF_AE_1 0x10 /* almost empty */
386#define INTRN_MASK_RX_EN 0x80
387#define INTRN_MASK_CLEAR_ALL (INTR_RX_DONE_ALT | \
388 INTR_RX_COMP_FULL_ALT | \
389 INTR_RX_COMP_AF_ALT | \
390 INTR_RX_BUF_UNAVAIL_1 | \
391 INTR_RX_BUF_AE_1)
392#define REG_PLUS_INTR_STATUS_1 0x103C /* Cassini+: interrupt status
393 register 2 for INTB. default: 0x1F */
394#define REG_PLUS_INTRN_STATUS(x) (REG_PLUS_INTR_STATUS_1 + ((x) - 1)*16)
395#define INTR_STATUS_ALT_INTX_EN 0x80 /* generate INTX when one of the
396 flags are set. enables desc ring. */
397
398#define REG_PLUS_ALIAS_CLEAR_1 0x1040 /* Cassini+: alias clear mask
399 register 2 for INTB */
400#define REG_PLUS_ALIASN_CLEAR(x) (REG_PLUS_ALIAS_CLEAR_1 + ((x) - 1)*16)
401
402#define REG_PLUS_INTR_STATUS_ALIAS_1 0x1044 /* Cassini+: interrupt status
403 register alias 2 for INTB */
404#define REG_PLUS_INTRN_STATUS_ALIAS(x) (REG_PLUS_INTR_STATUS_ALIAS_1 + ((x) - 1)*16)
405
406#define REG_SATURN_PCFG 0x106c /* pin configuration register for
407 integrated macphy */
408
409#define SATURN_PCFG_TLA 0x00000001 /* 1 = phy actled */
410#define SATURN_PCFG_FLA 0x00000002 /* 1 = phy link10led */
411#define SATURN_PCFG_CLA 0x00000004 /* 1 = phy link100led */
412#define SATURN_PCFG_LLA 0x00000008 /* 1 = phy link1000led */
413#define SATURN_PCFG_RLA 0x00000010 /* 1 = phy duplexled */
414#define SATURN_PCFG_PDS 0x00000020 /* phy debug mode.
415 0 = normal */
416#define SATURN_PCFG_MTP 0x00000080 /* test point select */
417#define SATURN_PCFG_GMO 0x00000100 /* GMII observe. 1 =
418 GMII on SERDES pins for
419 monitoring. */
420#define SATURN_PCFG_FSI 0x00000200 /* 1 = freeze serdes/gmii. all
421 pins configed as outputs.
422 for power saving when using
423 internal phy. */
424#define SATURN_PCFG_LAD 0x00000800 /* 0 = mac core led ctrl
425 polarity from strapping
426 value.
427 1 = mac core led ctrl
428 polarity active low. */
429
430
431/** transmit dma registers **/
432#define MAX_TX_RINGS_SHIFT 2
433#define MAX_TX_RINGS (1 << MAX_TX_RINGS_SHIFT)
434#define MAX_TX_RINGS_MASK (MAX_TX_RINGS - 1)
435
436/* TX configuration.
437 * descr ring sizes size = 32 * (1 << n), n < 9. e.g., 0x8 = 8k. default: 0x8
438 * DEFAULT: 0x3F000001
439 */
440#define REG_TX_CFG 0x2004 /* TX config */
441#define TX_CFG_DMA_EN 0x00000001 /* enable TX DMA. if cleared, DMA
442 will stop after xfer of current
443 buffer has been completed. */
444#define TX_CFG_FIFO_PIO_SEL 0x00000002 /* TX DMA FIFO can be
445 accessed w/ FIFO addr
446 and data registers.
447 TX DMA should be
448 disabled. */
449#define TX_CFG_DESC_RING0_MASK 0x0000003C /* # desc entries in
450 ring 1. */
451#define TX_CFG_DESC_RING0_SHIFT 2
452#define TX_CFG_DESC_RINGN_MASK(a) (TX_CFG_DESC_RING0_MASK << (a)*4)
453#define TX_CFG_DESC_RINGN_SHIFT(a) (TX_CFG_DESC_RING0_SHIFT + (a)*4)
454#define TX_CFG_PACED_MODE 0x00100000 /* TX_ALL only set after
455 TX FIFO becomes empty.
456 if 0, TX_ALL set
457 if descr queue empty. */
458#define TX_CFG_DMA_RDPIPE_DIS 0x01000000 /* always set to 1 */
459#define TX_CFG_COMPWB_Q1 0x02000000 /* completion writeback happens at
460 the end of every packet kicked
461 through Q1. */
462#define TX_CFG_COMPWB_Q2 0x04000000 /* completion writeback happens at
463 the end of every packet kicked
464 through Q2. */
465#define TX_CFG_COMPWB_Q3 0x08000000 /* completion writeback happens at
466 the end of every packet kicked
467 through Q3 */
468#define TX_CFG_COMPWB_Q4 0x10000000 /* completion writeback happens at
469 the end of every packet kicked
470 through Q4 */
471#define TX_CFG_INTR_COMPWB_DIS 0x20000000 /* disable pre-interrupt completion
472 writeback */
473#define TX_CFG_CTX_SEL_MASK 0xC0000000 /* selects tx test port
474 connection
475 0b00: tx mac req,
476 tx mac retry req,
477 tx ack and tx tag.
478 0b01: txdma rd req,
479 txdma rd ack,
480 txdma rd rdy,
481 txdma rd type0
482 0b11: txdma wr req,
483 txdma wr ack,
484 txdma wr rdy,
485 txdma wr xfr done. */
486#define TX_CFG_CTX_SEL_SHIFT 30
487
488/* 11-bit counters that point to next location in FIFO to be loaded/retrieved.
489 * used for diagnostics only.
490 */
491#define REG_TX_FIFO_WRITE_PTR 0x2014 /* TX FIFO write pointer */
492#define REG_TX_FIFO_SHADOW_WRITE_PTR 0x2018 /* TX FIFO shadow write
493 pointer. temp hold reg.
494 diagnostics only. */
495#define REG_TX_FIFO_READ_PTR 0x201C /* TX FIFO read pointer */
496#define REG_TX_FIFO_SHADOW_READ_PTR 0x2020 /* TX FIFO shadow read
497 pointer */
498
499/* (ro) 11-bit up/down counter w/ # of frames currently in TX FIFO */
500#define REG_TX_FIFO_PKT_CNT 0x2024 /* TX FIFO packet counter */
501
502/* current state of all state machines in TX */
503#define REG_TX_SM_1 0x2028 /* TX state machine reg #1 */
504#define TX_SM_1_CHAIN_MASK 0x000003FF /* chaining state machine */
505#define TX_SM_1_CSUM_MASK 0x00000C00 /* checksum state machine */
506#define TX_SM_1_FIFO_LOAD_MASK 0x0003F000 /* FIFO load state machine.
507 = 0x01 when TX disabled. */
508#define TX_SM_1_FIFO_UNLOAD_MASK 0x003C0000 /* FIFO unload state machine */
509#define TX_SM_1_CACHE_MASK 0x03C00000 /* desc. prefetch cache controller
510 state machine */
511#define TX_SM_1_CBQ_ARB_MASK 0xF8000000 /* CBQ arbiter state machine */
512
513#define REG_TX_SM_2 0x202C /* TX state machine reg #2 */
514#define TX_SM_2_COMP_WB_MASK 0x07 /* completion writeback sm */
515#define TX_SM_2_SUB_LOAD_MASK 0x38 /* sub load state machine */
516#define TX_SM_2_KICK_MASK 0xC0 /* kick state machine */
517
518/* 64-bit pointer to the transmit data buffer. only the 50 LSB are incremented
519 * while the upper 23 bits are taken from the TX descriptor
520 */
521#define REG_TX_DATA_PTR_LOW 0x2030 /* TX data pointer low */
522#define REG_TX_DATA_PTR_HI 0x2034 /* TX data pointer high */
523
524/* 13 bit registers written by driver w/ descriptor value that follows
525 * last valid xmit descriptor. kick # and complete # values are used by
526 * the xmit dma engine to control tx descr fetching. if > 1 valid
527 * tx descr is available within the cache line being read, cassini will
528 * internally cache up to 4 of them. 0 on reset. _KICK = rw, _COMP = ro.
529 */
530#define REG_TX_KICK0 0x2038 /* TX kick reg #1 */
531#define REG_TX_KICKN(x) (REG_TX_KICK0 + (x)*4)
532#define REG_TX_COMP0 0x2048 /* TX completion reg #1 */
533#define REG_TX_COMPN(x) (REG_TX_COMP0 + (x)*4)
534
535/* values of TX_COMPLETE_1-4 are written. each completion register
536 * is 2bytes in size and contiguous. 8B allocation w/ 8B alignment.
537 * NOTE: completion reg values are only written back prior to TX_INTME and
538 * TX_ALL interrupts. at all other times, the most up-to-date index values
539 * should be obtained from the REG_TX_COMPLETE_# registers.
540 * here's the layout:
541 * offset from base addr completion # byte
542 * 0 TX_COMPLETE_1_MSB
543 * 1 TX_COMPLETE_1_LSB
544 * 2 TX_COMPLETE_2_MSB
545 * 3 TX_COMPLETE_2_LSB
546 * 4 TX_COMPLETE_3_MSB
547 * 5 TX_COMPLETE_3_LSB
548 * 6 TX_COMPLETE_4_MSB
549 * 7 TX_COMPLETE_4_LSB
550 */
551#define TX_COMPWB_SIZE 8
552#define REG_TX_COMPWB_DB_LOW 0x2058 /* TX completion write back
553 base low */
554#define REG_TX_COMPWB_DB_HI 0x205C /* TX completion write back
555 base high */
556#define TX_COMPWB_MSB_MASK 0x00000000000000FFULL
557#define TX_COMPWB_MSB_SHIFT 0
558#define TX_COMPWB_LSB_MASK 0x000000000000FF00ULL
559#define TX_COMPWB_LSB_SHIFT 8
560#define TX_COMPWB_NEXT(x) ((x) >> 16)
561
562/* 53 MSB used as base address. 11 LSB assumed to be 0. TX desc pointer must
563 * be 2KB-aligned. */
564#define REG_TX_DB0_LOW 0x2060 /* TX descriptor base low #1 */
565#define REG_TX_DB0_HI 0x2064 /* TX descriptor base hi #1 */
566#define REG_TX_DBN_LOW(x) (REG_TX_DB0_LOW + (x)*8)
567#define REG_TX_DBN_HI(x) (REG_TX_DB0_HI + (x)*8)
568
569/* 16-bit registers hold weights for the weighted round-robin of the
570 * four CBQ TX descr rings. weights correspond to # bytes xferred from
571 * host to TXFIFO in a round of WRR arbitration. can be set
572 * dynamically with new weights set upon completion of the current
573 * packet transfer from host memory to TXFIFO. a dummy write to any of
574 * these registers causes a queue1 pre-emption with all historical bw
575 * deficit data reset to 0 (useful when congestion requires a
576 * pre-emption/re-allocation of network bandwidth
577 */
578#define REG_TX_MAXBURST_0 0x2080 /* TX MaxBurst #1 */
579#define REG_TX_MAXBURST_1 0x2084 /* TX MaxBurst #2 */
580#define REG_TX_MAXBURST_2 0x2088 /* TX MaxBurst #3 */
581#define REG_TX_MAXBURST_3 0x208C /* TX MaxBurst #4 */
582
583/* diagnostics access to any TX FIFO location. every access is 65
584 * bits. _DATA_LOW = 32 LSB, _DATA_HI_T1/T0 = 32 MSB. _TAG = tag bit.
585 * writing _DATA_HI_T0 sets tag bit low, writing _DATA_HI_T1 sets tag
586 * bit high. TX_FIFO_PIO_SEL must be set for TX FIFO PIO access. if
587 * TX FIFO data integrity is desired, TX DMA should be
588 * disabled. _DATA_HI_Tx should be the last access of the sequence.
589 */
590#define REG_TX_FIFO_ADDR 0x2104 /* TX FIFO address */
591#define REG_TX_FIFO_TAG 0x2108 /* TX FIFO tag */
592#define REG_TX_FIFO_DATA_LOW 0x210C /* TX FIFO data low */
593#define REG_TX_FIFO_DATA_HI_T1 0x2110 /* TX FIFO data high t1 */
594#define REG_TX_FIFO_DATA_HI_T0 0x2114 /* TX FIFO data high t0 */
595#define REG_TX_FIFO_SIZE 0x2118 /* (ro) TX FIFO size = 0x090 = 9KB */
596
597/* 9-bit register controls BIST of TX FIFO. bit set indicates that the BIST
598 * passed for the specified memory
599 */
600#define REG_TX_RAMBIST 0x211C /* TX RAMBIST control/status */
601#define TX_RAMBIST_STATE 0x01C0 /* progress state of RAMBIST
602 controller state machine */
603#define TX_RAMBIST_RAM33A_PASS 0x0020 /* RAM33A passed */
604#define TX_RAMBIST_RAM32A_PASS 0x0010 /* RAM32A passed */
605#define TX_RAMBIST_RAM33B_PASS 0x0008 /* RAM33B passed */
606#define TX_RAMBIST_RAM32B_PASS 0x0004 /* RAM32B passed */
607#define TX_RAMBIST_SUMMARY 0x0002 /* all RAM passed */
608#define TX_RAMBIST_START 0x0001 /* write 1 to start BIST. self
609 clears on completion. */
610
611/** receive dma registers **/
612#define MAX_RX_DESC_RINGS 2
613#define MAX_RX_COMP_RINGS 4
614
615/* receive DMA channel configuration. default: 0x80910
616 * free ring size = (1 << n)*32 -> [32 - 8k]
617 * completion ring size = (1 << n)*128 -> [128 - 32k], n < 9
618 * DEFAULT: 0x80910
619 */
620#define REG_RX_CFG 0x4000 /* RX config */
621#define RX_CFG_DMA_EN 0x00000001 /* enable RX DMA. 0 stops
622 channel as soon as current
623 frame xfer has completed.
624 driver should disable MAC
625 for 200ms before disabling
626 RX */
627#define RX_CFG_DESC_RING_MASK 0x0000001E /* # desc entries in RX
628 free desc ring.
629 def: 0x8 = 8k */
630#define RX_CFG_DESC_RING_SHIFT 1
631#define RX_CFG_COMP_RING_MASK 0x000001E0 /* # desc entries in RX complete
632 ring. def: 0x8 = 32k */
633#define RX_CFG_COMP_RING_SHIFT 5
634#define RX_CFG_BATCH_DIS 0x00000200 /* disable receive desc
635 batching. def: 0x0 =
636 enabled */
637#define RX_CFG_SWIVEL_MASK 0x00001C00 /* byte offset of the 1st
638 data byte of the packet
639 w/in 8 byte boundares.
640 this swivels the data
641 DMA'ed to header
642 buffers, jumbo buffers
643 when header split is not
644 requested and MTU sized
645 buffers. def: 0x2 */
646#define RX_CFG_SWIVEL_SHIFT 10
647
648/* cassini+ only */
649#define RX_CFG_DESC_RING1_MASK 0x000F0000 /* # of desc entries in
650 RX free desc ring 2.
651 def: 0x8 = 8k */
652#define RX_CFG_DESC_RING1_SHIFT 16
653
654
655/* the page size register allows cassini chips to do the following with
656 * received data:
657 * [--------------------------------------------------------------] page
658 * [off][buf1][pad][off][buf2][pad][off][buf3][pad][off][buf4][pad]
659 * |--------------| = PAGE_SIZE_BUFFER_STRIDE
660 * page = PAGE_SIZE
661 * offset = PAGE_SIZE_MTU_OFF
662 * for the above example, MTU_BUFFER_COUNT = 4.
663 * NOTE: as is apparent, you need to ensure that the following holds:
664 * MTU_BUFFER_COUNT <= PAGE_SIZE/PAGE_SIZE_BUFFER_STRIDE
665 * DEFAULT: 0x48002002 (8k pages)
666 */
667#define REG_RX_PAGE_SIZE 0x4004 /* RX page size */
668#define RX_PAGE_SIZE_MASK 0x00000003 /* size of pages pointed to
669 by receive descriptors.
670 if jumbo buffers are
671 supported the page size
672 should not be < 8k.
673 0b00 = 2k, 0b01 = 4k
674 0b10 = 8k, 0b11 = 16k
675 DEFAULT: 8k */
676#define RX_PAGE_SIZE_SHIFT 0
677#define RX_PAGE_SIZE_MTU_COUNT_MASK 0x00007800 /* # of MTU buffers the hw
678 packs into a page.
679 DEFAULT: 4 */
680#define RX_PAGE_SIZE_MTU_COUNT_SHIFT 11
681#define RX_PAGE_SIZE_MTU_STRIDE_MASK 0x18000000 /* # of bytes that separate
682 each MTU buffer +
683 offset from each
684 other.
685 0b00 = 1k, 0b01 = 2k
686 0b10 = 4k, 0b11 = 8k
687 DEFAULT: 0x1 */
688#define RX_PAGE_SIZE_MTU_STRIDE_SHIFT 27
689#define RX_PAGE_SIZE_MTU_OFF_MASK 0xC0000000 /* offset in each page that
690 hw writes the MTU buffer
691 into.
692 0b00 = 0,
693 0b01 = 64 bytes
694 0b10 = 96, 0b11 = 128
695 DEFAULT: 0x1 */
696#define RX_PAGE_SIZE_MTU_OFF_SHIFT 30
697
698/* 11-bit counter points to next location in RX FIFO to be loaded/read.
699 * shadow write pointers enable retries in case of early receive aborts.
700 * DEFAULT: 0x0. generated on 64-bit boundaries.
701 */
702#define REG_RX_FIFO_WRITE_PTR 0x4008 /* RX FIFO write pointer */
703#define REG_RX_FIFO_READ_PTR 0x400C /* RX FIFO read pointer */
704#define REG_RX_IPP_FIFO_SHADOW_WRITE_PTR 0x4010 /* RX IPP FIFO shadow write
705 pointer */
706#define REG_RX_IPP_FIFO_SHADOW_READ_PTR 0x4014 /* RX IPP FIFO shadow read
707 pointer */
708#define REG_RX_IPP_FIFO_READ_PTR 0x400C /* RX IPP FIFO read
709 pointer. (8-bit counter) */
710
711/* current state of RX DMA state engines + other info
712 * DEFAULT: 0x0
713 */
714#define REG_RX_DEBUG 0x401C /* RX debug */
715#define RX_DEBUG_LOAD_STATE_MASK 0x0000000F /* load state machine w/ MAC:
716 0x0 = idle, 0x1 = load_bop
717 0x2 = load 1, 0x3 = load 2
718 0x4 = load 3, 0x5 = load 4
719 0x6 = last detect
720 0x7 = wait req
721 0x8 = wait req statuss 1st
722 0x9 = load st
723 0xa = bubble mac
724 0xb = error */
725#define RX_DEBUG_LM_STATE_MASK 0x00000070 /* load state machine w/ HP and
726 RX FIFO:
727 0x0 = idle, 0x1 = hp xfr
728 0x2 = wait hp ready
729 0x3 = wait flow code
730 0x4 = fifo xfer
731 0x5 = make status
732 0x6 = csum ready
733 0x7 = error */
734#define RX_DEBUG_FC_STATE_MASK 0x000000180 /* flow control state machine
735 w/ MAC:
736 0x0 = idle
737 0x1 = wait xoff ack
738 0x2 = wait xon
739 0x3 = wait xon ack */
740#define RX_DEBUG_DATA_STATE_MASK 0x000001E00 /* unload data state machine
741 states:
742 0x0 = idle data
743 0x1 = header begin
744 0x2 = xfer header
745 0x3 = xfer header ld
746 0x4 = mtu begin
747 0x5 = xfer mtu
748 0x6 = xfer mtu ld
749 0x7 = jumbo begin
750 0x8 = xfer jumbo
751 0x9 = xfer jumbo ld
752 0xa = reas begin
753 0xb = xfer reas
754 0xc = flush tag
755 0xd = xfer reas ld
756 0xe = error
757 0xf = bubble idle */
758#define RX_DEBUG_DESC_STATE_MASK 0x0001E000 /* unload desc state machine
759 states:
760 0x0 = idle desc
761 0x1 = wait ack
762 0x9 = wait ack 2
763 0x2 = fetch desc 1
764 0xa = fetch desc 2
765 0x3 = load ptrs
766 0x4 = wait dma
767 0x5 = wait ack batch
768 0x6 = post batch
769 0x7 = xfr done */
770#define RX_DEBUG_INTR_READ_PTR_MASK 0x30000000 /* interrupt read ptr of the
771 interrupt queue */
772#define RX_DEBUG_INTR_WRITE_PTR_MASK 0xC0000000 /* interrupt write pointer
773 of the interrupt queue */
774
775/* flow control frames are emmitted using two PAUSE thresholds:
776 * XOFF PAUSE uses pause time value pre-programmed in the Send PAUSE MAC reg
777 * XON PAUSE uses a pause time of 0. granularity of threshold is 64bytes.
778 * PAUSE thresholds defined in terms of FIFO occupancy and may be translated
779 * into FIFO vacancy using RX_FIFO_SIZE. setting ON will trigger XON frames
780 * when FIFO reaches 0. OFF threshold should not be > size of RX FIFO. max
781 * value is is 0x6F.
782 * DEFAULT: 0x00078
783 */
784#define REG_RX_PAUSE_THRESH 0x4020 /* RX pause thresholds */
785#define RX_PAUSE_THRESH_QUANTUM 64
786#define RX_PAUSE_THRESH_OFF_MASK 0x000001FF /* XOFF PAUSE emitted when
787 RX FIFO occupancy >
788 value*64B */
789#define RX_PAUSE_THRESH_OFF_SHIFT 0
790#define RX_PAUSE_THRESH_ON_MASK 0x001FF000 /* XON PAUSE emitted after
791 emitting XOFF PAUSE when RX
792 FIFO occupancy falls below
793 this value*64B. must be
794 < XOFF threshold. if =
795 RX_FIFO_SIZE< XON frames are
796 never emitted. */
797#define RX_PAUSE_THRESH_ON_SHIFT 12
798
799/* 13-bit register used to control RX desc fetching and intr generation. if 4+
800 * valid RX descriptors are available, Cassini will read 4 at a time.
801 * writing N means that all desc up to *but* excluding N are available. N must
802 * be a multiple of 4 (N % 4 = 0). first desc should be cache-line aligned.
803 * DEFAULT: 0 on reset
804 */
805#define REG_RX_KICK 0x4024 /* RX kick reg */
806
807/* 8KB aligned 64-bit pointer to the base of the RX free/completion rings.
808 * lower 13 bits of the low register are hard-wired to 0.
809 */
810#define REG_RX_DB_LOW 0x4028 /* RX descriptor ring
811 base low */
812#define REG_RX_DB_HI 0x402C /* RX descriptor ring
813 base hi */
814#define REG_RX_CB_LOW 0x4030 /* RX completion ring
815 base low */
816#define REG_RX_CB_HI 0x4034 /* RX completion ring
817 base hi */
818/* 13-bit register indicate desc used by cassini for receive frames. used
819 * for diagnostic purposes.
820 * DEFAULT: 0 on reset
821 */
822#define REG_RX_COMP 0x4038 /* (ro) RX completion */
823
824/* HEAD and TAIL are used to control RX desc posting and interrupt
825 * generation. hw moves the head register to pass ownership to sw. sw
826 * moves the tail register to pass ownership back to hw. to give all
827 * entries to hw, set TAIL = HEAD. if HEAD and TAIL indicate that no
828 * more entries are available, DMA will pause and an interrupt will be
829 * generated to indicate no more entries are available. sw can use
830 * this interrupt to reduce the # of times it must update the
831 * completion tail register.
832 * DEFAULT: 0 on reset
833 */
834#define REG_RX_COMP_HEAD 0x403C /* RX completion head */
835#define REG_RX_COMP_TAIL 0x4040 /* RX completion tail */
836
837/* values used for receive interrupt blanking. loaded each time the ISR is read
838 * DEFAULT: 0x00000000
839 */
840#define REG_RX_BLANK 0x4044 /* RX blanking register
841 for ISR read */
842#define RX_BLANK_INTR_PKT_MASK 0x000001FF /* RX_DONE intr asserted if
843 this many sets of completion
844 writebacks (up to 2 packets)
845 occur since the last time
846 the ISR was read. 0 = no
847 packet blanking */
848#define RX_BLANK_INTR_PKT_SHIFT 0
849#define RX_BLANK_INTR_TIME_MASK 0x3FFFF000 /* RX_DONE interrupt asserted
850 if that many clocks were
851 counted since last time the
852 ISR was read.
853 each count is 512 core
854 clocks (125MHz). 0 = no
855 time blanking */
856#define RX_BLANK_INTR_TIME_SHIFT 12
857
858/* values used for interrupt generation based on threshold values of how
859 * many free desc and completion entries are available for hw use.
860 * DEFAULT: 0x00000000
861 */
862#define REG_RX_AE_THRESH 0x4048 /* RX almost empty
863 thresholds */
864#define RX_AE_THRESH_FREE_MASK 0x00001FFF /* RX_BUF_AE will be
865 generated if # desc
866 avail for hw use <=
867 # */
868#define RX_AE_THRESH_FREE_SHIFT 0
869#define RX_AE_THRESH_COMP_MASK 0x0FFFE000 /* RX_COMP_AE will be
870 generated if # of
871 completion entries
872 avail for hw use <=
873 # */
874#define RX_AE_THRESH_COMP_SHIFT 13
875
876/* probabilities for random early drop (RED) thresholds on a FIFO threshold
877 * basis. probability should increase when the FIFO level increases. control
878 * packets are never dropped and not counted in stats. probability programmed
879 * on a 12.5% granularity. e.g., 0x1 = 1/8 packets dropped.
880 * DEFAULT: 0x00000000
881 */
882#define REG_RX_RED 0x404C /* RX random early detect enable */
883#define RX_RED_4K_6K_FIFO_MASK 0x000000FF /* 4KB < FIFO thresh < 6KB */
884#define RX_RED_6K_8K_FIFO_MASK 0x0000FF00 /* 6KB < FIFO thresh < 8KB */
885#define RX_RED_8K_10K_FIFO_MASK 0x00FF0000 /* 8KB < FIFO thresh < 10KB */
886#define RX_RED_10K_12K_FIFO_MASK 0xFF000000 /* 10KB < FIFO thresh < 12KB */
887
888/* FIFO fullness levels for RX FIFO, RX control FIFO, and RX IPP FIFO.
889 * RX control FIFO = # of packets in RX FIFO.
890 * DEFAULT: 0x0
891 */
892#define REG_RX_FIFO_FULLNESS 0x4050 /* (ro) RX FIFO fullness */
893#define RX_FIFO_FULLNESS_RX_FIFO_MASK 0x3FF80000 /* level w/ 8B granularity */
894#define RX_FIFO_FULLNESS_IPP_FIFO_MASK 0x0007FF00 /* level w/ 8B granularity */
895#define RX_FIFO_FULLNESS_RX_PKT_MASK 0x000000FF /* # packets in RX FIFO */
896#define REG_RX_IPP_PACKET_COUNT 0x4054 /* RX IPP packet counter */
897#define REG_RX_WORK_DMA_PTR_LOW 0x4058 /* RX working DMA ptr low */
898#define REG_RX_WORK_DMA_PTR_HI 0x405C /* RX working DMA ptr
899 high */
900
901/* BIST testing ro RX FIFO, RX control FIFO, and RX IPP FIFO. only RX BIST
902 * START/COMPLETE is writeable. START will clear when the BIST has completed
903 * checking all 17 RAMS.
904 * DEFAULT: 0bxxxx xxxxx xxxx xxxx xxxx x000 0000 0000 00x0
905 */
906#define REG_RX_BIST 0x4060 /* (ro) RX BIST */
907#define RX_BIST_32A_PASS 0x80000000 /* RX FIFO 32A passed */
908#define RX_BIST_33A_PASS 0x40000000 /* RX FIFO 33A passed */
909#define RX_BIST_32B_PASS 0x20000000 /* RX FIFO 32B passed */
910#define RX_BIST_33B_PASS 0x10000000 /* RX FIFO 33B passed */
911#define RX_BIST_32C_PASS 0x08000000 /* RX FIFO 32C passed */
912#define RX_BIST_33C_PASS 0x04000000 /* RX FIFO 33C passed */
913#define RX_BIST_IPP_32A_PASS 0x02000000 /* RX IPP FIFO 33B passed */
914#define RX_BIST_IPP_33A_PASS 0x01000000 /* RX IPP FIFO 33A passed */
915#define RX_BIST_IPP_32B_PASS 0x00800000 /* RX IPP FIFO 32B passed */
916#define RX_BIST_IPP_33B_PASS 0x00400000 /* RX IPP FIFO 33B passed */
917#define RX_BIST_IPP_32C_PASS 0x00200000 /* RX IPP FIFO 32C passed */
918#define RX_BIST_IPP_33C_PASS 0x00100000 /* RX IPP FIFO 33C passed */
919#define RX_BIST_CTRL_32_PASS 0x00800000 /* RX CTRL FIFO 32 passed */
920#define RX_BIST_CTRL_33_PASS 0x00400000 /* RX CTRL FIFO 33 passed */
921#define RX_BIST_REAS_26A_PASS 0x00200000 /* RX Reas 26A passed */
922#define RX_BIST_REAS_26B_PASS 0x00100000 /* RX Reas 26B passed */
923#define RX_BIST_REAS_27_PASS 0x00080000 /* RX Reas 27 passed */
924#define RX_BIST_STATE_MASK 0x00078000 /* BIST state machine */
925#define RX_BIST_SUMMARY 0x00000002 /* when BIST complete,
926 summary pass bit
927 contains AND of BIST
928 results of all 16
929 RAMS */
930#define RX_BIST_START 0x00000001 /* write 1 to start
931 BIST. self clears
932 on completion. */
933
934/* next location in RX CTRL FIFO that will be loaded w/ data from RX IPP/read
935 * from to retrieve packet control info.
936 * DEFAULT: 0
937 */
938#define REG_RX_CTRL_FIFO_WRITE_PTR 0x4064 /* (ro) RX control FIFO
939 write ptr */
940#define REG_RX_CTRL_FIFO_READ_PTR 0x4068 /* (ro) RX control FIFO read
941 ptr */
942
943/* receive interrupt blanking. loaded each time interrupt alias register is
944 * read.
945 * DEFAULT: 0x0
946 */
947#define REG_RX_BLANK_ALIAS_READ 0x406C /* RX blanking register for
948 alias read */
949#define RX_BAR_INTR_PACKET_MASK 0x000001FF /* assert RX_DONE if #
950 completion writebacks
951 > # since last ISR
952 read. 0 = no
953 blanking. up to 2
954 packets per
955 completion wb. */
956#define RX_BAR_INTR_TIME_MASK 0x3FFFF000 /* assert RX_DONE if #
957 clocks > # since last
958 ISR read. each count
959 is 512 core clocks
960 (125MHz). 0 = no
961 blanking. */
962
963/* diagnostic access to RX FIFO. 32 LSB accessed via DATA_LOW. 32 MSB accessed
964 * via DATA_HI_T0 or DATA_HI_T1. TAG reads the tag bit. writing HI_T0
965 * will unset the tag bit while writing HI_T1 will set the tag bit. to reset
966 * to normal operation after diagnostics, write to address location 0x0.
967 * RX_DMA_EN bit must be set to 0x0 for RX FIFO PIO access. DATA_HI should
968 * be the last write access of a write sequence.
969 * DEFAULT: undefined
970 */
971#define REG_RX_FIFO_ADDR 0x4080 /* RX FIFO address */
972#define REG_RX_FIFO_TAG 0x4084 /* RX FIFO tag */
973#define REG_RX_FIFO_DATA_LOW 0x4088 /* RX FIFO data low */
974#define REG_RX_FIFO_DATA_HI_T0 0x408C /* RX FIFO data high T0 */
975#define REG_RX_FIFO_DATA_HI_T1 0x4090 /* RX FIFO data high T1 */
976
977/* diagnostic assess to RX CTRL FIFO. 8-bit FIFO_ADDR holds address of
978 * 81 bit control entry and 6 bit flow id. LOW and MID are both 32-bit
979 * accesses. HI is 7-bits with 6-bit flow id and 1 bit control
980 * word. RX_DMA_EN must be 0 for RX CTRL FIFO PIO access. DATA_HI
981 * should be last write access of the write sequence.
982 * DEFAULT: undefined
983 */
984#define REG_RX_CTRL_FIFO_ADDR 0x4094 /* RX Control FIFO and
985 Batching FIFO addr */
986#define REG_RX_CTRL_FIFO_DATA_LOW 0x4098 /* RX Control FIFO data
987 low */
988#define REG_RX_CTRL_FIFO_DATA_MID 0x409C /* RX Control FIFO data
989 mid */
990#define REG_RX_CTRL_FIFO_DATA_HI 0x4100 /* RX Control FIFO data
991 hi and flow id */
992#define RX_CTRL_FIFO_DATA_HI_CTRL 0x0001 /* upper bit of ctrl word */
993#define RX_CTRL_FIFO_DATA_HI_FLOW_MASK 0x007E /* flow id */
994
995/* diagnostic access to RX IPP FIFO. same semantics as RX_FIFO.
996 * DEFAULT: undefined
997 */
998#define REG_RX_IPP_FIFO_ADDR 0x4104 /* RX IPP FIFO address */
999#define REG_RX_IPP_FIFO_TAG 0x4108 /* RX IPP FIFO tag */
1000#define REG_RX_IPP_FIFO_DATA_LOW 0x410C /* RX IPP FIFO data low */
1001#define REG_RX_IPP_FIFO_DATA_HI_T0 0x4110 /* RX IPP FIFO data high
1002 T0 */
1003#define REG_RX_IPP_FIFO_DATA_HI_T1 0x4114 /* RX IPP FIFO data high
1004 T1 */
1005
1006/* 64-bit pointer to receive data buffer in host memory used for headers and
1007 * small packets. MSB in high register. loaded by DMA state machine and
1008 * increments as DMA writes receive data. only 50 LSB are incremented. top
1009 * 13 bits taken from RX descriptor.
1010 * DEFAULT: undefined
1011 */
1012#define REG_RX_HEADER_PAGE_PTR_LOW 0x4118 /* (ro) RX header page ptr
1013 low */
1014#define REG_RX_HEADER_PAGE_PTR_HI 0x411C /* (ro) RX header page ptr
1015 high */
1016#define REG_RX_MTU_PAGE_PTR_LOW 0x4120 /* (ro) RX MTU page pointer
1017 low */
1018#define REG_RX_MTU_PAGE_PTR_HI 0x4124 /* (ro) RX MTU page pointer
1019 high */
1020
1021/* PIO diagnostic access to RX reassembly DMA Table RAM. 6-bit register holds
1022 * one of 64 79-bit locations in the RX Reassembly DMA table and the addr of
1023 * one of the 64 byte locations in the Batching table. LOW holds 32 LSB.
1024 * MID holds the next 32 LSB. HIGH holds the 15 MSB. RX_DMA_EN must be set
1025 * to 0 for PIO access. DATA_HIGH should be last write of write sequence.
1026 * layout:
1027 * reassmbl ptr [78:15] | reassmbl index [14:1] | reassmbl entry valid [0]
1028 * DEFAULT: undefined
1029 */
1030#define REG_RX_TABLE_ADDR 0x4128 /* RX reassembly DMA table
1031 address */
1032#define RX_TABLE_ADDR_MASK 0x0000003F /* address mask */
1033
1034#define REG_RX_TABLE_DATA_LOW 0x412C /* RX reassembly DMA table
1035 data low */
1036#define REG_RX_TABLE_DATA_MID 0x4130 /* RX reassembly DMA table
1037 data mid */
1038#define REG_RX_TABLE_DATA_HI 0x4134 /* RX reassembly DMA table
1039 data high */
1040
1041/* cassini+ only */
1042/* 8KB aligned 64-bit pointer to base of RX rings. lower 13 bits hardwired to
1043 * 0. same semantics as primary desc/complete rings.
1044 */
1045#define REG_PLUS_RX_DB1_LOW 0x4200 /* RX descriptor ring
1046 2 base low */
1047#define REG_PLUS_RX_DB1_HI 0x4204 /* RX descriptor ring
1048 2 base high */
1049#define REG_PLUS_RX_CB1_LOW 0x4208 /* RX completion ring
1050 2 base low. 4 total */
1051#define REG_PLUS_RX_CB1_HI 0x420C /* RX completion ring
1052 2 base high. 4 total */
1053#define REG_PLUS_RX_CBN_LOW(x) (REG_PLUS_RX_CB1_LOW + 8*((x) - 1))
1054#define REG_PLUS_RX_CBN_HI(x) (REG_PLUS_RX_CB1_HI + 8*((x) - 1))
1055#define REG_PLUS_RX_KICK1 0x4220 /* RX Kick 2 register */
1056#define REG_PLUS_RX_COMP1 0x4224 /* (ro) RX completion 2
1057 reg */
1058#define REG_PLUS_RX_COMP1_HEAD 0x4228 /* (ro) RX completion 2
1059 head reg. 4 total. */
1060#define REG_PLUS_RX_COMP1_TAIL 0x422C /* RX completion 2
1061 tail reg. 4 total. */
1062#define REG_PLUS_RX_COMPN_HEAD(x) (REG_PLUS_RX_COMP1_HEAD + 8*((x) - 1))
1063#define REG_PLUS_RX_COMPN_TAIL(x) (REG_PLUS_RX_COMP1_TAIL + 8*((x) - 1))
1064#define REG_PLUS_RX_AE1_THRESH 0x4240 /* RX almost empty 2
1065 thresholds */
1066#define RX_AE1_THRESH_FREE_MASK RX_AE_THRESH_FREE_MASK
1067#define RX_AE1_THRESH_FREE_SHIFT RX_AE_THRESH_FREE_SHIFT
1068
1069/** header parser registers **/
1070
1071/* RX parser configuration register.
1072 * DEFAULT: 0x1651004
1073 */
1074#define REG_HP_CFG 0x4140 /* header parser
1075 configuration reg */
1076#define HP_CFG_PARSE_EN 0x00000001 /* enab header parsing */
1077#define HP_CFG_NUM_CPU_MASK 0x000000FC /* # processors
1078 0 = 64. 0x3f = 63 */
1079#define HP_CFG_NUM_CPU_SHIFT 2
1080#define HP_CFG_SYN_INC_MASK 0x00000100 /* SYN bit won't increment
1081 TCP seq # by one when
1082 stored in FDBM */
1083#define HP_CFG_TCP_THRESH_MASK 0x000FFE00 /* # bytes of TCP data
1084 needed to be considered
1085 for reassembly */
1086#define HP_CFG_TCP_THRESH_SHIFT 9
1087
1088/* access to RX Instruction RAM. 5-bit register/counter holds addr
1089 * of 39 bit entry to be read/written. 32 LSB in _DATA_LOW. 7 MSB in _DATA_HI.
1090 * RX_DMA_EN must be 0 for RX instr PIO access. DATA_HI should be last access
1091 * of sequence.
1092 * DEFAULT: undefined
1093 */
1094#define REG_HP_INSTR_RAM_ADDR 0x4144 /* HP instruction RAM
1095 address */
1096#define HP_INSTR_RAM_ADDR_MASK 0x01F /* 5-bit mask */
1097#define REG_HP_INSTR_RAM_DATA_LOW 0x4148 /* HP instruction RAM
1098 data low */
1099#define HP_INSTR_RAM_LOW_OUTMASK_MASK 0x0000FFFF
1100#define HP_INSTR_RAM_LOW_OUTMASK_SHIFT 0
1101#define HP_INSTR_RAM_LOW_OUTSHIFT_MASK 0x000F0000
1102#define HP_INSTR_RAM_LOW_OUTSHIFT_SHIFT 16
1103#define HP_INSTR_RAM_LOW_OUTEN_MASK 0x00300000
1104#define HP_INSTR_RAM_LOW_OUTEN_SHIFT 20
1105#define HP_INSTR_RAM_LOW_OUTARG_MASK 0xFFC00000
1106#define HP_INSTR_RAM_LOW_OUTARG_SHIFT 22
1107#define REG_HP_INSTR_RAM_DATA_MID 0x414C /* HP instruction RAM
1108 data mid */
1109#define HP_INSTR_RAM_MID_OUTARG_MASK 0x00000003
1110#define HP_INSTR_RAM_MID_OUTARG_SHIFT 0
1111#define HP_INSTR_RAM_MID_OUTOP_MASK 0x0000003C
1112#define HP_INSTR_RAM_MID_OUTOP_SHIFT 2
1113#define HP_INSTR_RAM_MID_FNEXT_MASK 0x000007C0
1114#define HP_INSTR_RAM_MID_FNEXT_SHIFT 6
1115#define HP_INSTR_RAM_MID_FOFF_MASK 0x0003F800
1116#define HP_INSTR_RAM_MID_FOFF_SHIFT 11
1117#define HP_INSTR_RAM_MID_SNEXT_MASK 0x007C0000
1118#define HP_INSTR_RAM_MID_SNEXT_SHIFT 18
1119#define HP_INSTR_RAM_MID_SOFF_MASK 0x3F800000
1120#define HP_INSTR_RAM_MID_SOFF_SHIFT 23
1121#define HP_INSTR_RAM_MID_OP_MASK 0xC0000000
1122#define HP_INSTR_RAM_MID_OP_SHIFT 30
1123#define REG_HP_INSTR_RAM_DATA_HI 0x4150 /* HP instruction RAM
1124 data high */
1125#define HP_INSTR_RAM_HI_VAL_MASK 0x0000FFFF
1126#define HP_INSTR_RAM_HI_VAL_SHIFT 0
1127#define HP_INSTR_RAM_HI_MASK_MASK 0xFFFF0000
1128#define HP_INSTR_RAM_HI_MASK_SHIFT 16
1129
1130/* PIO access into RX Header parser data RAM and flow database.
1131 * 11-bit register. Data fills the LSB portion of bus if less than 32 bits.
1132 * DATA_RAM: write RAM_FDB_DATA with index to access DATA_RAM.
1133 * RAM bytes = 4*(x - 1) + [3:0]. e.g., 0 -> [3:0], 31 -> [123:120]
1134 * FLOWDB: write DATA_RAM_FDB register and then read/write FDB1-12 to access
1135 * flow database.
1136 * RX_DMA_EN must be 0 for RX parser RAM PIO access. RX Parser RAM data reg
1137 * should be the last write access of the write sequence.
1138 * DEFAULT: undefined
1139 */
1140#define REG_HP_DATA_RAM_FDB_ADDR 0x4154 /* HP data and FDB
1141 RAM address */
1142#define HP_DATA_RAM_FDB_DATA_MASK 0x001F /* select 1 of 86 byte
1143 locations in header
1144 parser data ram to
1145 read/write */
1146#define HP_DATA_RAM_FDB_FDB_MASK 0x3F00 /* 1 of 64 353-bit locations
1147 in the flow database */
1148#define REG_HP_DATA_RAM_DATA 0x4158 /* HP data RAM data */
1149
1150/* HP flow database registers: 1 - 12, 0x415C - 0x4188, 4 8-bit bytes
1151 * FLOW_DB(1) = IP_SA[127:96], FLOW_DB(2) = IP_SA[95:64]
1152 * FLOW_DB(3) = IP_SA[63:32], FLOW_DB(4) = IP_SA[31:0]
1153 * FLOW_DB(5) = IP_DA[127:96], FLOW_DB(6) = IP_DA[95:64]
1154 * FLOW_DB(7) = IP_DA[63:32], FLOW_DB(8) = IP_DA[31:0]
1155 * FLOW_DB(9) = {TCP_SP[15:0],TCP_DP[15:0]}
1156 * FLOW_DB(10) = bit 0 has value for flow valid
1157 * FLOW_DB(11) = TCP_SEQ[63:32], FLOW_DB(12) = TCP_SEQ[31:0]
1158 */
1159#define REG_HP_FLOW_DB0 0x415C /* HP flow database 1 reg */
1160#define REG_HP_FLOW_DBN(x) (REG_HP_FLOW_DB0 + (x)*4)
1161
1162/* diagnostics for RX Header Parser block.
1163 * ASUN: the header parser state machine register is used for diagnostics
1164 * purposes. however, the spec doesn't have any details on it.
1165 */
1166#define REG_HP_STATE_MACHINE 0x418C /* (ro) HP state machine */
1167#define REG_HP_STATUS0 0x4190 /* (ro) HP status 1 */
1168#define HP_STATUS0_SAP_MASK 0xFFFF0000 /* SAP */
1169#define HP_STATUS0_L3_OFF_MASK 0x0000FE00 /* L3 offset */
1170#define HP_STATUS0_LB_CPUNUM_MASK 0x000001F8 /* load balancing CPU
1171 number */
1172#define HP_STATUS0_HRP_OPCODE_MASK 0x00000007 /* HRP opcode */
1173
1174#define REG_HP_STATUS1 0x4194 /* (ro) HP status 2 */
1175#define HP_STATUS1_ACCUR2_MASK 0xE0000000 /* accu R2[6:4] */
1176#define HP_STATUS1_FLOWID_MASK 0x1F800000 /* flow id */
1177#define HP_STATUS1_TCP_OFF_MASK 0x007F0000 /* tcp payload offset */
1178#define HP_STATUS1_TCP_SIZE_MASK 0x0000FFFF /* tcp payload size */
1179
1180#define REG_HP_STATUS2 0x4198 /* (ro) HP status 3 */
1181#define HP_STATUS2_ACCUR2_MASK 0xF0000000 /* accu R2[3:0] */
1182#define HP_STATUS2_CSUM_OFF_MASK 0x07F00000 /* checksum start
1183 start offset */
1184#define HP_STATUS2_ACCUR1_MASK 0x000FE000 /* accu R1 */
1185#define HP_STATUS2_FORCE_DROP 0x00001000 /* force drop */
1186#define HP_STATUS2_BWO_REASSM 0x00000800 /* batching w/o
1187 reassembly */
1188#define HP_STATUS2_JH_SPLIT_EN 0x00000400 /* jumbo header split
1189 enable */
1190#define HP_STATUS2_FORCE_TCP_NOCHECK 0x00000200 /* force tcp no payload
1191 check */
1192#define HP_STATUS2_DATA_MASK_ZERO 0x00000100 /* mask of data length
1193 equal to zero */
1194#define HP_STATUS2_FORCE_TCP_CHECK 0x00000080 /* force tcp payload
1195 chk */
1196#define HP_STATUS2_MASK_TCP_THRESH 0x00000040 /* mask of payload
1197 threshold */
1198#define HP_STATUS2_NO_ASSIST 0x00000020 /* no assist */
1199#define HP_STATUS2_CTRL_PACKET_FLAG 0x00000010 /* control packet flag */
1200#define HP_STATUS2_TCP_FLAG_CHECK 0x00000008 /* tcp flag check */
1201#define HP_STATUS2_SYN_FLAG 0x00000004 /* syn flag */
1202#define HP_STATUS2_TCP_CHECK 0x00000002 /* tcp payload chk */
1203#define HP_STATUS2_TCP_NOCHECK 0x00000001 /* tcp no payload chk */
1204
1205/* BIST for header parser(HP) and flow database memories (FDBM). set _START
1206 * to start BIST. controller clears _START on completion. _START can also
1207 * be cleared to force termination of BIST. a bit set indicates that that
1208 * memory passed its BIST.
1209 */
1210#define REG_HP_RAM_BIST 0x419C /* HP RAM BIST reg */
1211#define HP_RAM_BIST_HP_DATA_PASS 0x80000000 /* HP data ram */
1212#define HP_RAM_BIST_HP_INSTR0_PASS 0x40000000 /* HP instr ram 0 */
1213#define HP_RAM_BIST_HP_INSTR1_PASS 0x20000000 /* HP instr ram 1 */
1214#define HP_RAM_BIST_HP_INSTR2_PASS 0x10000000 /* HP instr ram 2 */
1215#define HP_RAM_BIST_FDBM_AGE0_PASS 0x08000000 /* FDBM aging RAM0 */
1216#define HP_RAM_BIST_FDBM_AGE1_PASS 0x04000000 /* FDBM aging RAM1 */
1217#define HP_RAM_BIST_FDBM_FLOWID00_PASS 0x02000000 /* FDBM flowid RAM0
1218 bank 0 */
1219#define HP_RAM_BIST_FDBM_FLOWID10_PASS 0x01000000 /* FDBM flowid RAM1
1220 bank 0 */
1221#define HP_RAM_BIST_FDBM_FLOWID20_PASS 0x00800000 /* FDBM flowid RAM2
1222 bank 0 */
1223#define HP_RAM_BIST_FDBM_FLOWID30_PASS 0x00400000 /* FDBM flowid RAM3
1224 bank 0 */
1225#define HP_RAM_BIST_FDBM_FLOWID01_PASS 0x00200000 /* FDBM flowid RAM0
1226 bank 1 */
1227#define HP_RAM_BIST_FDBM_FLOWID11_PASS 0x00100000 /* FDBM flowid RAM1
1228 bank 2 */
1229#define HP_RAM_BIST_FDBM_FLOWID21_PASS 0x00080000 /* FDBM flowid RAM2
1230 bank 1 */
1231#define HP_RAM_BIST_FDBM_FLOWID31_PASS 0x00040000 /* FDBM flowid RAM3
1232 bank 1 */
1233#define HP_RAM_BIST_FDBM_TCPSEQ_PASS 0x00020000 /* FDBM tcp sequence
1234 RAM */
1235#define HP_RAM_BIST_SUMMARY 0x00000002 /* all BIST tests */
1236#define HP_RAM_BIST_START 0x00000001 /* start/stop BIST */
1237
1238
1239/** MAC registers. **/
1240/* reset bits are set using a PIO write and self-cleared after the command
1241 * execution has completed.
1242 */
1243#define REG_MAC_TX_RESET 0x6000 /* TX MAC software reset
1244 command (default: 0x0) */
1245#define REG_MAC_RX_RESET 0x6004 /* RX MAC software reset
1246 command (default: 0x0) */
1247/* execute a pause flow control frame transmission
1248 DEFAULT: 0x0XXXX */
1249#define REG_MAC_SEND_PAUSE 0x6008 /* send pause command reg */
1250#define MAC_SEND_PAUSE_TIME_MASK 0x0000FFFF /* value of pause time
1251 to be sent on network
1252 in units of slot
1253 times */
1254#define MAC_SEND_PAUSE_SEND 0x00010000 /* send pause flow ctrl
1255 frame on network */
1256
1257/* bit set indicates that event occurred. auto-cleared when status register
1258 * is read and have corresponding mask bits in mask register. events will
1259 * trigger an interrupt if the corresponding mask bit is 0.
1260 * status register default: 0x00000000
1261 * mask register default = 0xFFFFFFFF on reset
1262 */
1263#define REG_MAC_TX_STATUS 0x6010 /* TX MAC status reg */
1264#define MAC_TX_FRAME_XMIT 0x0001 /* successful frame
1265 transmision */
1266#define MAC_TX_UNDERRUN 0x0002 /* terminated frame
1267 transmission due to
1268 data starvation in the
1269 xmit data path */
1270#define MAC_TX_MAX_PACKET_ERR 0x0004 /* frame exceeds max allowed
1271 length passed to TX MAC
1272 by the DMA engine */
1273#define MAC_TX_COLL_NORMAL 0x0008 /* rollover of the normal
1274 collision counter */
1275#define MAC_TX_COLL_EXCESS 0x0010 /* rollover of the excessive
1276 collision counter */
1277#define MAC_TX_COLL_LATE 0x0020 /* rollover of the late
1278 collision counter */
1279#define MAC_TX_COLL_FIRST 0x0040 /* rollover of the first
1280 collision counter */
1281#define MAC_TX_DEFER_TIMER 0x0080 /* rollover of the defer
1282 timer */
1283#define MAC_TX_PEAK_ATTEMPTS 0x0100 /* rollover of the peak
1284 attempts counter */
1285
1286#define REG_MAC_RX_STATUS 0x6014 /* RX MAC status reg */
1287#define MAC_RX_FRAME_RECV 0x0001 /* successful receipt of
1288 a frame */
1289#define MAC_RX_OVERFLOW 0x0002 /* dropped frame due to
1290 RX FIFO overflow */
1291#define MAC_RX_FRAME_COUNT 0x0004 /* rollover of receive frame
1292 counter */
1293#define MAC_RX_ALIGN_ERR 0x0008 /* rollover of alignment
1294 error counter */
1295#define MAC_RX_CRC_ERR 0x0010 /* rollover of crc error
1296 counter */
1297#define MAC_RX_LEN_ERR 0x0020 /* rollover of length
1298 error counter */
1299#define MAC_RX_VIOL_ERR 0x0040 /* rollover of code
1300 violation error */
1301
1302/* DEFAULT: 0xXXXX0000 on reset */
1303#define REG_MAC_CTRL_STATUS 0x6018 /* MAC control status reg */
1304#define MAC_CTRL_PAUSE_RECEIVED 0x00000001 /* successful
1305 reception of a
1306 pause control
1307 frame */
1308#define MAC_CTRL_PAUSE_STATE 0x00000002 /* MAC has made a
1309 transition from
1310 "not paused" to
1311 "paused" */
1312#define MAC_CTRL_NOPAUSE_STATE 0x00000004 /* MAC has made a
1313 transition from
1314 "paused" to "not
1315 paused" */
1316#define MAC_CTRL_PAUSE_TIME_MASK 0xFFFF0000 /* value of pause time
1317 operand that was
1318 received in the last
1319 pause flow control
1320 frame */
1321
1322/* layout identical to TX MAC[8:0] */
1323#define REG_MAC_TX_MASK 0x6020 /* TX MAC mask reg */
1324/* layout identical to RX MAC[6:0] */
1325#define REG_MAC_RX_MASK 0x6024 /* RX MAC mask reg */
1326/* layout identical to CTRL MAC[2:0] */
1327#define REG_MAC_CTRL_MASK 0x6028 /* MAC control mask reg */
1328
1329/* to ensure proper operation, CFG_EN must be cleared to 0 and a delay
1330 * imposed before writes to other bits in the TX_MAC_CFG register or any of
1331 * the MAC parameters is performed. delay dependent upon time required to
1332 * transmit a maximum size frame (= MAC_FRAMESIZE_MAX*8/Mbps). e.g.,
1333 * the delay for a 1518-byte frame on a 100Mbps network is 125us.
1334 * alternatively, just poll TX_CFG_EN until it reads back as 0.
1335 * NOTE: on half-duplex 1Gbps, TX_CFG_CARRIER_EXTEND and
1336 * RX_CFG_CARRIER_EXTEND should be set and the SLOT_TIME register should
1337 * be 0x200 (slot time of 512 bytes)
1338 */
1339#define REG_MAC_TX_CFG 0x6030 /* TX MAC config reg */
1340#define MAC_TX_CFG_EN 0x0001 /* enable TX MAC. 0 will
1341 force TXMAC state
1342 machine to remain in
1343 idle state or to
1344 transition to idle state
1345 on completion of an
1346 ongoing packet. */
1347#define MAC_TX_CFG_IGNORE_CARRIER 0x0002 /* disable CSMA/CD deferral
1348 process. set to 1 when
1349 full duplex and 0 when
1350 half duplex */
1351#define MAC_TX_CFG_IGNORE_COLL 0x0004 /* disable CSMA/CD backoff
1352 algorithm. set to 1 when
1353 full duplex and 0 when
1354 half duplex */
1355#define MAC_TX_CFG_IPG_EN 0x0008 /* enable extension of the
1356 Rx-to-TX IPG. after
1357 receiving a frame, TX
1358 MAC will reset its
1359 deferral process to
1360 carrier sense for the
1361 amount of time = IPG0 +
1362 IPG1 and commit to
1363 transmission for time
1364 specified in IPG2. when
1365 0 or when xmitting frames
1366 back-to-pack (Tx-to-Tx
1367 IPG), TX MAC ignores
1368 IPG0 and will only use
1369 IPG1 for deferral time.
1370 IPG2 still used. */
1371#define MAC_TX_CFG_NEVER_GIVE_UP_EN 0x0010 /* TX MAC will not easily
1372 give up on frame
1373 xmission. if backoff
1374 algorithm reaches the
1375 ATTEMPT_LIMIT, it will
1376 clear attempts counter
1377 and continue trying to
1378 send the frame as
1379 specified by
1380 GIVE_UP_LIM. when 0,
1381 TX MAC will execute
1382 standard CSMA/CD prot. */
1383#define MAC_TX_CFG_NEVER_GIVE_UP_LIM 0x0020 /* when set, TX MAC will
1384 continue to try to xmit
1385 until successful. when
1386 0, TX MAC will continue
1387 to try xmitting until
1388 successful or backoff
1389 algorithm reaches
1390 ATTEMPT_LIMIT*16 */
1391#define MAC_TX_CFG_NO_BACKOFF 0x0040 /* modify CSMA/CD to disable
1392 backoff algorithm. TX
1393 MAC will not back off
1394 after a xmission attempt
1395 that resulted in a
1396 collision. */
1397#define MAC_TX_CFG_SLOW_DOWN 0x0080 /* modify CSMA/CD so that
1398 deferral process is reset
1399 in response to carrier
1400 sense during the entire
1401 duration of IPG. TX MAC
1402 will only commit to frame
1403 xmission after frame
1404 xmission has actually
1405 begun. */
1406#define MAC_TX_CFG_NO_FCS 0x0100 /* TX MAC will not generate
1407 CRC for all xmitted
1408 packets. when clear, CRC
1409 generation is dependent
1410 upon NO_CRC bit in the
1411 xmit control word from
1412 TX DMA */
1413#define MAC_TX_CFG_CARRIER_EXTEND 0x0200 /* enables xmit part of the
1414 carrier extension
1415 feature. this allows for
1416 longer collision domains
1417 by extending the carrier
1418 and collision window
1419 from the end of FCS until
1420 the end of the slot time
1421 if necessary. Required
1422 for half-duplex at 1Gbps,
1423 clear otherwise. */
1424
1425/* when CRC is not stripped, reassembly packets will not contain the CRC.
1426 * these will be stripped by HRP because it reassembles layer 4 data, and the
1427 * CRC is layer 2. however, non-reassembly packets will still contain the CRC
1428 * when passed to the host. to ensure proper operation, need to wait 3.2ms
1429 * after clearing RX_CFG_EN before writing to any other RX MAC registers
1430 * or other MAC parameters. alternatively, poll RX_CFG_EN until it clears
1431 * to 0. similary, HASH_FILTER_EN and ADDR_FILTER_EN have the same
1432 * restrictions as CFG_EN.
1433 */
1434#define REG_MAC_RX_CFG 0x6034 /* RX MAC config reg */
1435#define MAC_RX_CFG_EN 0x0001 /* enable RX MAC */
1436#define MAC_RX_CFG_STRIP_PAD 0x0002 /* always program to 0.
1437 feature not supported */
1438#define MAC_RX_CFG_STRIP_FCS 0x0004 /* RX MAC will strip the
1439 last 4 bytes of a
1440 received frame. */
1441#define MAC_RX_CFG_PROMISC_EN 0x0008 /* promiscuous mode */
1442#define MAC_RX_CFG_PROMISC_GROUP_EN 0x0010 /* accept all valid
1443 multicast frames (group
1444 bit in DA field set) */
1445#define MAC_RX_CFG_HASH_FILTER_EN 0x0020 /* use hash table to filter
1446 multicast addresses */
1447#define MAC_RX_CFG_ADDR_FILTER_EN 0x0040 /* cause RX MAC to use
1448 address filtering regs
1449 to filter both unicast
1450 and multicast
1451 addresses */
1452#define MAC_RX_CFG_DISABLE_DISCARD 0x0080 /* pass errored frames to
1453 RX DMA by setting BAD
1454 bit but not Abort bit
1455 in the status. CRC,
1456 framing, and length errs
1457 will not increment
1458 error counters. frames
1459 which don't match dest
1460 addr will be passed up
1461 w/ BAD bit set. */
1462#define MAC_RX_CFG_CARRIER_EXTEND 0x0100 /* enable reception of
1463 packet bursts generated
1464 by carrier extension
1465 with packet bursting
1466 senders. only applies
1467 to half-duplex 1Gbps */
1468
1469/* DEFAULT: 0x0 */
1470#define REG_MAC_CTRL_CFG 0x6038 /* MAC control config reg */
1471#define MAC_CTRL_CFG_SEND_PAUSE_EN 0x0001 /* respond to requests for
1472 sending pause flow ctrl
1473 frames */
1474#define MAC_CTRL_CFG_RECV_PAUSE_EN 0x0002 /* respond to received
1475 pause flow ctrl frames */
1476#define MAC_CTRL_CFG_PASS_CTRL 0x0004 /* pass valid MAC ctrl
1477 packets to RX DMA */
1478
1479/* to ensure proper operation, a global initialization sequence should be
1480 * performed when a loopback config is entered or exited. if programmed after
1481 * a hw or global sw reset, RX/TX MAC software reset and initialization
1482 * should be done to ensure stable clocking.
1483 * DEFAULT: 0x0
1484 */
1485#define REG_MAC_XIF_CFG 0x603C /* XIF config reg */
1486#define MAC_XIF_TX_MII_OUTPUT_EN 0x0001 /* enable output drivers
1487 on MII xmit bus */
1488#define MAC_XIF_MII_INT_LOOPBACK 0x0002 /* loopback GMII xmit data
1489 path to GMII recv data
1490 path. phy mode register
1491 clock selection must be
1492 set to GMII mode and
1493 GMII_MODE should be set
1494 to 1. in loopback mode,
1495 REFCLK will drive the
1496 entire mac core. 0 for
1497 normal operation. */
1498#define MAC_XIF_DISABLE_ECHO 0x0004 /* disables receive data
1499 path during packet
1500 xmission. clear to 0
1501 in any full duplex mode,
1502 in any loopback mode,
1503 or in half-duplex SERDES
1504 or SLINK modes. set when
1505 in half-duplex when
1506 using external phy. */
1507#define MAC_XIF_GMII_MODE 0x0008 /* MAC operates with GMII
1508 clocks and datapath */
1509#define MAC_XIF_MII_BUFFER_OUTPUT_EN 0x0010 /* MII_BUF_EN pin. enable
1510 external tristate buffer
1511 on the MII receive
1512 bus. */
1513#define MAC_XIF_LINK_LED 0x0020 /* LINKLED# active (low) */
1514#define MAC_XIF_FDPLX_LED 0x0040 /* FDPLXLED# active (low) */
1515
1516#define REG_MAC_IPG0 0x6040 /* inter-packet gap0 reg.
1517 recommended: 0x00 */
1518#define REG_MAC_IPG1 0x6044 /* inter-packet gap1 reg
1519 recommended: 0x08 */
1520#define REG_MAC_IPG2 0x6048 /* inter-packet gap2 reg
1521 recommended: 0x04 */
1522#define REG_MAC_SLOT_TIME 0x604C /* slot time reg
1523 recommended: 0x40 */
1524#define REG_MAC_FRAMESIZE_MIN 0x6050 /* min frame size reg
1525 recommended: 0x40 */
1526
1527/* FRAMESIZE_MAX holds both the max frame size as well as the max burst size.
1528 * recommended value: 0x2000.05EE
1529 */
1530#define REG_MAC_FRAMESIZE_MAX 0x6054 /* max frame size reg */
1531#define MAC_FRAMESIZE_MAX_BURST_MASK 0x3FFF0000 /* max burst size */
1532#define MAC_FRAMESIZE_MAX_BURST_SHIFT 16
1533#define MAC_FRAMESIZE_MAX_FRAME_MASK 0x00007FFF /* max frame size */
1534#define MAC_FRAMESIZE_MAX_FRAME_SHIFT 0
1535#define REG_MAC_PA_SIZE 0x6058 /* PA size reg. number of
1536 preamble bytes that the
1537 TX MAC will xmit at the
1538 beginning of each frame
1539 value should be 2 or
1540 greater. recommended
1541 value: 0x07 */
1542#define REG_MAC_JAM_SIZE 0x605C /* jam size reg. duration
1543 of jam in units of media
1544 byte time. recommended
1545 value: 0x04 */
1546#define REG_MAC_ATTEMPT_LIMIT 0x6060 /* attempt limit reg. #
1547 of attempts TX MAC will
1548 make to xmit a frame
1549 before it resets its
1550 attempts counter. after
1551 the limit has been
1552 reached, TX MAC may or
1553 may not drop the frame
1554 dependent upon value
1555 in TX_MAC_CFG.
1556 recommended
1557 value: 0x10 */
1558#define REG_MAC_CTRL_TYPE 0x6064 /* MAC control type reg.
1559 type field of a MAC
1560 ctrl frame. recommended
1561 value: 0x8808 */
1562
1563/* mac address registers: 0 - 44, 0x6080 - 0x6130, 4 8-bit bytes.
1564 * register contains comparison
1565 * 0 16 MSB of primary MAC addr [47:32] of DA field
1566 * 1 16 middle bits "" [31:16] of DA field
1567 * 2 16 LSB "" [15:0] of DA field
1568 * 3*x 16MSB of alt MAC addr 1-15 [47:32] of DA field
1569 * 4*x 16 middle bits "" [31:16]
1570 * 5*x 16 LSB "" [15:0]
1571 * 42 16 MSB of MAC CTRL addr [47:32] of DA.
1572 * 43 16 middle bits "" [31:16]
1573 * 44 16 LSB "" [15:0]
1574 * MAC CTRL addr must be the reserved multicast addr for MAC CTRL frames.
1575 * if there is a match, MAC will set the bit for alternative address
1576 * filter pass [15]
1577
1578 * here is the map of registers given MAC address notation: a:b:c:d:e:f
1579 * ab cd ef
1580 * primary addr reg 2 reg 1 reg 0
1581 * alt addr 1 reg 5 reg 4 reg 3
1582 * alt addr x reg 5*x reg 4*x reg 3*x
1583 * ctrl addr reg 44 reg 43 reg 42
1584 */
1585#define REG_MAC_ADDR0 0x6080 /* MAC address 0 reg */
1586#define REG_MAC_ADDRN(x) (REG_MAC_ADDR0 + (x)*4)
1587#define REG_MAC_ADDR_FILTER0 0x614C /* address filter 0 reg
1588 [47:32] */
1589#define REG_MAC_ADDR_FILTER1 0x6150 /* address filter 1 reg
1590 [31:16] */
1591#define REG_MAC_ADDR_FILTER2 0x6154 /* address filter 2 reg
1592 [15:0] */
1593#define REG_MAC_ADDR_FILTER2_1_MASK 0x6158 /* address filter 2 and 1
1594 mask reg. 8-bit reg
1595 contains nibble mask for
1596 reg 2 and 1. */
1597#define REG_MAC_ADDR_FILTER0_MASK 0x615C /* address filter 0 mask
1598 reg */
1599
1600/* hash table registers: 0 - 15, 0x6160 - 0x619C, 4 8-bit bytes
1601 * 16-bit registers contain bits of the hash table.
1602 * reg x -> [16*(15 - x) + 15 : 16*(15 - x)].
1603 * e.g., 15 -> [15:0], 0 -> [255:240]
1604 */
1605#define REG_MAC_HASH_TABLE0 0x6160 /* hash table 0 reg */
1606#define REG_MAC_HASH_TABLEN(x) (REG_MAC_HASH_TABLE0 + (x)*4)
1607
1608/* statistics registers. these registers generate an interrupt on
1609 * overflow. recommended initialization: 0x0000. most are 16-bits except
1610 * for PEAK_ATTEMPTS register which is 8 bits.
1611 */
1612#define REG_MAC_COLL_NORMAL 0x61A0 /* normal collision
1613 counter. */
1614#define REG_MAC_COLL_FIRST 0x61A4 /* first attempt
1615 successful collision
1616 counter */
1617#define REG_MAC_COLL_EXCESS 0x61A8 /* excessive collision
1618 counter */
1619#define REG_MAC_COLL_LATE 0x61AC /* late collision counter */
1620#define REG_MAC_TIMER_DEFER 0x61B0 /* defer timer. time base
1621 is the media byte
1622 clock/256 */
1623#define REG_MAC_ATTEMPTS_PEAK 0x61B4 /* peak attempts reg */
1624#define REG_MAC_RECV_FRAME 0x61B8 /* receive frame counter */
1625#define REG_MAC_LEN_ERR 0x61BC /* length error counter */
1626#define REG_MAC_ALIGN_ERR 0x61C0 /* alignment error counter */
1627#define REG_MAC_FCS_ERR 0x61C4 /* FCS error counter */
1628#define REG_MAC_RX_CODE_ERR 0x61C8 /* RX code violation
1629 error counter */
1630
1631/* misc registers */
1632#define REG_MAC_RANDOM_SEED 0x61CC /* random number seed reg.
1633 10-bit register used as a
1634 seed for the random number
1635 generator for the CSMA/CD
1636 backoff algorithm. only
1637 programmed after power-on
1638 reset and should be a
1639 random value which has a
1640 high likelihood of being
1641 unique for each MAC
1642 attached to a network
1643 segment (e.g., 10 LSB of
1644 MAC address) */
1645
1646/* ASUN: there's a PAUSE_TIMER (ro) described, but it's not in the address
1647 * map
1648 */
1649
1650/* 27-bit register has the current state for key state machines in the MAC */
1651#define REG_MAC_STATE_MACHINE 0x61D0 /* (ro) state machine reg */
1652#define MAC_SM_RLM_MASK 0x07800000
1653#define MAC_SM_RLM_SHIFT 23
1654#define MAC_SM_RX_FC_MASK 0x00700000
1655#define MAC_SM_RX_FC_SHIFT 20
1656#define MAC_SM_TLM_MASK 0x000F0000
1657#define MAC_SM_TLM_SHIFT 16
1658#define MAC_SM_ENCAP_SM_MASK 0x0000F000
1659#define MAC_SM_ENCAP_SM_SHIFT 12
1660#define MAC_SM_TX_REQ_MASK 0x00000C00
1661#define MAC_SM_TX_REQ_SHIFT 10
1662#define MAC_SM_TX_FC_MASK 0x000003C0
1663#define MAC_SM_TX_FC_SHIFT 6
1664#define MAC_SM_FIFO_WRITE_SEL_MASK 0x00000038
1665#define MAC_SM_FIFO_WRITE_SEL_SHIFT 3
1666#define MAC_SM_TX_FIFO_EMPTY_MASK 0x00000007
1667#define MAC_SM_TX_FIFO_EMPTY_SHIFT 0
1668
1669/** MIF registers. the MIF can be programmed in either bit-bang or
1670 * frame mode.
1671 **/
1672#define REG_MIF_BIT_BANG_CLOCK 0x6200 /* MIF bit-bang clock.
1673 1 -> 0 will generate a
1674 rising edge. 0 -> 1 will
1675 generate a falling edge. */
1676#define REG_MIF_BIT_BANG_DATA 0x6204 /* MIF bit-bang data. 1-bit
1677 register generates data */
1678#define REG_MIF_BIT_BANG_OUTPUT_EN 0x6208 /* MIF bit-bang output
1679 enable. enable when
1680 xmitting data from MIF to
1681 transceiver. */
1682
1683/* 32-bit register serves as an instruction register when the MIF is
1684 * programmed in frame mode. load this register w/ a valid instruction
1685 * (as per IEEE 802.3u MII spec). poll this register to check for instruction
1686 * execution completion. during a read operation, this register will also
1687 * contain the 16-bit data returned by the tranceiver. unless specified
1688 * otherwise, fields are considered "don't care" when polling for
1689 * completion.
1690 */
1691#define REG_MIF_FRAME 0x620C /* MIF frame/output reg */
1692#define MIF_FRAME_START_MASK 0xC0000000 /* start of frame.
1693 load w/ 01 when
1694 issuing an instr */
1695#define MIF_FRAME_ST 0x40000000 /* STart of frame */
1696#define MIF_FRAME_OPCODE_MASK 0x30000000 /* opcode. 01 for a
1697 write. 10 for a
1698 read */
1699#define MIF_FRAME_OP_READ 0x20000000 /* read OPcode */
1700#define MIF_FRAME_OP_WRITE 0x10000000 /* write OPcode */
1701#define MIF_FRAME_PHY_ADDR_MASK 0x0F800000 /* phy address. when
1702 issuing an instr,
1703 this field should be
1704 loaded w/ the XCVR
1705 addr */
1706#define MIF_FRAME_PHY_ADDR_SHIFT 23
1707#define MIF_FRAME_REG_ADDR_MASK 0x007C0000 /* register address.
1708 when issuing an instr,
1709 addr of register
1710 to be read/written */
1711#define MIF_FRAME_REG_ADDR_SHIFT 18
1712#define MIF_FRAME_TURN_AROUND_MSB 0x00020000 /* turn around, MSB.
1713 when issuing an instr,
1714 set this bit to 1 */
1715#define MIF_FRAME_TURN_AROUND_LSB 0x00010000 /* turn around, LSB.
1716 when issuing an instr,
1717 set this bit to 0.
1718 when polling for
1719 completion, 1 means
1720 that instr execution
1721 has been completed */
1722#define MIF_FRAME_DATA_MASK 0x0000FFFF /* instruction payload
1723 load with 16-bit data
1724 to be written in
1725 transceiver reg for a
1726 write. doesn't matter
1727 in a read. when
1728 polling for
1729 completion, field is
1730 "don't care" for write
1731 and 16-bit data
1732 returned by the
1733 transceiver for a
1734 read (if valid bit
1735 is set) */
1736#define REG_MIF_CFG 0x6210 /* MIF config reg */
1737#define MIF_CFG_PHY_SELECT 0x0001 /* 1 -> select MDIO_1
1738 0 -> select MDIO_0 */
1739#define MIF_CFG_POLL_EN 0x0002 /* enable polling
1740 mechanism. if set,
1741 BB_MODE should be 0 */
1742#define MIF_CFG_BB_MODE 0x0004 /* 1 -> bit-bang mode
1743 0 -> frame mode */
1744#define MIF_CFG_POLL_REG_MASK 0x00F8 /* register address to be
1745 used by polling mode.
1746 only meaningful if POLL_EN
1747 is set to 1 */
1748#define MIF_CFG_POLL_REG_SHIFT 3
1749#define MIF_CFG_MDIO_0 0x0100 /* (ro) dual purpose.
1750 when MDIO_0 is idle,
1751 1 -> tranceiver is
1752 connected to MDIO_0.
1753 when MIF is communicating
1754 w/ MDIO_0 in bit-bang
1755 mode, this bit indicates
1756 the incoming bit stream
1757 during a read op */
1758#define MIF_CFG_MDIO_1 0x0200 /* (ro) dual purpose.
1759 when MDIO_1 is idle,
1760 1 -> transceiver is
1761 connected to MDIO_1.
1762 when MIF is communicating
1763 w/ MDIO_1 in bit-bang
1764 mode, this bit indicates
1765 the incoming bit stream
1766 during a read op */
1767#define MIF_CFG_POLL_PHY_MASK 0x7C00 /* tranceiver address to
1768 be polled */
1769#define MIF_CFG_POLL_PHY_SHIFT 10
1770
1771/* 16-bit register used to determine which bits in the POLL_STATUS portion of
1772 * the MIF_STATUS register will cause an interrupt. if a mask bit is 0,
1773 * corresponding bit of the POLL_STATUS will generate a MIF interrupt when
1774 * set. DEFAULT: 0xFFFF
1775 */
1776#define REG_MIF_MASK 0x6214 /* MIF mask reg */
1777
1778/* 32-bit register used when in poll mode. auto-cleared after being read */
1779#define REG_MIF_STATUS 0x6218 /* MIF status reg */
1780#define MIF_STATUS_POLL_DATA_MASK 0xFFFF0000 /* poll data contains
1781 the "latest image"
1782 update of the XCVR
1783 reg being read */
1784#define MIF_STATUS_POLL_DATA_SHIFT 16
1785#define MIF_STATUS_POLL_STATUS_MASK 0x0000FFFF /* poll status indicates
1786 which bits in the
1787 POLL_DATA field have
1788 changed since the
1789 MIF_STATUS reg was
1790 last read */
1791#define MIF_STATUS_POLL_STATUS_SHIFT 0
1792
1793/* 7-bit register has current state for all state machines in the MIF */
1794#define REG_MIF_STATE_MACHINE 0x621C /* MIF state machine reg */
1795#define MIF_SM_CONTROL_MASK 0x07 /* control state machine
1796 state */
1797#define MIF_SM_EXECUTION_MASK 0x60 /* execution state machine
1798 state */
1799
1800/** PCS/Serialink. the following registers are equivalent to the standard
1801 * MII management registers except that they're directly mapped in
1802 * Cassini's register space.
1803 **/
1804
1805/* the auto-negotiation enable bit should be programmed the same at
1806 * the link partner as in the local device to enable auto-negotiation to
1807 * complete. when that bit is reprogrammed, auto-neg/manual config is
1808 * restarted automatically.
1809 * DEFAULT: 0x1040
1810 */
1811#define REG_PCS_MII_CTRL 0x9000 /* PCS MII control reg */
1812#define PCS_MII_CTRL_1000_SEL 0x0040 /* reads 1. ignored on
1813 writes */
1814#define PCS_MII_CTRL_COLLISION_TEST 0x0080 /* COL signal at the PCS
1815 to MAC interface is
1816 activated regardless
1817 of activity */
1818#define PCS_MII_CTRL_DUPLEX 0x0100 /* forced 0x0. PCS
1819 behaviour same for
1820 half and full dplx */
1821#define PCS_MII_RESTART_AUTONEG 0x0200 /* self clearing.
1822 restart auto-
1823 negotiation */
1824#define PCS_MII_ISOLATE 0x0400 /* read as 0. ignored
1825 on writes */
1826#define PCS_MII_POWER_DOWN 0x0800 /* read as 0. ignored
1827 on writes */
1828#define PCS_MII_AUTONEG_EN 0x1000 /* default 1. PCS goes
1829 through automatic
1830 link config before it
1831 can be used. when 0,
1832 link can be used
1833 w/out any link config
1834 phase */
1835#define PCS_MII_10_100_SEL 0x2000 /* read as 0. ignored on
1836 writes */
1837#define PCS_MII_RESET 0x8000 /* reset PCS. self-clears
1838 when done */
1839
1840/* DEFAULT: 0x0108 */
1841#define REG_PCS_MII_STATUS 0x9004 /* PCS MII status reg */
1842#define PCS_MII_STATUS_EXTEND_CAP 0x0001 /* reads 0 */
1843#define PCS_MII_STATUS_JABBER_DETECT 0x0002 /* reads 0 */
1844#define PCS_MII_STATUS_LINK_STATUS 0x0004 /* 1 -> link up.
1845 0 -> link down. 0 is
1846 latched so that 0 is
1847 kept until read. read
1848 2x to determine if the
1849 link has gone up again */
1850#define PCS_MII_STATUS_AUTONEG_ABLE 0x0008 /* reads 1 (able to perform
1851 auto-neg) */
1852#define PCS_MII_STATUS_REMOTE_FAULT 0x0010 /* 1 -> remote fault detected
1853 from received link code
1854 word. only valid after
1855 auto-neg completed */
1856#define PCS_MII_STATUS_AUTONEG_COMP 0x0020 /* 1 -> auto-negotiation
1857 completed
1858 0 -> auto-negotiation not
1859 completed */
1860#define PCS_MII_STATUS_EXTEND_STATUS 0x0100 /* reads as 1. used as an
1861 indication that this is
1862 a 1000 Base-X PHY. writes
1863 to it are ignored */
1864
1865/* used during auto-negotiation.
1866 * DEFAULT: 0x00E0
1867 */
1868#define REG_PCS_MII_ADVERT 0x9008 /* PCS MII advertisement
1869 reg */
1870#define PCS_MII_ADVERT_FD 0x0020 /* advertise full duplex
1871 1000 Base-X */
1872#define PCS_MII_ADVERT_HD 0x0040 /* advertise half-duplex
1873 1000 Base-X */
1874#define PCS_MII_ADVERT_SYM_PAUSE 0x0080 /* advertise PAUSE
1875 symmetric capability */
1876#define PCS_MII_ADVERT_ASYM_PAUSE 0x0100 /* advertises PAUSE
1877 asymmetric capability */
1878#define PCS_MII_ADVERT_RF_MASK 0x3000 /* remote fault. write bit13
1879 to optionally indicate to
1880 link partner that chip is
1881 going off-line. bit12 will
1882 get set when signal
1883 detect == FAIL and will
1884 remain set until
1885 successful negotiation */
1886#define PCS_MII_ADVERT_ACK 0x4000 /* (ro) */
1887#define PCS_MII_ADVERT_NEXT_PAGE 0x8000 /* (ro) forced 0x0 */
1888
1889/* contents updated as a result of autonegotiation. layout and definitions
1890 * identical to PCS_MII_ADVERT
1891 */
1892#define REG_PCS_MII_LPA 0x900C /* PCS MII link partner
1893 ability reg */
1894#define PCS_MII_LPA_FD PCS_MII_ADVERT_FD
1895#define PCS_MII_LPA_HD PCS_MII_ADVERT_HD
1896#define PCS_MII_LPA_SYM_PAUSE PCS_MII_ADVERT_SYM_PAUSE
1897#define PCS_MII_LPA_ASYM_PAUSE PCS_MII_ADVERT_ASYM_PAUSE
1898#define PCS_MII_LPA_RF_MASK PCS_MII_ADVERT_RF_MASK
1899#define PCS_MII_LPA_ACK PCS_MII_ADVERT_ACK
1900#define PCS_MII_LPA_NEXT_PAGE PCS_MII_ADVERT_NEXT_PAGE
1901
1902/* DEFAULT: 0x0 */
1903#define REG_PCS_CFG 0x9010 /* PCS config reg */
1904#define PCS_CFG_EN 0x01 /* enable PCS. must be
1905 0 when modifying
1906 PCS_MII_ADVERT */
1907#define PCS_CFG_SD_OVERRIDE 0x02 /* sets signal detect to
1908 OK. bit is
1909 non-resettable */
1910#define PCS_CFG_SD_ACTIVE_LOW 0x04 /* changes interpretation
1911 of optical signal to make
1912 signal detect okay when
1913 signal is low */
1914#define PCS_CFG_JITTER_STUDY_MASK 0x18 /* used to make jitter
1915 measurements. a single
1916 code group is xmitted
1917 regularly.
1918 0x0 = normal operation
1919 0x1 = high freq test
1920 pattern, D21.5
1921 0x2 = low freq test
1922 pattern, K28.7
1923 0x3 = reserved */
1924#define PCS_CFG_10MS_TIMER_OVERRIDE 0x20 /* shortens 10-20ms auto-
1925 negotiation timer to
1926 a few cycles for test
1927 purposes */
1928
1929/* used for diagnostic purposes. bits 20-22 autoclear on read */
1930#define REG_PCS_STATE_MACHINE 0x9014 /* (ro) PCS state machine
1931 and diagnostic reg */
1932#define PCS_SM_TX_STATE_MASK 0x0000000F /* 0 and 1 indicate
1933 xmission of idle.
1934 otherwise, xmission of
1935 a packet */
1936#define PCS_SM_RX_STATE_MASK 0x000000F0 /* 0 indicates reception
1937 of idle. otherwise,
1938 reception of packet */
1939#define PCS_SM_WORD_SYNC_STATE_MASK 0x00000700 /* 0 indicates loss of
1940 sync */
1941#define PCS_SM_SEQ_DETECT_STATE_MASK 0x00001800 /* cycling through 0-3
1942 indicates reception of
1943 Config codes. cycling
1944 through 0-1 indicates
1945 reception of idles */
1946#define PCS_SM_LINK_STATE_MASK 0x0001E000
1947#define SM_LINK_STATE_UP 0x00016000 /* link state is up */
1948
1949#define PCS_SM_LOSS_LINK_C 0x00100000 /* loss of link due to
1950 recept of Config
1951 codes */
1952#define PCS_SM_LOSS_LINK_SYNC 0x00200000 /* loss of link due to
1953 loss of sync */
1954#define PCS_SM_LOSS_SIGNAL_DETECT 0x00400000 /* signal detect goes
1955 from OK to FAIL. bit29
1956 will also be set if
1957 this is set */
1958#define PCS_SM_NO_LINK_BREAKLINK 0x01000000 /* link not up due to
1959 receipt of breaklink
1960 C codes from partner.
1961 C codes w/ 0 content
1962 received triggering
1963 start/restart of
1964 autonegotiation.
1965 should be sent for
1966 no longer than 20ms */
1967#define PCS_SM_NO_LINK_SERDES 0x02000000 /* serdes being
1968 initialized. see serdes
1969 state reg */
1970#define PCS_SM_NO_LINK_C 0x04000000 /* C codes not stable or
1971 not received */
1972#define PCS_SM_NO_LINK_SYNC 0x08000000 /* word sync not
1973 achieved */
1974#define PCS_SM_NO_LINK_WAIT_C 0x10000000 /* waiting for C codes
1975 w/ ack bit set */
1976#define PCS_SM_NO_LINK_NO_IDLE 0x20000000 /* link partner continues
1977 to send C codes
1978 instead of idle
1979 symbols or pkt data */
1980
1981/* this register indicates interrupt changes in specific PCS MII status bits.
1982 * PCS_INT may be masked at the ISR level. only a single bit is implemented
1983 * for link status change.
1984 */
1985#define REG_PCS_INTR_STATUS 0x9018 /* PCS interrupt status */
1986#define PCS_INTR_STATUS_LINK_CHANGE 0x04 /* link status has changed
1987 since last read */
1988
1989/* control which network interface is used. no more than one bit should
1990 * be set.
1991 * DEFAULT: none
1992 */
1993#define REG_PCS_DATAPATH_MODE 0x9050 /* datapath mode reg */
1994#define PCS_DATAPATH_MODE_MII 0x00 /* PCS is not used and
1995 MII/GMII is selected.
1996 selection between MII and
1997 GMII is controlled by
1998 XIF_CFG */
1999#define PCS_DATAPATH_MODE_SERDES 0x02 /* PCS is used via the
2000 10-bit interface */
2001
2002/* input to serdes chip or serialink block */
2003#define REG_PCS_SERDES_CTRL 0x9054 /* serdes control reg */
2004#define PCS_SERDES_CTRL_LOOPBACK 0x01 /* enable loopback on
2005 serdes interface */
2006#define PCS_SERDES_CTRL_SYNCD_EN 0x02 /* enable sync carrier
2007 detection. should be
2008 0x0 for normal
2009 operation */
2010#define PCS_SERDES_CTRL_LOCKREF 0x04 /* frequency-lock RBC[0:1]
2011 to REFCLK when set.
2012 when clear, receiver
2013 clock locks to incoming
2014 serial data */
2015
2016/* multiplex test outputs into the PROM address (PA_3 through PA_0) pins.
2017 * should be 0x0 for normal operations.
2018 * 0b000 normal operation, PROM address[3:0] selected
2019 * 0b001 rxdma req, rxdma ack, rxdma ready, rxdma read
2020 * 0b010 rxmac req, rx ack, rx tag, rx clk shared
2021 * 0b011 txmac req, tx ack, tx tag, tx retry req
2022 * 0b100 tx tp3, tx tp2, tx tp1, tx tp0
2023 * 0b101 R period RX, R period TX, R period HP, R period BIM
2024 * DEFAULT: 0x0
2025 */
2026#define REG_PCS_SHARED_OUTPUT_SEL 0x9058 /* shared output select */
2027#define PCS_SOS_PROM_ADDR_MASK 0x0007
2028
2029/* used for diagnostics. this register indicates progress of the SERDES
2030 * boot up.
2031 * 0b00 undergoing reset
2032 * 0b01 waiting 500us while lockrefn is asserted
2033 * 0b10 waiting for comma detect
2034 * 0b11 receive data is synchronized
2035 * DEFAULT: 0x0
2036 */
2037#define REG_PCS_SERDES_STATE 0x905C /* (ro) serdes state */
2038#define PCS_SERDES_STATE_MASK 0x03
2039
2040/* used for diagnostics. indicates number of packets transmitted or received.
2041 * counters rollover w/out generating an interrupt.
2042 * DEFAULT: 0x0
2043 */
2044#define REG_PCS_PACKET_COUNT 0x9060 /* (ro) PCS packet counter */
2045#define PCS_PACKET_COUNT_TX 0x000007FF /* pkts xmitted by PCS */
2046#define PCS_PACKET_COUNT_RX 0x07FF0000 /* pkts recvd by PCS
2047 whether they
2048 encountered an error
2049 or not */
2050
2051/** LocalBus Devices. the following provides run-time access to the
2052 * Cassini's PROM
2053 ***/
2054#define REG_EXPANSION_ROM_RUN_START 0x100000 /* expansion rom run time
2055 access */
2056#define REG_EXPANSION_ROM_RUN_END 0x17FFFF
2057
2058#define REG_SECOND_LOCALBUS_START 0x180000 /* secondary local bus
2059 device */
2060#define REG_SECOND_LOCALBUS_END 0x1FFFFF
2061
2062/* entropy device */
2063#define REG_ENTROPY_START REG_SECOND_LOCALBUS_START
2064#define REG_ENTROPY_DATA (REG_ENTROPY_START + 0x00)
2065#define REG_ENTROPY_STATUS (REG_ENTROPY_START + 0x04)
2066#define ENTROPY_STATUS_DRDY 0x01
2067#define ENTROPY_STATUS_BUSY 0x02
2068#define ENTROPY_STATUS_CIPHER 0x04
2069#define ENTROPY_STATUS_BYPASS_MASK 0x18
2070#define REG_ENTROPY_MODE (REG_ENTROPY_START + 0x05)
2071#define ENTROPY_MODE_KEY_MASK 0x07
2072#define ENTROPY_MODE_ENCRYPT 0x40
2073#define REG_ENTROPY_RAND_REG (REG_ENTROPY_START + 0x06)
2074#define REG_ENTROPY_RESET (REG_ENTROPY_START + 0x07)
2075#define ENTROPY_RESET_DES_IO 0x01
2076#define ENTROPY_RESET_STC_MODE 0x02
2077#define ENTROPY_RESET_KEY_CACHE 0x04
2078#define ENTROPY_RESET_IV 0x08
2079#define REG_ENTROPY_IV (REG_ENTROPY_START + 0x08)
2080#define REG_ENTROPY_KEY0 (REG_ENTROPY_START + 0x10)
2081#define REG_ENTROPY_KEYN(x) (REG_ENTROPY_KEY0 + 4*(x))
2082
2083/* phys of interest w/ their special mii registers */
2084#define PHY_LUCENT_B0 0x00437421
2085#define LUCENT_MII_REG 0x1F
2086
2087#define PHY_NS_DP83065 0x20005c78
2088#define DP83065_MII_MEM 0x16
2089#define DP83065_MII_REGD 0x1D
2090#define DP83065_MII_REGE 0x1E
2091
2092#define PHY_BROADCOM_5411 0x00206071
2093#define PHY_BROADCOM_B0 0x00206050
2094#define BROADCOM_MII_REG4 0x14
2095#define BROADCOM_MII_REG5 0x15
2096#define BROADCOM_MII_REG7 0x17
2097#define BROADCOM_MII_REG8 0x18
2098
2099#define CAS_MII_ANNPTR 0x07
2100#define CAS_MII_ANNPRR 0x08
2101#define CAS_MII_1000_CTRL 0x09
2102#define CAS_MII_1000_STATUS 0x0A
2103#define CAS_MII_1000_EXTEND 0x0F
2104
2105#define CAS_BMSR_1000_EXTEND 0x0100 /* supports 1000Base-T extended status */
2106/*
2107 * if autoneg is disabled, here's the table:
2108 * BMCR_SPEED100 = 100Mbps
2109 * BMCR_SPEED1000 = 1000Mbps
2110 * ~(BMCR_SPEED100 | BMCR_SPEED1000) = 10Mbps
2111 */
2112#define CAS_BMCR_SPEED1000 0x0040 /* Select 1000Mbps */
2113
2114#define CAS_ADVERTISE_1000HALF 0x0100
2115#define CAS_ADVERTISE_1000FULL 0x0200
2116#define CAS_ADVERTISE_PAUSE 0x0400
2117#define CAS_ADVERTISE_ASYM_PAUSE 0x0800
2118
2119/* regular lpa register */
2120#define CAS_LPA_PAUSE CAS_ADVERTISE_PAUSE
2121#define CAS_LPA_ASYM_PAUSE CAS_ADVERTISE_ASYM_PAUSE
2122
2123/* 1000_STATUS register */
2124#define CAS_LPA_1000HALF 0x0400
2125#define CAS_LPA_1000FULL 0x0800
2126
2127#define CAS_EXTEND_1000XFULL 0x8000
2128#define CAS_EXTEND_1000XHALF 0x4000
2129#define CAS_EXTEND_1000TFULL 0x2000
2130#define CAS_EXTEND_1000THALF 0x1000
2131
2132/* cassini header parser firmware */
2133typedef struct cas_hp_inst {
2134 const char *note;
2135
2136 u16 mask, val;
2137
2138 u8 op;
2139 u8 soff, snext; /* if match succeeds, new offset and match */
2140 u8 foff, fnext; /* if match fails, new offset and match */
2141 /* output info */
2142 u8 outop; /* output opcode */
2143
2144 u16 outarg; /* output argument */
2145 u8 outenab; /* output enable: 0 = not, 1 = if match
2146 2 = if !match, 3 = always */
2147 u8 outshift; /* barrel shift right, 4 bits */
2148 u16 outmask;
2149} cas_hp_inst_t;
2150
2151/* comparison */
2152#define OP_EQ 0 /* packet == value */
2153#define OP_LT 1 /* packet < value */
2154#define OP_GT 2 /* packet > value */
2155#define OP_NP 3 /* new packet */
2156
2157/* output opcodes */
2158#define CL_REG 0
2159#define LD_FID 1
2160#define LD_SEQ 2
2161#define LD_CTL 3
2162#define LD_SAP 4
2163#define LD_R1 5
2164#define LD_L3 6
2165#define LD_SUM 7
2166#define LD_HDR 8
2167#define IM_FID 9
2168#define IM_SEQ 10
2169#define IM_SAP 11
2170#define IM_R1 12
2171#define IM_CTL 13
2172#define LD_LEN 14
2173#define ST_FLG 15
2174
2175/* match setp #s for IP4TCP4 */
2176#define S1_PCKT 0
2177#define S1_VLAN 1
2178#define S1_CFI 2
2179#define S1_8023 3
2180#define S1_LLC 4
2181#define S1_LLCc 5
2182#define S1_IPV4 6
2183#define S1_IPV4c 7
2184#define S1_IPV4F 8
2185#define S1_TCP44 9
2186#define S1_IPV6 10
2187#define S1_IPV6L 11
2188#define S1_IPV6c 12
2189#define S1_TCP64 13
2190#define S1_TCPSQ 14
2191#define S1_TCPFG 15
2192#define S1_TCPHL 16
2193#define S1_TCPHc 17
2194#define S1_CLNP 18
2195#define S1_CLNP2 19
2196#define S1_DROP 20
2197#define S2_HTTP 21
2198#define S1_ESP4 22
2199#define S1_AH4 23
2200#define S1_ESP6 24
2201#define S1_AH6 25
2202
2203#define CAS_PROG_IP46TCP4_PREAMBLE \
2204{ "packet arrival?", 0xffff, 0x0000, OP_NP, 6, S1_VLAN, 0, S1_PCKT, \
2205 CL_REG, 0x3ff, 1, 0x0, 0x0000}, \
2206{ "VLAN?", 0xffff, 0x8100, OP_EQ, 1, S1_CFI, 0, S1_8023, \
2207 IM_CTL, 0x00a, 3, 0x0, 0xffff}, \
2208{ "CFI?", 0x1000, 0x1000, OP_EQ, 0, S1_DROP, 1, S1_8023, \
2209 CL_REG, 0x000, 0, 0x0, 0x0000}, \
2210{ "8023?", 0xffff, 0x0600, OP_LT, 1, S1_LLC, 0, S1_IPV4, \
2211 CL_REG, 0x000, 0, 0x0, 0x0000}, \
2212{ "LLC?", 0xffff, 0xaaaa, OP_EQ, 1, S1_LLCc, 0, S1_CLNP, \
2213 CL_REG, 0x000, 0, 0x0, 0x0000}, \
2214{ "LLCc?", 0xff00, 0x0300, OP_EQ, 2, S1_IPV4, 0, S1_CLNP, \
2215 CL_REG, 0x000, 0, 0x0, 0x0000}, \
2216{ "IPV4?", 0xffff, 0x0800, OP_EQ, 1, S1_IPV4c, 0, S1_IPV6, \
2217 LD_SAP, 0x100, 3, 0x0, 0xffff}, \
2218{ "IPV4 cont?", 0xff00, 0x4500, OP_EQ, 3, S1_IPV4F, 0, S1_CLNP, \
2219 LD_SUM, 0x00a, 1, 0x0, 0x0000}, \
2220{ "IPV4 frag?", 0x3fff, 0x0000, OP_EQ, 1, S1_TCP44, 0, S1_CLNP, \
2221 LD_LEN, 0x03e, 1, 0x0, 0xffff}, \
2222{ "TCP44?", 0x00ff, 0x0006, OP_EQ, 7, S1_TCPSQ, 0, S1_CLNP, \
2223 LD_FID, 0x182, 1, 0x0, 0xffff}, /* FID IP4&TCP src+dst */ \
2224{ "IPV6?", 0xffff, 0x86dd, OP_EQ, 1, S1_IPV6L, 0, S1_CLNP, \
2225 LD_SUM, 0x015, 1, 0x0, 0x0000}, \
2226{ "IPV6 len", 0xf000, 0x6000, OP_EQ, 0, S1_IPV6c, 0, S1_CLNP, \
2227 IM_R1, 0x128, 1, 0x0, 0xffff}, \
2228{ "IPV6 cont?", 0x0000, 0x0000, OP_EQ, 3, S1_TCP64, 0, S1_CLNP, \
2229 LD_FID, 0x484, 1, 0x0, 0xffff}, /* FID IP6&TCP src+dst */ \
2230{ "TCP64?", 0xff00, 0x0600, OP_EQ, 18, S1_TCPSQ, 0, S1_CLNP, \
2231 LD_LEN, 0x03f, 1, 0x0, 0xffff}
2232
2233#ifdef USE_HP_IP46TCP4
2234static cas_hp_inst_t cas_prog_ip46tcp4tab[] = {
2235 CAS_PROG_IP46TCP4_PREAMBLE,
2236 { "TCP seq", /* DADDR should point to dest port */
2237 0x0000, 0x0000, OP_EQ, 0, S1_TCPFG, 4, S1_TCPFG, LD_SEQ,
2238 0x081, 3, 0x0, 0xffff}, /* Load TCP seq # */
2239 { "TCP control flags", 0x0000, 0x0000, OP_EQ, 0, S1_TCPHL, 0,
2240 S1_TCPHL, ST_FLG, 0x045, 3, 0x0, 0x002f}, /* Load TCP flags */
2241 { "TCP length", 0x0000, 0x0000, OP_EQ, 0, S1_TCPHc, 0,
2242 S1_TCPHc, LD_R1, 0x205, 3, 0xB, 0xf000},
2243 { "TCP length cont", 0x0000, 0x0000, OP_EQ, 0, S1_PCKT, 0,
2244 S1_PCKT, LD_HDR, 0x0ff, 3, 0x0, 0xffff},
2245 { "Cleanup", 0x0000, 0x0000, OP_EQ, 0, S1_CLNP2, 0, S1_CLNP2,
2246 IM_CTL, 0x001, 3, 0x0, 0x0001},
2247 { "Cleanup 2", 0x0000, 0x0000, OP_EQ, 0, S1_PCKT, 0, S1_PCKT,
2248 IM_CTL, 0x000, 0, 0x0, 0x0000},
2249 { "Drop packet", 0x0000, 0x0000, OP_EQ, 0, S1_PCKT, 0, S1_PCKT,
2250 IM_CTL, 0x080, 3, 0x0, 0xffff},
2251 { NULL },
2252};
2253#ifdef HP_IP46TCP4_DEFAULT
2254#define CAS_HP_FIRMWARE cas_prog_ip46tcp4tab
2255#endif
2256#endif
2257
2258/*
2259 * Alternate table load which excludes HTTP server traffic from reassembly.
2260 * It is substantially similar to the basic table, with one extra state
2261 * and a few extra compares. */
2262#ifdef USE_HP_IP46TCP4NOHTTP
2263static cas_hp_inst_t cas_prog_ip46tcp4nohttptab[] = {
2264 CAS_PROG_IP46TCP4_PREAMBLE,
2265 { "TCP seq", /* DADDR should point to dest port */
2266 0xFFFF, 0x0080, OP_EQ, 0, S2_HTTP, 0, S1_TCPFG, LD_SEQ,
2267 0x081, 3, 0x0, 0xffff} , /* Load TCP seq # */
2268 { "TCP control flags", 0xFFFF, 0x8080, OP_EQ, 0, S2_HTTP, 0,
2269 S1_TCPHL, ST_FLG, 0x145, 2, 0x0, 0x002f, }, /* Load TCP flags */
2270 { "TCP length", 0x0000, 0x0000, OP_EQ, 0, S1_TCPHc, 0, S1_TCPHc,
2271 LD_R1, 0x205, 3, 0xB, 0xf000},
2272 { "TCP length cont", 0x0000, 0x0000, OP_EQ, 0, S1_PCKT, 0, S1_PCKT,
2273 LD_HDR, 0x0ff, 3, 0x0, 0xffff},
2274 { "Cleanup", 0x0000, 0x0000, OP_EQ, 0, S1_CLNP2, 0, S1_CLNP2,
2275 IM_CTL, 0x001, 3, 0x0, 0x0001},
2276 { "Cleanup 2", 0x0000, 0x0000, OP_EQ, 0, S1_PCKT, 0, S1_PCKT,
2277 CL_REG, 0x002, 3, 0x0, 0x0000},
2278 { "Drop packet", 0x0000, 0x0000, OP_EQ, 0, S1_PCKT, 0, S1_PCKT,
2279 IM_CTL, 0x080, 3, 0x0, 0xffff},
2280 { "No HTTP", 0x0000, 0x0000, OP_EQ, 0, S1_PCKT, 0, S1_PCKT,
2281 IM_CTL, 0x044, 3, 0x0, 0xffff},
2282 { NULL },
2283};
2284#ifdef HP_IP46TCP4NOHTTP_DEFAULT
2285#define CAS_HP_FIRMWARE cas_prog_ip46tcp4nohttptab
2286#endif
2287#endif
2288
2289/* match step #s for IP4FRAG */
2290#define S3_IPV6c 11
2291#define S3_TCP64 12
2292#define S3_TCPSQ 13
2293#define S3_TCPFG 14
2294#define S3_TCPHL 15
2295#define S3_TCPHc 16
2296#define S3_FRAG 17
2297#define S3_FOFF 18
2298#define S3_CLNP 19
2299
2300#ifdef USE_HP_IP4FRAG
2301static cas_hp_inst_t cas_prog_ip4fragtab[] = {
2302 { "packet arrival?", 0xffff, 0x0000, OP_NP, 6, S1_VLAN, 0, S1_PCKT,
2303 CL_REG, 0x3ff, 1, 0x0, 0x0000},
2304 { "VLAN?", 0xffff, 0x8100, OP_EQ, 1, S1_CFI, 0, S1_8023,
2305 IM_CTL, 0x00a, 3, 0x0, 0xffff},
2306 { "CFI?", 0x1000, 0x1000, OP_EQ, 0, S3_CLNP, 1, S1_8023,
2307 CL_REG, 0x000, 0, 0x0, 0x0000},
2308 { "8023?", 0xffff, 0x0600, OP_LT, 1, S1_LLC, 0, S1_IPV4,
2309 CL_REG, 0x000, 0, 0x0, 0x0000},
2310 { "LLC?", 0xffff, 0xaaaa, OP_EQ, 1, S1_LLCc, 0, S3_CLNP,
2311 CL_REG, 0x000, 0, 0x0, 0x0000},
2312 { "LLCc?",0xff00, 0x0300, OP_EQ, 2, S1_IPV4, 0, S3_CLNP,
2313 CL_REG, 0x000, 0, 0x0, 0x0000},
2314 { "IPV4?", 0xffff, 0x0800, OP_EQ, 1, S1_IPV4c, 0, S1_IPV6,
2315 LD_SAP, 0x100, 3, 0x0, 0xffff},
2316 { "IPV4 cont?", 0xff00, 0x4500, OP_EQ, 3, S1_IPV4F, 0, S3_CLNP,
2317 LD_SUM, 0x00a, 1, 0x0, 0x0000},
2318 { "IPV4 frag?", 0x3fff, 0x0000, OP_EQ, 1, S1_TCP44, 0, S3_FRAG,
2319 LD_LEN, 0x03e, 3, 0x0, 0xffff},
2320 { "TCP44?", 0x00ff, 0x0006, OP_EQ, 7, S3_TCPSQ, 0, S3_CLNP,
2321 LD_FID, 0x182, 3, 0x0, 0xffff}, /* FID IP4&TCP src+dst */
2322 { "IPV6?", 0xffff, 0x86dd, OP_EQ, 1, S3_IPV6c, 0, S3_CLNP,
2323 LD_SUM, 0x015, 1, 0x0, 0x0000},
2324 { "IPV6 cont?", 0xf000, 0x6000, OP_EQ, 3, S3_TCP64, 0, S3_CLNP,
2325 LD_FID, 0x484, 1, 0x0, 0xffff}, /* FID IP6&TCP src+dst */
2326 { "TCP64?", 0xff00, 0x0600, OP_EQ, 18, S3_TCPSQ, 0, S3_CLNP,
2327 LD_LEN, 0x03f, 1, 0x0, 0xffff},
2328 { "TCP seq", /* DADDR should point to dest port */
2329 0x0000, 0x0000, OP_EQ, 0, S3_TCPFG, 4, S3_TCPFG, LD_SEQ,
2330 0x081, 3, 0x0, 0xffff}, /* Load TCP seq # */
2331 { "TCP control flags", 0x0000, 0x0000, OP_EQ, 0, S3_TCPHL, 0,
2332 S3_TCPHL, ST_FLG, 0x045, 3, 0x0, 0x002f}, /* Load TCP flags */
2333 { "TCP length", 0x0000, 0x0000, OP_EQ, 0, S3_TCPHc, 0, S3_TCPHc,
2334 LD_R1, 0x205, 3, 0xB, 0xf000},
2335 { "TCP length cont", 0x0000, 0x0000, OP_EQ, 0, S1_PCKT, 0, S1_PCKT,
2336 LD_HDR, 0x0ff, 3, 0x0, 0xffff},
2337 { "IP4 Fragment", 0x0000, 0x0000, OP_EQ, 0, S3_FOFF, 0, S3_FOFF,
2338 LD_FID, 0x103, 3, 0x0, 0xffff}, /* FID IP4 src+dst */
2339 { "IP4 frag offset", 0x0000, 0x0000, OP_EQ, 0, S3_FOFF, 0, S3_FOFF,
2340 LD_SEQ, 0x040, 1, 0xD, 0xfff8},
2341 { "Cleanup", 0x0000, 0x0000, OP_EQ, 0, S1_PCKT, 0, S1_PCKT,
2342 IM_CTL, 0x001, 3, 0x0, 0x0001},
2343 { NULL },
2344};
2345#ifdef HP_IP4FRAG_DEFAULT
2346#define CAS_HP_FIRMWARE cas_prog_ip4fragtab
2347#endif
2348#endif
2349
2350/*
2351 * Alternate table which does batching without reassembly
2352 */
2353#ifdef USE_HP_IP46TCP4BATCH
2354static cas_hp_inst_t cas_prog_ip46tcp4batchtab[] = {
2355 CAS_PROG_IP46TCP4_PREAMBLE,
2356 { "TCP seq", /* DADDR should point to dest port */
2357 0x0000, 0x0000, OP_EQ, 0, S1_TCPFG, 0, S1_TCPFG, LD_SEQ,
2358 0x081, 3, 0x0, 0xffff}, /* Load TCP seq # */
2359 { "TCP control flags", 0x0000, 0x0000, OP_EQ, 0, S1_TCPHL, 0,
2360 S1_TCPHL, ST_FLG, 0x000, 3, 0x0, 0x0000}, /* Load TCP flags */
2361 { "TCP length", 0x0000, 0x0000, OP_EQ, 0, S1_TCPHc, 0,
2362 S1_TCPHc, LD_R1, 0x205, 3, 0xB, 0xf000},
2363 { "TCP length cont", 0x0000, 0x0000, OP_EQ, 0, S1_PCKT, 0,
2364 S1_PCKT, IM_CTL, 0x040, 3, 0x0, 0xffff}, /* set batch bit */
2365 { "Cleanup", 0x0000, 0x0000, OP_EQ, 0, S1_PCKT, 0, S1_PCKT,
2366 IM_CTL, 0x001, 3, 0x0, 0x0001},
2367 { "Drop packet", 0x0000, 0x0000, OP_EQ, 0, S1_PCKT, 0,
2368 S1_PCKT, IM_CTL, 0x080, 3, 0x0, 0xffff},
2369 { NULL },
2370};
2371#ifdef HP_IP46TCP4BATCH_DEFAULT
2372#define CAS_HP_FIRMWARE cas_prog_ip46tcp4batchtab
2373#endif
2374#endif
2375
2376/* Workaround for Cassini rev2 descriptor corruption problem.
2377 * Does batching without reassembly, and sets the SAP to a known
2378 * data pattern for all packets.
2379 */
2380#ifdef USE_HP_WORKAROUND
2381static cas_hp_inst_t cas_prog_workaroundtab[] = {
2382 { "packet arrival?", 0xffff, 0x0000, OP_NP, 6, S1_VLAN, 0,
2383 S1_PCKT, CL_REG, 0x3ff, 1, 0x0, 0x0000} ,
2384 { "VLAN?", 0xffff, 0x8100, OP_EQ, 1, S1_CFI, 0, S1_8023,
2385 IM_CTL, 0x04a, 3, 0x0, 0xffff},
2386 { "CFI?", 0x1000, 0x1000, OP_EQ, 0, S1_CLNP, 1, S1_8023,
2387 CL_REG, 0x000, 0, 0x0, 0x0000},
2388 { "8023?", 0xffff, 0x0600, OP_LT, 1, S1_LLC, 0, S1_IPV4,
2389 CL_REG, 0x000, 0, 0x0, 0x0000},
2390 { "LLC?", 0xffff, 0xaaaa, OP_EQ, 1, S1_LLCc, 0, S1_CLNP,
2391 CL_REG, 0x000, 0, 0x0, 0x0000},
2392 { "LLCc?", 0xff00, 0x0300, OP_EQ, 2, S1_IPV4, 0, S1_CLNP,
2393 CL_REG, 0x000, 0, 0x0, 0x0000},
2394 { "IPV4?", 0xffff, 0x0800, OP_EQ, 1, S1_IPV4c, 0, S1_IPV6,
2395 IM_SAP, 0x6AE, 3, 0x0, 0xffff},
2396 { "IPV4 cont?", 0xff00, 0x4500, OP_EQ, 3, S1_IPV4F, 0, S1_CLNP,
2397 LD_SUM, 0x00a, 1, 0x0, 0x0000},
2398 { "IPV4 frag?", 0x3fff, 0x0000, OP_EQ, 1, S1_TCP44, 0, S1_CLNP,
2399 LD_LEN, 0x03e, 1, 0x0, 0xffff},
2400 { "TCP44?", 0x00ff, 0x0006, OP_EQ, 7, S1_TCPSQ, 0, S1_CLNP,
2401 LD_FID, 0x182, 3, 0x0, 0xffff}, /* FID IP4&TCP src+dst */
2402 { "IPV6?", 0xffff, 0x86dd, OP_EQ, 1, S1_IPV6L, 0, S1_CLNP,
2403 LD_SUM, 0x015, 1, 0x0, 0x0000},
2404 { "IPV6 len", 0xf000, 0x6000, OP_EQ, 0, S1_IPV6c, 0, S1_CLNP,
2405 IM_R1, 0x128, 1, 0x0, 0xffff},
2406 { "IPV6 cont?", 0x0000, 0x0000, OP_EQ, 3, S1_TCP64, 0, S1_CLNP,
2407 LD_FID, 0x484, 1, 0x0, 0xffff}, /* FID IP6&TCP src+dst */
2408 { "TCP64?", 0xff00, 0x0600, OP_EQ, 18, S1_TCPSQ, 0, S1_CLNP,
2409 LD_LEN, 0x03f, 1, 0x0, 0xffff},
2410 { "TCP seq", /* DADDR should point to dest port */
2411 0x0000, 0x0000, OP_EQ, 0, S1_TCPFG, 4, S1_TCPFG, LD_SEQ,
2412 0x081, 3, 0x0, 0xffff}, /* Load TCP seq # */
2413 { "TCP control flags", 0x0000, 0x0000, OP_EQ, 0, S1_TCPHL, 0,
2414 S1_TCPHL, ST_FLG, 0x045, 3, 0x0, 0x002f}, /* Load TCP flags */
2415 { "TCP length", 0x0000, 0x0000, OP_EQ, 0, S1_TCPHc, 0, S1_TCPHc,
2416 LD_R1, 0x205, 3, 0xB, 0xf000},
2417 { "TCP length cont", 0x0000, 0x0000, OP_EQ, 0, S1_PCKT, 0,
2418 S1_PCKT, LD_HDR, 0x0ff, 3, 0x0, 0xffff},
2419 { "Cleanup", 0x0000, 0x0000, OP_EQ, 0, S1_CLNP2, 0, S1_CLNP2,
2420 IM_SAP, 0x6AE, 3, 0x0, 0xffff} ,
2421 { "Cleanup 2", 0x0000, 0x0000, OP_EQ, 0, S1_PCKT, 0, S1_PCKT,
2422 IM_CTL, 0x001, 3, 0x0, 0x0001},
2423 { NULL },
2424};
2425#ifdef HP_WORKAROUND_DEFAULT
2426#define CAS_HP_FIRMWARE cas_prog_workaroundtab
2427#endif
2428#endif
2429
2430#ifdef USE_HP_ENCRYPT
2431static cas_hp_inst_t cas_prog_encryptiontab[] = {
2432 { "packet arrival?", 0xffff, 0x0000, OP_NP, 6, S1_VLAN, 0,
2433 S1_PCKT, CL_REG, 0x3ff, 1, 0x0, 0x0000},
2434 { "VLAN?", 0xffff, 0x8100, OP_EQ, 1, S1_CFI, 0, S1_8023,
2435 IM_CTL, 0x00a, 3, 0x0, 0xffff},
2436#if 0
2437//"CFI?", /* 02 FIND CFI and If FIND go to S1_DROP */
2438//0x1000, 0x1000, OP_EQ, 0, S1_DROP, 1, S1_8023, CL_REG, 0x000, 0, 0x0, 0x00
2439 00,
2440#endif
2441 { "CFI?", /* FIND CFI and If FIND go to CleanUP1 (ignore and send to host) */
2442 0x1000, 0x1000, OP_EQ, 0, S1_CLNP, 1, S1_8023,
2443 CL_REG, 0x000, 0, 0x0, 0x0000},
2444 { "8023?", 0xffff, 0x0600, OP_LT, 1, S1_LLC, 0, S1_IPV4,
2445 CL_REG, 0x000, 0, 0x0, 0x0000},
2446 { "LLC?", 0xffff, 0xaaaa, OP_EQ, 1, S1_LLCc, 0, S1_CLNP,
2447 CL_REG, 0x000, 0, 0x0, 0x0000},
2448 { "LLCc?", 0xff00, 0x0300, OP_EQ, 2, S1_IPV4, 0, S1_CLNP,
2449 CL_REG, 0x000, 0, 0x0, 0x0000},
2450 { "IPV4?", 0xffff, 0x0800, OP_EQ, 1, S1_IPV4c, 0, S1_IPV6,
2451 LD_SAP, 0x100, 3, 0x0, 0xffff},
2452 { "IPV4 cont?", 0xff00, 0x4500, OP_EQ, 3, S1_IPV4F, 0, S1_CLNP,
2453 LD_SUM, 0x00a, 1, 0x0, 0x0000},
2454 { "IPV4 frag?", 0x3fff, 0x0000, OP_EQ, 1, S1_TCP44, 0, S1_CLNP,
2455 LD_LEN, 0x03e, 1, 0x0, 0xffff},
2456 { "TCP44?", 0x00ff, 0x0006, OP_EQ, 7, S1_TCPSQ, 0, S1_ESP4,
2457 LD_FID, 0x182, 1, 0x0, 0xffff}, /* FID IP4&TCP src+dst */
2458 { "IPV6?", 0xffff, 0x86dd, OP_EQ, 1, S1_IPV6L, 0, S1_CLNP,
2459 LD_SUM, 0x015, 1, 0x0, 0x0000},
2460 { "IPV6 len", 0xf000, 0x6000, OP_EQ, 0, S1_IPV6c, 0, S1_CLNP,
2461 IM_R1, 0x128, 1, 0x0, 0xffff},
2462 { "IPV6 cont?", 0x0000, 0x0000, OP_EQ, 3, S1_TCP64, 0, S1_CLNP,
2463 LD_FID, 0x484, 1, 0x0, 0xffff}, /* FID IP6&TCP src+dst */
2464 { "TCP64?",
2465#if 0
2466//@@@0xff00, 0x0600, OP_EQ, 18, S1_TCPSQ, 0, S1_ESP6, LD_LEN, 0x03f, 1, 0x0, 0xffff,
2467#endif
2468 0xff00, 0x0600, OP_EQ, 12, S1_TCPSQ, 0, S1_ESP6, LD_LEN,
2469 0x03f, 1, 0x0, 0xffff},
2470 { "TCP seq", /* 14:DADDR should point to dest port */
2471 0xFFFF, 0x0080, OP_EQ, 0, S2_HTTP, 0, S1_TCPFG, LD_SEQ,
2472 0x081, 3, 0x0, 0xffff}, /* Load TCP seq # */
2473 { "TCP control flags", 0xFFFF, 0x8080, OP_EQ, 0, S2_HTTP, 0,
2474 S1_TCPHL, ST_FLG, 0x145, 2, 0x0, 0x002f}, /* Load TCP flags */
2475 { "TCP length", 0x0000, 0x0000, OP_EQ, 0, S1_TCPHc, 0, S1_TCPHc,
2476 LD_R1, 0x205, 3, 0xB, 0xf000} ,
2477 { "TCP length cont", 0x0000, 0x0000, OP_EQ, 0, S1_PCKT, 0,
2478 S1_PCKT, LD_HDR, 0x0ff, 3, 0x0, 0xffff},
2479 { "Cleanup", 0x0000, 0x0000, OP_EQ, 0, S1_CLNP2, 0, S1_CLNP2,
2480 IM_CTL, 0x001, 3, 0x0, 0x0001},
2481 { "Cleanup 2", 0x0000, 0x0000, OP_EQ, 0, S1_PCKT, 0, S1_PCKT,
2482 CL_REG, 0x002, 3, 0x0, 0x0000},
2483 { "Drop packet", 0x0000, 0x0000, OP_EQ, 0, S1_PCKT, 0, S1_PCKT,
2484 IM_CTL, 0x080, 3, 0x0, 0xffff},
2485 { "No HTTP", 0x0000, 0x0000, OP_EQ, 0, S1_PCKT, 0, S1_PCKT,
2486 IM_CTL, 0x044, 3, 0x0, 0xffff},
2487 { "IPV4 ESP encrypted?", /* S1_ESP4 */
2488 0x00ff, 0x0032, OP_EQ, 0, S1_CLNP2, 0, S1_AH4, IM_CTL,
2489 0x021, 1, 0x0, 0xffff},
2490 { "IPV4 AH encrypted?", /* S1_AH4 */
2491 0x00ff, 0x0033, OP_EQ, 0, S1_CLNP2, 0, S1_CLNP, IM_CTL,
2492 0x021, 1, 0x0, 0xffff},
2493 { "IPV6 ESP encrypted?", /* S1_ESP6 */
2494#if 0
2495//@@@0x00ff, 0x0032, OP_EQ, 0, S1_CLNP2, 0, S1_AH6, IM_CTL, 0x021, 1, 0x0, 0xffff,
2496#endif
2497 0xff00, 0x3200, OP_EQ, 0, S1_CLNP2, 0, S1_AH6, IM_CTL,
2498 0x021, 1, 0x0, 0xffff},
2499 { "IPV6 AH encrypted?", /* S1_AH6 */
2500#if 0
2501//@@@0x00ff, 0x0033, OP_EQ, 0, S1_CLNP2, 0, S1_CLNP, IM_CTL, 0x021, 1, 0x0, 0xffff,
2502#endif
2503 0xff00, 0x3300, OP_EQ, 0, S1_CLNP2, 0, S1_CLNP, IM_CTL,
2504 0x021, 1, 0x0, 0xffff},
2505 { NULL },
2506};
2507#ifdef HP_ENCRYPT_DEFAULT
2508#define CAS_HP_FIRMWARE cas_prog_encryptiontab
2509#endif
2510#endif
2511
2512static cas_hp_inst_t cas_prog_null[] = { {NULL} };
2513#ifdef HP_NULL_DEFAULT
2514#define CAS_HP_FIRMWARE cas_prog_null
2515#endif
2516
2517/* firmware patch for NS_DP83065 */
2518typedef struct cas_saturn_patch {
2519 u16 addr;
2520 u16 val;
2521} cas_saturn_patch_t;
2522
2523#if 1
2524cas_saturn_patch_t cas_saturn_patch[] = {
2525{0x8200, 0x007e}, {0x8201, 0x0082}, {0x8202, 0x0009},
2526{0x8203, 0x0000}, {0x8204, 0x0000}, {0x8205, 0x0000},
2527{0x8206, 0x0000}, {0x8207, 0x0000}, {0x8208, 0x0000},
2528{0x8209, 0x008e}, {0x820a, 0x008e}, {0x820b, 0x00ff},
2529{0x820c, 0x00ce}, {0x820d, 0x0082}, {0x820e, 0x0025},
2530{0x820f, 0x00ff}, {0x8210, 0x0001}, {0x8211, 0x000f},
2531{0x8212, 0x00ce}, {0x8213, 0x0084}, {0x8214, 0x0026},
2532{0x8215, 0x00ff}, {0x8216, 0x0001}, {0x8217, 0x0011},
2533{0x8218, 0x00ce}, {0x8219, 0x0085}, {0x821a, 0x003d},
2534{0x821b, 0x00df}, {0x821c, 0x00e5}, {0x821d, 0x0086},
2535{0x821e, 0x0039}, {0x821f, 0x00b7}, {0x8220, 0x008f},
2536{0x8221, 0x00f8}, {0x8222, 0x007e}, {0x8223, 0x00c3},
2537{0x8224, 0x00c2}, {0x8225, 0x0096}, {0x8226, 0x0047},
2538{0x8227, 0x0084}, {0x8228, 0x00f3}, {0x8229, 0x008a},
2539{0x822a, 0x0000}, {0x822b, 0x0097}, {0x822c, 0x0047},
2540{0x822d, 0x00ce}, {0x822e, 0x0082}, {0x822f, 0x0033},
2541{0x8230, 0x00ff}, {0x8231, 0x0001}, {0x8232, 0x000f},
2542{0x8233, 0x0096}, {0x8234, 0x0046}, {0x8235, 0x0084},
2543{0x8236, 0x000c}, {0x8237, 0x0081}, {0x8238, 0x0004},
2544{0x8239, 0x0027}, {0x823a, 0x000b}, {0x823b, 0x0096},
2545{0x823c, 0x0046}, {0x823d, 0x0084}, {0x823e, 0x000c},
2546{0x823f, 0x0081}, {0x8240, 0x0008}, {0x8241, 0x0027},
2547{0x8242, 0x0057}, {0x8243, 0x007e}, {0x8244, 0x0084},
2548{0x8245, 0x0025}, {0x8246, 0x0096}, {0x8247, 0x0047},
2549{0x8248, 0x0084}, {0x8249, 0x00f3}, {0x824a, 0x008a},
2550{0x824b, 0x0004}, {0x824c, 0x0097}, {0x824d, 0x0047},
2551{0x824e, 0x00ce}, {0x824f, 0x0082}, {0x8250, 0x0054},
2552{0x8251, 0x00ff}, {0x8252, 0x0001}, {0x8253, 0x000f},
2553{0x8254, 0x0096}, {0x8255, 0x0046}, {0x8256, 0x0084},
2554{0x8257, 0x000c}, {0x8258, 0x0081}, {0x8259, 0x0004},
2555{0x825a, 0x0026}, {0x825b, 0x0038}, {0x825c, 0x00b6},
2556{0x825d, 0x0012}, {0x825e, 0x0020}, {0x825f, 0x0084},
2557{0x8260, 0x0020}, {0x8261, 0x0026}, {0x8262, 0x0003},
2558{0x8263, 0x007e}, {0x8264, 0x0084}, {0x8265, 0x0025},
2559{0x8266, 0x0096}, {0x8267, 0x007b}, {0x8268, 0x00d6},
2560{0x8269, 0x007c}, {0x826a, 0x00fe}, {0x826b, 0x008f},
2561{0x826c, 0x0056}, {0x826d, 0x00bd}, {0x826e, 0x00f7},
2562{0x826f, 0x00b6}, {0x8270, 0x00fe}, {0x8271, 0x008f},
2563{0x8272, 0x004e}, {0x8273, 0x00bd}, {0x8274, 0x00ec},
2564{0x8275, 0x008e}, {0x8276, 0x00bd}, {0x8277, 0x00fa},
2565{0x8278, 0x00f7}, {0x8279, 0x00bd}, {0x827a, 0x00f7},
2566{0x827b, 0x0028}, {0x827c, 0x00ce}, {0x827d, 0x0082},
2567{0x827e, 0x0082}, {0x827f, 0x00ff}, {0x8280, 0x0001},
2568{0x8281, 0x000f}, {0x8282, 0x0096}, {0x8283, 0x0046},
2569{0x8284, 0x0084}, {0x8285, 0x000c}, {0x8286, 0x0081},
2570{0x8287, 0x0004}, {0x8288, 0x0026}, {0x8289, 0x000a},
2571{0x828a, 0x00b6}, {0x828b, 0x0012}, {0x828c, 0x0020},
2572{0x828d, 0x0084}, {0x828e, 0x0020}, {0x828f, 0x0027},
2573{0x8290, 0x00b5}, {0x8291, 0x007e}, {0x8292, 0x0084},
2574{0x8293, 0x0025}, {0x8294, 0x00bd}, {0x8295, 0x00f7},
2575{0x8296, 0x001f}, {0x8297, 0x007e}, {0x8298, 0x0084},
2576{0x8299, 0x001f}, {0x829a, 0x0096}, {0x829b, 0x0047},
2577{0x829c, 0x0084}, {0x829d, 0x00f3}, {0x829e, 0x008a},
2578{0x829f, 0x0008}, {0x82a0, 0x0097}, {0x82a1, 0x0047},
2579{0x82a2, 0x00de}, {0x82a3, 0x00e1}, {0x82a4, 0x00ad},
2580{0x82a5, 0x0000}, {0x82a6, 0x00ce}, {0x82a7, 0x0082},
2581{0x82a8, 0x00af}, {0x82a9, 0x00ff}, {0x82aa, 0x0001},
2582{0x82ab, 0x000f}, {0x82ac, 0x007e}, {0x82ad, 0x0084},
2583{0x82ae, 0x0025}, {0x82af, 0x0096}, {0x82b0, 0x0041},
2584{0x82b1, 0x0085}, {0x82b2, 0x0010}, {0x82b3, 0x0026},
2585{0x82b4, 0x0006}, {0x82b5, 0x0096}, {0x82b6, 0x0023},
2586{0x82b7, 0x0085}, {0x82b8, 0x0040}, {0x82b9, 0x0027},
2587{0x82ba, 0x0006}, {0x82bb, 0x00bd}, {0x82bc, 0x00ed},
2588{0x82bd, 0x0000}, {0x82be, 0x007e}, {0x82bf, 0x0083},
2589{0x82c0, 0x00a2}, {0x82c1, 0x00de}, {0x82c2, 0x0042},
2590{0x82c3, 0x00bd}, {0x82c4, 0x00eb}, {0x82c5, 0x008e},
2591{0x82c6, 0x0096}, {0x82c7, 0x0024}, {0x82c8, 0x0084},
2592{0x82c9, 0x0008}, {0x82ca, 0x0027}, {0x82cb, 0x0003},
2593{0x82cc, 0x007e}, {0x82cd, 0x0083}, {0x82ce, 0x00df},
2594{0x82cf, 0x0096}, {0x82d0, 0x007b}, {0x82d1, 0x00d6},
2595{0x82d2, 0x007c}, {0x82d3, 0x00fe}, {0x82d4, 0x008f},
2596{0x82d5, 0x0056}, {0x82d6, 0x00bd}, {0x82d7, 0x00f7},
2597{0x82d8, 0x00b6}, {0x82d9, 0x00fe}, {0x82da, 0x008f},
2598{0x82db, 0x0050}, {0x82dc, 0x00bd}, {0x82dd, 0x00ec},
2599{0x82de, 0x008e}, {0x82df, 0x00bd}, {0x82e0, 0x00fa},
2600{0x82e1, 0x00f7}, {0x82e2, 0x0086}, {0x82e3, 0x0011},
2601{0x82e4, 0x00c6}, {0x82e5, 0x0049}, {0x82e6, 0x00bd},
2602{0x82e7, 0x00e4}, {0x82e8, 0x0012}, {0x82e9, 0x00ce},
2603{0x82ea, 0x0082}, {0x82eb, 0x00ef}, {0x82ec, 0x00ff},
2604{0x82ed, 0x0001}, {0x82ee, 0x000f}, {0x82ef, 0x0096},
2605{0x82f0, 0x0046}, {0x82f1, 0x0084}, {0x82f2, 0x000c},
2606{0x82f3, 0x0081}, {0x82f4, 0x0000}, {0x82f5, 0x0027},
2607{0x82f6, 0x0017}, {0x82f7, 0x00c6}, {0x82f8, 0x0049},
2608{0x82f9, 0x00bd}, {0x82fa, 0x00e4}, {0x82fb, 0x0091},
2609{0x82fc, 0x0024}, {0x82fd, 0x000d}, {0x82fe, 0x00b6},
2610{0x82ff, 0x0012}, {0x8300, 0x0020}, {0x8301, 0x0085},
2611{0x8302, 0x0020}, {0x8303, 0x0026}, {0x8304, 0x000c},
2612{0x8305, 0x00ce}, {0x8306, 0x0082}, {0x8307, 0x00c1},
2613{0x8308, 0x00ff}, {0x8309, 0x0001}, {0x830a, 0x000f},
2614{0x830b, 0x007e}, {0x830c, 0x0084}, {0x830d, 0x0025},
2615{0x830e, 0x007e}, {0x830f, 0x0084}, {0x8310, 0x0016},
2616{0x8311, 0x00fe}, {0x8312, 0x008f}, {0x8313, 0x0052},
2617{0x8314, 0x00bd}, {0x8315, 0x00ec}, {0x8316, 0x008e},
2618{0x8317, 0x00bd}, {0x8318, 0x00fa}, {0x8319, 0x00f7},
2619{0x831a, 0x0086}, {0x831b, 0x006a}, {0x831c, 0x00c6},
2620{0x831d, 0x0049}, {0x831e, 0x00bd}, {0x831f, 0x00e4},
2621{0x8320, 0x0012}, {0x8321, 0x00ce}, {0x8322, 0x0083},
2622{0x8323, 0x0027}, {0x8324, 0x00ff}, {0x8325, 0x0001},
2623{0x8326, 0x000f}, {0x8327, 0x0096}, {0x8328, 0x0046},
2624{0x8329, 0x0084}, {0x832a, 0x000c}, {0x832b, 0x0081},
2625{0x832c, 0x0000}, {0x832d, 0x0027}, {0x832e, 0x000a},
2626{0x832f, 0x00c6}, {0x8330, 0x0049}, {0x8331, 0x00bd},
2627{0x8332, 0x00e4}, {0x8333, 0x0091}, {0x8334, 0x0025},
2628{0x8335, 0x0006}, {0x8336, 0x007e}, {0x8337, 0x0084},
2629{0x8338, 0x0025}, {0x8339, 0x007e}, {0x833a, 0x0084},
2630{0x833b, 0x0016}, {0x833c, 0x00b6}, {0x833d, 0x0018},
2631{0x833e, 0x0070}, {0x833f, 0x00bb}, {0x8340, 0x0019},
2632{0x8341, 0x0070}, {0x8342, 0x002a}, {0x8343, 0x0004},
2633{0x8344, 0x0081}, {0x8345, 0x00af}, {0x8346, 0x002e},
2634{0x8347, 0x0019}, {0x8348, 0x0096}, {0x8349, 0x007b},
2635{0x834a, 0x00f6}, {0x834b, 0x0020}, {0x834c, 0x0007},
2636{0x834d, 0x00fa}, {0x834e, 0x0020}, {0x834f, 0x0027},
2637{0x8350, 0x00c4}, {0x8351, 0x0038}, {0x8352, 0x0081},
2638{0x8353, 0x0038}, {0x8354, 0x0027}, {0x8355, 0x000b},
2639{0x8356, 0x00f6}, {0x8357, 0x0020}, {0x8358, 0x0007},
2640{0x8359, 0x00fa}, {0x835a, 0x0020}, {0x835b, 0x0027},
2641{0x835c, 0x00cb}, {0x835d, 0x0008}, {0x835e, 0x007e},
2642{0x835f, 0x0082}, {0x8360, 0x00d3}, {0x8361, 0x00bd},
2643{0x8362, 0x00f7}, {0x8363, 0x0066}, {0x8364, 0x0086},
2644{0x8365, 0x0074}, {0x8366, 0x00c6}, {0x8367, 0x0049},
2645{0x8368, 0x00bd}, {0x8369, 0x00e4}, {0x836a, 0x0012},
2646{0x836b, 0x00ce}, {0x836c, 0x0083}, {0x836d, 0x0071},
2647{0x836e, 0x00ff}, {0x836f, 0x0001}, {0x8370, 0x000f},
2648{0x8371, 0x0096}, {0x8372, 0x0046}, {0x8373, 0x0084},
2649{0x8374, 0x000c}, {0x8375, 0x0081}, {0x8376, 0x0008},
2650{0x8377, 0x0026}, {0x8378, 0x000a}, {0x8379, 0x00c6},
2651{0x837a, 0x0049}, {0x837b, 0x00bd}, {0x837c, 0x00e4},
2652{0x837d, 0x0091}, {0x837e, 0x0025}, {0x837f, 0x0006},
2653{0x8380, 0x007e}, {0x8381, 0x0084}, {0x8382, 0x0025},
2654{0x8383, 0x007e}, {0x8384, 0x0084}, {0x8385, 0x0016},
2655{0x8386, 0x00bd}, {0x8387, 0x00f7}, {0x8388, 0x003e},
2656{0x8389, 0x0026}, {0x838a, 0x000e}, {0x838b, 0x00bd},
2657{0x838c, 0x00e5}, {0x838d, 0x0009}, {0x838e, 0x0026},
2658{0x838f, 0x0006}, {0x8390, 0x00ce}, {0x8391, 0x0082},
2659{0x8392, 0x00c1}, {0x8393, 0x00ff}, {0x8394, 0x0001},
2660{0x8395, 0x000f}, {0x8396, 0x007e}, {0x8397, 0x0084},
2661{0x8398, 0x0025}, {0x8399, 0x00fe}, {0x839a, 0x008f},
2662{0x839b, 0x0054}, {0x839c, 0x00bd}, {0x839d, 0x00ec},
2663{0x839e, 0x008e}, {0x839f, 0x00bd}, {0x83a0, 0x00fa},
2664{0x83a1, 0x00f7}, {0x83a2, 0x00bd}, {0x83a3, 0x00f7},
2665{0x83a4, 0x0033}, {0x83a5, 0x0086}, {0x83a6, 0x000f},
2666{0x83a7, 0x00c6}, {0x83a8, 0x0051}, {0x83a9, 0x00bd},
2667{0x83aa, 0x00e4}, {0x83ab, 0x0012}, {0x83ac, 0x00ce},
2668{0x83ad, 0x0083}, {0x83ae, 0x00b2}, {0x83af, 0x00ff},
2669{0x83b0, 0x0001}, {0x83b1, 0x000f}, {0x83b2, 0x0096},
2670{0x83b3, 0x0046}, {0x83b4, 0x0084}, {0x83b5, 0x000c},
2671{0x83b6, 0x0081}, {0x83b7, 0x0008}, {0x83b8, 0x0026},
2672{0x83b9, 0x005c}, {0x83ba, 0x00b6}, {0x83bb, 0x0012},
2673{0x83bc, 0x0020}, {0x83bd, 0x0084}, {0x83be, 0x003f},
2674{0x83bf, 0x0081}, {0x83c0, 0x003a}, {0x83c1, 0x0027},
2675{0x83c2, 0x001c}, {0x83c3, 0x0096}, {0x83c4, 0x0023},
2676{0x83c5, 0x0085}, {0x83c6, 0x0040}, {0x83c7, 0x0027},
2677{0x83c8, 0x0003}, {0x83c9, 0x007e}, {0x83ca, 0x0084},
2678{0x83cb, 0x0025}, {0x83cc, 0x00c6}, {0x83cd, 0x0051},
2679{0x83ce, 0x00bd}, {0x83cf, 0x00e4}, {0x83d0, 0x0091},
2680{0x83d1, 0x0025}, {0x83d2, 0x0003}, {0x83d3, 0x007e},
2681{0x83d4, 0x0084}, {0x83d5, 0x0025}, {0x83d6, 0x00ce},
2682{0x83d7, 0x0082}, {0x83d8, 0x00c1}, {0x83d9, 0x00ff},
2683{0x83da, 0x0001}, {0x83db, 0x000f}, {0x83dc, 0x007e},
2684{0x83dd, 0x0084}, {0x83de, 0x0025}, {0x83df, 0x00bd},
2685{0x83e0, 0x00f8}, {0x83e1, 0x0037}, {0x83e2, 0x007c},
2686{0x83e3, 0x0000}, {0x83e4, 0x007a}, {0x83e5, 0x00ce},
2687{0x83e6, 0x0083}, {0x83e7, 0x00ee}, {0x83e8, 0x00ff},
2688{0x83e9, 0x0001}, {0x83ea, 0x000f}, {0x83eb, 0x007e},
2689{0x83ec, 0x0084}, {0x83ed, 0x0025}, {0x83ee, 0x0096},
2690{0x83ef, 0x0046}, {0x83f0, 0x0084}, {0x83f1, 0x000c},
2691{0x83f2, 0x0081}, {0x83f3, 0x0008}, {0x83f4, 0x0026},
2692{0x83f5, 0x0020}, {0x83f6, 0x0096}, {0x83f7, 0x0024},
2693{0x83f8, 0x0084}, {0x83f9, 0x0008}, {0x83fa, 0x0026},
2694{0x83fb, 0x0029}, {0x83fc, 0x00b6}, {0x83fd, 0x0018},
2695{0x83fe, 0x0082}, {0x83ff, 0x00bb}, {0x8400, 0x0019},
2696{0x8401, 0x0082}, {0x8402, 0x00b1}, {0x8403, 0x0001},
2697{0x8404, 0x003b}, {0x8405, 0x0022}, {0x8406, 0x0009},
2698{0x8407, 0x00b6}, {0x8408, 0x0012}, {0x8409, 0x0020},
2699{0x840a, 0x0084}, {0x840b, 0x0037}, {0x840c, 0x0081},
2700{0x840d, 0x0032}, {0x840e, 0x0027}, {0x840f, 0x0015},
2701{0x8410, 0x00bd}, {0x8411, 0x00f8}, {0x8412, 0x0044},
2702{0x8413, 0x007e}, {0x8414, 0x0082}, {0x8415, 0x00c1},
2703{0x8416, 0x00bd}, {0x8417, 0x00f7}, {0x8418, 0x001f},
2704{0x8419, 0x00bd}, {0x841a, 0x00f8}, {0x841b, 0x0044},
2705{0x841c, 0x00bd}, {0x841d, 0x00fc}, {0x841e, 0x0029},
2706{0x841f, 0x00ce}, {0x8420, 0x0082}, {0x8421, 0x0025},
2707{0x8422, 0x00ff}, {0x8423, 0x0001}, {0x8424, 0x000f},
2708{0x8425, 0x0039}, {0x8426, 0x0096}, {0x8427, 0x0047},
2709{0x8428, 0x0084}, {0x8429, 0x00fc}, {0x842a, 0x008a},
2710{0x842b, 0x0000}, {0x842c, 0x0097}, {0x842d, 0x0047},
2711{0x842e, 0x00ce}, {0x842f, 0x0084}, {0x8430, 0x0034},
2712{0x8431, 0x00ff}, {0x8432, 0x0001}, {0x8433, 0x0011},
2713{0x8434, 0x0096}, {0x8435, 0x0046}, {0x8436, 0x0084},
2714{0x8437, 0x0003}, {0x8438, 0x0081}, {0x8439, 0x0002},
2715{0x843a, 0x0027}, {0x843b, 0x0003}, {0x843c, 0x007e},
2716{0x843d, 0x0085}, {0x843e, 0x001e}, {0x843f, 0x0096},
2717{0x8440, 0x0047}, {0x8441, 0x0084}, {0x8442, 0x00fc},
2718{0x8443, 0x008a}, {0x8444, 0x0002}, {0x8445, 0x0097},
2719{0x8446, 0x0047}, {0x8447, 0x00de}, {0x8448, 0x00e1},
2720{0x8449, 0x00ad}, {0x844a, 0x0000}, {0x844b, 0x0086},
2721{0x844c, 0x0001}, {0x844d, 0x00b7}, {0x844e, 0x0012},
2722{0x844f, 0x0051}, {0x8450, 0x00bd}, {0x8451, 0x00f7},
2723{0x8452, 0x0014}, {0x8453, 0x00b6}, {0x8454, 0x0010},
2724{0x8455, 0x0031}, {0x8456, 0x0084}, {0x8457, 0x00fd},
2725{0x8458, 0x00b7}, {0x8459, 0x0010}, {0x845a, 0x0031},
2726{0x845b, 0x00bd}, {0x845c, 0x00f8}, {0x845d, 0x001e},
2727{0x845e, 0x0096}, {0x845f, 0x0081}, {0x8460, 0x00d6},
2728{0x8461, 0x0082}, {0x8462, 0x00fe}, {0x8463, 0x008f},
2729{0x8464, 0x005a}, {0x8465, 0x00bd}, {0x8466, 0x00f7},
2730{0x8467, 0x00b6}, {0x8468, 0x00fe}, {0x8469, 0x008f},
2731{0x846a, 0x005c}, {0x846b, 0x00bd}, {0x846c, 0x00ec},
2732{0x846d, 0x008e}, {0x846e, 0x00bd}, {0x846f, 0x00fa},
2733{0x8470, 0x00f7}, {0x8471, 0x0086}, {0x8472, 0x0008},
2734{0x8473, 0x00d6}, {0x8474, 0x0000}, {0x8475, 0x00c5},
2735{0x8476, 0x0010}, {0x8477, 0x0026}, {0x8478, 0x0002},
2736{0x8479, 0x008b}, {0x847a, 0x0020}, {0x847b, 0x00c6},
2737{0x847c, 0x0051}, {0x847d, 0x00bd}, {0x847e, 0x00e4},
2738{0x847f, 0x0012}, {0x8480, 0x00ce}, {0x8481, 0x0084},
2739{0x8482, 0x0086}, {0x8483, 0x00ff}, {0x8484, 0x0001},
2740{0x8485, 0x0011}, {0x8486, 0x0096}, {0x8487, 0x0046},
2741{0x8488, 0x0084}, {0x8489, 0x0003}, {0x848a, 0x0081},
2742{0x848b, 0x0002}, {0x848c, 0x0027}, {0x848d, 0x0003},
2743{0x848e, 0x007e}, {0x848f, 0x0085}, {0x8490, 0x000f},
2744{0x8491, 0x00c6}, {0x8492, 0x0051}, {0x8493, 0x00bd},
2745{0x8494, 0x00e4}, {0x8495, 0x0091}, {0x8496, 0x0025},
2746{0x8497, 0x0003}, {0x8498, 0x007e}, {0x8499, 0x0085},
2747{0x849a, 0x001e}, {0x849b, 0x0096}, {0x849c, 0x0044},
2748{0x849d, 0x0085}, {0x849e, 0x0010}, {0x849f, 0x0026},
2749{0x84a0, 0x000a}, {0x84a1, 0x00b6}, {0x84a2, 0x0012},
2750{0x84a3, 0x0050}, {0x84a4, 0x00ba}, {0x84a5, 0x0001},
2751{0x84a6, 0x003c}, {0x84a7, 0x0085}, {0x84a8, 0x0010},
2752{0x84a9, 0x0027}, {0x84aa, 0x00a8}, {0x84ab, 0x00bd},
2753{0x84ac, 0x00f7}, {0x84ad, 0x0066}, {0x84ae, 0x00ce},
2754{0x84af, 0x0084}, {0x84b0, 0x00b7}, {0x84b1, 0x00ff},
2755{0x84b2, 0x0001}, {0x84b3, 0x0011}, {0x84b4, 0x007e},
2756{0x84b5, 0x0085}, {0x84b6, 0x001e}, {0x84b7, 0x0096},
2757{0x84b8, 0x0046}, {0x84b9, 0x0084}, {0x84ba, 0x0003},
2758{0x84bb, 0x0081}, {0x84bc, 0x0002}, {0x84bd, 0x0026},
2759{0x84be, 0x0050}, {0x84bf, 0x00b6}, {0x84c0, 0x0012},
2760{0x84c1, 0x0030}, {0x84c2, 0x0084}, {0x84c3, 0x0003},
2761{0x84c4, 0x0081}, {0x84c5, 0x0001}, {0x84c6, 0x0027},
2762{0x84c7, 0x0003}, {0x84c8, 0x007e}, {0x84c9, 0x0085},
2763{0x84ca, 0x001e}, {0x84cb, 0x0096}, {0x84cc, 0x0044},
2764{0x84cd, 0x0085}, {0x84ce, 0x0010}, {0x84cf, 0x0026},
2765{0x84d0, 0x0013}, {0x84d1, 0x00b6}, {0x84d2, 0x0012},
2766{0x84d3, 0x0050}, {0x84d4, 0x00ba}, {0x84d5, 0x0001},
2767{0x84d6, 0x003c}, {0x84d7, 0x0085}, {0x84d8, 0x0010},
2768{0x84d9, 0x0026}, {0x84da, 0x0009}, {0x84db, 0x00ce},
2769{0x84dc, 0x0084}, {0x84dd, 0x0053}, {0x84de, 0x00ff},
2770{0x84df, 0x0001}, {0x84e0, 0x0011}, {0x84e1, 0x007e},
2771{0x84e2, 0x0085}, {0x84e3, 0x001e}, {0x84e4, 0x00b6},
2772{0x84e5, 0x0010}, {0x84e6, 0x0031}, {0x84e7, 0x008a},
2773{0x84e8, 0x0002}, {0x84e9, 0x00b7}, {0x84ea, 0x0010},
2774{0x84eb, 0x0031}, {0x84ec, 0x00bd}, {0x84ed, 0x0085},
2775{0x84ee, 0x001f}, {0x84ef, 0x00bd}, {0x84f0, 0x00f8},
2776{0x84f1, 0x0037}, {0x84f2, 0x007c}, {0x84f3, 0x0000},
2777{0x84f4, 0x0080}, {0x84f5, 0x00ce}, {0x84f6, 0x0084},
2778{0x84f7, 0x00fe}, {0x84f8, 0x00ff}, {0x84f9, 0x0001},
2779{0x84fa, 0x0011}, {0x84fb, 0x007e}, {0x84fc, 0x0085},
2780{0x84fd, 0x001e}, {0x84fe, 0x0096}, {0x84ff, 0x0046},
2781{0x8500, 0x0084}, {0x8501, 0x0003}, {0x8502, 0x0081},
2782{0x8503, 0x0002}, {0x8504, 0x0026}, {0x8505, 0x0009},
2783{0x8506, 0x00b6}, {0x8507, 0x0012}, {0x8508, 0x0030},
2784{0x8509, 0x0084}, {0x850a, 0x0003}, {0x850b, 0x0081},
2785{0x850c, 0x0001}, {0x850d, 0x0027}, {0x850e, 0x000f},
2786{0x850f, 0x00bd}, {0x8510, 0x00f8}, {0x8511, 0x0044},
2787{0x8512, 0x00bd}, {0x8513, 0x00f7}, {0x8514, 0x000b},
2788{0x8515, 0x00bd}, {0x8516, 0x00fc}, {0x8517, 0x0029},
2789{0x8518, 0x00ce}, {0x8519, 0x0084}, {0x851a, 0x0026},
2790{0x851b, 0x00ff}, {0x851c, 0x0001}, {0x851d, 0x0011},
2791{0x851e, 0x0039}, {0x851f, 0x00d6}, {0x8520, 0x0022},
2792{0x8521, 0x00c4}, {0x8522, 0x000f}, {0x8523, 0x00b6},
2793{0x8524, 0x0012}, {0x8525, 0x0030}, {0x8526, 0x00ba},
2794{0x8527, 0x0012}, {0x8528, 0x0032}, {0x8529, 0x0084},
2795{0x852a, 0x0004}, {0x852b, 0x0027}, {0x852c, 0x000d},
2796{0x852d, 0x0096}, {0x852e, 0x0022}, {0x852f, 0x0085},
2797{0x8530, 0x0004}, {0x8531, 0x0027}, {0x8532, 0x0005},
2798{0x8533, 0x00ca}, {0x8534, 0x0010}, {0x8535, 0x007e},
2799{0x8536, 0x0085}, {0x8537, 0x003a}, {0x8538, 0x00ca},
2800{0x8539, 0x0020}, {0x853a, 0x00d7}, {0x853b, 0x0022},
2801{0x853c, 0x0039}, {0x853d, 0x0086}, {0x853e, 0x0000},
2802{0x853f, 0x0097}, {0x8540, 0x0083}, {0x8541, 0x0018},
2803{0x8542, 0x00ce}, {0x8543, 0x001c}, {0x8544, 0x0000},
2804{0x8545, 0x00bd}, {0x8546, 0x00eb}, {0x8547, 0x0046},
2805{0x8548, 0x0096}, {0x8549, 0x0057}, {0x854a, 0x0085},
2806{0x854b, 0x0001}, {0x854c, 0x0027}, {0x854d, 0x0002},
2807{0x854e, 0x004f}, {0x854f, 0x0039}, {0x8550, 0x0085},
2808{0x8551, 0x0002}, {0x8552, 0x0027}, {0x8553, 0x0001},
2809{0x8554, 0x0039}, {0x8555, 0x007f}, {0x8556, 0x008f},
2810{0x8557, 0x007d}, {0x8558, 0x0086}, {0x8559, 0x0004},
2811{0x855a, 0x00b7}, {0x855b, 0x0012}, {0x855c, 0x0004},
2812{0x855d, 0x0086}, {0x855e, 0x0008}, {0x855f, 0x00b7},
2813{0x8560, 0x0012}, {0x8561, 0x0007}, {0x8562, 0x0086},
2814{0x8563, 0x0010}, {0x8564, 0x00b7}, {0x8565, 0x0012},
2815{0x8566, 0x000c}, {0x8567, 0x0086}, {0x8568, 0x0007},
2816{0x8569, 0x00b7}, {0x856a, 0x0012}, {0x856b, 0x0006},
2817{0x856c, 0x00b6}, {0x856d, 0x008f}, {0x856e, 0x007d},
2818{0x856f, 0x00b7}, {0x8570, 0x0012}, {0x8571, 0x0070},
2819{0x8572, 0x0086}, {0x8573, 0x0001}, {0x8574, 0x00ba},
2820{0x8575, 0x0012}, {0x8576, 0x0004}, {0x8577, 0x00b7},
2821{0x8578, 0x0012}, {0x8579, 0x0004}, {0x857a, 0x0001},
2822{0x857b, 0x0001}, {0x857c, 0x0001}, {0x857d, 0x0001},
2823{0x857e, 0x0001}, {0x857f, 0x0001}, {0x8580, 0x00b6},
2824{0x8581, 0x0012}, {0x8582, 0x0004}, {0x8583, 0x0084},
2825{0x8584, 0x00fe}, {0x8585, 0x008a}, {0x8586, 0x0002},
2826{0x8587, 0x00b7}, {0x8588, 0x0012}, {0x8589, 0x0004},
2827{0x858a, 0x0001}, {0x858b, 0x0001}, {0x858c, 0x0001},
2828{0x858d, 0x0001}, {0x858e, 0x0001}, {0x858f, 0x0001},
2829{0x8590, 0x0086}, {0x8591, 0x00fd}, {0x8592, 0x00b4},
2830{0x8593, 0x0012}, {0x8594, 0x0004}, {0x8595, 0x00b7},
2831{0x8596, 0x0012}, {0x8597, 0x0004}, {0x8598, 0x00b6},
2832{0x8599, 0x0012}, {0x859a, 0x0000}, {0x859b, 0x0084},
2833{0x859c, 0x0008}, {0x859d, 0x0081}, {0x859e, 0x0008},
2834{0x859f, 0x0027}, {0x85a0, 0x0016}, {0x85a1, 0x00b6},
2835{0x85a2, 0x008f}, {0x85a3, 0x007d}, {0x85a4, 0x0081},
2836{0x85a5, 0x000c}, {0x85a6, 0x0027}, {0x85a7, 0x0008},
2837{0x85a8, 0x008b}, {0x85a9, 0x0004}, {0x85aa, 0x00b7},
2838{0x85ab, 0x008f}, {0x85ac, 0x007d}, {0x85ad, 0x007e},
2839{0x85ae, 0x0085}, {0x85af, 0x006c}, {0x85b0, 0x0086},
2840{0x85b1, 0x0003}, {0x85b2, 0x0097}, {0x85b3, 0x0040},
2841{0x85b4, 0x007e}, {0x85b5, 0x0089}, {0x85b6, 0x006e},
2842{0x85b7, 0x0086}, {0x85b8, 0x0007}, {0x85b9, 0x00b7},
2843{0x85ba, 0x0012}, {0x85bb, 0x0006}, {0x85bc, 0x005f},
2844{0x85bd, 0x00f7}, {0x85be, 0x008f}, {0x85bf, 0x0082},
2845{0x85c0, 0x005f}, {0x85c1, 0x00f7}, {0x85c2, 0x008f},
2846{0x85c3, 0x007f}, {0x85c4, 0x00f7}, {0x85c5, 0x008f},
2847{0x85c6, 0x0070}, {0x85c7, 0x00f7}, {0x85c8, 0x008f},
2848{0x85c9, 0x0071}, {0x85ca, 0x00f7}, {0x85cb, 0x008f},
2849{0x85cc, 0x0072}, {0x85cd, 0x00f7}, {0x85ce, 0x008f},
2850{0x85cf, 0x0073}, {0x85d0, 0x00f7}, {0x85d1, 0x008f},
2851{0x85d2, 0x0074}, {0x85d3, 0x00f7}, {0x85d4, 0x008f},
2852{0x85d5, 0x0075}, {0x85d6, 0x00f7}, {0x85d7, 0x008f},
2853{0x85d8, 0x0076}, {0x85d9, 0x00f7}, {0x85da, 0x008f},
2854{0x85db, 0x0077}, {0x85dc, 0x00f7}, {0x85dd, 0x008f},
2855{0x85de, 0x0078}, {0x85df, 0x00f7}, {0x85e0, 0x008f},
2856{0x85e1, 0x0079}, {0x85e2, 0x00f7}, {0x85e3, 0x008f},
2857{0x85e4, 0x007a}, {0x85e5, 0x00f7}, {0x85e6, 0x008f},
2858{0x85e7, 0x007b}, {0x85e8, 0x00b6}, {0x85e9, 0x0012},
2859{0x85ea, 0x0004}, {0x85eb, 0x008a}, {0x85ec, 0x0010},
2860{0x85ed, 0x00b7}, {0x85ee, 0x0012}, {0x85ef, 0x0004},
2861{0x85f0, 0x0086}, {0x85f1, 0x00e4}, {0x85f2, 0x00b7},
2862{0x85f3, 0x0012}, {0x85f4, 0x0070}, {0x85f5, 0x00b7},
2863{0x85f6, 0x0012}, {0x85f7, 0x0007}, {0x85f8, 0x00f7},
2864{0x85f9, 0x0012}, {0x85fa, 0x0005}, {0x85fb, 0x00f7},
2865{0x85fc, 0x0012}, {0x85fd, 0x0009}, {0x85fe, 0x0086},
2866{0x85ff, 0x0008}, {0x8600, 0x00ba}, {0x8601, 0x0012},
2867{0x8602, 0x0004}, {0x8603, 0x00b7}, {0x8604, 0x0012},
2868{0x8605, 0x0004}, {0x8606, 0x0086}, {0x8607, 0x00f7},
2869{0x8608, 0x00b4}, {0x8609, 0x0012}, {0x860a, 0x0004},
2870{0x860b, 0x00b7}, {0x860c, 0x0012}, {0x860d, 0x0004},
2871{0x860e, 0x0001}, {0x860f, 0x0001}, {0x8610, 0x0001},
2872{0x8611, 0x0001}, {0x8612, 0x0001}, {0x8613, 0x0001},
2873{0x8614, 0x00b6}, {0x8615, 0x0012}, {0x8616, 0x0008},
2874{0x8617, 0x0027}, {0x8618, 0x007f}, {0x8619, 0x0081},
2875{0x861a, 0x0080}, {0x861b, 0x0026}, {0x861c, 0x000b},
2876{0x861d, 0x0086}, {0x861e, 0x0008}, {0x861f, 0x00ce},
2877{0x8620, 0x008f}, {0x8621, 0x0079}, {0x8622, 0x00bd},
2878{0x8623, 0x0089}, {0x8624, 0x007b}, {0x8625, 0x007e},
2879{0x8626, 0x0086}, {0x8627, 0x008e}, {0x8628, 0x0081},
2880{0x8629, 0x0040}, {0x862a, 0x0026}, {0x862b, 0x000b},
2881{0x862c, 0x0086}, {0x862d, 0x0004}, {0x862e, 0x00ce},
2882{0x862f, 0x008f}, {0x8630, 0x0076}, {0x8631, 0x00bd},
2883{0x8632, 0x0089}, {0x8633, 0x007b}, {0x8634, 0x007e},
2884{0x8635, 0x0086}, {0x8636, 0x008e}, {0x8637, 0x0081},
2885{0x8638, 0x0020}, {0x8639, 0x0026}, {0x863a, 0x000b},
2886{0x863b, 0x0086}, {0x863c, 0x0002}, {0x863d, 0x00ce},
2887{0x863e, 0x008f}, {0x863f, 0x0073}, {0x8640, 0x00bd},
2888{0x8641, 0x0089}, {0x8642, 0x007b}, {0x8643, 0x007e},
2889{0x8644, 0x0086}, {0x8645, 0x008e}, {0x8646, 0x0081},
2890{0x8647, 0x0010}, {0x8648, 0x0026}, {0x8649, 0x000b},
2891{0x864a, 0x0086}, {0x864b, 0x0001}, {0x864c, 0x00ce},
2892{0x864d, 0x008f}, {0x864e, 0x0070}, {0x864f, 0x00bd},
2893{0x8650, 0x0089}, {0x8651, 0x007b}, {0x8652, 0x007e},
2894{0x8653, 0x0086}, {0x8654, 0x008e}, {0x8655, 0x0081},
2895{0x8656, 0x0008}, {0x8657, 0x0026}, {0x8658, 0x000b},
2896{0x8659, 0x0086}, {0x865a, 0x0008}, {0x865b, 0x00ce},
2897{0x865c, 0x008f}, {0x865d, 0x0079}, {0x865e, 0x00bd},
2898{0x865f, 0x0089}, {0x8660, 0x007f}, {0x8661, 0x007e},
2899{0x8662, 0x0086}, {0x8663, 0x008e}, {0x8664, 0x0081},
2900{0x8665, 0x0004}, {0x8666, 0x0026}, {0x8667, 0x000b},
2901{0x8668, 0x0086}, {0x8669, 0x0004}, {0x866a, 0x00ce},
2902{0x866b, 0x008f}, {0x866c, 0x0076}, {0x866d, 0x00bd},
2903{0x866e, 0x0089}, {0x866f, 0x007f}, {0x8670, 0x007e},
2904{0x8671, 0x0086}, {0x8672, 0x008e}, {0x8673, 0x0081},
2905{0x8674, 0x0002}, {0x8675, 0x0026}, {0x8676, 0x000b},
2906{0x8677, 0x008a}, {0x8678, 0x0002}, {0x8679, 0x00ce},
2907{0x867a, 0x008f}, {0x867b, 0x0073}, {0x867c, 0x00bd},
2908{0x867d, 0x0089}, {0x867e, 0x007f}, {0x867f, 0x007e},
2909{0x8680, 0x0086}, {0x8681, 0x008e}, {0x8682, 0x0081},
2910{0x8683, 0x0001}, {0x8684, 0x0026}, {0x8685, 0x0008},
2911{0x8686, 0x0086}, {0x8687, 0x0001}, {0x8688, 0x00ce},
2912{0x8689, 0x008f}, {0x868a, 0x0070}, {0x868b, 0x00bd},
2913{0x868c, 0x0089}, {0x868d, 0x007f}, {0x868e, 0x00b6},
2914{0x868f, 0x008f}, {0x8690, 0x007f}, {0x8691, 0x0081},
2915{0x8692, 0x000f}, {0x8693, 0x0026}, {0x8694, 0x0003},
2916{0x8695, 0x007e}, {0x8696, 0x0087}, {0x8697, 0x0047},
2917{0x8698, 0x00b6}, {0x8699, 0x0012}, {0x869a, 0x0009},
2918{0x869b, 0x0084}, {0x869c, 0x0003}, {0x869d, 0x0081},
2919{0x869e, 0x0003}, {0x869f, 0x0027}, {0x86a0, 0x0006},
2920{0x86a1, 0x007c}, {0x86a2, 0x0012}, {0x86a3, 0x0009},
2921{0x86a4, 0x007e}, {0x86a5, 0x0085}, {0x86a6, 0x00fe},
2922{0x86a7, 0x00b6}, {0x86a8, 0x0012}, {0x86a9, 0x0006},
2923{0x86aa, 0x0084}, {0x86ab, 0x0007}, {0x86ac, 0x0081},
2924{0x86ad, 0x0007}, {0x86ae, 0x0027}, {0x86af, 0x0008},
2925{0x86b0, 0x008b}, {0x86b1, 0x0001}, {0x86b2, 0x00b7},
2926{0x86b3, 0x0012}, {0x86b4, 0x0006}, {0x86b5, 0x007e},
2927{0x86b6, 0x0086}, {0x86b7, 0x00d5}, {0x86b8, 0x00b6},
2928{0x86b9, 0x008f}, {0x86ba, 0x0082}, {0x86bb, 0x0026},
2929{0x86bc, 0x000a}, {0x86bd, 0x007c}, {0x86be, 0x008f},
2930{0x86bf, 0x0082}, {0x86c0, 0x004f}, {0x86c1, 0x00b7},
2931{0x86c2, 0x0012}, {0x86c3, 0x0006}, {0x86c4, 0x007e},
2932{0x86c5, 0x0085}, {0x86c6, 0x00c0}, {0x86c7, 0x00b6},
2933{0x86c8, 0x0012}, {0x86c9, 0x0006}, {0x86ca, 0x0084},
2934{0x86cb, 0x003f}, {0x86cc, 0x0081}, {0x86cd, 0x003f},
2935{0x86ce, 0x0027}, {0x86cf, 0x0010}, {0x86d0, 0x008b},
2936{0x86d1, 0x0008}, {0x86d2, 0x00b7}, {0x86d3, 0x0012},
2937{0x86d4, 0x0006}, {0x86d5, 0x00b6}, {0x86d6, 0x0012},
2938{0x86d7, 0x0009}, {0x86d8, 0x0084}, {0x86d9, 0x00fc},
2939{0x86da, 0x00b7}, {0x86db, 0x0012}, {0x86dc, 0x0009},
2940{0x86dd, 0x007e}, {0x86de, 0x0085}, {0x86df, 0x00fe},
2941{0x86e0, 0x00ce}, {0x86e1, 0x008f}, {0x86e2, 0x0070},
2942{0x86e3, 0x0018}, {0x86e4, 0x00ce}, {0x86e5, 0x008f},
2943{0x86e6, 0x0084}, {0x86e7, 0x00c6}, {0x86e8, 0x000c},
2944{0x86e9, 0x00bd}, {0x86ea, 0x0089}, {0x86eb, 0x006f},
2945{0x86ec, 0x00ce}, {0x86ed, 0x008f}, {0x86ee, 0x0084},
2946{0x86ef, 0x0018}, {0x86f0, 0x00ce}, {0x86f1, 0x008f},
2947{0x86f2, 0x0070}, {0x86f3, 0x00c6}, {0x86f4, 0x000c},
2948{0x86f5, 0x00bd}, {0x86f6, 0x0089}, {0x86f7, 0x006f},
2949{0x86f8, 0x00d6}, {0x86f9, 0x0083}, {0x86fa, 0x00c1},
2950{0x86fb, 0x004f}, {0x86fc, 0x002d}, {0x86fd, 0x0003},
2951{0x86fe, 0x007e}, {0x86ff, 0x0087}, {0x8700, 0x0040},
2952{0x8701, 0x00b6}, {0x8702, 0x008f}, {0x8703, 0x007f},
2953{0x8704, 0x0081}, {0x8705, 0x0007}, {0x8706, 0x0027},
2954{0x8707, 0x000f}, {0x8708, 0x0081}, {0x8709, 0x000b},
2955{0x870a, 0x0027}, {0x870b, 0x0015}, {0x870c, 0x0081},
2956{0x870d, 0x000d}, {0x870e, 0x0027}, {0x870f, 0x001b},
2957{0x8710, 0x0081}, {0x8711, 0x000e}, {0x8712, 0x0027},
2958{0x8713, 0x0021}, {0x8714, 0x007e}, {0x8715, 0x0087},
2959{0x8716, 0x0040}, {0x8717, 0x00f7}, {0x8718, 0x008f},
2960{0x8719, 0x007b}, {0x871a, 0x0086}, {0x871b, 0x0002},
2961{0x871c, 0x00b7}, {0x871d, 0x008f}, {0x871e, 0x007a},
2962{0x871f, 0x0020}, {0x8720, 0x001c}, {0x8721, 0x00f7},
2963{0x8722, 0x008f}, {0x8723, 0x0078}, {0x8724, 0x0086},
2964{0x8725, 0x0002}, {0x8726, 0x00b7}, {0x8727, 0x008f},
2965{0x8728, 0x0077}, {0x8729, 0x0020}, {0x872a, 0x0012},
2966{0x872b, 0x00f7}, {0x872c, 0x008f}, {0x872d, 0x0075},
2967{0x872e, 0x0086}, {0x872f, 0x0002}, {0x8730, 0x00b7},
2968{0x8731, 0x008f}, {0x8732, 0x0074}, {0x8733, 0x0020},
2969{0x8734, 0x0008}, {0x8735, 0x00f7}, {0x8736, 0x008f},
2970{0x8737, 0x0072}, {0x8738, 0x0086}, {0x8739, 0x0002},
2971{0x873a, 0x00b7}, {0x873b, 0x008f}, {0x873c, 0x0071},
2972{0x873d, 0x007e}, {0x873e, 0x0087}, {0x873f, 0x0047},
2973{0x8740, 0x0086}, {0x8741, 0x0004}, {0x8742, 0x0097},
2974{0x8743, 0x0040}, {0x8744, 0x007e}, {0x8745, 0x0089},
2975{0x8746, 0x006e}, {0x8747, 0x00ce}, {0x8748, 0x008f},
2976{0x8749, 0x0072}, {0x874a, 0x00bd}, {0x874b, 0x0089},
2977{0x874c, 0x00f7}, {0x874d, 0x00ce}, {0x874e, 0x008f},
2978{0x874f, 0x0075}, {0x8750, 0x00bd}, {0x8751, 0x0089},
2979{0x8752, 0x00f7}, {0x8753, 0x00ce}, {0x8754, 0x008f},
2980{0x8755, 0x0078}, {0x8756, 0x00bd}, {0x8757, 0x0089},
2981{0x8758, 0x00f7}, {0x8759, 0x00ce}, {0x875a, 0x008f},
2982{0x875b, 0x007b}, {0x875c, 0x00bd}, {0x875d, 0x0089},
2983{0x875e, 0x00f7}, {0x875f, 0x004f}, {0x8760, 0x00b7},
2984{0x8761, 0x008f}, {0x8762, 0x007d}, {0x8763, 0x00b7},
2985{0x8764, 0x008f}, {0x8765, 0x0081}, {0x8766, 0x00b6},
2986{0x8767, 0x008f}, {0x8768, 0x0072}, {0x8769, 0x0027},
2987{0x876a, 0x0047}, {0x876b, 0x007c}, {0x876c, 0x008f},
2988{0x876d, 0x007d}, {0x876e, 0x00b6}, {0x876f, 0x008f},
2989{0x8770, 0x0075}, {0x8771, 0x0027}, {0x8772, 0x003f},
2990{0x8773, 0x007c}, {0x8774, 0x008f}, {0x8775, 0x007d},
2991{0x8776, 0x00b6}, {0x8777, 0x008f}, {0x8778, 0x0078},
2992{0x8779, 0x0027}, {0x877a, 0x0037}, {0x877b, 0x007c},
2993{0x877c, 0x008f}, {0x877d, 0x007d}, {0x877e, 0x00b6},
2994{0x877f, 0x008f}, {0x8780, 0x007b}, {0x8781, 0x0027},
2995{0x8782, 0x002f}, {0x8783, 0x007f}, {0x8784, 0x008f},
2996{0x8785, 0x007d}, {0x8786, 0x007c}, {0x8787, 0x008f},
2997{0x8788, 0x0081}, {0x8789, 0x007a}, {0x878a, 0x008f},
2998{0x878b, 0x0072}, {0x878c, 0x0027}, {0x878d, 0x001b},
2999{0x878e, 0x007c}, {0x878f, 0x008f}, {0x8790, 0x007d},
3000{0x8791, 0x007a}, {0x8792, 0x008f}, {0x8793, 0x0075},
3001{0x8794, 0x0027}, {0x8795, 0x0016}, {0x8796, 0x007c},
3002{0x8797, 0x008f}, {0x8798, 0x007d}, {0x8799, 0x007a},
3003{0x879a, 0x008f}, {0x879b, 0x0078}, {0x879c, 0x0027},
3004{0x879d, 0x0011}, {0x879e, 0x007c}, {0x879f, 0x008f},
3005{0x87a0, 0x007d}, {0x87a1, 0x007a}, {0x87a2, 0x008f},
3006{0x87a3, 0x007b}, {0x87a4, 0x0027}, {0x87a5, 0x000c},
3007{0x87a6, 0x007e}, {0x87a7, 0x0087}, {0x87a8, 0x0083},
3008{0x87a9, 0x007a}, {0x87aa, 0x008f}, {0x87ab, 0x0075},
3009{0x87ac, 0x007a}, {0x87ad, 0x008f}, {0x87ae, 0x0078},
3010{0x87af, 0x007a}, {0x87b0, 0x008f}, {0x87b1, 0x007b},
3011{0x87b2, 0x00ce}, {0x87b3, 0x00c1}, {0x87b4, 0x00fc},
3012{0x87b5, 0x00f6}, {0x87b6, 0x008f}, {0x87b7, 0x007d},
3013{0x87b8, 0x003a}, {0x87b9, 0x00a6}, {0x87ba, 0x0000},
3014{0x87bb, 0x00b7}, {0x87bc, 0x0012}, {0x87bd, 0x0070},
3015{0x87be, 0x00b6}, {0x87bf, 0x008f}, {0x87c0, 0x0072},
3016{0x87c1, 0x0026}, {0x87c2, 0x0003}, {0x87c3, 0x007e},
3017{0x87c4, 0x0087}, {0x87c5, 0x00fa}, {0x87c6, 0x00b6},
3018{0x87c7, 0x008f}, {0x87c8, 0x0075}, {0x87c9, 0x0026},
3019{0x87ca, 0x000a}, {0x87cb, 0x0018}, {0x87cc, 0x00ce},
3020{0x87cd, 0x008f}, {0x87ce, 0x0073}, {0x87cf, 0x00bd},
3021{0x87d0, 0x0089}, {0x87d1, 0x00d5}, {0x87d2, 0x007e},
3022{0x87d3, 0x0087}, {0x87d4, 0x00fa}, {0x87d5, 0x00b6},
3023{0x87d6, 0x008f}, {0x87d7, 0x0078}, {0x87d8, 0x0026},
3024{0x87d9, 0x000a}, {0x87da, 0x0018}, {0x87db, 0x00ce},
3025{0x87dc, 0x008f}, {0x87dd, 0x0076}, {0x87de, 0x00bd},
3026{0x87df, 0x0089}, {0x87e0, 0x00d5}, {0x87e1, 0x007e},
3027{0x87e2, 0x0087}, {0x87e3, 0x00fa}, {0x87e4, 0x00b6},
3028{0x87e5, 0x008f}, {0x87e6, 0x007b}, {0x87e7, 0x0026},
3029{0x87e8, 0x000a}, {0x87e9, 0x0018}, {0x87ea, 0x00ce},
3030{0x87eb, 0x008f}, {0x87ec, 0x0079}, {0x87ed, 0x00bd},
3031{0x87ee, 0x0089}, {0x87ef, 0x00d5}, {0x87f0, 0x007e},
3032{0x87f1, 0x0087}, {0x87f2, 0x00fa}, {0x87f3, 0x0086},
3033{0x87f4, 0x0005}, {0x87f5, 0x0097}, {0x87f6, 0x0040},
3034{0x87f7, 0x007e}, {0x87f8, 0x0089}, {0x87f9, 0x0000},
3035{0x87fa, 0x00b6}, {0x87fb, 0x008f}, {0x87fc, 0x0075},
3036{0x87fd, 0x0081}, {0x87fe, 0x0007}, {0x87ff, 0x002e},
3037{0x8800, 0x00f2}, {0x8801, 0x00f6}, {0x8802, 0x0012},
3038{0x8803, 0x0006}, {0x8804, 0x00c4}, {0x8805, 0x00f8},
3039{0x8806, 0x001b}, {0x8807, 0x00b7}, {0x8808, 0x0012},
3040{0x8809, 0x0006}, {0x880a, 0x00b6}, {0x880b, 0x008f},
3041{0x880c, 0x0078}, {0x880d, 0x0081}, {0x880e, 0x0007},
3042{0x880f, 0x002e}, {0x8810, 0x00e2}, {0x8811, 0x0048},
3043{0x8812, 0x0048}, {0x8813, 0x0048}, {0x8814, 0x00f6},
3044{0x8815, 0x0012}, {0x8816, 0x0006}, {0x8817, 0x00c4},
3045{0x8818, 0x00c7}, {0x8819, 0x001b}, {0x881a, 0x00b7},
3046{0x881b, 0x0012}, {0x881c, 0x0006}, {0x881d, 0x00b6},
3047{0x881e, 0x008f}, {0x881f, 0x007b}, {0x8820, 0x0081},
3048{0x8821, 0x0007}, {0x8822, 0x002e}, {0x8823, 0x00cf},
3049{0x8824, 0x00f6}, {0x8825, 0x0012}, {0x8826, 0x0005},
3050{0x8827, 0x00c4}, {0x8828, 0x00f8}, {0x8829, 0x001b},
3051{0x882a, 0x00b7}, {0x882b, 0x0012}, {0x882c, 0x0005},
3052{0x882d, 0x0086}, {0x882e, 0x0000}, {0x882f, 0x00f6},
3053{0x8830, 0x008f}, {0x8831, 0x0071}, {0x8832, 0x00bd},
3054{0x8833, 0x0089}, {0x8834, 0x0094}, {0x8835, 0x0086},
3055{0x8836, 0x0001}, {0x8837, 0x00f6}, {0x8838, 0x008f},
3056{0x8839, 0x0074}, {0x883a, 0x00bd}, {0x883b, 0x0089},
3057{0x883c, 0x0094}, {0x883d, 0x0086}, {0x883e, 0x0002},
3058{0x883f, 0x00f6}, {0x8840, 0x008f}, {0x8841, 0x0077},
3059{0x8842, 0x00bd}, {0x8843, 0x0089}, {0x8844, 0x0094},
3060{0x8845, 0x0086}, {0x8846, 0x0003}, {0x8847, 0x00f6},
3061{0x8848, 0x008f}, {0x8849, 0x007a}, {0x884a, 0x00bd},
3062{0x884b, 0x0089}, {0x884c, 0x0094}, {0x884d, 0x00ce},
3063{0x884e, 0x008f}, {0x884f, 0x0070}, {0x8850, 0x00a6},
3064{0x8851, 0x0001}, {0x8852, 0x0081}, {0x8853, 0x0001},
3065{0x8854, 0x0027}, {0x8855, 0x0007}, {0x8856, 0x0081},
3066{0x8857, 0x0003}, {0x8858, 0x0027}, {0x8859, 0x0003},
3067{0x885a, 0x007e}, {0x885b, 0x0088}, {0x885c, 0x0066},
3068{0x885d, 0x00a6}, {0x885e, 0x0000}, {0x885f, 0x00b8},
3069{0x8860, 0x008f}, {0x8861, 0x0081}, {0x8862, 0x0084},
3070{0x8863, 0x0001}, {0x8864, 0x0026}, {0x8865, 0x000b},
3071{0x8866, 0x008c}, {0x8867, 0x008f}, {0x8868, 0x0079},
3072{0x8869, 0x002c}, {0x886a, 0x000e}, {0x886b, 0x0008},
3073{0x886c, 0x0008}, {0x886d, 0x0008}, {0x886e, 0x007e},
3074{0x886f, 0x0088}, {0x8870, 0x0050}, {0x8871, 0x00b6},
3075{0x8872, 0x0012}, {0x8873, 0x0004}, {0x8874, 0x008a},
3076{0x8875, 0x0040}, {0x8876, 0x00b7}, {0x8877, 0x0012},
3077{0x8878, 0x0004}, {0x8879, 0x00b6}, {0x887a, 0x0012},
3078{0x887b, 0x0004}, {0x887c, 0x0084}, {0x887d, 0x00fb},
3079{0x887e, 0x0084}, {0x887f, 0x00ef}, {0x8880, 0x00b7},
3080{0x8881, 0x0012}, {0x8882, 0x0004}, {0x8883, 0x00b6},
3081{0x8884, 0x0012}, {0x8885, 0x0007}, {0x8886, 0x0036},
3082{0x8887, 0x00b6}, {0x8888, 0x008f}, {0x8889, 0x007c},
3083{0x888a, 0x0048}, {0x888b, 0x0048}, {0x888c, 0x00b7},
3084{0x888d, 0x0012}, {0x888e, 0x0007}, {0x888f, 0x0086},
3085{0x8890, 0x0001}, {0x8891, 0x00ba}, {0x8892, 0x0012},
3086{0x8893, 0x0004}, {0x8894, 0x00b7}, {0x8895, 0x0012},
3087{0x8896, 0x0004}, {0x8897, 0x0001}, {0x8898, 0x0001},
3088{0x8899, 0x0001}, {0x889a, 0x0001}, {0x889b, 0x0001},
3089{0x889c, 0x0001}, {0x889d, 0x0086}, {0x889e, 0x00fe},
3090{0x889f, 0x00b4}, {0x88a0, 0x0012}, {0x88a1, 0x0004},
3091{0x88a2, 0x00b7}, {0x88a3, 0x0012}, {0x88a4, 0x0004},
3092{0x88a5, 0x0086}, {0x88a6, 0x0002}, {0x88a7, 0x00ba},
3093{0x88a8, 0x0012}, {0x88a9, 0x0004}, {0x88aa, 0x00b7},
3094{0x88ab, 0x0012}, {0x88ac, 0x0004}, {0x88ad, 0x0086},
3095{0x88ae, 0x00fd}, {0x88af, 0x00b4}, {0x88b0, 0x0012},
3096{0x88b1, 0x0004}, {0x88b2, 0x00b7}, {0x88b3, 0x0012},
3097{0x88b4, 0x0004}, {0x88b5, 0x0032}, {0x88b6, 0x00b7},
3098{0x88b7, 0x0012}, {0x88b8, 0x0007}, {0x88b9, 0x00b6},
3099{0x88ba, 0x0012}, {0x88bb, 0x0000}, {0x88bc, 0x0084},
3100{0x88bd, 0x0008}, {0x88be, 0x0081}, {0x88bf, 0x0008},
3101{0x88c0, 0x0027}, {0x88c1, 0x000f}, {0x88c2, 0x007c},
3102{0x88c3, 0x0082}, {0x88c4, 0x0008}, {0x88c5, 0x0026},
3103{0x88c6, 0x0007}, {0x88c7, 0x0086}, {0x88c8, 0x0076},
3104{0x88c9, 0x0097}, {0x88ca, 0x0040}, {0x88cb, 0x007e},
3105{0x88cc, 0x0089}, {0x88cd, 0x006e}, {0x88ce, 0x007e},
3106{0x88cf, 0x0086}, {0x88d0, 0x00ec}, {0x88d1, 0x00b6},
3107{0x88d2, 0x008f}, {0x88d3, 0x007f}, {0x88d4, 0x0081},
3108{0x88d5, 0x000f}, {0x88d6, 0x0027}, {0x88d7, 0x003c},
3109{0x88d8, 0x00bd}, {0x88d9, 0x00e6}, {0x88da, 0x00c7},
3110{0x88db, 0x00b7}, {0x88dc, 0x0012}, {0x88dd, 0x000d},
3111{0x88de, 0x00bd}, {0x88df, 0x00e6}, {0x88e0, 0x00cb},
3112{0x88e1, 0x00b6}, {0x88e2, 0x0012}, {0x88e3, 0x0004},
3113{0x88e4, 0x008a}, {0x88e5, 0x0020}, {0x88e6, 0x00b7},
3114{0x88e7, 0x0012}, {0x88e8, 0x0004}, {0x88e9, 0x00ce},
3115{0x88ea, 0x00ff}, {0x88eb, 0x00ff}, {0x88ec, 0x00b6},
3116{0x88ed, 0x0012}, {0x88ee, 0x0000}, {0x88ef, 0x0081},
3117{0x88f0, 0x000c}, {0x88f1, 0x0026}, {0x88f2, 0x0005},
3118{0x88f3, 0x0009}, {0x88f4, 0x0026}, {0x88f5, 0x00f6},
3119{0x88f6, 0x0027}, {0x88f7, 0x001c}, {0x88f8, 0x00b6},
3120{0x88f9, 0x0012}, {0x88fa, 0x0004}, {0x88fb, 0x0084},
3121{0x88fc, 0x00df}, {0x88fd, 0x00b7}, {0x88fe, 0x0012},
3122{0x88ff, 0x0004}, {0x8900, 0x0096}, {0x8901, 0x0083},
3123{0x8902, 0x0081}, {0x8903, 0x0007}, {0x8904, 0x002c},
3124{0x8905, 0x0005}, {0x8906, 0x007c}, {0x8907, 0x0000},
3125{0x8908, 0x0083}, {0x8909, 0x0020}, {0x890a, 0x0006},
3126{0x890b, 0x0096}, {0x890c, 0x0083}, {0x890d, 0x008b},
3127{0x890e, 0x0008}, {0x890f, 0x0097}, {0x8910, 0x0083},
3128{0x8911, 0x007e}, {0x8912, 0x0085}, {0x8913, 0x0041},
3129{0x8914, 0x007f}, {0x8915, 0x008f}, {0x8916, 0x007e},
3130{0x8917, 0x0086}, {0x8918, 0x0080}, {0x8919, 0x00b7},
3131{0x891a, 0x0012}, {0x891b, 0x000c}, {0x891c, 0x0086},
3132{0x891d, 0x0001}, {0x891e, 0x00b7}, {0x891f, 0x008f},
3133{0x8920, 0x007d}, {0x8921, 0x00b6}, {0x8922, 0x0012},
3134{0x8923, 0x000c}, {0x8924, 0x0084}, {0x8925, 0x007f},
3135{0x8926, 0x00b7}, {0x8927, 0x0012}, {0x8928, 0x000c},
3136{0x8929, 0x008a}, {0x892a, 0x0080}, {0x892b, 0x00b7},
3137{0x892c, 0x0012}, {0x892d, 0x000c}, {0x892e, 0x0086},
3138{0x892f, 0x000a}, {0x8930, 0x00bd}, {0x8931, 0x008a},
3139{0x8932, 0x0006}, {0x8933, 0x00b6}, {0x8934, 0x0012},
3140{0x8935, 0x000a}, {0x8936, 0x002a}, {0x8937, 0x0009},
3141{0x8938, 0x00b6}, {0x8939, 0x0012}, {0x893a, 0x000c},
3142{0x893b, 0x00ba}, {0x893c, 0x008f}, {0x893d, 0x007d},
3143{0x893e, 0x00b7}, {0x893f, 0x0012}, {0x8940, 0x000c},
3144{0x8941, 0x00b6}, {0x8942, 0x008f}, {0x8943, 0x007e},
3145{0x8944, 0x0081}, {0x8945, 0x0060}, {0x8946, 0x0027},
3146{0x8947, 0x001a}, {0x8948, 0x008b}, {0x8949, 0x0020},
3147{0x894a, 0x00b7}, {0x894b, 0x008f}, {0x894c, 0x007e},
3148{0x894d, 0x00b6}, {0x894e, 0x0012}, {0x894f, 0x000c},
3149{0x8950, 0x0084}, {0x8951, 0x009f}, {0x8952, 0x00ba},
3150{0x8953, 0x008f}, {0x8954, 0x007e}, {0x8955, 0x00b7},
3151{0x8956, 0x0012}, {0x8957, 0x000c}, {0x8958, 0x00b6},
3152{0x8959, 0x008f}, {0x895a, 0x007d}, {0x895b, 0x0048},
3153{0x895c, 0x00b7}, {0x895d, 0x008f}, {0x895e, 0x007d},
3154{0x895f, 0x007e}, {0x8960, 0x0089}, {0x8961, 0x0021},
3155{0x8962, 0x00b6}, {0x8963, 0x0012}, {0x8964, 0x0004},
3156{0x8965, 0x008a}, {0x8966, 0x0020}, {0x8967, 0x00b7},
3157{0x8968, 0x0012}, {0x8969, 0x0004}, {0x896a, 0x00bd},
3158{0x896b, 0x008a}, {0x896c, 0x000a}, {0x896d, 0x004f},
3159{0x896e, 0x0039}, {0x896f, 0x00a6}, {0x8970, 0x0000},
3160{0x8971, 0x0018}, {0x8972, 0x00a7}, {0x8973, 0x0000},
3161{0x8974, 0x0008}, {0x8975, 0x0018}, {0x8976, 0x0008},
3162{0x8977, 0x005a}, {0x8978, 0x0026}, {0x8979, 0x00f5},
3163{0x897a, 0x0039}, {0x897b, 0x0036}, {0x897c, 0x006c},
3164{0x897d, 0x0000}, {0x897e, 0x0032}, {0x897f, 0x00ba},
3165{0x8980, 0x008f}, {0x8981, 0x007f}, {0x8982, 0x00b7},
3166{0x8983, 0x008f}, {0x8984, 0x007f}, {0x8985, 0x00b6},
3167{0x8986, 0x0012}, {0x8987, 0x0009}, {0x8988, 0x0084},
3168{0x8989, 0x0003}, {0x898a, 0x00a7}, {0x898b, 0x0001},
3169{0x898c, 0x00b6}, {0x898d, 0x0012}, {0x898e, 0x0006},
3170{0x898f, 0x0084}, {0x8990, 0x003f}, {0x8991, 0x00a7},
3171{0x8992, 0x0002}, {0x8993, 0x0039}, {0x8994, 0x0036},
3172{0x8995, 0x0086}, {0x8996, 0x0003}, {0x8997, 0x00b7},
3173{0x8998, 0x008f}, {0x8999, 0x0080}, {0x899a, 0x0032},
3174{0x899b, 0x00c1}, {0x899c, 0x0000}, {0x899d, 0x0026},
3175{0x899e, 0x0006}, {0x899f, 0x00b7}, {0x89a0, 0x008f},
3176{0x89a1, 0x007c}, {0x89a2, 0x007e}, {0x89a3, 0x0089},
3177{0x89a4, 0x00c9}, {0x89a5, 0x00c1}, {0x89a6, 0x0001},
3178{0x89a7, 0x0027}, {0x89a8, 0x0018}, {0x89a9, 0x00c1},
3179{0x89aa, 0x0002}, {0x89ab, 0x0027}, {0x89ac, 0x000c},
3180{0x89ad, 0x00c1}, {0x89ae, 0x0003}, {0x89af, 0x0027},
3181{0x89b0, 0x0000}, {0x89b1, 0x00f6}, {0x89b2, 0x008f},
3182{0x89b3, 0x0080}, {0x89b4, 0x0005}, {0x89b5, 0x0005},
3183{0x89b6, 0x00f7}, {0x89b7, 0x008f}, {0x89b8, 0x0080},
3184{0x89b9, 0x00f6}, {0x89ba, 0x008f}, {0x89bb, 0x0080},
3185{0x89bc, 0x0005}, {0x89bd, 0x0005}, {0x89be, 0x00f7},
3186{0x89bf, 0x008f}, {0x89c0, 0x0080}, {0x89c1, 0x00f6},
3187{0x89c2, 0x008f}, {0x89c3, 0x0080}, {0x89c4, 0x0005},
3188{0x89c5, 0x0005}, {0x89c6, 0x00f7}, {0x89c7, 0x008f},
3189{0x89c8, 0x0080}, {0x89c9, 0x00f6}, {0x89ca, 0x008f},
3190{0x89cb, 0x0080}, {0x89cc, 0x0053}, {0x89cd, 0x00f4},
3191{0x89ce, 0x0012}, {0x89cf, 0x0007}, {0x89d0, 0x001b},
3192{0x89d1, 0x00b7}, {0x89d2, 0x0012}, {0x89d3, 0x0007},
3193{0x89d4, 0x0039}, {0x89d5, 0x00ce}, {0x89d6, 0x008f},
3194{0x89d7, 0x0070}, {0x89d8, 0x00a6}, {0x89d9, 0x0000},
3195{0x89da, 0x0018}, {0x89db, 0x00e6}, {0x89dc, 0x0000},
3196{0x89dd, 0x0018}, {0x89de, 0x00a7}, {0x89df, 0x0000},
3197{0x89e0, 0x00e7}, {0x89e1, 0x0000}, {0x89e2, 0x00a6},
3198{0x89e3, 0x0001}, {0x89e4, 0x0018}, {0x89e5, 0x00e6},
3199{0x89e6, 0x0001}, {0x89e7, 0x0018}, {0x89e8, 0x00a7},
3200{0x89e9, 0x0001}, {0x89ea, 0x00e7}, {0x89eb, 0x0001},
3201{0x89ec, 0x00a6}, {0x89ed, 0x0002}, {0x89ee, 0x0018},
3202{0x89ef, 0x00e6}, {0x89f0, 0x0002}, {0x89f1, 0x0018},
3203{0x89f2, 0x00a7}, {0x89f3, 0x0002}, {0x89f4, 0x00e7},
3204{0x89f5, 0x0002}, {0x89f6, 0x0039}, {0x89f7, 0x00a6},
3205{0x89f8, 0x0000}, {0x89f9, 0x0084}, {0x89fa, 0x0007},
3206{0x89fb, 0x00e6}, {0x89fc, 0x0000}, {0x89fd, 0x00c4},
3207{0x89fe, 0x0038}, {0x89ff, 0x0054}, {0x8a00, 0x0054},
3208{0x8a01, 0x0054}, {0x8a02, 0x001b}, {0x8a03, 0x00a7},
3209{0x8a04, 0x0000}, {0x8a05, 0x0039}, {0x8a06, 0x004a},
3210{0x8a07, 0x0026}, {0x8a08, 0x00fd}, {0x8a09, 0x0039},
3211{0x8a0a, 0x0096}, {0x8a0b, 0x0022}, {0x8a0c, 0x0084},
3212{0x8a0d, 0x000f}, {0x8a0e, 0x0097}, {0x8a0f, 0x0022},
3213{0x8a10, 0x0086}, {0x8a11, 0x0001}, {0x8a12, 0x00b7},
3214{0x8a13, 0x008f}, {0x8a14, 0x0070}, {0x8a15, 0x00b6},
3215{0x8a16, 0x0012}, {0x8a17, 0x0007}, {0x8a18, 0x00b7},
3216{0x8a19, 0x008f}, {0x8a1a, 0x0071}, {0x8a1b, 0x00f6},
3217{0x8a1c, 0x0012}, {0x8a1d, 0x000c}, {0x8a1e, 0x00c4},
3218{0x8a1f, 0x000f}, {0x8a20, 0x00c8}, {0x8a21, 0x000f},
3219{0x8a22, 0x00f7}, {0x8a23, 0x008f}, {0x8a24, 0x0072},
3220{0x8a25, 0x00f6}, {0x8a26, 0x008f}, {0x8a27, 0x0072},
3221{0x8a28, 0x00b6}, {0x8a29, 0x008f}, {0x8a2a, 0x0071},
3222{0x8a2b, 0x0084}, {0x8a2c, 0x0003}, {0x8a2d, 0x0027},
3223{0x8a2e, 0x0014}, {0x8a2f, 0x0081}, {0x8a30, 0x0001},
3224{0x8a31, 0x0027}, {0x8a32, 0x001c}, {0x8a33, 0x0081},
3225{0x8a34, 0x0002}, {0x8a35, 0x0027}, {0x8a36, 0x0024},
3226{0x8a37, 0x00f4}, {0x8a38, 0x008f}, {0x8a39, 0x0070},
3227{0x8a3a, 0x0027}, {0x8a3b, 0x002a}, {0x8a3c, 0x0096},
3228{0x8a3d, 0x0022}, {0x8a3e, 0x008a}, {0x8a3f, 0x0080},
3229{0x8a40, 0x007e}, {0x8a41, 0x008a}, {0x8a42, 0x0064},
3230{0x8a43, 0x00f4}, {0x8a44, 0x008f}, {0x8a45, 0x0070},
3231{0x8a46, 0x0027}, {0x8a47, 0x001e}, {0x8a48, 0x0096},
3232{0x8a49, 0x0022}, {0x8a4a, 0x008a}, {0x8a4b, 0x0010},
3233{0x8a4c, 0x007e}, {0x8a4d, 0x008a}, {0x8a4e, 0x0064},
3234{0x8a4f, 0x00f4}, {0x8a50, 0x008f}, {0x8a51, 0x0070},
3235{0x8a52, 0x0027}, {0x8a53, 0x0012}, {0x8a54, 0x0096},
3236{0x8a55, 0x0022}, {0x8a56, 0x008a}, {0x8a57, 0x0020},
3237{0x8a58, 0x007e}, {0x8a59, 0x008a}, {0x8a5a, 0x0064},
3238{0x8a5b, 0x00f4}, {0x8a5c, 0x008f}, {0x8a5d, 0x0070},
3239{0x8a5e, 0x0027}, {0x8a5f, 0x0006}, {0x8a60, 0x0096},
3240{0x8a61, 0x0022}, {0x8a62, 0x008a}, {0x8a63, 0x0040},
3241{0x8a64, 0x0097}, {0x8a65, 0x0022}, {0x8a66, 0x0074},
3242{0x8a67, 0x008f}, {0x8a68, 0x0071}, {0x8a69, 0x0074},
3243{0x8a6a, 0x008f}, {0x8a6b, 0x0071}, {0x8a6c, 0x0078},
3244{0x8a6d, 0x008f}, {0x8a6e, 0x0070}, {0x8a6f, 0x00b6},
3245{0x8a70, 0x008f}, {0x8a71, 0x0070}, {0x8a72, 0x0085},
3246{0x8a73, 0x0010}, {0x8a74, 0x0027}, {0x8a75, 0x00af},
3247{0x8a76, 0x00d6}, {0x8a77, 0x0022}, {0x8a78, 0x00c4},
3248{0x8a79, 0x0010}, {0x8a7a, 0x0058}, {0x8a7b, 0x00b6},
3249{0x8a7c, 0x0012}, {0x8a7d, 0x0070}, {0x8a7e, 0x0081},
3250{0x8a7f, 0x00e4}, {0x8a80, 0x0027}, {0x8a81, 0x0036},
3251{0x8a82, 0x0081}, {0x8a83, 0x00e1}, {0x8a84, 0x0026},
3252{0x8a85, 0x000c}, {0x8a86, 0x0096}, {0x8a87, 0x0022},
3253{0x8a88, 0x0084}, {0x8a89, 0x0020}, {0x8a8a, 0x0044},
3254{0x8a8b, 0x001b}, {0x8a8c, 0x00d6}, {0x8a8d, 0x0022},
3255{0x8a8e, 0x00c4}, {0x8a8f, 0x00cf}, {0x8a90, 0x0020},
3256{0x8a91, 0x0023}, {0x8a92, 0x0058}, {0x8a93, 0x0081},
3257{0x8a94, 0x00c6}, {0x8a95, 0x0026}, {0x8a96, 0x000d},
3258{0x8a97, 0x0096}, {0x8a98, 0x0022}, {0x8a99, 0x0084},
3259{0x8a9a, 0x0040}, {0x8a9b, 0x0044}, {0x8a9c, 0x0044},
3260{0x8a9d, 0x001b}, {0x8a9e, 0x00d6}, {0x8a9f, 0x0022},
3261{0x8aa0, 0x00c4}, {0x8aa1, 0x00af}, {0x8aa2, 0x0020},
3262{0x8aa3, 0x0011}, {0x8aa4, 0x0058}, {0x8aa5, 0x0081},
3263{0x8aa6, 0x0027}, {0x8aa7, 0x0026}, {0x8aa8, 0x000f},
3264{0x8aa9, 0x0096}, {0x8aaa, 0x0022}, {0x8aab, 0x0084},
3265{0x8aac, 0x0080}, {0x8aad, 0x0044}, {0x8aae, 0x0044},
3266{0x8aaf, 0x0044}, {0x8ab0, 0x001b}, {0x8ab1, 0x00d6},
3267{0x8ab2, 0x0022}, {0x8ab3, 0x00c4}, {0x8ab4, 0x006f},
3268{0x8ab5, 0x001b}, {0x8ab6, 0x0097}, {0x8ab7, 0x0022},
3269{0x8ab8, 0x0039}, {0x8ab9, 0x0027}, {0x8aba, 0x000c},
3270{0x8abb, 0x007c}, {0x8abc, 0x0082}, {0x8abd, 0x0006},
3271{0x8abe, 0x00bd}, {0x8abf, 0x00d9}, {0x8ac0, 0x00ed},
3272{0x8ac1, 0x00b6}, {0x8ac2, 0x0082}, {0x8ac3, 0x0007},
3273{0x8ac4, 0x007e}, {0x8ac5, 0x008a}, {0x8ac6, 0x00b9},
3274{0x8ac7, 0x007f}, {0x8ac8, 0x0082}, {0x8ac9, 0x0006},
3275{0x8aca, 0x0039}, { 0x0, 0x0 }
3276};
3277#else
3278cas_saturn_patch_t cas_saturn_patch[] = {
3279{0x8200, 0x007e}, {0x8201, 0x0082}, {0x8202, 0x0009},
3280{0x8203, 0x0000}, {0x8204, 0x0000}, {0x8205, 0x0000},
3281{0x8206, 0x0000}, {0x8207, 0x0000}, {0x8208, 0x0000},
3282{0x8209, 0x008e}, {0x820a, 0x008e}, {0x820b, 0x00ff},
3283{0x820c, 0x00ce}, {0x820d, 0x0082}, {0x820e, 0x0025},
3284{0x820f, 0x00ff}, {0x8210, 0x0001}, {0x8211, 0x000f},
3285{0x8212, 0x00ce}, {0x8213, 0x0084}, {0x8214, 0x0026},
3286{0x8215, 0x00ff}, {0x8216, 0x0001}, {0x8217, 0x0011},
3287{0x8218, 0x00ce}, {0x8219, 0x0085}, {0x821a, 0x003d},
3288{0x821b, 0x00df}, {0x821c, 0x00e5}, {0x821d, 0x0086},
3289{0x821e, 0x0039}, {0x821f, 0x00b7}, {0x8220, 0x008f},
3290{0x8221, 0x00f8}, {0x8222, 0x007e}, {0x8223, 0x00c3},
3291{0x8224, 0x00c2}, {0x8225, 0x0096}, {0x8226, 0x0047},
3292{0x8227, 0x0084}, {0x8228, 0x00f3}, {0x8229, 0x008a},
3293{0x822a, 0x0000}, {0x822b, 0x0097}, {0x822c, 0x0047},
3294{0x822d, 0x00ce}, {0x822e, 0x0082}, {0x822f, 0x0033},
3295{0x8230, 0x00ff}, {0x8231, 0x0001}, {0x8232, 0x000f},
3296{0x8233, 0x0096}, {0x8234, 0x0046}, {0x8235, 0x0084},
3297{0x8236, 0x000c}, {0x8237, 0x0081}, {0x8238, 0x0004},
3298{0x8239, 0x0027}, {0x823a, 0x000b}, {0x823b, 0x0096},
3299{0x823c, 0x0046}, {0x823d, 0x0084}, {0x823e, 0x000c},
3300{0x823f, 0x0081}, {0x8240, 0x0008}, {0x8241, 0x0027},
3301{0x8242, 0x0057}, {0x8243, 0x007e}, {0x8244, 0x0084},
3302{0x8245, 0x0025}, {0x8246, 0x0096}, {0x8247, 0x0047},
3303{0x8248, 0x0084}, {0x8249, 0x00f3}, {0x824a, 0x008a},
3304{0x824b, 0x0004}, {0x824c, 0x0097}, {0x824d, 0x0047},
3305{0x824e, 0x00ce}, {0x824f, 0x0082}, {0x8250, 0x0054},
3306{0x8251, 0x00ff}, {0x8252, 0x0001}, {0x8253, 0x000f},
3307{0x8254, 0x0096}, {0x8255, 0x0046}, {0x8256, 0x0084},
3308{0x8257, 0x000c}, {0x8258, 0x0081}, {0x8259, 0x0004},
3309{0x825a, 0x0026}, {0x825b, 0x0038}, {0x825c, 0x00b6},
3310{0x825d, 0x0012}, {0x825e, 0x0020}, {0x825f, 0x0084},
3311{0x8260, 0x0020}, {0x8261, 0x0026}, {0x8262, 0x0003},
3312{0x8263, 0x007e}, {0x8264, 0x0084}, {0x8265, 0x0025},
3313{0x8266, 0x0096}, {0x8267, 0x007b}, {0x8268, 0x00d6},
3314{0x8269, 0x007c}, {0x826a, 0x00fe}, {0x826b, 0x008f},
3315{0x826c, 0x0056}, {0x826d, 0x00bd}, {0x826e, 0x00f7},
3316{0x826f, 0x00b6}, {0x8270, 0x00fe}, {0x8271, 0x008f},
3317{0x8272, 0x004e}, {0x8273, 0x00bd}, {0x8274, 0x00ec},
3318{0x8275, 0x008e}, {0x8276, 0x00bd}, {0x8277, 0x00fa},
3319{0x8278, 0x00f7}, {0x8279, 0x00bd}, {0x827a, 0x00f7},
3320{0x827b, 0x0028}, {0x827c, 0x00ce}, {0x827d, 0x0082},
3321{0x827e, 0x0082}, {0x827f, 0x00ff}, {0x8280, 0x0001},
3322{0x8281, 0x000f}, {0x8282, 0x0096}, {0x8283, 0x0046},
3323{0x8284, 0x0084}, {0x8285, 0x000c}, {0x8286, 0x0081},
3324{0x8287, 0x0004}, {0x8288, 0x0026}, {0x8289, 0x000a},
3325{0x828a, 0x00b6}, {0x828b, 0x0012}, {0x828c, 0x0020},
3326{0x828d, 0x0084}, {0x828e, 0x0020}, {0x828f, 0x0027},
3327{0x8290, 0x00b5}, {0x8291, 0x007e}, {0x8292, 0x0084},
3328{0x8293, 0x0025}, {0x8294, 0x00bd}, {0x8295, 0x00f7},
3329{0x8296, 0x001f}, {0x8297, 0x007e}, {0x8298, 0x0084},
3330{0x8299, 0x001f}, {0x829a, 0x0096}, {0x829b, 0x0047},
3331{0x829c, 0x0084}, {0x829d, 0x00f3}, {0x829e, 0x008a},
3332{0x829f, 0x0008}, {0x82a0, 0x0097}, {0x82a1, 0x0047},
3333{0x82a2, 0x00de}, {0x82a3, 0x00e1}, {0x82a4, 0x00ad},
3334{0x82a5, 0x0000}, {0x82a6, 0x00ce}, {0x82a7, 0x0082},
3335{0x82a8, 0x00af}, {0x82a9, 0x00ff}, {0x82aa, 0x0001},
3336{0x82ab, 0x000f}, {0x82ac, 0x007e}, {0x82ad, 0x0084},
3337{0x82ae, 0x0025}, {0x82af, 0x0096}, {0x82b0, 0x0041},
3338{0x82b1, 0x0085}, {0x82b2, 0x0010}, {0x82b3, 0x0026},
3339{0x82b4, 0x0006}, {0x82b5, 0x0096}, {0x82b6, 0x0023},
3340{0x82b7, 0x0085}, {0x82b8, 0x0040}, {0x82b9, 0x0027},
3341{0x82ba, 0x0006}, {0x82bb, 0x00bd}, {0x82bc, 0x00ed},
3342{0x82bd, 0x0000}, {0x82be, 0x007e}, {0x82bf, 0x0083},
3343{0x82c0, 0x00a2}, {0x82c1, 0x00de}, {0x82c2, 0x0042},
3344{0x82c3, 0x00bd}, {0x82c4, 0x00eb}, {0x82c5, 0x008e},
3345{0x82c6, 0x0096}, {0x82c7, 0x0024}, {0x82c8, 0x0084},
3346{0x82c9, 0x0008}, {0x82ca, 0x0027}, {0x82cb, 0x0003},
3347{0x82cc, 0x007e}, {0x82cd, 0x0083}, {0x82ce, 0x00df},
3348{0x82cf, 0x0096}, {0x82d0, 0x007b}, {0x82d1, 0x00d6},
3349{0x82d2, 0x007c}, {0x82d3, 0x00fe}, {0x82d4, 0x008f},
3350{0x82d5, 0x0056}, {0x82d6, 0x00bd}, {0x82d7, 0x00f7},
3351{0x82d8, 0x00b6}, {0x82d9, 0x00fe}, {0x82da, 0x008f},
3352{0x82db, 0x0050}, {0x82dc, 0x00bd}, {0x82dd, 0x00ec},
3353{0x82de, 0x008e}, {0x82df, 0x00bd}, {0x82e0, 0x00fa},
3354{0x82e1, 0x00f7}, {0x82e2, 0x0086}, {0x82e3, 0x0011},
3355{0x82e4, 0x00c6}, {0x82e5, 0x0049}, {0x82e6, 0x00bd},
3356{0x82e7, 0x00e4}, {0x82e8, 0x0012}, {0x82e9, 0x00ce},
3357{0x82ea, 0x0082}, {0x82eb, 0x00ef}, {0x82ec, 0x00ff},
3358{0x82ed, 0x0001}, {0x82ee, 0x000f}, {0x82ef, 0x0096},
3359{0x82f0, 0x0046}, {0x82f1, 0x0084}, {0x82f2, 0x000c},
3360{0x82f3, 0x0081}, {0x82f4, 0x0000}, {0x82f5, 0x0027},
3361{0x82f6, 0x0017}, {0x82f7, 0x00c6}, {0x82f8, 0x0049},
3362{0x82f9, 0x00bd}, {0x82fa, 0x00e4}, {0x82fb, 0x0091},
3363{0x82fc, 0x0024}, {0x82fd, 0x000d}, {0x82fe, 0x00b6},
3364{0x82ff, 0x0012}, {0x8300, 0x0020}, {0x8301, 0x0085},
3365{0x8302, 0x0020}, {0x8303, 0x0026}, {0x8304, 0x000c},
3366{0x8305, 0x00ce}, {0x8306, 0x0082}, {0x8307, 0x00c1},
3367{0x8308, 0x00ff}, {0x8309, 0x0001}, {0x830a, 0x000f},
3368{0x830b, 0x007e}, {0x830c, 0x0084}, {0x830d, 0x0025},
3369{0x830e, 0x007e}, {0x830f, 0x0084}, {0x8310, 0x0016},
3370{0x8311, 0x00fe}, {0x8312, 0x008f}, {0x8313, 0x0052},
3371{0x8314, 0x00bd}, {0x8315, 0x00ec}, {0x8316, 0x008e},
3372{0x8317, 0x00bd}, {0x8318, 0x00fa}, {0x8319, 0x00f7},
3373{0x831a, 0x0086}, {0x831b, 0x006a}, {0x831c, 0x00c6},
3374{0x831d, 0x0049}, {0x831e, 0x00bd}, {0x831f, 0x00e4},
3375{0x8320, 0x0012}, {0x8321, 0x00ce}, {0x8322, 0x0083},
3376{0x8323, 0x0027}, {0x8324, 0x00ff}, {0x8325, 0x0001},
3377{0x8326, 0x000f}, {0x8327, 0x0096}, {0x8328, 0x0046},
3378{0x8329, 0x0084}, {0x832a, 0x000c}, {0x832b, 0x0081},
3379{0x832c, 0x0000}, {0x832d, 0x0027}, {0x832e, 0x000a},
3380{0x832f, 0x00c6}, {0x8330, 0x0049}, {0x8331, 0x00bd},
3381{0x8332, 0x00e4}, {0x8333, 0x0091}, {0x8334, 0x0025},
3382{0x8335, 0x0006}, {0x8336, 0x007e}, {0x8337, 0x0084},
3383{0x8338, 0x0025}, {0x8339, 0x007e}, {0x833a, 0x0084},
3384{0x833b, 0x0016}, {0x833c, 0x00b6}, {0x833d, 0x0018},
3385{0x833e, 0x0070}, {0x833f, 0x00bb}, {0x8340, 0x0019},
3386{0x8341, 0x0070}, {0x8342, 0x002a}, {0x8343, 0x0004},
3387{0x8344, 0x0081}, {0x8345, 0x00af}, {0x8346, 0x002e},
3388{0x8347, 0x0019}, {0x8348, 0x0096}, {0x8349, 0x007b},
3389{0x834a, 0x00f6}, {0x834b, 0x0020}, {0x834c, 0x0007},
3390{0x834d, 0x00fa}, {0x834e, 0x0020}, {0x834f, 0x0027},
3391{0x8350, 0x00c4}, {0x8351, 0x0038}, {0x8352, 0x0081},
3392{0x8353, 0x0038}, {0x8354, 0x0027}, {0x8355, 0x000b},
3393{0x8356, 0x00f6}, {0x8357, 0x0020}, {0x8358, 0x0007},
3394{0x8359, 0x00fa}, {0x835a, 0x0020}, {0x835b, 0x0027},
3395{0x835c, 0x00cb}, {0x835d, 0x0008}, {0x835e, 0x007e},
3396{0x835f, 0x0082}, {0x8360, 0x00d3}, {0x8361, 0x00bd},
3397{0x8362, 0x00f7}, {0x8363, 0x0066}, {0x8364, 0x0086},
3398{0x8365, 0x0074}, {0x8366, 0x00c6}, {0x8367, 0x0049},
3399{0x8368, 0x00bd}, {0x8369, 0x00e4}, {0x836a, 0x0012},
3400{0x836b, 0x00ce}, {0x836c, 0x0083}, {0x836d, 0x0071},
3401{0x836e, 0x00ff}, {0x836f, 0x0001}, {0x8370, 0x000f},
3402{0x8371, 0x0096}, {0x8372, 0x0046}, {0x8373, 0x0084},
3403{0x8374, 0x000c}, {0x8375, 0x0081}, {0x8376, 0x0008},
3404{0x8377, 0x0026}, {0x8378, 0x000a}, {0x8379, 0x00c6},
3405{0x837a, 0x0049}, {0x837b, 0x00bd}, {0x837c, 0x00e4},
3406{0x837d, 0x0091}, {0x837e, 0x0025}, {0x837f, 0x0006},
3407{0x8380, 0x007e}, {0x8381, 0x0084}, {0x8382, 0x0025},
3408{0x8383, 0x007e}, {0x8384, 0x0084}, {0x8385, 0x0016},
3409{0x8386, 0x00bd}, {0x8387, 0x00f7}, {0x8388, 0x003e},
3410{0x8389, 0x0026}, {0x838a, 0x000e}, {0x838b, 0x00bd},
3411{0x838c, 0x00e5}, {0x838d, 0x0009}, {0x838e, 0x0026},
3412{0x838f, 0x0006}, {0x8390, 0x00ce}, {0x8391, 0x0082},
3413{0x8392, 0x00c1}, {0x8393, 0x00ff}, {0x8394, 0x0001},
3414{0x8395, 0x000f}, {0x8396, 0x007e}, {0x8397, 0x0084},
3415{0x8398, 0x0025}, {0x8399, 0x00fe}, {0x839a, 0x008f},
3416{0x839b, 0x0054}, {0x839c, 0x00bd}, {0x839d, 0x00ec},
3417{0x839e, 0x008e}, {0x839f, 0x00bd}, {0x83a0, 0x00fa},
3418{0x83a1, 0x00f7}, {0x83a2, 0x00bd}, {0x83a3, 0x00f7},
3419{0x83a4, 0x0033}, {0x83a5, 0x0086}, {0x83a6, 0x000f},
3420{0x83a7, 0x00c6}, {0x83a8, 0x0051}, {0x83a9, 0x00bd},
3421{0x83aa, 0x00e4}, {0x83ab, 0x0012}, {0x83ac, 0x00ce},
3422{0x83ad, 0x0083}, {0x83ae, 0x00b2}, {0x83af, 0x00ff},
3423{0x83b0, 0x0001}, {0x83b1, 0x000f}, {0x83b2, 0x0096},
3424{0x83b3, 0x0046}, {0x83b4, 0x0084}, {0x83b5, 0x000c},
3425{0x83b6, 0x0081}, {0x83b7, 0x0008}, {0x83b8, 0x0026},
3426{0x83b9, 0x005c}, {0x83ba, 0x00b6}, {0x83bb, 0x0012},
3427{0x83bc, 0x0020}, {0x83bd, 0x0084}, {0x83be, 0x003f},
3428{0x83bf, 0x0081}, {0x83c0, 0x003a}, {0x83c1, 0x0027},
3429{0x83c2, 0x001c}, {0x83c3, 0x0096}, {0x83c4, 0x0023},
3430{0x83c5, 0x0085}, {0x83c6, 0x0040}, {0x83c7, 0x0027},
3431{0x83c8, 0x0003}, {0x83c9, 0x007e}, {0x83ca, 0x0084},
3432{0x83cb, 0x0025}, {0x83cc, 0x00c6}, {0x83cd, 0x0051},
3433{0x83ce, 0x00bd}, {0x83cf, 0x00e4}, {0x83d0, 0x0091},
3434{0x83d1, 0x0025}, {0x83d2, 0x0003}, {0x83d3, 0x007e},
3435{0x83d4, 0x0084}, {0x83d5, 0x0025}, {0x83d6, 0x00ce},
3436{0x83d7, 0x0082}, {0x83d8, 0x00c1}, {0x83d9, 0x00ff},
3437{0x83da, 0x0001}, {0x83db, 0x000f}, {0x83dc, 0x007e},
3438{0x83dd, 0x0084}, {0x83de, 0x0025}, {0x83df, 0x00bd},
3439{0x83e0, 0x00f8}, {0x83e1, 0x0037}, {0x83e2, 0x007c},
3440{0x83e3, 0x0000}, {0x83e4, 0x007a}, {0x83e5, 0x00ce},
3441{0x83e6, 0x0083}, {0x83e7, 0x00ee}, {0x83e8, 0x00ff},
3442{0x83e9, 0x0001}, {0x83ea, 0x000f}, {0x83eb, 0x007e},
3443{0x83ec, 0x0084}, {0x83ed, 0x0025}, {0x83ee, 0x0096},
3444{0x83ef, 0x0046}, {0x83f0, 0x0084}, {0x83f1, 0x000c},
3445{0x83f2, 0x0081}, {0x83f3, 0x0008}, {0x83f4, 0x0026},
3446{0x83f5, 0x0020}, {0x83f6, 0x0096}, {0x83f7, 0x0024},
3447{0x83f8, 0x0084}, {0x83f9, 0x0008}, {0x83fa, 0x0026},
3448{0x83fb, 0x0029}, {0x83fc, 0x00b6}, {0x83fd, 0x0018},
3449{0x83fe, 0x0082}, {0x83ff, 0x00bb}, {0x8400, 0x0019},
3450{0x8401, 0x0082}, {0x8402, 0x00b1}, {0x8403, 0x0001},
3451{0x8404, 0x003b}, {0x8405, 0x0022}, {0x8406, 0x0009},
3452{0x8407, 0x00b6}, {0x8408, 0x0012}, {0x8409, 0x0020},
3453{0x840a, 0x0084}, {0x840b, 0x0037}, {0x840c, 0x0081},
3454{0x840d, 0x0032}, {0x840e, 0x0027}, {0x840f, 0x0015},
3455{0x8410, 0x00bd}, {0x8411, 0x00f8}, {0x8412, 0x0044},
3456{0x8413, 0x007e}, {0x8414, 0x0082}, {0x8415, 0x00c1},
3457{0x8416, 0x00bd}, {0x8417, 0x00f7}, {0x8418, 0x001f},
3458{0x8419, 0x00bd}, {0x841a, 0x00f8}, {0x841b, 0x0044},
3459{0x841c, 0x00bd}, {0x841d, 0x00fc}, {0x841e, 0x0029},
3460{0x841f, 0x00ce}, {0x8420, 0x0082}, {0x8421, 0x0025},
3461{0x8422, 0x00ff}, {0x8423, 0x0001}, {0x8424, 0x000f},
3462{0x8425, 0x0039}, {0x8426, 0x0096}, {0x8427, 0x0047},
3463{0x8428, 0x0084}, {0x8429, 0x00fc}, {0x842a, 0x008a},
3464{0x842b, 0x0000}, {0x842c, 0x0097}, {0x842d, 0x0047},
3465{0x842e, 0x00ce}, {0x842f, 0x0084}, {0x8430, 0x0034},
3466{0x8431, 0x00ff}, {0x8432, 0x0001}, {0x8433, 0x0011},
3467{0x8434, 0x0096}, {0x8435, 0x0046}, {0x8436, 0x0084},
3468{0x8437, 0x0003}, {0x8438, 0x0081}, {0x8439, 0x0002},
3469{0x843a, 0x0027}, {0x843b, 0x0003}, {0x843c, 0x007e},
3470{0x843d, 0x0085}, {0x843e, 0x001e}, {0x843f, 0x0096},
3471{0x8440, 0x0047}, {0x8441, 0x0084}, {0x8442, 0x00fc},
3472{0x8443, 0x008a}, {0x8444, 0x0002}, {0x8445, 0x0097},
3473{0x8446, 0x0047}, {0x8447, 0x00de}, {0x8448, 0x00e1},
3474{0x8449, 0x00ad}, {0x844a, 0x0000}, {0x844b, 0x0086},
3475{0x844c, 0x0001}, {0x844d, 0x00b7}, {0x844e, 0x0012},
3476{0x844f, 0x0051}, {0x8450, 0x00bd}, {0x8451, 0x00f7},
3477{0x8452, 0x0014}, {0x8453, 0x00b6}, {0x8454, 0x0010},
3478{0x8455, 0x0031}, {0x8456, 0x0084}, {0x8457, 0x00fd},
3479{0x8458, 0x00b7}, {0x8459, 0x0010}, {0x845a, 0x0031},
3480{0x845b, 0x00bd}, {0x845c, 0x00f8}, {0x845d, 0x001e},
3481{0x845e, 0x0096}, {0x845f, 0x0081}, {0x8460, 0x00d6},
3482{0x8461, 0x0082}, {0x8462, 0x00fe}, {0x8463, 0x008f},
3483{0x8464, 0x005a}, {0x8465, 0x00bd}, {0x8466, 0x00f7},
3484{0x8467, 0x00b6}, {0x8468, 0x00fe}, {0x8469, 0x008f},
3485{0x846a, 0x005c}, {0x846b, 0x00bd}, {0x846c, 0x00ec},
3486{0x846d, 0x008e}, {0x846e, 0x00bd}, {0x846f, 0x00fa},
3487{0x8470, 0x00f7}, {0x8471, 0x0086}, {0x8472, 0x0008},
3488{0x8473, 0x00d6}, {0x8474, 0x0000}, {0x8475, 0x00c5},
3489{0x8476, 0x0010}, {0x8477, 0x0026}, {0x8478, 0x0002},
3490{0x8479, 0x008b}, {0x847a, 0x0020}, {0x847b, 0x00c6},
3491{0x847c, 0x0051}, {0x847d, 0x00bd}, {0x847e, 0x00e4},
3492{0x847f, 0x0012}, {0x8480, 0x00ce}, {0x8481, 0x0084},
3493{0x8482, 0x0086}, {0x8483, 0x00ff}, {0x8484, 0x0001},
3494{0x8485, 0x0011}, {0x8486, 0x0096}, {0x8487, 0x0046},
3495{0x8488, 0x0084}, {0x8489, 0x0003}, {0x848a, 0x0081},
3496{0x848b, 0x0002}, {0x848c, 0x0027}, {0x848d, 0x0003},
3497{0x848e, 0x007e}, {0x848f, 0x0085}, {0x8490, 0x000f},
3498{0x8491, 0x00c6}, {0x8492, 0x0051}, {0x8493, 0x00bd},
3499{0x8494, 0x00e4}, {0x8495, 0x0091}, {0x8496, 0x0025},
3500{0x8497, 0x0003}, {0x8498, 0x007e}, {0x8499, 0x0085},
3501{0x849a, 0x001e}, {0x849b, 0x0096}, {0x849c, 0x0044},
3502{0x849d, 0x0085}, {0x849e, 0x0010}, {0x849f, 0x0026},
3503{0x84a0, 0x000a}, {0x84a1, 0x00b6}, {0x84a2, 0x0012},
3504{0x84a3, 0x0050}, {0x84a4, 0x00ba}, {0x84a5, 0x0001},
3505{0x84a6, 0x003c}, {0x84a7, 0x0085}, {0x84a8, 0x0010},
3506{0x84a9, 0x0027}, {0x84aa, 0x00a8}, {0x84ab, 0x00bd},
3507{0x84ac, 0x00f7}, {0x84ad, 0x0066}, {0x84ae, 0x00ce},
3508{0x84af, 0x0084}, {0x84b0, 0x00b7}, {0x84b1, 0x00ff},
3509{0x84b2, 0x0001}, {0x84b3, 0x0011}, {0x84b4, 0x007e},
3510{0x84b5, 0x0085}, {0x84b6, 0x001e}, {0x84b7, 0x0096},
3511{0x84b8, 0x0046}, {0x84b9, 0x0084}, {0x84ba, 0x0003},
3512{0x84bb, 0x0081}, {0x84bc, 0x0002}, {0x84bd, 0x0026},
3513{0x84be, 0x0050}, {0x84bf, 0x00b6}, {0x84c0, 0x0012},
3514{0x84c1, 0x0030}, {0x84c2, 0x0084}, {0x84c3, 0x0003},
3515{0x84c4, 0x0081}, {0x84c5, 0x0001}, {0x84c6, 0x0027},
3516{0x84c7, 0x0003}, {0x84c8, 0x007e}, {0x84c9, 0x0085},
3517{0x84ca, 0x001e}, {0x84cb, 0x0096}, {0x84cc, 0x0044},
3518{0x84cd, 0x0085}, {0x84ce, 0x0010}, {0x84cf, 0x0026},
3519{0x84d0, 0x0013}, {0x84d1, 0x00b6}, {0x84d2, 0x0012},
3520{0x84d3, 0x0050}, {0x84d4, 0x00ba}, {0x84d5, 0x0001},
3521{0x84d6, 0x003c}, {0x84d7, 0x0085}, {0x84d8, 0x0010},
3522{0x84d9, 0x0026}, {0x84da, 0x0009}, {0x84db, 0x00ce},
3523{0x84dc, 0x0084}, {0x84dd, 0x0053}, {0x84de, 0x00ff},
3524{0x84df, 0x0001}, {0x84e0, 0x0011}, {0x84e1, 0x007e},
3525{0x84e2, 0x0085}, {0x84e3, 0x001e}, {0x84e4, 0x00b6},
3526{0x84e5, 0x0010}, {0x84e6, 0x0031}, {0x84e7, 0x008a},
3527{0x84e8, 0x0002}, {0x84e9, 0x00b7}, {0x84ea, 0x0010},
3528{0x84eb, 0x0031}, {0x84ec, 0x00bd}, {0x84ed, 0x0085},
3529{0x84ee, 0x001f}, {0x84ef, 0x00bd}, {0x84f0, 0x00f8},
3530{0x84f1, 0x0037}, {0x84f2, 0x007c}, {0x84f3, 0x0000},
3531{0x84f4, 0x0080}, {0x84f5, 0x00ce}, {0x84f6, 0x0084},
3532{0x84f7, 0x00fe}, {0x84f8, 0x00ff}, {0x84f9, 0x0001},
3533{0x84fa, 0x0011}, {0x84fb, 0x007e}, {0x84fc, 0x0085},
3534{0x84fd, 0x001e}, {0x84fe, 0x0096}, {0x84ff, 0x0046},
3535{0x8500, 0x0084}, {0x8501, 0x0003}, {0x8502, 0x0081},
3536{0x8503, 0x0002}, {0x8504, 0x0026}, {0x8505, 0x0009},
3537{0x8506, 0x00b6}, {0x8507, 0x0012}, {0x8508, 0x0030},
3538{0x8509, 0x0084}, {0x850a, 0x0003}, {0x850b, 0x0081},
3539{0x850c, 0x0001}, {0x850d, 0x0027}, {0x850e, 0x000f},
3540{0x850f, 0x00bd}, {0x8510, 0x00f8}, {0x8511, 0x0044},
3541{0x8512, 0x00bd}, {0x8513, 0x00f7}, {0x8514, 0x000b},
3542{0x8515, 0x00bd}, {0x8516, 0x00fc}, {0x8517, 0x0029},
3543{0x8518, 0x00ce}, {0x8519, 0x0084}, {0x851a, 0x0026},
3544{0x851b, 0x00ff}, {0x851c, 0x0001}, {0x851d, 0x0011},
3545{0x851e, 0x0039}, {0x851f, 0x00d6}, {0x8520, 0x0022},
3546{0x8521, 0x00c4}, {0x8522, 0x000f}, {0x8523, 0x00b6},
3547{0x8524, 0x0012}, {0x8525, 0x0030}, {0x8526, 0x00ba},
3548{0x8527, 0x0012}, {0x8528, 0x0032}, {0x8529, 0x0084},
3549{0x852a, 0x0004}, {0x852b, 0x0027}, {0x852c, 0x000d},
3550{0x852d, 0x0096}, {0x852e, 0x0022}, {0x852f, 0x0085},
3551{0x8530, 0x0004}, {0x8531, 0x0027}, {0x8532, 0x0005},
3552{0x8533, 0x00ca}, {0x8534, 0x0010}, {0x8535, 0x007e},
3553{0x8536, 0x0085}, {0x8537, 0x003a}, {0x8538, 0x00ca},
3554{0x8539, 0x0020}, {0x853a, 0x00d7}, {0x853b, 0x0022},
3555{0x853c, 0x0039}, {0x853d, 0x0086}, {0x853e, 0x0000},
3556{0x853f, 0x0097}, {0x8540, 0x0083}, {0x8541, 0x0018},
3557{0x8542, 0x00ce}, {0x8543, 0x001c}, {0x8544, 0x0000},
3558{0x8545, 0x00bd}, {0x8546, 0x00eb}, {0x8547, 0x0046},
3559{0x8548, 0x0096}, {0x8549, 0x0057}, {0x854a, 0x0085},
3560{0x854b, 0x0001}, {0x854c, 0x0027}, {0x854d, 0x0002},
3561{0x854e, 0x004f}, {0x854f, 0x0039}, {0x8550, 0x0085},
3562{0x8551, 0x0002}, {0x8552, 0x0027}, {0x8553, 0x0001},
3563{0x8554, 0x0039}, {0x8555, 0x007f}, {0x8556, 0x008f},
3564{0x8557, 0x007d}, {0x8558, 0x0086}, {0x8559, 0x0004},
3565{0x855a, 0x00b7}, {0x855b, 0x0012}, {0x855c, 0x0004},
3566{0x855d, 0x0086}, {0x855e, 0x0008}, {0x855f, 0x00b7},
3567{0x8560, 0x0012}, {0x8561, 0x0007}, {0x8562, 0x0086},
3568{0x8563, 0x0010}, {0x8564, 0x00b7}, {0x8565, 0x0012},
3569{0x8566, 0x000c}, {0x8567, 0x0086}, {0x8568, 0x0007},
3570{0x8569, 0x00b7}, {0x856a, 0x0012}, {0x856b, 0x0006},
3571{0x856c, 0x00b6}, {0x856d, 0x008f}, {0x856e, 0x007d},
3572{0x856f, 0x00b7}, {0x8570, 0x0012}, {0x8571, 0x0070},
3573{0x8572, 0x0086}, {0x8573, 0x0001}, {0x8574, 0x00ba},
3574{0x8575, 0x0012}, {0x8576, 0x0004}, {0x8577, 0x00b7},
3575{0x8578, 0x0012}, {0x8579, 0x0004}, {0x857a, 0x0001},
3576{0x857b, 0x0001}, {0x857c, 0x0001}, {0x857d, 0x0001},
3577{0x857e, 0x0001}, {0x857f, 0x0001}, {0x8580, 0x00b6},
3578{0x8581, 0x0012}, {0x8582, 0x0004}, {0x8583, 0x0084},
3579{0x8584, 0x00fe}, {0x8585, 0x008a}, {0x8586, 0x0002},
3580{0x8587, 0x00b7}, {0x8588, 0x0012}, {0x8589, 0x0004},
3581{0x858a, 0x0001}, {0x858b, 0x0001}, {0x858c, 0x0001},
3582{0x858d, 0x0001}, {0x858e, 0x0001}, {0x858f, 0x0001},
3583{0x8590, 0x0086}, {0x8591, 0x00fd}, {0x8592, 0x00b4},
3584{0x8593, 0x0012}, {0x8594, 0x0004}, {0x8595, 0x00b7},
3585{0x8596, 0x0012}, {0x8597, 0x0004}, {0x8598, 0x00b6},
3586{0x8599, 0x0012}, {0x859a, 0x0000}, {0x859b, 0x0084},
3587{0x859c, 0x0008}, {0x859d, 0x0081}, {0x859e, 0x0008},
3588{0x859f, 0x0027}, {0x85a0, 0x0016}, {0x85a1, 0x00b6},
3589{0x85a2, 0x008f}, {0x85a3, 0x007d}, {0x85a4, 0x0081},
3590{0x85a5, 0x000c}, {0x85a6, 0x0027}, {0x85a7, 0x0008},
3591{0x85a8, 0x008b}, {0x85a9, 0x0004}, {0x85aa, 0x00b7},
3592{0x85ab, 0x008f}, {0x85ac, 0x007d}, {0x85ad, 0x007e},
3593{0x85ae, 0x0085}, {0x85af, 0x006c}, {0x85b0, 0x0086},
3594{0x85b1, 0x0003}, {0x85b2, 0x0097}, {0x85b3, 0x0040},
3595{0x85b4, 0x007e}, {0x85b5, 0x0089}, {0x85b6, 0x006e},
3596{0x85b7, 0x0086}, {0x85b8, 0x0007}, {0x85b9, 0x00b7},
3597{0x85ba, 0x0012}, {0x85bb, 0x0006}, {0x85bc, 0x005f},
3598{0x85bd, 0x00f7}, {0x85be, 0x008f}, {0x85bf, 0x0082},
3599{0x85c0, 0x005f}, {0x85c1, 0x00f7}, {0x85c2, 0x008f},
3600{0x85c3, 0x007f}, {0x85c4, 0x00f7}, {0x85c5, 0x008f},
3601{0x85c6, 0x0070}, {0x85c7, 0x00f7}, {0x85c8, 0x008f},
3602{0x85c9, 0x0071}, {0x85ca, 0x00f7}, {0x85cb, 0x008f},
3603{0x85cc, 0x0072}, {0x85cd, 0x00f7}, {0x85ce, 0x008f},
3604{0x85cf, 0x0073}, {0x85d0, 0x00f7}, {0x85d1, 0x008f},
3605{0x85d2, 0x0074}, {0x85d3, 0x00f7}, {0x85d4, 0x008f},
3606{0x85d5, 0x0075}, {0x85d6, 0x00f7}, {0x85d7, 0x008f},
3607{0x85d8, 0x0076}, {0x85d9, 0x00f7}, {0x85da, 0x008f},
3608{0x85db, 0x0077}, {0x85dc, 0x00f7}, {0x85dd, 0x008f},
3609{0x85de, 0x0078}, {0x85df, 0x00f7}, {0x85e0, 0x008f},
3610{0x85e1, 0x0079}, {0x85e2, 0x00f7}, {0x85e3, 0x008f},
3611{0x85e4, 0x007a}, {0x85e5, 0x00f7}, {0x85e6, 0x008f},
3612{0x85e7, 0x007b}, {0x85e8, 0x00b6}, {0x85e9, 0x0012},
3613{0x85ea, 0x0004}, {0x85eb, 0x008a}, {0x85ec, 0x0010},
3614{0x85ed, 0x00b7}, {0x85ee, 0x0012}, {0x85ef, 0x0004},
3615{0x85f0, 0x0086}, {0x85f1, 0x00e4}, {0x85f2, 0x00b7},
3616{0x85f3, 0x0012}, {0x85f4, 0x0070}, {0x85f5, 0x00b7},
3617{0x85f6, 0x0012}, {0x85f7, 0x0007}, {0x85f8, 0x00f7},
3618{0x85f9, 0x0012}, {0x85fa, 0x0005}, {0x85fb, 0x00f7},
3619{0x85fc, 0x0012}, {0x85fd, 0x0009}, {0x85fe, 0x0086},
3620{0x85ff, 0x0008}, {0x8600, 0x00ba}, {0x8601, 0x0012},
3621{0x8602, 0x0004}, {0x8603, 0x00b7}, {0x8604, 0x0012},
3622{0x8605, 0x0004}, {0x8606, 0x0086}, {0x8607, 0x00f7},
3623{0x8608, 0x00b4}, {0x8609, 0x0012}, {0x860a, 0x0004},
3624{0x860b, 0x00b7}, {0x860c, 0x0012}, {0x860d, 0x0004},
3625{0x860e, 0x0001}, {0x860f, 0x0001}, {0x8610, 0x0001},
3626{0x8611, 0x0001}, {0x8612, 0x0001}, {0x8613, 0x0001},
3627{0x8614, 0x00b6}, {0x8615, 0x0012}, {0x8616, 0x0008},
3628{0x8617, 0x0027}, {0x8618, 0x007f}, {0x8619, 0x0081},
3629{0x861a, 0x0080}, {0x861b, 0x0026}, {0x861c, 0x000b},
3630{0x861d, 0x0086}, {0x861e, 0x0008}, {0x861f, 0x00ce},
3631{0x8620, 0x008f}, {0x8621, 0x0079}, {0x8622, 0x00bd},
3632{0x8623, 0x0089}, {0x8624, 0x007b}, {0x8625, 0x007e},
3633{0x8626, 0x0086}, {0x8627, 0x008e}, {0x8628, 0x0081},
3634{0x8629, 0x0040}, {0x862a, 0x0026}, {0x862b, 0x000b},
3635{0x862c, 0x0086}, {0x862d, 0x0004}, {0x862e, 0x00ce},
3636{0x862f, 0x008f}, {0x8630, 0x0076}, {0x8631, 0x00bd},
3637{0x8632, 0x0089}, {0x8633, 0x007b}, {0x8634, 0x007e},
3638{0x8635, 0x0086}, {0x8636, 0x008e}, {0x8637, 0x0081},
3639{0x8638, 0x0020}, {0x8639, 0x0026}, {0x863a, 0x000b},
3640{0x863b, 0x0086}, {0x863c, 0x0002}, {0x863d, 0x00ce},
3641{0x863e, 0x008f}, {0x863f, 0x0073}, {0x8640, 0x00bd},
3642{0x8641, 0x0089}, {0x8642, 0x007b}, {0x8643, 0x007e},
3643{0x8644, 0x0086}, {0x8645, 0x008e}, {0x8646, 0x0081},
3644{0x8647, 0x0010}, {0x8648, 0x0026}, {0x8649, 0x000b},
3645{0x864a, 0x0086}, {0x864b, 0x0001}, {0x864c, 0x00ce},
3646{0x864d, 0x008f}, {0x864e, 0x0070}, {0x864f, 0x00bd},
3647{0x8650, 0x0089}, {0x8651, 0x007b}, {0x8652, 0x007e},
3648{0x8653, 0x0086}, {0x8654, 0x008e}, {0x8655, 0x0081},
3649{0x8656, 0x0008}, {0x8657, 0x0026}, {0x8658, 0x000b},
3650{0x8659, 0x0086}, {0x865a, 0x0008}, {0x865b, 0x00ce},
3651{0x865c, 0x008f}, {0x865d, 0x0079}, {0x865e, 0x00bd},
3652{0x865f, 0x0089}, {0x8660, 0x007f}, {0x8661, 0x007e},
3653{0x8662, 0x0086}, {0x8663, 0x008e}, {0x8664, 0x0081},
3654{0x8665, 0x0004}, {0x8666, 0x0026}, {0x8667, 0x000b},
3655{0x8668, 0x0086}, {0x8669, 0x0004}, {0x866a, 0x00ce},
3656{0x866b, 0x008f}, {0x866c, 0x0076}, {0x866d, 0x00bd},
3657{0x866e, 0x0089}, {0x866f, 0x007f}, {0x8670, 0x007e},
3658{0x8671, 0x0086}, {0x8672, 0x008e}, {0x8673, 0x0081},
3659{0x8674, 0x0002}, {0x8675, 0x0026}, {0x8676, 0x000b},
3660{0x8677, 0x008a}, {0x8678, 0x0002}, {0x8679, 0x00ce},
3661{0x867a, 0x008f}, {0x867b, 0x0073}, {0x867c, 0x00bd},
3662{0x867d, 0x0089}, {0x867e, 0x007f}, {0x867f, 0x007e},
3663{0x8680, 0x0086}, {0x8681, 0x008e}, {0x8682, 0x0081},
3664{0x8683, 0x0001}, {0x8684, 0x0026}, {0x8685, 0x0008},
3665{0x8686, 0x0086}, {0x8687, 0x0001}, {0x8688, 0x00ce},
3666{0x8689, 0x008f}, {0x868a, 0x0070}, {0x868b, 0x00bd},
3667{0x868c, 0x0089}, {0x868d, 0x007f}, {0x868e, 0x00b6},
3668{0x868f, 0x008f}, {0x8690, 0x007f}, {0x8691, 0x0081},
3669{0x8692, 0x000f}, {0x8693, 0x0026}, {0x8694, 0x0003},
3670{0x8695, 0x007e}, {0x8696, 0x0087}, {0x8697, 0x0047},
3671{0x8698, 0x00b6}, {0x8699, 0x0012}, {0x869a, 0x0009},
3672{0x869b, 0x0084}, {0x869c, 0x0003}, {0x869d, 0x0081},
3673{0x869e, 0x0003}, {0x869f, 0x0027}, {0x86a0, 0x0006},
3674{0x86a1, 0x007c}, {0x86a2, 0x0012}, {0x86a3, 0x0009},
3675{0x86a4, 0x007e}, {0x86a5, 0x0085}, {0x86a6, 0x00fe},
3676{0x86a7, 0x00b6}, {0x86a8, 0x0012}, {0x86a9, 0x0006},
3677{0x86aa, 0x0084}, {0x86ab, 0x0007}, {0x86ac, 0x0081},
3678{0x86ad, 0x0007}, {0x86ae, 0x0027}, {0x86af, 0x0008},
3679{0x86b0, 0x008b}, {0x86b1, 0x0001}, {0x86b2, 0x00b7},
3680{0x86b3, 0x0012}, {0x86b4, 0x0006}, {0x86b5, 0x007e},
3681{0x86b6, 0x0086}, {0x86b7, 0x00d5}, {0x86b8, 0x00b6},
3682{0x86b9, 0x008f}, {0x86ba, 0x0082}, {0x86bb, 0x0026},
3683{0x86bc, 0x000a}, {0x86bd, 0x007c}, {0x86be, 0x008f},
3684{0x86bf, 0x0082}, {0x86c0, 0x004f}, {0x86c1, 0x00b7},
3685{0x86c2, 0x0012}, {0x86c3, 0x0006}, {0x86c4, 0x007e},
3686{0x86c5, 0x0085}, {0x86c6, 0x00c0}, {0x86c7, 0x00b6},
3687{0x86c8, 0x0012}, {0x86c9, 0x0006}, {0x86ca, 0x0084},
3688{0x86cb, 0x003f}, {0x86cc, 0x0081}, {0x86cd, 0x003f},
3689{0x86ce, 0x0027}, {0x86cf, 0x0010}, {0x86d0, 0x008b},
3690{0x86d1, 0x0008}, {0x86d2, 0x00b7}, {0x86d3, 0x0012},
3691{0x86d4, 0x0006}, {0x86d5, 0x00b6}, {0x86d6, 0x0012},
3692{0x86d7, 0x0009}, {0x86d8, 0x0084}, {0x86d9, 0x00fc},
3693{0x86da, 0x00b7}, {0x86db, 0x0012}, {0x86dc, 0x0009},
3694{0x86dd, 0x007e}, {0x86de, 0x0085}, {0x86df, 0x00fe},
3695{0x86e0, 0x00ce}, {0x86e1, 0x008f}, {0x86e2, 0x0070},
3696{0x86e3, 0x0018}, {0x86e4, 0x00ce}, {0x86e5, 0x008f},
3697{0x86e6, 0x0084}, {0x86e7, 0x00c6}, {0x86e8, 0x000c},
3698{0x86e9, 0x00bd}, {0x86ea, 0x0089}, {0x86eb, 0x006f},
3699{0x86ec, 0x00ce}, {0x86ed, 0x008f}, {0x86ee, 0x0084},
3700{0x86ef, 0x0018}, {0x86f0, 0x00ce}, {0x86f1, 0x008f},
3701{0x86f2, 0x0070}, {0x86f3, 0x00c6}, {0x86f4, 0x000c},
3702{0x86f5, 0x00bd}, {0x86f6, 0x0089}, {0x86f7, 0x006f},
3703{0x86f8, 0x00d6}, {0x86f9, 0x0083}, {0x86fa, 0x00c1},
3704{0x86fb, 0x004f}, {0x86fc, 0x002d}, {0x86fd, 0x0003},
3705{0x86fe, 0x007e}, {0x86ff, 0x0087}, {0x8700, 0x0040},
3706{0x8701, 0x00b6}, {0x8702, 0x008f}, {0x8703, 0x007f},
3707{0x8704, 0x0081}, {0x8705, 0x0007}, {0x8706, 0x0027},
3708{0x8707, 0x000f}, {0x8708, 0x0081}, {0x8709, 0x000b},
3709{0x870a, 0x0027}, {0x870b, 0x0015}, {0x870c, 0x0081},
3710{0x870d, 0x000d}, {0x870e, 0x0027}, {0x870f, 0x001b},
3711{0x8710, 0x0081}, {0x8711, 0x000e}, {0x8712, 0x0027},
3712{0x8713, 0x0021}, {0x8714, 0x007e}, {0x8715, 0x0087},
3713{0x8716, 0x0040}, {0x8717, 0x00f7}, {0x8718, 0x008f},
3714{0x8719, 0x007b}, {0x871a, 0x0086}, {0x871b, 0x0002},
3715{0x871c, 0x00b7}, {0x871d, 0x008f}, {0x871e, 0x007a},
3716{0x871f, 0x0020}, {0x8720, 0x001c}, {0x8721, 0x00f7},
3717{0x8722, 0x008f}, {0x8723, 0x0078}, {0x8724, 0x0086},
3718{0x8725, 0x0002}, {0x8726, 0x00b7}, {0x8727, 0x008f},
3719{0x8728, 0x0077}, {0x8729, 0x0020}, {0x872a, 0x0012},
3720{0x872b, 0x00f7}, {0x872c, 0x008f}, {0x872d, 0x0075},
3721{0x872e, 0x0086}, {0x872f, 0x0002}, {0x8730, 0x00b7},
3722{0x8731, 0x008f}, {0x8732, 0x0074}, {0x8733, 0x0020},
3723{0x8734, 0x0008}, {0x8735, 0x00f7}, {0x8736, 0x008f},
3724{0x8737, 0x0072}, {0x8738, 0x0086}, {0x8739, 0x0002},
3725{0x873a, 0x00b7}, {0x873b, 0x008f}, {0x873c, 0x0071},
3726{0x873d, 0x007e}, {0x873e, 0x0087}, {0x873f, 0x0047},
3727{0x8740, 0x0086}, {0x8741, 0x0004}, {0x8742, 0x0097},
3728{0x8743, 0x0040}, {0x8744, 0x007e}, {0x8745, 0x0089},
3729{0x8746, 0x006e}, {0x8747, 0x00ce}, {0x8748, 0x008f},
3730{0x8749, 0x0072}, {0x874a, 0x00bd}, {0x874b, 0x0089},
3731{0x874c, 0x00f7}, {0x874d, 0x00ce}, {0x874e, 0x008f},
3732{0x874f, 0x0075}, {0x8750, 0x00bd}, {0x8751, 0x0089},
3733{0x8752, 0x00f7}, {0x8753, 0x00ce}, {0x8754, 0x008f},
3734{0x8755, 0x0078}, {0x8756, 0x00bd}, {0x8757, 0x0089},
3735{0x8758, 0x00f7}, {0x8759, 0x00ce}, {0x875a, 0x008f},
3736{0x875b, 0x007b}, {0x875c, 0x00bd}, {0x875d, 0x0089},
3737{0x875e, 0x00f7}, {0x875f, 0x004f}, {0x8760, 0x00b7},
3738{0x8761, 0x008f}, {0x8762, 0x007d}, {0x8763, 0x00b7},
3739{0x8764, 0x008f}, {0x8765, 0x0081}, {0x8766, 0x00b6},
3740{0x8767, 0x008f}, {0x8768, 0x0072}, {0x8769, 0x0027},
3741{0x876a, 0x0047}, {0x876b, 0x007c}, {0x876c, 0x008f},
3742{0x876d, 0x007d}, {0x876e, 0x00b6}, {0x876f, 0x008f},
3743{0x8770, 0x0075}, {0x8771, 0x0027}, {0x8772, 0x003f},
3744{0x8773, 0x007c}, {0x8774, 0x008f}, {0x8775, 0x007d},
3745{0x8776, 0x00b6}, {0x8777, 0x008f}, {0x8778, 0x0078},
3746{0x8779, 0x0027}, {0x877a, 0x0037}, {0x877b, 0x007c},
3747{0x877c, 0x008f}, {0x877d, 0x007d}, {0x877e, 0x00b6},
3748{0x877f, 0x008f}, {0x8780, 0x007b}, {0x8781, 0x0027},
3749{0x8782, 0x002f}, {0x8783, 0x007f}, {0x8784, 0x008f},
3750{0x8785, 0x007d}, {0x8786, 0x007c}, {0x8787, 0x008f},
3751{0x8788, 0x0081}, {0x8789, 0x007a}, {0x878a, 0x008f},
3752{0x878b, 0x0072}, {0x878c, 0x0027}, {0x878d, 0x001b},
3753{0x878e, 0x007c}, {0x878f, 0x008f}, {0x8790, 0x007d},
3754{0x8791, 0x007a}, {0x8792, 0x008f}, {0x8793, 0x0075},
3755{0x8794, 0x0027}, {0x8795, 0x0016}, {0x8796, 0x007c},
3756{0x8797, 0x008f}, {0x8798, 0x007d}, {0x8799, 0x007a},
3757{0x879a, 0x008f}, {0x879b, 0x0078}, {0x879c, 0x0027},
3758{0x879d, 0x0011}, {0x879e, 0x007c}, {0x879f, 0x008f},
3759{0x87a0, 0x007d}, {0x87a1, 0x007a}, {0x87a2, 0x008f},
3760{0x87a3, 0x007b}, {0x87a4, 0x0027}, {0x87a5, 0x000c},
3761{0x87a6, 0x007e}, {0x87a7, 0x0087}, {0x87a8, 0x0083},
3762{0x87a9, 0x007a}, {0x87aa, 0x008f}, {0x87ab, 0x0075},
3763{0x87ac, 0x007a}, {0x87ad, 0x008f}, {0x87ae, 0x0078},
3764{0x87af, 0x007a}, {0x87b0, 0x008f}, {0x87b1, 0x007b},
3765{0x87b2, 0x00ce}, {0x87b3, 0x00c1}, {0x87b4, 0x00fc},
3766{0x87b5, 0x00f6}, {0x87b6, 0x008f}, {0x87b7, 0x007d},
3767{0x87b8, 0x003a}, {0x87b9, 0x00a6}, {0x87ba, 0x0000},
3768{0x87bb, 0x00b7}, {0x87bc, 0x0012}, {0x87bd, 0x0070},
3769{0x87be, 0x00b6}, {0x87bf, 0x008f}, {0x87c0, 0x0072},
3770{0x87c1, 0x0026}, {0x87c2, 0x0003}, {0x87c3, 0x007e},
3771{0x87c4, 0x0087}, {0x87c5, 0x00fa}, {0x87c6, 0x00b6},
3772{0x87c7, 0x008f}, {0x87c8, 0x0075}, {0x87c9, 0x0026},
3773{0x87ca, 0x000a}, {0x87cb, 0x0018}, {0x87cc, 0x00ce},
3774{0x87cd, 0x008f}, {0x87ce, 0x0073}, {0x87cf, 0x00bd},
3775{0x87d0, 0x0089}, {0x87d1, 0x00d5}, {0x87d2, 0x007e},
3776{0x87d3, 0x0087}, {0x87d4, 0x00fa}, {0x87d5, 0x00b6},
3777{0x87d6, 0x008f}, {0x87d7, 0x0078}, {0x87d8, 0x0026},
3778{0x87d9, 0x000a}, {0x87da, 0x0018}, {0x87db, 0x00ce},
3779{0x87dc, 0x008f}, {0x87dd, 0x0076}, {0x87de, 0x00bd},
3780{0x87df, 0x0089}, {0x87e0, 0x00d5}, {0x87e1, 0x007e},
3781{0x87e2, 0x0087}, {0x87e3, 0x00fa}, {0x87e4, 0x00b6},
3782{0x87e5, 0x008f}, {0x87e6, 0x007b}, {0x87e7, 0x0026},
3783{0x87e8, 0x000a}, {0x87e9, 0x0018}, {0x87ea, 0x00ce},
3784{0x87eb, 0x008f}, {0x87ec, 0x0079}, {0x87ed, 0x00bd},
3785{0x87ee, 0x0089}, {0x87ef, 0x00d5}, {0x87f0, 0x007e},
3786{0x87f1, 0x0087}, {0x87f2, 0x00fa}, {0x87f3, 0x0086},
3787{0x87f4, 0x0005}, {0x87f5, 0x0097}, {0x87f6, 0x0040},
3788{0x87f7, 0x007e}, {0x87f8, 0x0089}, {0x87f9, 0x006e},
3789{0x87fa, 0x00b6}, {0x87fb, 0x008f}, {0x87fc, 0x0075},
3790{0x87fd, 0x0081}, {0x87fe, 0x0007}, {0x87ff, 0x002e},
3791{0x8800, 0x00f2}, {0x8801, 0x00f6}, {0x8802, 0x0012},
3792{0x8803, 0x0006}, {0x8804, 0x00c4}, {0x8805, 0x00f8},
3793{0x8806, 0x001b}, {0x8807, 0x00b7}, {0x8808, 0x0012},
3794{0x8809, 0x0006}, {0x880a, 0x00b6}, {0x880b, 0x008f},
3795{0x880c, 0x0078}, {0x880d, 0x0081}, {0x880e, 0x0007},
3796{0x880f, 0x002e}, {0x8810, 0x00e2}, {0x8811, 0x0048},
3797{0x8812, 0x0048}, {0x8813, 0x0048}, {0x8814, 0x00f6},
3798{0x8815, 0x0012}, {0x8816, 0x0006}, {0x8817, 0x00c4},
3799{0x8818, 0x00c7}, {0x8819, 0x001b}, {0x881a, 0x00b7},
3800{0x881b, 0x0012}, {0x881c, 0x0006}, {0x881d, 0x00b6},
3801{0x881e, 0x008f}, {0x881f, 0x007b}, {0x8820, 0x0081},
3802{0x8821, 0x0007}, {0x8822, 0x002e}, {0x8823, 0x00cf},
3803{0x8824, 0x00f6}, {0x8825, 0x0012}, {0x8826, 0x0005},
3804{0x8827, 0x00c4}, {0x8828, 0x00f8}, {0x8829, 0x001b},
3805{0x882a, 0x00b7}, {0x882b, 0x0012}, {0x882c, 0x0005},
3806{0x882d, 0x0086}, {0x882e, 0x0000}, {0x882f, 0x00f6},
3807{0x8830, 0x008f}, {0x8831, 0x0071}, {0x8832, 0x00bd},
3808{0x8833, 0x0089}, {0x8834, 0x0094}, {0x8835, 0x0086},
3809{0x8836, 0x0001}, {0x8837, 0x00f6}, {0x8838, 0x008f},
3810{0x8839, 0x0074}, {0x883a, 0x00bd}, {0x883b, 0x0089},
3811{0x883c, 0x0094}, {0x883d, 0x0086}, {0x883e, 0x0002},
3812{0x883f, 0x00f6}, {0x8840, 0x008f}, {0x8841, 0x0077},
3813{0x8842, 0x00bd}, {0x8843, 0x0089}, {0x8844, 0x0094},
3814{0x8845, 0x0086}, {0x8846, 0x0003}, {0x8847, 0x00f6},
3815{0x8848, 0x008f}, {0x8849, 0x007a}, {0x884a, 0x00bd},
3816{0x884b, 0x0089}, {0x884c, 0x0094}, {0x884d, 0x00ce},
3817{0x884e, 0x008f}, {0x884f, 0x0070}, {0x8850, 0x00a6},
3818{0x8851, 0x0001}, {0x8852, 0x0081}, {0x8853, 0x0001},
3819{0x8854, 0x0027}, {0x8855, 0x0007}, {0x8856, 0x0081},
3820{0x8857, 0x0003}, {0x8858, 0x0027}, {0x8859, 0x0003},
3821{0x885a, 0x007e}, {0x885b, 0x0088}, {0x885c, 0x0066},
3822{0x885d, 0x00a6}, {0x885e, 0x0000}, {0x885f, 0x00b8},
3823{0x8860, 0x008f}, {0x8861, 0x0081}, {0x8862, 0x0084},
3824{0x8863, 0x0001}, {0x8864, 0x0026}, {0x8865, 0x000b},
3825{0x8866, 0x008c}, {0x8867, 0x008f}, {0x8868, 0x0079},
3826{0x8869, 0x002c}, {0x886a, 0x000e}, {0x886b, 0x0008},
3827{0x886c, 0x0008}, {0x886d, 0x0008}, {0x886e, 0x007e},
3828{0x886f, 0x0088}, {0x8870, 0x0050}, {0x8871, 0x00b6},
3829{0x8872, 0x0012}, {0x8873, 0x0004}, {0x8874, 0x008a},
3830{0x8875, 0x0040}, {0x8876, 0x00b7}, {0x8877, 0x0012},
3831{0x8878, 0x0004}, {0x8879, 0x00b6}, {0x887a, 0x0012},
3832{0x887b, 0x0004}, {0x887c, 0x0084}, {0x887d, 0x00fb},
3833{0x887e, 0x0084}, {0x887f, 0x00ef}, {0x8880, 0x00b7},
3834{0x8881, 0x0012}, {0x8882, 0x0004}, {0x8883, 0x00b6},
3835{0x8884, 0x0012}, {0x8885, 0x0007}, {0x8886, 0x0036},
3836{0x8887, 0x00b6}, {0x8888, 0x008f}, {0x8889, 0x007c},
3837{0x888a, 0x0048}, {0x888b, 0x0048}, {0x888c, 0x00b7},
3838{0x888d, 0x0012}, {0x888e, 0x0007}, {0x888f, 0x0086},
3839{0x8890, 0x0001}, {0x8891, 0x00ba}, {0x8892, 0x0012},
3840{0x8893, 0x0004}, {0x8894, 0x00b7}, {0x8895, 0x0012},
3841{0x8896, 0x0004}, {0x8897, 0x0001}, {0x8898, 0x0001},
3842{0x8899, 0x0001}, {0x889a, 0x0001}, {0x889b, 0x0001},
3843{0x889c, 0x0001}, {0x889d, 0x0086}, {0x889e, 0x00fe},
3844{0x889f, 0x00b4}, {0x88a0, 0x0012}, {0x88a1, 0x0004},
3845{0x88a2, 0x00b7}, {0x88a3, 0x0012}, {0x88a4, 0x0004},
3846{0x88a5, 0x0086}, {0x88a6, 0x0002}, {0x88a7, 0x00ba},
3847{0x88a8, 0x0012}, {0x88a9, 0x0004}, {0x88aa, 0x00b7},
3848{0x88ab, 0x0012}, {0x88ac, 0x0004}, {0x88ad, 0x0086},
3849{0x88ae, 0x00fd}, {0x88af, 0x00b4}, {0x88b0, 0x0012},
3850{0x88b1, 0x0004}, {0x88b2, 0x00b7}, {0x88b3, 0x0012},
3851{0x88b4, 0x0004}, {0x88b5, 0x0032}, {0x88b6, 0x00b7},
3852{0x88b7, 0x0012}, {0x88b8, 0x0007}, {0x88b9, 0x00b6},
3853{0x88ba, 0x0012}, {0x88bb, 0x0000}, {0x88bc, 0x0084},
3854{0x88bd, 0x0008}, {0x88be, 0x0081}, {0x88bf, 0x0008},
3855{0x88c0, 0x0027}, {0x88c1, 0x000f}, {0x88c2, 0x007c},
3856{0x88c3, 0x0082}, {0x88c4, 0x0008}, {0x88c5, 0x0026},
3857{0x88c6, 0x0007}, {0x88c7, 0x0086}, {0x88c8, 0x0076},
3858{0x88c9, 0x0097}, {0x88ca, 0x0040}, {0x88cb, 0x007e},
3859{0x88cc, 0x0089}, {0x88cd, 0x006e}, {0x88ce, 0x007e},
3860{0x88cf, 0x0086}, {0x88d0, 0x00ec}, {0x88d1, 0x00b6},
3861{0x88d2, 0x008f}, {0x88d3, 0x007f}, {0x88d4, 0x0081},
3862{0x88d5, 0x000f}, {0x88d6, 0x0027}, {0x88d7, 0x003c},
3863{0x88d8, 0x00bd}, {0x88d9, 0x00e6}, {0x88da, 0x00c7},
3864{0x88db, 0x00b7}, {0x88dc, 0x0012}, {0x88dd, 0x000d},
3865{0x88de, 0x00bd}, {0x88df, 0x00e6}, {0x88e0, 0x00cb},
3866{0x88e1, 0x00b6}, {0x88e2, 0x0012}, {0x88e3, 0x0004},
3867{0x88e4, 0x008a}, {0x88e5, 0x0020}, {0x88e6, 0x00b7},
3868{0x88e7, 0x0012}, {0x88e8, 0x0004}, {0x88e9, 0x00ce},
3869{0x88ea, 0x00ff}, {0x88eb, 0x00ff}, {0x88ec, 0x00b6},
3870{0x88ed, 0x0012}, {0x88ee, 0x0000}, {0x88ef, 0x0081},
3871{0x88f0, 0x000c}, {0x88f1, 0x0026}, {0x88f2, 0x0005},
3872{0x88f3, 0x0009}, {0x88f4, 0x0026}, {0x88f5, 0x00f6},
3873{0x88f6, 0x0027}, {0x88f7, 0x001c}, {0x88f8, 0x00b6},
3874{0x88f9, 0x0012}, {0x88fa, 0x0004}, {0x88fb, 0x0084},
3875{0x88fc, 0x00df}, {0x88fd, 0x00b7}, {0x88fe, 0x0012},
3876{0x88ff, 0x0004}, {0x8900, 0x0096}, {0x8901, 0x0083},
3877{0x8902, 0x0081}, {0x8903, 0x0007}, {0x8904, 0x002c},
3878{0x8905, 0x0005}, {0x8906, 0x007c}, {0x8907, 0x0000},
3879{0x8908, 0x0083}, {0x8909, 0x0020}, {0x890a, 0x0006},
3880{0x890b, 0x0096}, {0x890c, 0x0083}, {0x890d, 0x008b},
3881{0x890e, 0x0008}, {0x890f, 0x0097}, {0x8910, 0x0083},
3882{0x8911, 0x007e}, {0x8912, 0x0085}, {0x8913, 0x0041},
3883{0x8914, 0x007f}, {0x8915, 0x008f}, {0x8916, 0x007e},
3884{0x8917, 0x0086}, {0x8918, 0x0080}, {0x8919, 0x00b7},
3885{0x891a, 0x0012}, {0x891b, 0x000c}, {0x891c, 0x0086},
3886{0x891d, 0x0001}, {0x891e, 0x00b7}, {0x891f, 0x008f},
3887{0x8920, 0x007d}, {0x8921, 0x00b6}, {0x8922, 0x0012},
3888{0x8923, 0x000c}, {0x8924, 0x0084}, {0x8925, 0x007f},
3889{0x8926, 0x00b7}, {0x8927, 0x0012}, {0x8928, 0x000c},
3890{0x8929, 0x008a}, {0x892a, 0x0080}, {0x892b, 0x00b7},
3891{0x892c, 0x0012}, {0x892d, 0x000c}, {0x892e, 0x0086},
3892{0x892f, 0x000a}, {0x8930, 0x00bd}, {0x8931, 0x008a},
3893{0x8932, 0x0006}, {0x8933, 0x00b6}, {0x8934, 0x0012},
3894{0x8935, 0x000a}, {0x8936, 0x002a}, {0x8937, 0x0009},
3895{0x8938, 0x00b6}, {0x8939, 0x0012}, {0x893a, 0x000c},
3896{0x893b, 0x00ba}, {0x893c, 0x008f}, {0x893d, 0x007d},
3897{0x893e, 0x00b7}, {0x893f, 0x0012}, {0x8940, 0x000c},
3898{0x8941, 0x00b6}, {0x8942, 0x008f}, {0x8943, 0x007e},
3899{0x8944, 0x0081}, {0x8945, 0x0060}, {0x8946, 0x0027},
3900{0x8947, 0x001a}, {0x8948, 0x008b}, {0x8949, 0x0020},
3901{0x894a, 0x00b7}, {0x894b, 0x008f}, {0x894c, 0x007e},
3902{0x894d, 0x00b6}, {0x894e, 0x0012}, {0x894f, 0x000c},
3903{0x8950, 0x0084}, {0x8951, 0x009f}, {0x8952, 0x00ba},
3904{0x8953, 0x008f}, {0x8954, 0x007e}, {0x8955, 0x00b7},
3905{0x8956, 0x0012}, {0x8957, 0x000c}, {0x8958, 0x00b6},
3906{0x8959, 0x008f}, {0x895a, 0x007d}, {0x895b, 0x0048},
3907{0x895c, 0x00b7}, {0x895d, 0x008f}, {0x895e, 0x007d},
3908{0x895f, 0x007e}, {0x8960, 0x0089}, {0x8961, 0x0021},
3909{0x8962, 0x00b6}, {0x8963, 0x0012}, {0x8964, 0x0004},
3910{0x8965, 0x008a}, {0x8966, 0x0020}, {0x8967, 0x00b7},
3911{0x8968, 0x0012}, {0x8969, 0x0004}, {0x896a, 0x00bd},
3912{0x896b, 0x008a}, {0x896c, 0x000a}, {0x896d, 0x004f},
3913{0x896e, 0x0039}, {0x896f, 0x00a6}, {0x8970, 0x0000},
3914{0x8971, 0x0018}, {0x8972, 0x00a7}, {0x8973, 0x0000},
3915{0x8974, 0x0008}, {0x8975, 0x0018}, {0x8976, 0x0008},
3916{0x8977, 0x005a}, {0x8978, 0x0026}, {0x8979, 0x00f5},
3917{0x897a, 0x0039}, {0x897b, 0x0036}, {0x897c, 0x006c},
3918{0x897d, 0x0000}, {0x897e, 0x0032}, {0x897f, 0x00ba},
3919{0x8980, 0x008f}, {0x8981, 0x007f}, {0x8982, 0x00b7},
3920{0x8983, 0x008f}, {0x8984, 0x007f}, {0x8985, 0x00b6},
3921{0x8986, 0x0012}, {0x8987, 0x0009}, {0x8988, 0x0084},
3922{0x8989, 0x0003}, {0x898a, 0x00a7}, {0x898b, 0x0001},
3923{0x898c, 0x00b6}, {0x898d, 0x0012}, {0x898e, 0x0006},
3924{0x898f, 0x0084}, {0x8990, 0x003f}, {0x8991, 0x00a7},
3925{0x8992, 0x0002}, {0x8993, 0x0039}, {0x8994, 0x0036},
3926{0x8995, 0x0086}, {0x8996, 0x0003}, {0x8997, 0x00b7},
3927{0x8998, 0x008f}, {0x8999, 0x0080}, {0x899a, 0x0032},
3928{0x899b, 0x00c1}, {0x899c, 0x0000}, {0x899d, 0x0026},
3929{0x899e, 0x0006}, {0x899f, 0x00b7}, {0x89a0, 0x008f},
3930{0x89a1, 0x007c}, {0x89a2, 0x007e}, {0x89a3, 0x0089},
3931{0x89a4, 0x00c9}, {0x89a5, 0x00c1}, {0x89a6, 0x0001},
3932{0x89a7, 0x0027}, {0x89a8, 0x0018}, {0x89a9, 0x00c1},
3933{0x89aa, 0x0002}, {0x89ab, 0x0027}, {0x89ac, 0x000c},
3934{0x89ad, 0x00c1}, {0x89ae, 0x0003}, {0x89af, 0x0027},
3935{0x89b0, 0x0000}, {0x89b1, 0x00f6}, {0x89b2, 0x008f},
3936{0x89b3, 0x0080}, {0x89b4, 0x0005}, {0x89b5, 0x0005},
3937{0x89b6, 0x00f7}, {0x89b7, 0x008f}, {0x89b8, 0x0080},
3938{0x89b9, 0x00f6}, {0x89ba, 0x008f}, {0x89bb, 0x0080},
3939{0x89bc, 0x0005}, {0x89bd, 0x0005}, {0x89be, 0x00f7},
3940{0x89bf, 0x008f}, {0x89c0, 0x0080}, {0x89c1, 0x00f6},
3941{0x89c2, 0x008f}, {0x89c3, 0x0080}, {0x89c4, 0x0005},
3942{0x89c5, 0x0005}, {0x89c6, 0x00f7}, {0x89c7, 0x008f},
3943{0x89c8, 0x0080}, {0x89c9, 0x00f6}, {0x89ca, 0x008f},
3944{0x89cb, 0x0080}, {0x89cc, 0x0053}, {0x89cd, 0x00f4},
3945{0x89ce, 0x0012}, {0x89cf, 0x0007}, {0x89d0, 0x001b},
3946{0x89d1, 0x00b7}, {0x89d2, 0x0012}, {0x89d3, 0x0007},
3947{0x89d4, 0x0039}, {0x89d5, 0x00ce}, {0x89d6, 0x008f},
3948{0x89d7, 0x0070}, {0x89d8, 0x00a6}, {0x89d9, 0x0000},
3949{0x89da, 0x0018}, {0x89db, 0x00e6}, {0x89dc, 0x0000},
3950{0x89dd, 0x0018}, {0x89de, 0x00a7}, {0x89df, 0x0000},
3951{0x89e0, 0x00e7}, {0x89e1, 0x0000}, {0x89e2, 0x00a6},
3952{0x89e3, 0x0001}, {0x89e4, 0x0018}, {0x89e5, 0x00e6},
3953{0x89e6, 0x0001}, {0x89e7, 0x0018}, {0x89e8, 0x00a7},
3954{0x89e9, 0x0001}, {0x89ea, 0x00e7}, {0x89eb, 0x0001},
3955{0x89ec, 0x00a6}, {0x89ed, 0x0002}, {0x89ee, 0x0018},
3956{0x89ef, 0x00e6}, {0x89f0, 0x0002}, {0x89f1, 0x0018},
3957{0x89f2, 0x00a7}, {0x89f3, 0x0002}, {0x89f4, 0x00e7},
3958{0x89f5, 0x0002}, {0x89f6, 0x0039}, {0x89f7, 0x00a6},
3959{0x89f8, 0x0000}, {0x89f9, 0x0084}, {0x89fa, 0x0007},
3960{0x89fb, 0x00e6}, {0x89fc, 0x0000}, {0x89fd, 0x00c4},
3961{0x89fe, 0x0038}, {0x89ff, 0x0054}, {0x8a00, 0x0054},
3962{0x8a01, 0x0054}, {0x8a02, 0x001b}, {0x8a03, 0x00a7},
3963{0x8a04, 0x0000}, {0x8a05, 0x0039}, {0x8a06, 0x004a},
3964{0x8a07, 0x0026}, {0x8a08, 0x00fd}, {0x8a09, 0x0039},
3965{0x8a0a, 0x0096}, {0x8a0b, 0x0022}, {0x8a0c, 0x0084},
3966{0x8a0d, 0x000f}, {0x8a0e, 0x0097}, {0x8a0f, 0x0022},
3967{0x8a10, 0x0086}, {0x8a11, 0x0001}, {0x8a12, 0x00b7},
3968{0x8a13, 0x008f}, {0x8a14, 0x0070}, {0x8a15, 0x00b6},
3969{0x8a16, 0x0012}, {0x8a17, 0x0007}, {0x8a18, 0x00b7},
3970{0x8a19, 0x008f}, {0x8a1a, 0x0071}, {0x8a1b, 0x00f6},
3971{0x8a1c, 0x0012}, {0x8a1d, 0x000c}, {0x8a1e, 0x00c4},
3972{0x8a1f, 0x000f}, {0x8a20, 0x00c8}, {0x8a21, 0x000f},
3973{0x8a22, 0x00f7}, {0x8a23, 0x008f}, {0x8a24, 0x0072},
3974{0x8a25, 0x00f6}, {0x8a26, 0x008f}, {0x8a27, 0x0072},
3975{0x8a28, 0x00b6}, {0x8a29, 0x008f}, {0x8a2a, 0x0071},
3976{0x8a2b, 0x0084}, {0x8a2c, 0x0003}, {0x8a2d, 0x0027},
3977{0x8a2e, 0x0014}, {0x8a2f, 0x0081}, {0x8a30, 0x0001},
3978{0x8a31, 0x0027}, {0x8a32, 0x001c}, {0x8a33, 0x0081},
3979{0x8a34, 0x0002}, {0x8a35, 0x0027}, {0x8a36, 0x0024},
3980{0x8a37, 0x00f4}, {0x8a38, 0x008f}, {0x8a39, 0x0070},
3981{0x8a3a, 0x0027}, {0x8a3b, 0x002a}, {0x8a3c, 0x0096},
3982{0x8a3d, 0x0022}, {0x8a3e, 0x008a}, {0x8a3f, 0x0080},
3983{0x8a40, 0x007e}, {0x8a41, 0x008a}, {0x8a42, 0x0064},
3984{0x8a43, 0x00f4}, {0x8a44, 0x008f}, {0x8a45, 0x0070},
3985{0x8a46, 0x0027}, {0x8a47, 0x001e}, {0x8a48, 0x0096},
3986{0x8a49, 0x0022}, {0x8a4a, 0x008a}, {0x8a4b, 0x0010},
3987{0x8a4c, 0x007e}, {0x8a4d, 0x008a}, {0x8a4e, 0x0064},
3988{0x8a4f, 0x00f4}, {0x8a50, 0x008f}, {0x8a51, 0x0070},
3989{0x8a52, 0x0027}, {0x8a53, 0x0012}, {0x8a54, 0x0096},
3990{0x8a55, 0x0022}, {0x8a56, 0x008a}, {0x8a57, 0x0020},
3991{0x8a58, 0x007e}, {0x8a59, 0x008a}, {0x8a5a, 0x0064},
3992{0x8a5b, 0x00f4}, {0x8a5c, 0x008f}, {0x8a5d, 0x0070},
3993{0x8a5e, 0x0027}, {0x8a5f, 0x0006}, {0x8a60, 0x0096},
3994{0x8a61, 0x0022}, {0x8a62, 0x008a}, {0x8a63, 0x0040},
3995{0x8a64, 0x0097}, {0x8a65, 0x0022}, {0x8a66, 0x0074},
3996{0x8a67, 0x008f}, {0x8a68, 0x0071}, {0x8a69, 0x0074},
3997{0x8a6a, 0x008f}, {0x8a6b, 0x0071}, {0x8a6c, 0x0078},
3998{0x8a6d, 0x008f}, {0x8a6e, 0x0070}, {0x8a6f, 0x00b6},
3999{0x8a70, 0x008f}, {0x8a71, 0x0070}, {0x8a72, 0x0085},
4000{0x8a73, 0x0010}, {0x8a74, 0x0027}, {0x8a75, 0x00af},
4001{0x8a76, 0x00d6}, {0x8a77, 0x0022}, {0x8a78, 0x00c4},
4002{0x8a79, 0x0010}, {0x8a7a, 0x0058}, {0x8a7b, 0x00b6},
4003{0x8a7c, 0x0012}, {0x8a7d, 0x0070}, {0x8a7e, 0x0081},
4004{0x8a7f, 0x00e4}, {0x8a80, 0x0027}, {0x8a81, 0x0036},
4005{0x8a82, 0x0081}, {0x8a83, 0x00e1}, {0x8a84, 0x0026},
4006{0x8a85, 0x000c}, {0x8a86, 0x0096}, {0x8a87, 0x0022},
4007{0x8a88, 0x0084}, {0x8a89, 0x0020}, {0x8a8a, 0x0044},
4008{0x8a8b, 0x001b}, {0x8a8c, 0x00d6}, {0x8a8d, 0x0022},
4009{0x8a8e, 0x00c4}, {0x8a8f, 0x00cf}, {0x8a90, 0x0020},
4010{0x8a91, 0x0023}, {0x8a92, 0x0058}, {0x8a93, 0x0081},
4011{0x8a94, 0x00c6}, {0x8a95, 0x0026}, {0x8a96, 0x000d},
4012{0x8a97, 0x0096}, {0x8a98, 0x0022}, {0x8a99, 0x0084},
4013{0x8a9a, 0x0040}, {0x8a9b, 0x0044}, {0x8a9c, 0x0044},
4014{0x8a9d, 0x001b}, {0x8a9e, 0x00d6}, {0x8a9f, 0x0022},
4015{0x8aa0, 0x00c4}, {0x8aa1, 0x00af}, {0x8aa2, 0x0020},
4016{0x8aa3, 0x0011}, {0x8aa4, 0x0058}, {0x8aa5, 0x0081},
4017{0x8aa6, 0x0027}, {0x8aa7, 0x0026}, {0x8aa8, 0x000f},
4018{0x8aa9, 0x0096}, {0x8aaa, 0x0022}, {0x8aab, 0x0084},
4019{0x8aac, 0x0080}, {0x8aad, 0x0044}, {0x8aae, 0x0044},
4020{0x8aaf, 0x0044}, {0x8ab0, 0x001b}, {0x8ab1, 0x00d6},
4021{0x8ab2, 0x0022}, {0x8ab3, 0x00c4}, {0x8ab4, 0x006f},
4022{0x8ab5, 0x001b}, {0x8ab6, 0x0097}, {0x8ab7, 0x0022},
4023{0x8ab8, 0x0039}, {0x8ab9, 0x0027}, {0x8aba, 0x000c},
4024{0x8abb, 0x007c}, {0x8abc, 0x0082}, {0x8abd, 0x0006},
4025{0x8abe, 0x00bd}, {0x8abf, 0x00d9}, {0x8ac0, 0x00ed},
4026{0x8ac1, 0x00b6}, {0x8ac2, 0x0082}, {0x8ac3, 0x0007},
4027{0x8ac4, 0x007e}, {0x8ac5, 0x008a}, {0x8ac6, 0x00b9},
4028{0x8ac7, 0x007f}, {0x8ac8, 0x0082}, {0x8ac9, 0x0006},
4029{0x8aca, 0x0039}, { 0x0, 0x0 }
4030};
4031#endif
4032
4033
4034/* phy types */
4035#define CAS_PHY_UNKNOWN 0x00
4036#define CAS_PHY_SERDES 0x01
4037#define CAS_PHY_MII_MDIO0 0x02
4038#define CAS_PHY_MII_MDIO1 0x04
4039#define CAS_PHY_MII(x) ((x) & (CAS_PHY_MII_MDIO0 | CAS_PHY_MII_MDIO1))
4040
4041/* _RING_INDEX is the index for the ring sizes to be used. _RING_SIZE
4042 * is the actual size. the default index for the various rings is
4043 * 8. NOTE: there a bunch of alignment constraints for the rings. to
4044 * deal with that, i just allocate rings to create the desired
4045 * alignment. here are the constraints:
4046 * RX DESC and COMP rings must be 8KB aligned
4047 * TX DESC must be 2KB aligned.
4048 * if you change the numbers, be cognizant of how the alignment will change
4049 * in INIT_BLOCK as well.
4050 */
4051
4052#define DESC_RING_I_TO_S(x) (32*(1 << (x)))
4053#define COMP_RING_I_TO_S(x) (128*(1 << (x)))
4054#define TX_DESC_RING_INDEX 4 /* 512 = 8k */
4055#define RX_DESC_RING_INDEX 4 /* 512 = 8k */
4056#define RX_COMP_RING_INDEX 4 /* 2048 = 64k: should be 4x rx ring size */
4057
4058#if (TX_DESC_RING_INDEX > 8) || (TX_DESC_RING_INDEX < 0)
4059#error TX_DESC_RING_INDEX must be between 0 and 8
4060#endif
4061
4062#if (RX_DESC_RING_INDEX > 8) || (RX_DESC_RING_INDEX < 0)
4063#error RX_DESC_RING_INDEX must be between 0 and 8
4064#endif
4065
4066#if (RX_COMP_RING_INDEX > 8) || (RX_COMP_RING_INDEX < 0)
4067#error RX_COMP_RING_INDEX must be between 0 and 8
4068#endif
4069
4070#define N_TX_RINGS MAX_TX_RINGS /* for QoS */
4071#define N_TX_RINGS_MASK MAX_TX_RINGS_MASK
4072#define N_RX_DESC_RINGS MAX_RX_DESC_RINGS /* 1 for ipsec */
4073#define N_RX_COMP_RINGS 0x1 /* for mult. PCI interrupts */
4074
4075/* number of flows that can go through re-assembly */
4076#define N_RX_FLOWS 64
4077
4078#define TX_DESC_RING_SIZE DESC_RING_I_TO_S(TX_DESC_RING_INDEX)
4079#define RX_DESC_RING_SIZE DESC_RING_I_TO_S(RX_DESC_RING_INDEX)
4080#define RX_COMP_RING_SIZE COMP_RING_I_TO_S(RX_COMP_RING_INDEX)
4081#define TX_DESC_RINGN_INDEX(x) TX_DESC_RING_INDEX
4082#define RX_DESC_RINGN_INDEX(x) RX_DESC_RING_INDEX
4083#define RX_COMP_RINGN_INDEX(x) RX_COMP_RING_INDEX
4084#define TX_DESC_RINGN_SIZE(x) TX_DESC_RING_SIZE
4085#define RX_DESC_RINGN_SIZE(x) RX_DESC_RING_SIZE
4086#define RX_COMP_RINGN_SIZE(x) RX_COMP_RING_SIZE
4087
4088/* convert values */
4089#define CAS_BASE(x, y) (((y) << (x ## _SHIFT)) & (x ## _MASK))
4090#define CAS_VAL(x, y) (((y) & (x ## _MASK)) >> (x ## _SHIFT))
4091#define CAS_TX_RINGN_BASE(y) ((TX_DESC_RINGN_INDEX(y) << \
4092 TX_CFG_DESC_RINGN_SHIFT(y)) & \
4093 TX_CFG_DESC_RINGN_MASK(y))
4094
4095/* min is 2k, but we can't do jumbo frames unless it's at least 8k */
4096#define CAS_MIN_PAGE_SHIFT 11 /* 2048 */
4097#define CAS_JUMBO_PAGE_SHIFT 13 /* 8192 */
4098#define CAS_MAX_PAGE_SHIFT 14 /* 16384 */
4099
4100#define TX_DESC_BUFLEN_MASK 0x0000000000003FFFULL /* buffer length in
4101 bytes. 0 - 9256 */
4102#define TX_DESC_BUFLEN_SHIFT 0
4103#define TX_DESC_CSUM_START_MASK 0x00000000001F8000ULL /* checksum start. #
4104 of bytes to be
4105 skipped before
4106 csum calc begins.
4107 value must be
4108 even */
4109#define TX_DESC_CSUM_START_SHIFT 15
4110#define TX_DESC_CSUM_STUFF_MASK 0x000000001FE00000ULL /* checksum stuff.
4111 byte offset w/in
4112 the pkt for the
4113 1st csum byte.
4114 must be > 8 */
4115#define TX_DESC_CSUM_STUFF_SHIFT 21
4116#define TX_DESC_CSUM_EN 0x0000000020000000ULL /* enable checksum */
4117#define TX_DESC_EOF 0x0000000040000000ULL /* end of frame */
4118#define TX_DESC_SOF 0x0000000080000000ULL /* start of frame */
4119#define TX_DESC_INTME 0x0000000100000000ULL /* interrupt me */
4120#define TX_DESC_NO_CRC 0x0000000200000000ULL /* debugging only.
4121 CRC will not be
4122 inserted into
4123 outgoing frame. */
4124struct cas_tx_desc {
4125 u64 control;
4126 u64 buffer;
4127};
4128
4129/* descriptor ring for free buffers contains page-sized buffers. the index
4130 * value is not used by the hw in any way. it's just stored and returned in
4131 * the completion ring.
4132 */
4133struct cas_rx_desc {
4134 u64 index;
4135 u64 buffer;
4136};
4137
4138/* received packets are put on the completion ring. */
4139/* word 1 */
4140#define RX_COMP1_DATA_SIZE_MASK 0x0000000007FFE000ULL
4141#define RX_COMP1_DATA_SIZE_SHIFT 13
4142#define RX_COMP1_DATA_OFF_MASK 0x000001FFF8000000ULL
4143#define RX_COMP1_DATA_OFF_SHIFT 27
4144#define RX_COMP1_DATA_INDEX_MASK 0x007FFE0000000000ULL
4145#define RX_COMP1_DATA_INDEX_SHIFT 41
4146#define RX_COMP1_SKIP_MASK 0x0180000000000000ULL
4147#define RX_COMP1_SKIP_SHIFT 55
4148#define RX_COMP1_RELEASE_NEXT 0x0200000000000000ULL
4149#define RX_COMP1_SPLIT_PKT 0x0400000000000000ULL
4150#define RX_COMP1_RELEASE_FLOW 0x0800000000000000ULL
4151#define RX_COMP1_RELEASE_DATA 0x1000000000000000ULL
4152#define RX_COMP1_RELEASE_HDR 0x2000000000000000ULL
4153#define RX_COMP1_TYPE_MASK 0xC000000000000000ULL
4154#define RX_COMP1_TYPE_SHIFT 62
4155
4156/* word 2 */
4157#define RX_COMP2_NEXT_INDEX_MASK 0x00000007FFE00000ULL
4158#define RX_COMP2_NEXT_INDEX_SHIFT 21
4159#define RX_COMP2_HDR_SIZE_MASK 0x00000FF800000000ULL
4160#define RX_COMP2_HDR_SIZE_SHIFT 35
4161#define RX_COMP2_HDR_OFF_MASK 0x0003F00000000000ULL
4162#define RX_COMP2_HDR_OFF_SHIFT 44
4163#define RX_COMP2_HDR_INDEX_MASK 0xFFFC000000000000ULL
4164#define RX_COMP2_HDR_INDEX_SHIFT 50
4165
4166/* word 3 */
4167#define RX_COMP3_SMALL_PKT 0x0000000000000001ULL
4168#define RX_COMP3_JUMBO_PKT 0x0000000000000002ULL
4169#define RX_COMP3_JUMBO_HDR_SPLIT_EN 0x0000000000000004ULL
4170#define RX_COMP3_CSUM_START_MASK 0x000000000007F000ULL
4171#define RX_COMP3_CSUM_START_SHIFT 12
4172#define RX_COMP3_FLOWID_MASK 0x0000000001F80000ULL
4173#define RX_COMP3_FLOWID_SHIFT 19
4174#define RX_COMP3_OPCODE_MASK 0x000000000E000000ULL
4175#define RX_COMP3_OPCODE_SHIFT 25
4176#define RX_COMP3_FORCE_FLAG 0x0000000010000000ULL
4177#define RX_COMP3_NO_ASSIST 0x0000000020000000ULL
4178#define RX_COMP3_LOAD_BAL_MASK 0x000001F800000000ULL
4179#define RX_COMP3_LOAD_BAL_SHIFT 35
4180#define RX_PLUS_COMP3_ENC_PKT 0x0000020000000000ULL /* cas+ */
4181#define RX_COMP3_L3_HEAD_OFF_MASK 0x0000FE0000000000ULL /* cas */
4182#define RX_COMP3_L3_HEAD_OFF_SHIFT 41
4183#define RX_PLUS_COMP_L3_HEAD_OFF_MASK 0x0000FC0000000000ULL /* cas+ */
4184#define RX_PLUS_COMP_L3_HEAD_OFF_SHIFT 42
4185#define RX_COMP3_SAP_MASK 0xFFFF000000000000ULL
4186#define RX_COMP3_SAP_SHIFT 48
4187
4188/* word 4 */
4189#define RX_COMP4_TCP_CSUM_MASK 0x000000000000FFFFULL
4190#define RX_COMP4_TCP_CSUM_SHIFT 0
4191#define RX_COMP4_PKT_LEN_MASK 0x000000003FFF0000ULL
4192#define RX_COMP4_PKT_LEN_SHIFT 16
4193#define RX_COMP4_PERFECT_MATCH_MASK 0x00000003C0000000ULL
4194#define RX_COMP4_PERFECT_MATCH_SHIFT 30
4195#define RX_COMP4_ZERO 0x0000080000000000ULL
4196#define RX_COMP4_HASH_VAL_MASK 0x0FFFF00000000000ULL
4197#define RX_COMP4_HASH_VAL_SHIFT 44
4198#define RX_COMP4_HASH_PASS 0x1000000000000000ULL
4199#define RX_COMP4_BAD 0x4000000000000000ULL
4200#define RX_COMP4_LEN_MISMATCH 0x8000000000000000ULL
4201
4202/* we encode the following: ring/index/release. only 14 bits
4203 * are usable.
4204 * NOTE: the encoding is dependent upon RX_DESC_RING_SIZE and
4205 * MAX_RX_DESC_RINGS. */
4206#define RX_INDEX_NUM_MASK 0x0000000000000FFFULL
4207#define RX_INDEX_NUM_SHIFT 0
4208#define RX_INDEX_RING_MASK 0x0000000000001000ULL
4209#define RX_INDEX_RING_SHIFT 12
4210#define RX_INDEX_RELEASE 0x0000000000002000ULL
4211
4212struct cas_rx_comp {
4213 u64 word1;
4214 u64 word2;
4215 u64 word3;
4216 u64 word4;
4217};
4218
4219enum link_state {
4220 link_down = 0, /* No link, will retry */
4221 link_aneg, /* Autoneg in progress */
4222 link_force_try, /* Try Forced link speed */
4223 link_force_ret, /* Forced mode worked, retrying autoneg */
4224 link_force_ok, /* Stay in forced mode */
4225 link_up /* Link is up */
4226};
4227
4228typedef struct cas_page {
4229 struct list_head list;
4230 struct page *buffer;
4231 dma_addr_t dma_addr;
4232 int used;
4233} cas_page_t;
4234
4235
4236/* some alignment constraints:
4237 * TX DESC, RX DESC, and RX COMP must each be 8K aligned.
4238 * TX COMPWB must be 8-byte aligned.
4239 * to accomplish this, here's what we do:
4240 *
4241 * INIT_BLOCK_RX_COMP = 64k (already aligned)
4242 * INIT_BLOCK_RX_DESC = 8k
4243 * INIT_BLOCK_TX = 8k
4244 * INIT_BLOCK_RX1_DESC = 8k
4245 * TX COMPWB
4246 */
4247#define INIT_BLOCK_TX (TX_DESC_RING_SIZE)
4248#define INIT_BLOCK_RX_DESC (RX_DESC_RING_SIZE)
4249#define INIT_BLOCK_RX_COMP (RX_COMP_RING_SIZE)
4250
4251struct cas_init_block {
4252 struct cas_rx_comp rxcs[N_RX_COMP_RINGS][INIT_BLOCK_RX_COMP];
4253 struct cas_rx_desc rxds[N_RX_DESC_RINGS][INIT_BLOCK_RX_DESC];
4254 struct cas_tx_desc txds[N_TX_RINGS][INIT_BLOCK_TX];
4255 u64 tx_compwb;
4256};
4257
4258/* tiny buffers to deal with target abort issue. we allocate a bit
4259 * over so that we don't have target abort issues with these buffers
4260 * as well.
4261 */
4262#define TX_TINY_BUF_LEN 0x100
4263#define TX_TINY_BUF_BLOCK ((INIT_BLOCK_TX + 1)*TX_TINY_BUF_LEN)
4264
4265struct cas_tiny_count {
4266 int nbufs;
4267 int used;
4268};
4269
4270struct cas {
4271 spinlock_t lock; /* for most bits */
4272 spinlock_t tx_lock[N_TX_RINGS]; /* tx bits */
4273 spinlock_t stat_lock[N_TX_RINGS + 1]; /* for stat gathering */
4274 spinlock_t rx_inuse_lock; /* rx inuse list */
4275 spinlock_t rx_spare_lock; /* rx spare list */
4276
4277 void __iomem *regs;
4278 int tx_new[N_TX_RINGS], tx_old[N_TX_RINGS];
4279 int rx_old[N_RX_DESC_RINGS];
4280 int rx_cur[N_RX_COMP_RINGS], rx_new[N_RX_COMP_RINGS];
4281 int rx_last[N_RX_DESC_RINGS];
4282
4283 /* Set when chip is actually in operational state
4284 * (ie. not power managed) */
4285 int hw_running;
4286 int opened;
4287 struct semaphore pm_sem; /* open/close/suspend/resume */
4288
4289 struct cas_init_block *init_block;
4290 struct cas_tx_desc *init_txds[MAX_TX_RINGS];
4291 struct cas_rx_desc *init_rxds[MAX_RX_DESC_RINGS];
4292 struct cas_rx_comp *init_rxcs[MAX_RX_COMP_RINGS];
4293
4294 /* we use sk_buffs for tx and pages for rx. the rx skbuffs
4295 * are there for flow re-assembly. */
4296 struct sk_buff *tx_skbs[N_TX_RINGS][TX_DESC_RING_SIZE];
4297 struct sk_buff_head rx_flows[N_RX_FLOWS];
4298 cas_page_t *rx_pages[N_RX_DESC_RINGS][RX_DESC_RING_SIZE];
4299 struct list_head rx_spare_list, rx_inuse_list;
4300 int rx_spares_needed;
4301
4302 /* for small packets when copying would be quicker than
4303 mapping */
4304 struct cas_tiny_count tx_tiny_use[N_TX_RINGS][TX_DESC_RING_SIZE];
4305 u8 *tx_tiny_bufs[N_TX_RINGS];
4306
4307 u32 msg_enable;
4308
4309 /* N_TX_RINGS must be >= N_RX_DESC_RINGS */
4310 struct net_device_stats net_stats[N_TX_RINGS + 1];
4311
4312 u32 pci_cfg[64 >> 2];
4313 u8 pci_revision;
4314
4315 int phy_type;
4316 int phy_addr;
4317 u32 phy_id;
4318#define CAS_FLAG_1000MB_CAP 0x00000001
4319#define CAS_FLAG_REG_PLUS 0x00000002
4320#define CAS_FLAG_TARGET_ABORT 0x00000004
4321#define CAS_FLAG_SATURN 0x00000008
4322#define CAS_FLAG_RXD_POST_MASK 0x000000F0
4323#define CAS_FLAG_RXD_POST_SHIFT 4
4324#define CAS_FLAG_RXD_POST(x) ((1 << (CAS_FLAG_RXD_POST_SHIFT + (x))) & \
4325 CAS_FLAG_RXD_POST_MASK)
4326#define CAS_FLAG_ENTROPY_DEV 0x00000100
4327#define CAS_FLAG_NO_HW_CSUM 0x00000200
4328 u32 cas_flags;
4329 int packet_min; /* minimum packet size */
4330 int tx_fifo_size;
4331 int rx_fifo_size;
4332 int rx_pause_off;
4333 int rx_pause_on;
4334 int crc_size; /* 4 if half-duplex */
4335
4336 int pci_irq_INTC;
4337 int min_frame_size; /* for tx fifo workaround */
4338
4339 /* page size allocation */
4340 int page_size;
4341 int page_order;
4342 int mtu_stride;
4343
4344 u32 mac_rx_cfg;
4345
4346 /* Autoneg & PHY control */
4347 int link_cntl;
4348 int link_fcntl;
4349 enum link_state lstate;
4350 struct timer_list link_timer;
4351 int timer_ticks;
4352 struct work_struct reset_task;
4353#if 0
4354 atomic_t reset_task_pending;
4355#else
4356 atomic_t reset_task_pending;
4357 atomic_t reset_task_pending_mtu;
4358 atomic_t reset_task_pending_spare;
4359 atomic_t reset_task_pending_all;
4360#endif
4361
4362#ifdef CONFIG_CASSINI_QGE_DEBUG
4363 atomic_t interrupt_seen; /* 1 if any interrupts are getting through */
4364#endif
4365
4366 /* Link-down problem workaround */
4367#define LINK_TRANSITION_UNKNOWN 0
4368#define LINK_TRANSITION_ON_FAILURE 1
4369#define LINK_TRANSITION_STILL_FAILED 2
4370#define LINK_TRANSITION_LINK_UP 3
4371#define LINK_TRANSITION_LINK_CONFIG 4
4372#define LINK_TRANSITION_LINK_DOWN 5
4373#define LINK_TRANSITION_REQUESTED_RESET 6
4374 int link_transition;
4375 int link_transition_jiffies_valid;
4376 unsigned long link_transition_jiffies;
4377
4378 /* Tuning */
4379 u8 orig_cacheline_size; /* value when loaded */
4380#define CAS_PREF_CACHELINE_SIZE 0x20 /* Minimum desired */
4381
4382 /* Diagnostic counters and state. */
4383 int casreg_len; /* reg-space size for dumping */
4384 u64 pause_entered;
4385 u16 pause_last_time_recvd;
4386
4387 dma_addr_t block_dvma, tx_tiny_dvma[N_TX_RINGS];
4388 struct pci_dev *pdev;
4389 struct net_device *dev;
4390};
4391
4392#define TX_DESC_NEXT(r, x) (((x) + 1) & (TX_DESC_RINGN_SIZE(r) - 1))
4393#define RX_DESC_ENTRY(r, x) ((x) & (RX_DESC_RINGN_SIZE(r) - 1))
4394#define RX_COMP_ENTRY(r, x) ((x) & (RX_COMP_RINGN_SIZE(r) - 1))
4395
4396#define TX_BUFF_COUNT(r, x, y) ((x) <= (y) ? ((y) - (x)) : \
4397 (TX_DESC_RINGN_SIZE(r) - (x) + (y)))
4398
4399#define TX_BUFFS_AVAIL(cp, i) ((cp)->tx_old[(i)] <= (cp)->tx_new[(i)] ? \
4400 (cp)->tx_old[(i)] + (TX_DESC_RINGN_SIZE(i) - 1) - (cp)->tx_new[(i)] : \
4401 (cp)->tx_old[(i)] - (cp)->tx_new[(i)] - 1)
4402
4403#define CAS_ALIGN(addr, align) \
4404 (((unsigned long) (addr) + ((align) - 1UL)) & ~((align) - 1))
4405
4406#define RX_FIFO_SIZE 16384
4407#define EXPANSION_ROM_SIZE 65536
4408
4409#define CAS_MC_EXACT_MATCH_SIZE 15
4410#define CAS_MC_HASH_SIZE 256
4411#define CAS_MC_HASH_MAX (CAS_MC_EXACT_MATCH_SIZE + \
4412 CAS_MC_HASH_SIZE)
4413
4414#define TX_TARGET_ABORT_LEN 0x20
4415#define RX_SWIVEL_OFF_VAL 0x2
4416#define RX_AE_FREEN_VAL(x) (RX_DESC_RINGN_SIZE(x) >> 1)
4417#define RX_AE_COMP_VAL (RX_COMP_RING_SIZE >> 1)
4418#define RX_BLANK_INTR_PKT_VAL 0x05
4419#define RX_BLANK_INTR_TIME_VAL 0x0F
4420#define HP_TCP_THRESH_VAL 1530 /* reduce to enable reassembly */
4421
4422#define RX_SPARE_COUNT (RX_DESC_RING_SIZE >> 1)
4423#define RX_SPARE_RECOVER_VAL (RX_SPARE_COUNT >> 2)
4424
4425#endif /* _CASSINI_H */
generated by cgit v1.2.2 (git 2.25.0) at 2024-11-23 09:11:05 -0500