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-rw-r--r--arch/x86/mm/discontig_32.c285
1 files changed, 126 insertions, 159 deletions
diff --git a/arch/x86/mm/discontig_32.c b/arch/x86/mm/discontig_32.c
index 914ccf983687..5dfef9fa061a 100644
--- a/arch/x86/mm/discontig_32.c
+++ b/arch/x86/mm/discontig_32.c
@@ -38,6 +38,7 @@
38#include <asm/setup.h> 38#include <asm/setup.h>
39#include <asm/mmzone.h> 39#include <asm/mmzone.h>
40#include <asm/bios_ebda.h> 40#include <asm/bios_ebda.h>
41#include <asm/proto.h>
41 42
42struct pglist_data *node_data[MAX_NUMNODES] __read_mostly; 43struct pglist_data *node_data[MAX_NUMNODES] __read_mostly;
43EXPORT_SYMBOL(node_data); 44EXPORT_SYMBOL(node_data);
@@ -59,14 +60,14 @@ unsigned long node_end_pfn[MAX_NUMNODES] __read_mostly;
59/* 60/*
60 * 4) physnode_map - the mapping between a pfn and owning node 61 * 4) physnode_map - the mapping between a pfn and owning node
61 * physnode_map keeps track of the physical memory layout of a generic 62 * physnode_map keeps track of the physical memory layout of a generic
62 * numa node on a 256Mb break (each element of the array will 63 * numa node on a 64Mb break (each element of the array will
63 * represent 256Mb of memory and will be marked by the node id. so, 64 * represent 64Mb of memory and will be marked by the node id. so,
64 * if the first gig is on node 0, and the second gig is on node 1 65 * if the first gig is on node 0, and the second gig is on node 1
65 * physnode_map will contain: 66 * physnode_map will contain:
66 * 67 *
67 * physnode_map[0-3] = 0; 68 * physnode_map[0-15] = 0;
68 * physnode_map[4-7] = 1; 69 * physnode_map[16-31] = 1;
69 * physnode_map[8- ] = -1; 70 * physnode_map[32- ] = -1;
70 */ 71 */
71s8 physnode_map[MAX_ELEMENTS] __read_mostly = { [0 ... (MAX_ELEMENTS - 1)] = -1}; 72s8 physnode_map[MAX_ELEMENTS] __read_mostly = { [0 ... (MAX_ELEMENTS - 1)] = -1};
72EXPORT_SYMBOL(physnode_map); 73EXPORT_SYMBOL(physnode_map);
@@ -75,15 +76,15 @@ void memory_present(int nid, unsigned long start, unsigned long end)
75{ 76{
76 unsigned long pfn; 77 unsigned long pfn;
77 78
78 printk(KERN_INFO "Node: %d, start_pfn: %ld, end_pfn: %ld\n", 79 printk(KERN_INFO "Node: %d, start_pfn: %lx, end_pfn: %lx\n",
79 nid, start, end); 80 nid, start, end);
80 printk(KERN_DEBUG " Setting physnode_map array to node %d for pfns:\n", nid); 81 printk(KERN_DEBUG " Setting physnode_map array to node %d for pfns:\n", nid);
81 printk(KERN_DEBUG " "); 82 printk(KERN_DEBUG " ");
82 for (pfn = start; pfn < end; pfn += PAGES_PER_ELEMENT) { 83 for (pfn = start; pfn < end; pfn += PAGES_PER_ELEMENT) {
83 physnode_map[pfn / PAGES_PER_ELEMENT] = nid; 84 physnode_map[pfn / PAGES_PER_ELEMENT] = nid;
84 printk("%ld ", pfn); 85 printk(KERN_CONT "%lx ", pfn);
85 } 86 }
86 printk("\n"); 87 printk(KERN_CONT "\n");
87} 88}
88 89
89unsigned long node_memmap_size_bytes(int nid, unsigned long start_pfn, 90unsigned long node_memmap_size_bytes(int nid, unsigned long start_pfn,
@@ -99,7 +100,6 @@ unsigned long node_memmap_size_bytes(int nid, unsigned long start_pfn,
99#endif 100#endif
100 101
101extern unsigned long find_max_low_pfn(void); 102extern unsigned long find_max_low_pfn(void);
102extern void add_one_highpage_init(struct page *, int, int);
103extern unsigned long highend_pfn, highstart_pfn; 103extern unsigned long highend_pfn, highstart_pfn;
104 104
105#define LARGE_PAGE_BYTES (PTRS_PER_PTE * PAGE_SIZE) 105#define LARGE_PAGE_BYTES (PTRS_PER_PTE * PAGE_SIZE)
@@ -117,13 +117,13 @@ static unsigned long kva_pages;
117 */ 117 */
118int __init get_memcfg_numa_flat(void) 118int __init get_memcfg_numa_flat(void)
119{ 119{
120 printk("NUMA - single node, flat memory mode\n"); 120 printk(KERN_DEBUG "NUMA - single node, flat memory mode\n");
121 121
122 /* Run the memory configuration and find the top of memory. */
123 propagate_e820_map();
124 node_start_pfn[0] = 0; 122 node_start_pfn[0] = 0;
125 node_end_pfn[0] = max_pfn; 123 node_end_pfn[0] = max_pfn;
124 e820_register_active_regions(0, 0, max_pfn);
126 memory_present(0, 0, max_pfn); 125 memory_present(0, 0, max_pfn);
126 node_remap_size[0] = node_memmap_size_bytes(0, 0, max_pfn);
127 127
128 /* Indicate there is one node available. */ 128 /* Indicate there is one node available. */
129 nodes_clear(node_online_map); 129 nodes_clear(node_online_map);
@@ -156,24 +156,32 @@ static void __init propagate_e820_map_node(int nid)
156 */ 156 */
157static void __init allocate_pgdat(int nid) 157static void __init allocate_pgdat(int nid)
158{ 158{
159 if (nid && node_has_online_mem(nid)) 159 char buf[16];
160
161 if (node_has_online_mem(nid) && node_remap_start_vaddr[nid])
160 NODE_DATA(nid) = (pg_data_t *)node_remap_start_vaddr[nid]; 162 NODE_DATA(nid) = (pg_data_t *)node_remap_start_vaddr[nid];
161 else { 163 else {
162 NODE_DATA(nid) = (pg_data_t *)(pfn_to_kaddr(min_low_pfn)); 164 unsigned long pgdat_phys;
163 min_low_pfn += PFN_UP(sizeof(pg_data_t)); 165 pgdat_phys = find_e820_area(min_low_pfn<<PAGE_SHIFT,
166 max_pfn_mapped<<PAGE_SHIFT,
167 sizeof(pg_data_t),
168 PAGE_SIZE);
169 NODE_DATA(nid) = (pg_data_t *)(pfn_to_kaddr(pgdat_phys>>PAGE_SHIFT));
170 memset(buf, 0, sizeof(buf));
171 sprintf(buf, "NODE_DATA %d", nid);
172 reserve_early(pgdat_phys, pgdat_phys + sizeof(pg_data_t), buf);
164 } 173 }
174 printk(KERN_DEBUG "allocate_pgdat: node %d NODE_DATA %08lx\n",
175 nid, (unsigned long)NODE_DATA(nid));
165} 176}
166 177
167#ifdef CONFIG_DISCONTIGMEM
168/* 178/*
169 * In the discontig memory model, a portion of the kernel virtual area (KVA) 179 * In the DISCONTIGMEM and SPARSEMEM memory model, a portion of the kernel
170 * is reserved and portions of nodes are mapped using it. This is to allow 180 * virtual address space (KVA) is reserved and portions of nodes are mapped
171 * node-local memory to be allocated for structures that would normally require 181 * using it. This is to allow node-local memory to be allocated for
172 * ZONE_NORMAL. The memory is allocated with alloc_remap() and callers 182 * structures that would normally require ZONE_NORMAL. The memory is
173 * should be prepared to allocate from the bootmem allocator instead. This KVA 183 * allocated with alloc_remap() and callers should be prepared to allocate
174 * mechanism is incompatible with SPARSEMEM as it makes assumptions about the 184 * from the bootmem allocator instead.
175 * layout of memory that are broken if alloc_remap() succeeds for some of the
176 * map and fails for others
177 */ 185 */
178static unsigned long node_remap_start_pfn[MAX_NUMNODES]; 186static unsigned long node_remap_start_pfn[MAX_NUMNODES];
179static void *node_remap_end_vaddr[MAX_NUMNODES]; 187static void *node_remap_end_vaddr[MAX_NUMNODES];
@@ -195,15 +203,19 @@ void *alloc_remap(int nid, unsigned long size)
195 return allocation; 203 return allocation;
196} 204}
197 205
198void __init remap_numa_kva(void) 206static void __init remap_numa_kva(void)
199{ 207{
200 void *vaddr; 208 void *vaddr;
201 unsigned long pfn; 209 unsigned long pfn;
202 int node; 210 int node;
203 211
204 for_each_online_node(node) { 212 for_each_online_node(node) {
213 printk(KERN_DEBUG "remap_numa_kva: node %d\n", node);
205 for (pfn=0; pfn < node_remap_size[node]; pfn += PTRS_PER_PTE) { 214 for (pfn=0; pfn < node_remap_size[node]; pfn += PTRS_PER_PTE) {
206 vaddr = node_remap_start_vaddr[node]+(pfn<<PAGE_SHIFT); 215 vaddr = node_remap_start_vaddr[node]+(pfn<<PAGE_SHIFT);
216 printk(KERN_DEBUG "remap_numa_kva: %08lx to pfn %08lx\n",
217 (unsigned long)vaddr,
218 node_remap_start_pfn[node] + pfn);
207 set_pmd_pfn((ulong) vaddr, 219 set_pmd_pfn((ulong) vaddr,
208 node_remap_start_pfn[node] + pfn, 220 node_remap_start_pfn[node] + pfn,
209 PAGE_KERNEL_LARGE); 221 PAGE_KERNEL_LARGE);
@@ -215,17 +227,21 @@ static unsigned long calculate_numa_remap_pages(void)
215{ 227{
216 int nid; 228 int nid;
217 unsigned long size, reserve_pages = 0; 229 unsigned long size, reserve_pages = 0;
218 unsigned long pfn;
219 230
220 for_each_online_node(nid) { 231 for_each_online_node(nid) {
221 unsigned old_end_pfn = node_end_pfn[nid]; 232 u64 node_kva_target;
233 u64 node_kva_final;
222 234
223 /* 235 /*
224 * The acpi/srat node info can show hot-add memroy zones 236 * The acpi/srat node info can show hot-add memroy zones
225 * where memory could be added but not currently present. 237 * where memory could be added but not currently present.
226 */ 238 */
239 printk(KERN_DEBUG "node %d pfn: [%lx - %lx]\n",
240 nid, node_start_pfn[nid], node_end_pfn[nid]);
227 if (node_start_pfn[nid] > max_pfn) 241 if (node_start_pfn[nid] > max_pfn)
228 continue; 242 continue;
243 if (!node_end_pfn[nid])
244 continue;
229 if (node_end_pfn[nid] > max_pfn) 245 if (node_end_pfn[nid] > max_pfn)
230 node_end_pfn[nid] = max_pfn; 246 node_end_pfn[nid] = max_pfn;
231 247
@@ -237,41 +253,48 @@ static unsigned long calculate_numa_remap_pages(void)
237 /* now the roundup is correct, convert to PAGE_SIZE pages */ 253 /* now the roundup is correct, convert to PAGE_SIZE pages */
238 size = size * PTRS_PER_PTE; 254 size = size * PTRS_PER_PTE;
239 255
240 /* 256 node_kva_target = round_down(node_end_pfn[nid] - size,
241 * Validate the region we are allocating only contains valid 257 PTRS_PER_PTE);
242 * pages. 258 node_kva_target <<= PAGE_SHIFT;
243 */ 259 do {
244 for (pfn = node_end_pfn[nid] - size; 260 node_kva_final = find_e820_area(node_kva_target,
245 pfn < node_end_pfn[nid]; pfn++) 261 ((u64)node_end_pfn[nid])<<PAGE_SHIFT,
246 if (!page_is_ram(pfn)) 262 ((u64)size)<<PAGE_SHIFT,
247 break; 263 LARGE_PAGE_BYTES);
248 264 node_kva_target -= LARGE_PAGE_BYTES;
249 if (pfn != node_end_pfn[nid]) 265 } while (node_kva_final == -1ULL &&
250 size = 0; 266 (node_kva_target>>PAGE_SHIFT) > (node_start_pfn[nid]));
267
268 if (node_kva_final == -1ULL)
269 panic("Can not get kva ram\n");
251 270
252 printk("Reserving %ld pages of KVA for lmem_map of node %d\n",
253 size, nid);
254 node_remap_size[nid] = size; 271 node_remap_size[nid] = size;
255 node_remap_offset[nid] = reserve_pages; 272 node_remap_offset[nid] = reserve_pages;
256 reserve_pages += size; 273 reserve_pages += size;
257 printk("Shrinking node %d from %ld pages to %ld pages\n", 274 printk(KERN_DEBUG "Reserving %ld pages of KVA for lmem_map of"
258 nid, node_end_pfn[nid], node_end_pfn[nid] - size); 275 " node %d at %llx\n",
259 276 size, nid, node_kva_final>>PAGE_SHIFT);
260 if (node_end_pfn[nid] & (PTRS_PER_PTE-1)) { 277
261 /* 278 /*
262 * Align node_end_pfn[] and node_remap_start_pfn[] to 279 * prevent kva address below max_low_pfn want it on system
263 * pmd boundary. remap_numa_kva will barf otherwise. 280 * with less memory later.
264 */ 281 * layout will be: KVA address , KVA RAM
265 printk("Shrinking node %d further by %ld pages for proper alignment\n", 282 *
266 nid, node_end_pfn[nid] & (PTRS_PER_PTE-1)); 283 * we are supposed to only record the one less then max_low_pfn
267 size += node_end_pfn[nid] & (PTRS_PER_PTE-1); 284 * but we could have some hole in high memory, and it will only
268 } 285 * check page_is_ram(pfn) && !page_is_reserved_early(pfn) to decide
286 * to use it as free.
287 * So reserve_early here, hope we don't run out of that array
288 */
289 reserve_early(node_kva_final,
290 node_kva_final+(((u64)size)<<PAGE_SHIFT),
291 "KVA RAM");
269 292
270 node_end_pfn[nid] -= size; 293 node_remap_start_pfn[nid] = node_kva_final>>PAGE_SHIFT;
271 node_remap_start_pfn[nid] = node_end_pfn[nid]; 294 remove_active_range(nid, node_remap_start_pfn[nid],
272 shrink_active_range(nid, old_end_pfn, node_end_pfn[nid]); 295 node_remap_start_pfn[nid] + size);
273 } 296 }
274 printk("Reserving total of %ld pages for numa KVA remap\n", 297 printk(KERN_INFO "Reserving total of %lx pages for numa KVA remap\n",
275 reserve_pages); 298 reserve_pages);
276 return reserve_pages; 299 return reserve_pages;
277} 300}
@@ -285,37 +308,16 @@ static void init_remap_allocator(int nid)
285 node_remap_alloc_vaddr[nid] = node_remap_start_vaddr[nid] + 308 node_remap_alloc_vaddr[nid] = node_remap_start_vaddr[nid] +
286 ALIGN(sizeof(pg_data_t), PAGE_SIZE); 309 ALIGN(sizeof(pg_data_t), PAGE_SIZE);
287 310
288 printk ("node %d will remap to vaddr %08lx - %08lx\n", nid, 311 printk(KERN_DEBUG "node %d will remap to vaddr %08lx - %08lx\n", nid,
289 (ulong) node_remap_start_vaddr[nid], 312 (ulong) node_remap_start_vaddr[nid],
290 (ulong) pfn_to_kaddr(highstart_pfn 313 (ulong) node_remap_end_vaddr[nid]);
291 + node_remap_offset[nid] + node_remap_size[nid]));
292}
293#else
294void *alloc_remap(int nid, unsigned long size)
295{
296 return NULL;
297}
298
299static unsigned long calculate_numa_remap_pages(void)
300{
301 return 0;
302}
303
304static void init_remap_allocator(int nid)
305{
306}
307
308void __init remap_numa_kva(void)
309{
310} 314}
311#endif /* CONFIG_DISCONTIGMEM */
312 315
313extern void setup_bootmem_allocator(void); 316void __init initmem_init(unsigned long start_pfn,
314unsigned long __init setup_memory(void) 317 unsigned long end_pfn)
315{ 318{
316 int nid; 319 int nid;
317 unsigned long system_start_pfn, system_max_low_pfn; 320 long kva_target_pfn;
318 unsigned long wasted_pages;
319 321
320 /* 322 /*
321 * When mapping a NUMA machine we allocate the node_mem_map arrays 323 * When mapping a NUMA machine we allocate the node_mem_map arrays
@@ -324,109 +326,77 @@ unsigned long __init setup_memory(void)
324 * this space and use it to adjust the boundary between ZONE_NORMAL 326 * this space and use it to adjust the boundary between ZONE_NORMAL
325 * and ZONE_HIGHMEM. 327 * and ZONE_HIGHMEM.
326 */ 328 */
327 get_memcfg_numa();
328 329
329 kva_pages = calculate_numa_remap_pages(); 330 get_memcfg_numa();
330 331
331 /* partially used pages are not usable - thus round upwards */ 332 kva_pages = round_up(calculate_numa_remap_pages(), PTRS_PER_PTE);
332 system_start_pfn = min_low_pfn = PFN_UP(init_pg_tables_end);
333 333
334 kva_start_pfn = find_max_low_pfn() - kva_pages; 334 kva_target_pfn = round_down(max_low_pfn - kva_pages, PTRS_PER_PTE);
335 do {
336 kva_start_pfn = find_e820_area(kva_target_pfn<<PAGE_SHIFT,
337 max_low_pfn<<PAGE_SHIFT,
338 kva_pages<<PAGE_SHIFT,
339 PTRS_PER_PTE<<PAGE_SHIFT) >> PAGE_SHIFT;
340 kva_target_pfn -= PTRS_PER_PTE;
341 } while (kva_start_pfn == -1UL && kva_target_pfn > min_low_pfn);
335 342
336#ifdef CONFIG_BLK_DEV_INITRD 343 if (kva_start_pfn == -1UL)
337 /* Numa kva area is below the initrd */ 344 panic("Can not get kva space\n");
338 if (initrd_start)
339 kva_start_pfn = PFN_DOWN(initrd_start - PAGE_OFFSET)
340 - kva_pages;
341#endif
342 345
343 /* 346 printk(KERN_INFO "kva_start_pfn ~ %lx max_low_pfn ~ %lx\n",
344 * We waste pages past at the end of the KVA for no good reason other
345 * than how it is located. This is bad.
346 */
347 wasted_pages = kva_start_pfn & (PTRS_PER_PTE-1);
348 kva_start_pfn -= wasted_pages;
349 kva_pages += wasted_pages;
350
351 system_max_low_pfn = max_low_pfn = find_max_low_pfn();
352 printk("kva_start_pfn ~ %ld find_max_low_pfn() ~ %ld\n",
353 kva_start_pfn, max_low_pfn); 347 kva_start_pfn, max_low_pfn);
354 printk("max_pfn = %ld\n", max_pfn); 348 printk(KERN_INFO "max_pfn = %lx\n", max_pfn);
349
350 /* avoid clash with initrd */
351 reserve_early(kva_start_pfn<<PAGE_SHIFT,
352 (kva_start_pfn + kva_pages)<<PAGE_SHIFT,
353 "KVA PG");
355#ifdef CONFIG_HIGHMEM 354#ifdef CONFIG_HIGHMEM
356 highstart_pfn = highend_pfn = max_pfn; 355 highstart_pfn = highend_pfn = max_pfn;
357 if (max_pfn > system_max_low_pfn) 356 if (max_pfn > max_low_pfn)
358 highstart_pfn = system_max_low_pfn; 357 highstart_pfn = max_low_pfn;
359 printk(KERN_NOTICE "%ldMB HIGHMEM available.\n", 358 printk(KERN_NOTICE "%ldMB HIGHMEM available.\n",
360 pages_to_mb(highend_pfn - highstart_pfn)); 359 pages_to_mb(highend_pfn - highstart_pfn));
361 num_physpages = highend_pfn; 360 num_physpages = highend_pfn;
362 high_memory = (void *) __va(highstart_pfn * PAGE_SIZE - 1) + 1; 361 high_memory = (void *) __va(highstart_pfn * PAGE_SIZE - 1) + 1;
363#else 362#else
364 num_physpages = system_max_low_pfn; 363 num_physpages = max_low_pfn;
365 high_memory = (void *) __va(system_max_low_pfn * PAGE_SIZE - 1) + 1; 364 high_memory = (void *) __va(max_low_pfn * PAGE_SIZE - 1) + 1;
366#endif 365#endif
367 printk(KERN_NOTICE "%ldMB LOWMEM available.\n", 366 printk(KERN_NOTICE "%ldMB LOWMEM available.\n",
368 pages_to_mb(system_max_low_pfn)); 367 pages_to_mb(max_low_pfn));
369 printk("min_low_pfn = %ld, max_low_pfn = %ld, highstart_pfn = %ld\n", 368 printk(KERN_DEBUG "max_low_pfn = %lx, highstart_pfn = %lx\n",
370 min_low_pfn, max_low_pfn, highstart_pfn); 369 max_low_pfn, highstart_pfn);
371 370
372 printk("Low memory ends at vaddr %08lx\n", 371 printk(KERN_DEBUG "Low memory ends at vaddr %08lx\n",
373 (ulong) pfn_to_kaddr(max_low_pfn)); 372 (ulong) pfn_to_kaddr(max_low_pfn));
374 for_each_online_node(nid) { 373 for_each_online_node(nid) {
375 init_remap_allocator(nid); 374 init_remap_allocator(nid);
376 375
377 allocate_pgdat(nid); 376 allocate_pgdat(nid);
378 } 377 }
379 printk("High memory starts at vaddr %08lx\n", 378 remap_numa_kva();
379
380 printk(KERN_DEBUG "High memory starts at vaddr %08lx\n",
380 (ulong) pfn_to_kaddr(highstart_pfn)); 381 (ulong) pfn_to_kaddr(highstart_pfn));
381 for_each_online_node(nid) 382 for_each_online_node(nid)
382 propagate_e820_map_node(nid); 383 propagate_e820_map_node(nid);
383 384
384 memset(NODE_DATA(0), 0, sizeof(struct pglist_data)); 385 for_each_online_node(nid)
386 memset(NODE_DATA(nid), 0, sizeof(struct pglist_data));
387
385 NODE_DATA(0)->bdata = &node0_bdata; 388 NODE_DATA(0)->bdata = &node0_bdata;
386 setup_bootmem_allocator(); 389 setup_bootmem_allocator();
387 return max_low_pfn;
388}
389
390void __init numa_kva_reserve(void)
391{
392 if (kva_pages)
393 reserve_bootmem(PFN_PHYS(kva_start_pfn), PFN_PHYS(kva_pages),
394 BOOTMEM_DEFAULT);
395} 390}
396 391
397void __init zone_sizes_init(void) 392void __init set_highmem_pages_init(void)
398{
399 int nid;
400 unsigned long max_zone_pfns[MAX_NR_ZONES];
401 memset(max_zone_pfns, 0, sizeof(max_zone_pfns));
402 max_zone_pfns[ZONE_DMA] =
403 virt_to_phys((char *)MAX_DMA_ADDRESS) >> PAGE_SHIFT;
404 max_zone_pfns[ZONE_NORMAL] = max_low_pfn;
405#ifdef CONFIG_HIGHMEM
406 max_zone_pfns[ZONE_HIGHMEM] = highend_pfn;
407#endif
408
409 /* If SRAT has not registered memory, register it now */
410 if (find_max_pfn_with_active_regions() == 0) {
411 for_each_online_node(nid) {
412 if (node_has_online_mem(nid))
413 add_active_range(nid, node_start_pfn[nid],
414 node_end_pfn[nid]);
415 }
416 }
417
418 free_area_init_nodes(max_zone_pfns);
419 return;
420}
421
422void __init set_highmem_pages_init(int bad_ppro)
423{ 393{
424#ifdef CONFIG_HIGHMEM 394#ifdef CONFIG_HIGHMEM
425 struct zone *zone; 395 struct zone *zone;
426 struct page *page; 396 int nid;
427 397
428 for_each_zone(zone) { 398 for_each_zone(zone) {
429 unsigned long node_pfn, zone_start_pfn, zone_end_pfn; 399 unsigned long zone_start_pfn, zone_end_pfn;
430 400
431 if (!is_highmem(zone)) 401 if (!is_highmem(zone))
432 continue; 402 continue;
@@ -434,16 +404,12 @@ void __init set_highmem_pages_init(int bad_ppro)
434 zone_start_pfn = zone->zone_start_pfn; 404 zone_start_pfn = zone->zone_start_pfn;
435 zone_end_pfn = zone_start_pfn + zone->spanned_pages; 405 zone_end_pfn = zone_start_pfn + zone->spanned_pages;
436 406
437 printk("Initializing %s for node %d (%08lx:%08lx)\n", 407 nid = zone_to_nid(zone);
438 zone->name, zone_to_nid(zone), 408 printk(KERN_INFO "Initializing %s for node %d (%08lx:%08lx)\n",
439 zone_start_pfn, zone_end_pfn); 409 zone->name, nid, zone_start_pfn, zone_end_pfn);
440 410
441 for (node_pfn = zone_start_pfn; node_pfn < zone_end_pfn; node_pfn++) { 411 add_highpages_with_active_regions(nid, zone_start_pfn,
442 if (!pfn_valid(node_pfn)) 412 zone_end_pfn);
443 continue;
444 page = pfn_to_page(node_pfn);
445 add_one_highpage_init(page, node_pfn, bad_ppro);
446 }
447 } 413 }
448 totalram_pages += totalhigh_pages; 414 totalram_pages += totalhigh_pages;
449#endif 415#endif
@@ -476,3 +442,4 @@ int memory_add_physaddr_to_nid(u64 addr)
476 442
477EXPORT_SYMBOL_GPL(memory_add_physaddr_to_nid); 443EXPORT_SYMBOL_GPL(memory_add_physaddr_to_nid);
478#endif 444#endif
445