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	The LITMUS^RT kernel.	Bjoern Brandenburg

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path: root/fs/xfs/xfs_btree.c

blob: aeb87ca69fcc2e12e3042d21994b3ddbdd41fe75 (plain) (blame)

/* * Copyright (c) 2000-2002,2005 Silicon Graphics, Inc. * All Rights Reserved. * * This program is free software; you can redistribute it and/or * modify it under the terms of the GNU General Public License as * published by the Free Software Foundation. * * This program is distributed in the hope that it would be useful, * but WITHOUT ANY WARRANTY; without even the implied warranty of * MERCHANTABILITY or FITNESS FOR A PARTICULAR PURPOSE. See the * GNU General Public License for more details. * * You should have received a copy of the GNU General Public License * along with this program; if not, write the Free Software Foundation, * Inc., 51 Franklin St, Fifth Floor, Boston, MA 02110-1301 USA */ #include "xfs.h" #include "xfs_fs.h" #include "xfs_types.h" #include "xfs_bit.h" #include "xfs_log.h" #include "xfs_inum.h" #include "xfs_trans.h" #include "xfs_sb.h" #include "xfs_ag.h" #include "xfs_dir2.h" #include "xfs_dmapi.h" #include "xfs_mount.h" #include "xfs_bmap_btree.h" #include "xfs_alloc_btree.h" #include "xfs_ialloc_btree.h" #include "xfs_dir2_sf.h" #include "xfs_attr_sf.h" #include "xfs_dinode.h" #include "xfs_inode.h" #include "xfs_btree.h" #include "xfs_ialloc.h" #include "xfs_error.h" /* * Cursor allocation zone. */ kmem_zone_t *xfs_btree_cur_zone; /* * Btree magic numbers. */ const __uint32_t xfs_magics[XFS_BTNUM_MAX] = { XFS_ABTB_MAGIC, XFS_ABTC_MAGIC, XFS_BMAP_MAGIC, XFS_IBT_MAGIC }; /* * Prototypes for internal routines. */ /* * Checking routine: return maxrecs for the block. */ STATIC int /* number of records fitting in block */ xfs_btree_maxrecs( xfs_btree_cur_t *cur, /* btree cursor */ xfs_btree_block_t *block);/* generic btree block pointer */ /* * Internal routines. */ /* * Retrieve the block pointer from the cursor at the given level. * This may be a bmap btree root or from a buffer. */ STATIC xfs_btree_block_t * /* generic btree block pointer */ xfs_btree_get_block( xfs_btree_cur_t *cur, /* btree cursor */ int level, /* level in btree */ struct xfs_buf **bpp); /* buffer containing the block */ /* * Checking routine: return maxrecs for the block. */ STATIC int /* number of records fitting in block */ xfs_btree_maxrecs( xfs_btree_cur_t *cur, /* btree cursor */ xfs_btree_block_t *block) /* generic btree block pointer */ { switch (cur->bc_btnum) { case XFS_BTNUM_BNO: case XFS_BTNUM_CNT: return (int)XFS_ALLOC_BLOCK_MAXRECS( be16_to_cpu(block->bb_h.bb_level), cur); case XFS_BTNUM_BMAP: return (int)XFS_BMAP_BLOCK_IMAXRECS( be16_to_cpu(block->bb_h.bb_level), cur); case XFS_BTNUM_INO: return (int)XFS_INOBT_BLOCK_MAXRECS( be16_to_cpu(block->bb_h.bb_level), cur); default: ASSERT(0); return 0; } } /* * External routines. */ #ifdef DEBUG /* * Debug routine: check that block header is ok. */ void xfs_btree_check_block( xfs_btree_cur_t *cur, /* btree cursor */ xfs_btree_block_t *block, /* generic btree block pointer */ int level, /* level of the btree block */ xfs_buf_t *bp) /* buffer containing block, if any */ { if (XFS_BTREE_LONG_PTRS(cur->bc_btnum)) xfs_btree_check_lblock(cur, (xfs_btree_lblock_t *)block, level, bp); else xfs_btree_check_sblock(cur, (xfs_btree_sblock_t *)block, level, bp); } /* * Debug routine: check that keys are in the right order. */ void xfs_btree_check_key( xfs_btnum_t btnum, /* btree identifier */ void *ak1, /* pointer to left (lower) key */ void *ak2) /* pointer to right (higher) key */ { switch (btnum) { case XFS_BTNUM_BNO: { xfs_alloc_key_t *k1; xfs_alloc_key_t *k2; k1 = ak1; k2 = ak2; ASSERT(be32_to_cpu(k1->ar_startblock) < be32_to_cpu(k2->ar_startblock)); break; } case XFS_BTNUM_CNT: { xfs_alloc_key_t *k1; xfs_alloc_key_t *k2; k1 = ak1; k2 = ak2; ASSERT(be32_to_cpu(k1->ar_blockcount) < be32_to_cpu(k2->ar_blockcount) || (k1->ar_blockcount == k2->ar_blockcount && be32_to_cpu(k1->ar_startblock) < be32_to_cpu(k2->ar_startblock))); break; } case XFS_BTNUM_BMAP: { xfs_bmbt_key_t *k1; xfs_bmbt_key_t *k2; k1 = ak1; k2 = ak2; ASSERT(be64_to_cpu(k1->br_startoff) < be64_to_cpu(k2->br_startoff)); break; } case XFS_BTNUM_INO: { xfs_inobt_key_t *k1; xfs_inobt_key_t *k2; k1 = ak1; k2 = ak2; ASSERT(be32_to_cpu(k1->ir_startino) < be32_to_cpu(k2->ir_startino)); break; } default: ASSERT(0); } } #endif /* DEBUG */ /* * Checking routine: check that long form block header is ok. */ /* ARGSUSED */ int /* error (0 or EFSCORRUPTED) */ xfs_btree_check_lblock( xfs_btree_cur_t *cur, /* btree cursor */ xfs_btree_lblock_t *block, /* btree long form block pointer */ int level, /* level of the btree block */ xfs_buf_t *bp) /* buffer for block, if any */ { int lblock_ok; /* block passes checks */ xfs_mount_t *mp; /* file system mount point */ mp = cur->bc_mp; lblock_ok = be32_to_cpu(block->bb_magic) == xfs_magics[cur->bc_btnum] && be16_to_cpu(block->bb_level) == level && be16_to_cpu(block->bb_numrecs) <= xfs_btree_maxrecs(cur, (xfs_btree_block_t *)block) && block->bb_leftsib && (be64_to_cpu(block->bb_leftsib) == NULLDFSBNO || XFS_FSB_SANITY_CHECK(mp, be64_to_cpu(block->bb_leftsib))) && block->bb_rightsib && (be64_to_cpu(block->bb_rightsib) == NULLDFSBNO || XFS_FSB_SANITY_CHECK(mp, be64_to_cpu(block->bb_rightsib))); if (unlikely(XFS_TEST_ERROR(!lblock_ok, mp, XFS_ERRTAG_BTREE_CHECK_LBLOCK, XFS_RANDOM_BTREE_CHECK_LBLOCK))) { if (bp) xfs_buftrace("LBTREE ERROR", bp); XFS_ERROR_REPORT("xfs_btree_check_lblock", XFS_ERRLEVEL_LOW, mp); return XFS_ERROR(EFSCORRUPTED); } return 0; } /* * Checking routine: check that (long) pointer is ok. */ int /* error (0 or EFSCORRUPTED) */ xfs_btree_check_lptr( xfs_btree_cur_t *cur, /* btree cursor */ xfs_dfsbno_t ptr, /* btree block disk address */ int level) /* btree block level */ { xfs_mount_t *mp; /* file system mount point */ mp = cur->bc_mp; XFS_WANT_CORRUPTED_RETURN( level > 0 && ptr != NULLDFSBNO && XFS_FSB_SANITY_CHECK(mp, ptr)); return 0; } #ifdef DEBUG /* * Debug routine: check that records are in the right order. */ void xfs_btree_check_rec( xfs_btnum_t btnum, /* btree identifier */ void *ar1, /* pointer to left (lower) record */ void *ar2) /* pointer to right (higher) record */ { switch (btnum) { case XFS_BTNUM_BNO: { xfs_alloc_rec_t *r1; xfs_alloc_rec_t *r2; r1 = ar1; r2 = ar2; ASSERT(be32_to_cpu(r1->ar_startblock) + be32_to_cpu(r1->ar_blockcount) <= be32_to_cpu(r2->ar_startblock)); break; } case XFS_BTNUM_CNT: { xfs_alloc_rec_t *r1; xfs_alloc_rec_t *r2; r1 = ar1; r2 = ar2; ASSERT(be32_to_cpu(r1->ar_blockcount) < be32_to_cpu(r2->ar_blockcount) || (r1->ar_blockcount == r2->ar_blockcount && be32_to_cpu(r1->ar_startblock) < be32_to_cpu(r2->ar_startblock))); break; } case XFS_BTNUM_BMAP: { xfs_bmbt_rec_t *r1; xfs_bmbt_rec_t *r2; r1 = ar1; r2 = ar2; ASSERT(xfs_bmbt_disk_get_startoff(r1) + xfs_bmbt_disk_get_blockcount(r1) <= xfs_bmbt_disk_get_startoff(r2)); break; } case XFS_BTNUM_INO: { xfs_inobt_rec_t *r1; xfs_inobt_rec_t *r2; r1 = ar1; r2 = ar2; ASSERT(be32_to_cpu(r1->ir_startino) + XFS_INODES_PER_CHUNK <= be32_to_cpu(r2->ir_startino)); break; } default: ASSERT(0); } } #endif /* DEBUG */ /* * Checking routine: check that block header is ok. */ /* ARGSUSED */ int /* error (0 or EFSCORRUPTED) */ xfs_btree_check_sblock( xfs_btree_cur_t *cur, /* btree cursor */ xfs_btree_sblock_t *block, /* btree short form block pointer */ int level, /* level of the btree block */ xfs_buf_t *bp) /* buffer containing block */ { xfs_buf_t *agbp; /* buffer for ag. freespace struct */ xfs_agf_t *agf; /* ag. freespace structure */ xfs_agblock_t agflen; /* native ag. freespace length */ int sblock_ok; /* block passes checks */ agbp = cur->bc_private.a.agbp; agf = XFS_BUF_TO_AGF(agbp); agflen = be32_to_cpu(agf->agf_length); sblock_ok = be32_to_cpu(block->bb_magic) == xfs_magics[cur->bc_btnum] && be16_to_cpu(block->bb_level) == level && be16_to_cpu(block->bb_numrecs) <= xfs_btree_maxrecs(cur, (xfs_btree_block_t *)block) && (be32_to_cpu(block->bb_leftsib) == NULLAGBLOCK || be32_to_cpu(block->bb_leftsib) < agflen) && block->bb_leftsib && (be32_to_cpu(block->bb_rightsib) == NULLAGBLOCK || be32_to_cpu(block->bb_rightsib) < agflen) && block->bb_rightsib; if (unlikely(XFS_TEST_ERROR(!sblock_ok, cur->bc_mp, XFS_ERRTAG_BTREE_CHECK_SBLOCK, XFS_RANDOM_BTREE_CHECK_SBLOCK))) { if (bp) xfs_buftrace("SBTREE ERROR", bp); XFS_ERROR_REPORT("xfs_btree_check_sblock", XFS_ERRLEVEL_LOW, cur->bc_mp); return XFS_ERROR(EFSCORRUPTED); } return 0; } /* * Checking routine: check that (short) pointer is ok. */ int /* error (0 or EFSCORRUPTED) */ xfs_btree_check_sptr( xfs_btree_cur_t *cur, /* btree cursor */ xfs_agblock_t ptr, /* btree block disk address */ int level) /* btree block level */ { xfs_buf_t *agbp; /* buffer for ag. freespace struct */ xfs_agf_t *agf; /* ag. freespace structure */ agbp = cur->bc_private.a.agbp; agf = XFS_BUF_TO_AGF(agbp); XFS_WANT_CORRUPTED_RETURN( level > 0 && ptr != NULLAGBLOCK && ptr != 0 && ptr < be32_to_cpu(agf->agf_length)); return 0; } /* * Delete the btree cursor. */ void xfs_btree_del_cursor( xfs_btree_cur_t *cur, /* btree cursor */ int error) /* del because of error */ { int i; /* btree level */ /* * Clear the buffer pointers, and release the buffers. * If we're doing this in the face of an error, we * need to make sure to inspect all of the entries * in the bc_bufs array for buffers to be unlocked. * This is because some of the btree code works from * level n down to 0, and if we get an error along * the way we won't have initialized all the entries * down to 0. */ for (i = 0; i < cur->bc_nlevels; i++) { if (cur->bc_bufs[i]) xfs_btree_setbuf(cur, i, NULL); else if (!error) break; } /* * Can't free a bmap cursor without having dealt with the * allocated indirect blocks' accounting. */ ASSERT(cur->bc_btnum != XFS_BTNUM_BMAP || cur->bc_private.b.allocated == 0); /* * Free the cursor. */ kmem_zone_free(xfs_btree_cur_zone, cur); } /* * Duplicate the btree cursor. * Allocate a new one, copy the record, re-get the buffers. */ int /* error */ xfs_btree_dup_cursor( xfs_btree_cur_t *cur, /* input cursor */ xfs_btree_cur_t **ncur) /* output cursor */ { xfs_buf_t *bp; /* btree block's buffer pointer */ int error; /* error return value */ int i; /* level number of btree block */ xfs_mount_t *mp; /* mount structure for filesystem */ xfs_btree_cur_t *new; /* new cursor value */ xfs_trans_t *tp; /* transaction pointer, can be NULL */ tp = cur->bc_tp; mp = cur->bc_mp; /* * Allocate a new cursor like the old one. */ new = xfs_btree_init_cursor(mp, tp, cur->bc_private.a.agbp, cur->bc_private.a.agno, cur->bc_btnum, cur->bc_private.b.ip, cur->bc_private.b.whichfork); /* * Copy the record currently in the cursor. */ new->bc_rec = cur->bc_rec; /* * For each level current, re-get the buffer and copy the ptr value. */ for (i = 0; i < new->bc_nlevels; i++) { new->bc_ptrs[i] = cur->bc_ptrs[i]; new->bc_ra[i] = cur->bc_ra[i]; if ((bp = cur->bc_bufs[i])) { if ((error = xfs_trans_read_buf(mp, tp, mp->m_ddev_targp, XFS_BUF_ADDR(bp), mp->m_bsize, 0, &bp))) { xfs_btree_del_cursor(new, error); *ncur = NULL; return error; } new->bc_bufs[i] = bp; ASSERT(bp); ASSERT(!XFS_BUF_GETERROR(bp)); } else new->bc_bufs[i] = NULL; } /* * For bmap btrees, copy the firstblock, flist, and flags values, * since init cursor doesn't get them. */ if (new->bc_btnum == XFS_BTNUM_BMAP) { new->bc_private.b.firstblock = cur->bc_private.b.firstblock; new->bc_private.b.flist = cur->bc_private.b.flist; new->bc_private.b.flags = cur->bc_private.b.flags; } *ncur = new; return 0; } /* * Change the cursor to point to the first record at the given level. * Other levels are unaffected. */ int /* success=1, failure=0 */ xfs_btree_firstrec( xfs_btree_cur_t *cur, /* btree cursor */ int level) /* level to change */ { xfs_btree_block_t *block; /* generic btree block pointer */ xfs_buf_t *bp; /* buffer containing block */ /* * Get the block pointer for this level. */ block = xfs_btree_get_block(cur, level, &bp); xfs_btree_check_block(cur, block, level, bp); /* * It's empty, there is no such record. */ if (!block->bb_h.bb_numrecs) return 0; /* * Set the ptr value to 1, that's the first record/key. */ cur->bc_ptrs[level] = 1; return 1; } /* * Retrieve the block pointer from the cursor at the given level. * This may be a bmap btree root or from a buffer. */ STATIC xfs_btree_block_t * /* generic btree block pointer */ xfs_btree_get_block( xfs_btree_cur_t *cur, /* btree cursor */ int level, /* level in btree */ xfs_buf_t **bpp) /* buffer containing the block */ { xfs_btree_block_t *block; /* return value */ xfs_buf_t *bp; /* return buffer */ xfs_ifork_t *ifp; /* inode fork pointer */ int whichfork; /* data or attr fork */ if (cur->bc_btnum == XFS_BTNUM_BMAP && level == cur->bc_nlevels - 1) { whichfork = cur->bc_private.b.whichfork; ifp = XFS_IFORK_PTR(cur->bc_private.b.ip, whichfork); block = (xfs_btree_block_t *)ifp->if_broot; bp = NULL; } else { bp = cur->bc_bufs[level]; block = XFS_BUF_TO_BLOCK(bp); } ASSERT(block != NULL); *bpp = bp; return block; } /* * Get a buffer for the block, return it with no data read. * Long-form addressing. */ xfs_buf_t * /* buffer for fsbno */ xfs_btree_get_bufl( xfs_mount_t *mp, /* file system mount point */ xfs_trans_t *tp, /* transaction pointer */ xfs_fsblock_t fsbno, /* file system block number */ uint lock) /* lock flags for get_buf */ { xfs_buf_t *bp; /* buffer pointer (return value) */ xfs_daddr_t d; /* real disk block address */ ASSERT(fsbno != NULLFSBLOCK); d = XFS_FSB_TO_DADDR(mp, fsbno); bp = xfs_trans_get_buf(tp, mp->m_ddev_targp, d, mp->m_bsize, lock); ASSERT(bp); ASSERT(!XFS_BUF_GETERROR(bp)); return bp; } /* * Get a buffer for the block, return it with no data read. * Short-form addressing. */ xfs_buf_t * /* buffer for agno/agbno */ xfs_btree_get_bufs( xfs_mount_t *mp, /* file system mount point */ xfs_trans_t *tp, /* transaction pointer */ xfs_agnumber_t agno, /* allocation group number */ xfs_agblock_t agbno, /* allocation group block number */ uint lock) /* lock flags for get_buf */ { xfs_buf_t *bp; /* buffer pointer (return value) */ xfs_daddr_t d; /* real disk block address */ ASSERT(agno != NULLAGNUMBER); ASSERT(agbno != NULLAGBLOCK); d = XFS_AGB_TO_DADDR(mp, agno, agbno); bp = xfs_trans_get_buf(tp, mp->m_ddev_targp, d, mp->m_bsize, lock); ASSERT(bp); ASSERT(!XFS_BUF_GETERROR(bp)); return bp; } /* * Allocate a new btree cursor. * The cursor is either for allocation (A) or bmap (B) or inodes (I). */ xfs_btree_cur_t * /* new btree cursor */ xfs_btree_init_cursor( xfs_mount_t *mp, /* file system mount point */ xfs_trans_t *tp, /* transaction pointer */ xfs_buf_t *agbp, /* (A only) buffer for agf structure */ /* (I only) buffer for agi structure */ xfs_agnumber_t agno, /* (AI only) allocation group number */ xfs_btnum_t btnum, /* btree identifier */ xfs_inode_t *ip, /* (B only) inode owning the btree */ int whichfork) /* (B only) data or attr fork */ { xfs_agf_t *agf; /* (A) allocation group freespace */ xfs_agi_t *agi; /* (I) allocation group inodespace */ xfs_btree_cur_t *cur; /* return value */ xfs_ifork_t *ifp; /* (I) inode fork pointer */ int nlevels=0; /* number of levels in the btree */ ASSERT(xfs_btree_cur_zone != NULL); /* * Allocate a new cursor. */ cur = kmem_zone_zalloc(xfs_btree_cur_zone, KM_SLEEP); /* * Deduce the number of btree levels from the arguments. */ switch (btnum) { case XFS_BTNUM_BNO: case XFS_BTNUM_CNT: agf = XFS_BUF_TO_AGF(agbp); nlevels = be32_to_cpu(agf->agf_levels[btnum]); break; case XFS_BTNUM_BMAP: ifp = XFS_IFORK_PTR(ip, whichfork); nlevels = be16_to_cpu(ifp->if_broot->bb_level) + 1; break; case XFS_BTNUM_INO: agi = XFS_BUF_TO_AGI(agbp); nlevels = be32_to_cpu(agi->agi_level); break; default: ASSERT(0); } /* * Fill in the common fields. */ cur->bc_tp = tp; cur->bc_mp = mp; cur->bc_nlevels = nlevels; cur->bc_btnum = btnum; cur->bc_blocklog = mp->m_sb.sb_blocklog; /* * Fill in private fields. */ switch (btnum) { case XFS_BTNUM_BNO: case XFS_BTNUM_CNT: /* * Allocation btree fields. */ cur->bc_private.a.agbp = agbp; cur->bc_private.a.agno = agno; break; case XFS_BTNUM_BMAP: /* * Bmap btree fields. */ cur->bc_private.b.forksize = XFS_IFORK_SIZE(ip, whichfork); cur->bc_private.b.ip = ip; cur->bc_private.b.firstblock = NULLFSBLOCK; cur->bc_private.b.flist = NULL; cur->bc_private.b.allocated = 0; cur->bc_private.b.flags = 0; cur->bc_private.b.whichfork = whichfork; break; case XFS_BTNUM_INO: /* * Inode allocation btree fields. */ cur->bc_private.i.agbp = agbp; cur->bc_private.i.agno = agno; break; default: ASSERT(0); } return cur; } /* * Check for the cursor referring to the last block at the given level. */ int /* 1=is last block, 0=not last block */ xfs_btree_islastblock( xfs_btree_cur_t *cur, /* btree cursor */ int level) /* level to check */ { xfs_btree_block_t *block; /* generic btree block pointer */ xfs_buf_t *bp; /* buffer containing block */ block = xfs_btree_get_block(cur, level, &bp); xfs_btree_check_block(cur, block, level, bp); if (XFS_BTREE_LONG_PTRS(cur->bc_btnum)) return be64_to_cpu(block->bb_u.l.bb_rightsib) == NULLDFSBNO; else return be32_to_cpu(block->bb_u.s.bb_rightsib) == NULLAGBLOCK; } /* * Change the cursor to point to the last record in the current block * at the given level. Other levels are unaffected. */ int /* success=1, failure=0 */ xfs_btree_lastrec( xfs_btree_cur_t *cur, /* btree cursor */ int level) /* level to change */ { xfs_btree_block_t *block; /* generic btree block pointer */ xfs_buf_t *bp; /* buffer containing block */ /* * Get the block pointer for this level. */ block = xfs_btree_get_block(cur, level, &bp); xfs_btree_check_block(cur, block, level, bp); /* * It's empty, there is no such record. */ if (!block->bb_h.bb_numrecs) return 0; /* * Set the ptr value to numrecs, that's the last record/key. */ cur->bc_ptrs[level] = be16_to_cpu(block->bb_h.bb_numrecs); return 1; } /* * Compute first and last byte offsets for the fields given. * Interprets the offsets table, which contains struct field offsets. */ void xfs_btree_offsets( __int64_t fields, /* bitmask of fields */ const short *offsets, /* table of field offsets */ int nbits, /* number of bits to inspect */ int *first, /* output: first byte offset */ int *last) /* output: last byte offset */ { int i; /* current bit number */ __int64_t imask; /* mask for current bit number */ ASSERT(fields != 0); /* * Find the lowest bit, so the first byte offset. */ for (i = 0, imask = 1LL; ; i++, imask <<= 1) { if (imask & fields) { *first = offsets[i]; break; } } /* * Find the highest bit, so the last byte offset. */ for (i = nbits - 1, imask = 1LL << i; ; i--, imask >>= 1) { if (imask & fields) { *last = offsets[i + 1] - 1; break; } } } /* * Get a buffer for the block, return it read in. * Long-form addressing. */ int /* error */ xfs_btree_read_bufl( xfs_mount_t *mp, /* file system mount point */ xfs_trans_t *tp, /* transaction pointer */ xfs_fsblock_t fsbno, /* file system block number */ uint lock, /* lock flags for read_buf */ xfs_buf_t **bpp, /* buffer for fsbno */ int refval) /* ref count value for buffer */ { xfs_buf_t *bp; /* return value */ xfs_daddr_t d; /* real disk block address */ int error; ASSERT(fsbno != NULLFSBLOCK); d = XFS_FSB_TO_DADDR(mp, fsbno); if ((error = xfs_trans_read_buf(mp, tp, mp->m_ddev_targp, d, mp->m_bsize, lock, &bp))) { return error; } ASSERT(!bp || !XFS_BUF_GETERROR(bp)); if (bp != NULL) { XFS_BUF_SET_VTYPE_REF(bp, B_FS_MAP, refval); } *bpp = bp; return 0; } /* * Get a buffer for the block, return it read in. * Short-form addressing. */ int /* error */ xfs_btree_read_bufs( xfs_mount_t *mp, /* file system mount point */ xfs_trans_t *tp, /* transaction pointer */ xfs_agnumber_t agno, /* allocation group number */ xfs_agblock_t agbno, /* allocation group block number */ uint lock, /* lock flags for read_buf */ xfs_buf_t **bpp, /* buffer for agno/agbno */ int refval) /* ref count value for buffer */ { xfs_buf_t *bp; /* return value */ xfs_daddr_t d; /* real disk block address */ int error; ASSERT(agno != NULLAGNUMBER); ASSERT(agbno != NULLAGBLOCK); d = XFS_AGB_TO_DADDR(mp, agno, agbno); if ((error = xfs_trans_read_buf(mp, tp, mp->m_ddev_targp, d, mp->m_bsize, lock, &bp))) { return error; } ASSERT(!bp || !XFS_BUF_GETERROR(bp)); if (bp != NULL) { switch (refval) { case XFS_ALLOC_BTREE_REF: XFS_BUF_SET_VTYPE_REF(bp, B_FS_MAP, refval); break; case XFS_INO_BTREE_REF: XFS_BUF_SET_VTYPE_REF(bp, B_FS_INOMAP, refval); break; } } *bpp = bp; return 0; } /* * Read-ahead the block, don't wait for it, don't return a buffer. * Long-form addressing. */ /* ARGSUSED */ void xfs_btree_reada_bufl( xfs_mount_t *mp, /* file system mount point */ xfs_fsblock_t fsbno, /* file system block number */ xfs_extlen_t count) /* count of filesystem blocks */ { xfs_daddr_t d; ASSERT(fsbno != NULLFSBLOCK); d = XFS_FSB_TO_DADDR(mp, fsbno); xfs_baread(mp->m_ddev_targp, d, mp->m_bsize * count); } /* * Read-ahead the block, don't wait for it, don't return a buffer. * Short-form addressing. */ /* ARGSUSED */ void xfs_btree_reada_bufs( xfs_mount_t *mp, /* file system mount point */ xfs_agnumber_t agno, /* allocation group number */ xfs_agblock_t agbno, /* allocation group block number */ xfs_extlen_t count) /* count of filesystem blocks */ { xfs_daddr_t d; ASSERT(agno != NULLAGNUMBER); ASSERT(agbno != NULLAGBLOCK); d = XFS_AGB_TO_DADDR(mp, agno, agbno); xfs_baread(mp->m_ddev_targp, d, mp->m_bsize * count); } /* * Read-ahead btree blocks, at the given level. * Bits in lr are set from XFS_BTCUR_{LEFT,RIGHT}RA. */ int xfs_btree_readahead_core( xfs_btree_cur_t *cur, /* btree cursor */ int lev, /* level in btree */ int lr) /* left/right bits */ { xfs_alloc_block_t *a; xfs_bmbt_block_t *b; xfs_inobt_block_t *i; int rval = 0; ASSERT(cur->bc_bufs[lev] != NULL); cur->bc_ra[lev] |= lr; switch (cur->bc_btnum) { case XFS_BTNUM_BNO: case XFS_BTNUM_CNT: a = XFS_BUF_TO_ALLOC_BLOCK(cur->bc_bufs[lev]); if ((lr & XFS_BTCUR_LEFTRA) && be32_to_cpu(a->bb_leftsib) != NULLAGBLOCK) { xfs_btree_reada_bufs(cur->bc_mp, cur->bc_private.a.agno, be32_to_cpu(a->bb_leftsib), 1); rval++; } if ((lr & XFS_BTCUR_RIGHTRA) && be32_to_cpu(a->bb_rightsib) != NULLAGBLOCK) { xfs_btree_reada_bufs(cur->bc_mp, cur->bc_private.a.agno, be32_to_cpu(a->bb_rightsib), 1); rval++; } break; case XFS_BTNUM_BMAP: b = XFS_BUF_TO_BMBT_BLOCK(cur->bc_bufs[lev]); if ((lr & XFS_BTCUR_LEFTRA) && be64_to_cpu(b->bb_leftsib) != NULLDFSBNO) { xfs_btree_reada_bufl(cur->bc_mp, be64_to_cpu(b->bb_leftsib), 1); rval++; } if ((lr & XFS_BTCUR_RIGHTRA) && be64_to_cpu(b->bb_rightsib) != NULLDFSBNO) { xfs_btree_reada_bufl(cur->bc_mp, be64_to_cpu(b->bb_rightsib), 1); rval++; } break; case XFS_BTNUM_INO: i = XFS_BUF_TO_INOBT_BLOCK(cur->bc_bufs[lev]); if ((lr & XFS_BTCUR_LEFTRA) && be32_to_cpu(i->bb_leftsib) != NULLAGBLOCK) { xfs_btree_reada_bufs(cur->bc_mp, cur->bc_private.i.agno, be32_to_cpu(i->bb_leftsib), 1); rval++; } if ((lr & XFS_BTCUR_RIGHTRA) && be32_to_cpu(i->bb_rightsib) != NULLAGBLOCK) { xfs_btree_reada_bufs(cur->bc_mp, cur->bc_private.i.agno, be32_to_cpu(i->bb_rightsib), 1); rval++; } break; default: ASSERT(0); } return rval; } /* * Set the buffer for level "lev" in the cursor to bp, releasing * any previous buffer. */ void xfs_btree_setbuf( xfs_btree_cur_t *cur, /* btree cursor */ int lev, /* level in btree */ xfs_buf_t *bp) /* new buffer to set */ { xfs_btree_block_t *b; /* btree block */ xfs_buf_t *obp; /* old buffer pointer */ obp = cur->bc_bufs[lev]; if (obp) xfs_trans_brelse(cur->bc_tp, obp); cur->bc_bufs[lev] = bp; cur->bc_ra[lev] = 0; if (!bp) return; b = XFS_BUF_TO_BLOCK(bp); if (XFS_BTREE_LONG_PTRS(cur->bc_btnum)) { if (be64_to_cpu(b->bb_u.l.bb_leftsib) == NULLDFSBNO) cur->bc_ra[lev] |= XFS_BTCUR_LEFTRA; if (be64_to_cpu(b->bb_u.l.bb_rightsib) == NULLDFSBNO) cur->bc_ra[lev] |= XFS_BTCUR_RIGHTRA; } else { if (be32_to_cpu(b->bb_u.s.bb_leftsib) == NULLAGBLOCK) cur->bc_ra[lev] |= XFS_BTCUR_LEFTRA; if (be32_to_cpu(b->bb_u.s.bb_rightsib) == NULLAGBLOCK) cur->bc_ra[lev] |= XFS_BTCUR_RIGHTRA; } }

generated by cgit v1.2.2 (git 2.25.0) at 2025-03-07 08:18:57 -0500

/* bnx2x_reg.h: Broadcom Everest network driver.
 *
 * Copyright (c) 2007-2008 Broadcom Corporation
 *
 * This program is free software; you can redistribute it and/or modify
 * it under the terms of the GNU General Public License as published by
 * the Free Software Foundation.
 *
 * The registers description starts with the regsister Access type followed
 * by size in bits. For example [RW 32]. The access types are:
 * R  - Read only
 * RC - Clear on read
 * RW - Read/Write
 * ST - Statistics register (clear on read)
 * W  - Write only
 * WB - Wide bus register - the size is over 32 bits and it should be
 *      read/write in consecutive 32 bits accesses
 * WR - Write Clear (write 1 to clear the bit)
 *
 */


/* [R 19] Interrupt register #0 read */
#define BRB1_REG_BRB1_INT_STS					 0x6011c
/* [RW 4] Parity mask register #0 read/write */
#define BRB1_REG_BRB1_PRTY_MASK 				 0x60138
/* [R 4] Parity register #0 read */
#define BRB1_REG_BRB1_PRTY_STS					 0x6012c
/* [RW 10] At address BRB1_IND_FREE_LIST_PRS_CRDT initialize free head. At
   address BRB1_IND_FREE_LIST_PRS_CRDT+1 initialize free tail. At address
   BRB1_IND_FREE_LIST_PRS_CRDT+2 initialize parser initial credit. */
#define BRB1_REG_FREE_LIST_PRS_CRDT				 0x60200
/* [RW 23] LL RAM data. */
#define BRB1_REG_LL_RAM 					 0x61000
/* [R 24] The number of full blocks. */
#define BRB1_REG_NUM_OF_FULL_BLOCKS				 0x60090
/* [ST 32] The number of cycles that the write_full signal towards MAC #0
   was asserted. */
#define BRB1_REG_NUM_OF_FULL_CYCLES_0				 0x600c8
#define BRB1_REG_NUM_OF_FULL_CYCLES_1				 0x600cc
#define BRB1_REG_NUM_OF_FULL_CYCLES_2				 0x600d0
#define BRB1_REG_NUM_OF_FULL_CYCLES_3				 0x600d4
#define BRB1_REG_NUM_OF_FULL_CYCLES_4				 0x600d8
/* [ST 32] The number of cycles that the pause signal towards MAC #0 was
   asserted. */
#define BRB1_REG_NUM_OF_PAUSE_CYCLES_0				 0x600b8
#define BRB1_REG_NUM_OF_PAUSE_CYCLES_1				 0x600bc
#define BRB1_REG_NUM_OF_PAUSE_CYCLES_2				 0x600c0
#define BRB1_REG_NUM_OF_PAUSE_CYCLES_3				 0x600c4
/* [RW 10] Write client 0: De-assert pause threshold. */
#define BRB1_REG_PAUSE_HIGH_THRESHOLD_0 			 0x60078
#define BRB1_REG_PAUSE_HIGH_THRESHOLD_1 			 0x6007c
/* [RW 10] Write client 0: Assert pause threshold. */
#define BRB1_REG_PAUSE_LOW_THRESHOLD_0				 0x60068
#define BRB1_REG_PAUSE_LOW_THRESHOLD_1				 0x6006c
/* [RW 1] Reset the design by software. */
#define BRB1_REG_SOFT_RESET					 0x600dc
/* [R 5] Used to read the value of the XX protection CAM occupancy counter. */
#define CCM_REG_CAM_OCCUP					 0xd0188
/* [RW 1] CM - CFC Interface enable. If 0 - the valid input is disregarded;
   acknowledge output is deasserted; all other signals are treated as usual;
   if 1 - normal activity. */
#define CCM_REG_CCM_CFC_IFEN					 0xd003c
/* [RW 1] CM - QM Interface enable. If 0 - the acknowledge input is
   disregarded; valid is deasserted; all other signals are treated as usual;
   if 1 - normal activity. */
#define CCM_REG_CCM_CQM_IFEN					 0xd000c
/* [RW 1] If set the Q index; received from the QM is inserted to event ID.
   Otherwise 0 is inserted. */
#define CCM_REG_CCM_CQM_USE_Q					 0xd00c0
/* [RW 11] Interrupt mask register #0 read/write */
#define CCM_REG_CCM_INT_MASK					 0xd01e4
/* [R 11] Interrupt register #0 read */
#define CCM_REG_CCM_INT_STS					 0xd01d8
/* [RW 3] The size of AG context region 0 in REG-pairs. Designates the MS
   REG-pair number (e.g. if region 0 is 6 REG-pairs; the value should be 5).
   Is used to determine the number of the AG context REG-pairs written back;
   when the input message Reg1WbFlg isn't set. */
#define CCM_REG_CCM_REG0_SZ					 0xd00c4
/* [RW 1] CM - STORM 0 Interface enable. If 0 - the acknowledge input is
   disregarded; valid is deasserted; all other signals are treated as usual;
   if 1 - normal activity. */
#define CCM_REG_CCM_STORM0_IFEN 				 0xd0004
/* [RW 1] CM - STORM 1 Interface enable. If 0 - the acknowledge input is
   disregarded; valid is deasserted; all other signals are treated as usual;
   if 1 - normal activity. */
#define CCM_REG_CCM_STORM1_IFEN 				 0xd0008
/* [RW 1] CDU AG read Interface enable. If 0 - the request input is
   disregarded; valid output is deasserted; all other signals are treated as
   usual; if 1 - normal activity. */
#define CCM_REG_CDU_AG_RD_IFEN					 0xd0030
/* [RW 1] CDU AG write Interface enable. If 0 - the request and valid input
   are disregarded; all other signals are treated as usual; if 1 - normal
   activity. */
#define CCM_REG_CDU_AG_WR_IFEN					 0xd002c
/* [RW 1] CDU STORM read Interface enable. If 0 - the request input is
   disregarded; valid output is deasserted; all other signals are treated as
   usual; if 1 - normal activity. */
#define CCM_REG_CDU_SM_RD_IFEN					 0xd0038
/* [RW 1] CDU STORM write Interface enable. If 0 - the request and valid
   input is disregarded; all other signals are treated as usual; if 1 -
   normal activity. */
#define CCM_REG_CDU_SM_WR_IFEN					 0xd0034
/* [RW 4] CFC output initial credit. Max credit available - 15.Write writes
   the initial credit value; read returns the current value of the credit
   counter. Must be initialized to 1 at start-up. */
#define CCM_REG_CFC_INIT_CRD					 0xd0204
/* [RW 2] Auxillary counter flag Q number 1. */
#define CCM_REG_CNT_AUX1_Q					 0xd00c8
/* [RW 2] Auxillary counter flag Q number 2. */
#define CCM_REG_CNT_AUX2_Q					 0xd00cc
/* [RW 28] The CM header value for QM request (primary). */
#define CCM_REG_CQM_CCM_HDR_P					 0xd008c
/* [RW 28] The CM header value for QM request (secondary). */
#define CCM_REG_CQM_CCM_HDR_S					 0xd0090
/* [RW 1] QM - CM Interface enable. If 0 - the valid input is disregarded;
   acknowledge output is deasserted; all other signals are treated as usual;
   if 1 - normal activity. */
#define CCM_REG_CQM_CCM_IFEN					 0xd0014
/* [RW 6] QM output initial credit. Max credit available - 32. Write writes
   the initial credit value; read returns the current value of the credit
   counter. Must be initialized to 32 at start-up. */
#define CCM_REG_CQM_INIT_CRD					 0xd020c
/* [RW 3] The weight of the QM (primary) input in the WRR mechanism. 0
   stands for weight 8 (the most prioritised); 1 stands for weight 1(least
   prioritised); 2 stands for weight 2; tc. */
#define CCM_REG_CQM_P_WEIGHT					 0xd00b8
/* [RW 1] Input SDM Interface enable. If 0 - the valid input is disregarded;
   acknowledge output is deasserted; all other signals are treated as usual;
   if 1 - normal activity. */
#define CCM_REG_CSDM_IFEN					 0xd0018
/* [RC 1] Set when the message length mismatch (relative to last indication)
   at the SDM interface is detected. */
#define CCM_REG_CSDM_LENGTH_MIS 				 0xd0170
/* [RW 28] The CM header for QM formatting in case of an error in the QM
   inputs. */
#define CCM_REG_ERR_CCM_HDR					 0xd0094
/* [RW 8] The Event ID in case the input message ErrorFlg is set. */
#define CCM_REG_ERR_EVNT_ID					 0xd0098
/* [RW 8] FIC0 output initial credit. Max credit available - 255. Write
   writes the initial credit value; read returns the current value of the
   credit counter. Must be initialized to 64 at start-up. */
#define CCM_REG_FIC0_INIT_CRD					 0xd0210
/* [RW 8] FIC1 output initial credit. Max credit available - 255.Write
   writes the initial credit value; read returns the current value of the
   credit counter. Must be initialized to 64 at start-up. */
#define CCM_REG_FIC1_INIT_CRD					 0xd0214
/* [RW 1] Arbitration between Input Arbiter groups: 0 - fair Round-Robin; 1
   - strict priority defined by ~ccm_registers_gr_ag_pr.gr_ag_pr;
   ~ccm_registers_gr_ld0_pr.gr_ld0_pr and
   ~ccm_registers_gr_ld1_pr.gr_ld1_pr. Groups are according to channels and
   outputs to STORM: aggregation; load FIC0; load FIC1 and store. */
#define CCM_REG_GR_ARB_TYPE					 0xd015c
/* [RW 2] Load (FIC0) channel group priority. The lowest priority is 0; the
   highest priority is 3. It is supposed; that the Store channel priority is
   the compliment to 4 of the rest priorities - Aggregation channel; Load
   (FIC0) channel and Load (FIC1). */
#define CCM_REG_GR_LD0_PR					 0xd0164
/* [RW 2] Load (FIC1) channel group priority. The lowest priority is 0; the
   highest priority is 3. It is supposed; that the Store channel priority is
   the compliment to 4 of the rest priorities - Aggregation channel; Load
   (FIC0) channel and Load (FIC1). */
#define CCM_REG_GR_LD1_PR					 0xd0168
/* [RW 2] General flags index. */
#define CCM_REG_INV_DONE_Q					 0xd0108
/* [RW 4] The number of double REG-pairs(128 bits); loaded from the STORM
   context and sent to STORM; for a specific connection type. The double
   REG-pairs are used in order to align to STORM context row size of 128
   bits. The offset of these data in the STORM context is always 0. Index
   _(0..15) stands for the connection type (one of 16). */
#define CCM_REG_N_SM_CTX_LD_0					 0xd004c
#define CCM_REG_N_SM_CTX_LD_1					 0xd0050
#define CCM_REG_N_SM_CTX_LD_10					 0xd0074
#define CCM_REG_N_SM_CTX_LD_11					 0xd0078
#define CCM_REG_N_SM_CTX_LD_12					 0xd007c
#define CCM_REG_N_SM_CTX_LD_13					 0xd0080
#define CCM_REG_N_SM_CTX_LD_14					 0xd0084
#define CCM_REG_N_SM_CTX_LD_15					 0xd0088
#define CCM_REG_N_SM_CTX_LD_2					 0xd0054
#define CCM_REG_N_SM_CTX_LD_3					 0xd0058
#define CCM_REG_N_SM_CTX_LD_4					 0xd005c
/* [RW 1] Input pbf Interface enable. If 0 - the valid input is disregarded;
   acknowledge output is deasserted; all other signals are treated as usual;
   if 1 - normal activity. */
#define CCM_REG_PBF_IFEN					 0xd0028
/* [RC 1] Set when the message length mismatch (relative to last indication)
   at the pbf interface is detected. */
#define CCM_REG_PBF_LENGTH_MIS					 0xd0180
/* [RW 3] The weight of the input pbf in the WRR mechanism. 0 stands for
   weight 8 (the most prioritised); 1 stands for weight 1(least
   prioritised); 2 stands for weight 2; tc. */
#define CCM_REG_PBF_WEIGHT					 0xd00ac
/* [RW 6] The physical queue number of queue number 1 per port index. */
#define CCM_REG_PHYS_QNUM1_0					 0xd0134
#define CCM_REG_PHYS_QNUM1_1					 0xd0138
/* [RW 6] The physical queue number of queue number 2 per port index. */
#define CCM_REG_PHYS_QNUM2_0					 0xd013c
#define CCM_REG_PHYS_QNUM2_1					 0xd0140
/* [RW 6] The physical queue number of queue number 3 per port index. */
#define CCM_REG_PHYS_QNUM3_0					 0xd0144
/* [RW 6] The physical queue number of queue number 0 with QOS equal 0 port
   index 0. */
#define CCM_REG_QOS_PHYS_QNUM0_0				 0xd0114
#define CCM_REG_QOS_PHYS_QNUM0_1				 0xd0118
/* [RW 6] The physical queue number of queue number 0 with QOS equal 1 port
   index 0. */
#define CCM_REG_QOS_PHYS_QNUM1_0				 0xd011c
#define CCM_REG_QOS_PHYS_QNUM1_1				 0xd0120
/* [RW 6] The physical queue number of queue number 0 with QOS equal 2 port
   index 0. */
#define CCM_REG_QOS_PHYS_QNUM2_0				 0xd0124
/* [RW 1] STORM - CM Interface enable. If 0 - the valid input is
   disregarded; acknowledge output is deasserted; all other signals are
   treated as usual; if 1 - normal activity. */
#define CCM_REG_STORM_CCM_IFEN					 0xd0010
/* [RC 1] Set when the message length mismatch (relative to last indication)
   at the STORM interface is detected. */
#define CCM_REG_STORM_LENGTH_MIS				 0xd016c
/* [RW 1] Input tsem Interface enable. If 0 - the valid input is
   disregarded; acknowledge output is deasserted; all other signals are
   treated as usual; if 1 - normal activity. */
#define CCM_REG_TSEM_IFEN					 0xd001c
/* [RC 1] Set when the message length mismatch (relative to last indication)
   at the tsem interface is detected. */
#define CCM_REG_TSEM_LENGTH_MIS 				 0xd0174
/* [RW 3] The weight of the input tsem in the WRR mechanism. 0 stands for
   weight 8 (the most prioritised); 1 stands for weight 1(least
   prioritised); 2 stands for weight 2; tc. */
#define CCM_REG_TSEM_WEIGHT					 0xd00a0
/* [RW 1] Input usem Interface enable. If 0 - the valid input is
   disregarded; acknowledge output is deasserted; all other signals are
   treated as usual; if 1 - normal activity. */
#define CCM_REG_USEM_IFEN					 0xd0024
/* [RC 1] Set when message length mismatch (relative to last indication) at
   the usem interface is detected. */
#define CCM_REG_USEM_LENGTH_MIS 				 0xd017c
/* [RW 3] The weight of the input usem in the WRR mechanism. 0 stands for
   weight 8 (the most prioritised); 1 stands for weight 1(least
   prioritised); 2 stands for weight 2; tc. */
#define CCM_REG_USEM_WEIGHT					 0xd00a8
/* [RW 1] Input xsem Interface enable. If 0 - the valid input is
   disregarded; acknowledge output is deasserted; all other signals are
   treated as usual; if 1 - normal activity. */
#define CCM_REG_XSEM_IFEN					 0xd0020
/* [RC 1] Set when the message length mismatch (relative to last indication)
   at the xsem interface is detected. */
#define CCM_REG_XSEM_LENGTH_MIS 				 0xd0178
/* [RW 3] The weight of the input xsem in the WRR mechanism. 0 stands for
   weight 8 (the most prioritised); 1 stands for weight 1(least
   prioritised); 2 stands for weight 2; tc. */
#define CCM_REG_XSEM_WEIGHT					 0xd00a4
/* [RW 19] Indirect access to the descriptor table of the XX protection
   mechanism. The fields are: [5:0] - message length; [12:6] - message
   pointer; 18:13] - next pointer. */
#define CCM_REG_XX_DESCR_TABLE					 0xd0300
/* [R 7] Used to read the value of XX protection Free counter. */
#define CCM_REG_XX_FREE 					 0xd0184
/* [RW 6] Initial value for the credit counter; responsible for fulfilling
   of the Input Stage XX protection buffer by the XX protection pending
   messages. Max credit available - 127. Write writes the initial credit
   value; read returns the current value of the credit counter. Must be
   initialized to maximum XX protected message size - 2 at start-up. */
#define CCM_REG_XX_INIT_CRD					 0xd0220
/* [RW 7] The maximum number of pending messages; which may be stored in XX
   protection. At read the ~ccm_registers_xx_free.xx_free counter is read.
   At write comprises the start value of the ~ccm_registers_xx_free.xx_free
   counter. */
#define CCM_REG_XX_MSG_NUM					 0xd0224
/* [RW 8] The Event ID; sent to the STORM in case of XX overflow. */
#define CCM_REG_XX_OVFL_EVNT_ID 				 0xd0044
/* [RW 18] Indirect access to the XX table of the XX protection mechanism.
   The fields are: [5:0] - tail pointer; 11:6] - Link List size; 17:12] -
   header pointer. */
#define CCM_REG_XX_TABLE					 0xd0280
#define CDU_REG_CDU_CHK_MASK0					 0x101000
#define CDU_REG_CDU_CHK_MASK1					 0x101004
#define CDU_REG_CDU_CONTROL0					 0x101008
#define CDU_REG_CDU_DEBUG					 0x101010
#define CDU_REG_CDU_GLOBAL_PARAMS				 0x101020
/* [RW 7] Interrupt mask register #0 read/write */
#define CDU_REG_CDU_INT_MASK					 0x10103c
/* [R 7] Interrupt register #0 read */
#define CDU_REG_CDU_INT_STS					 0x101030
/* [RW 5] Parity mask register #0 read/write */
#define CDU_REG_CDU_PRTY_MASK					 0x10104c
/* [R 5] Parity register #0 read */
#define CDU_REG_CDU_PRTY_STS					 0x101040
/* [RC 32] logging of error data in case of a CDU load error:
   {expected_cid[15:0]; xpected_type[2:0]; xpected_region[2:0]; ctive_error;
   ype_error; ctual_active; ctual_compressed_context}; */
#define CDU_REG_ERROR_DATA					 0x101014
/* [WB 216] L1TT ram access. each entry has the following format :
   {mrege_regions[7:0]; ffset12[5:0]...offset0[5:0];
   ength12[5:0]...length0[5:0]; d12[3:0]...id0[3:0]} */
#define CDU_REG_L1TT						 0x101800
/* [WB 24] MATT ram access. each entry has the following
   format:{RegionLength[11:0]; egionOffset[11:0]} */
#define CDU_REG_MATT						 0x101100
/* [R 1] indication the initializing the activity counter by the hardware
   was done. */
#define CFC_REG_AC_INIT_DONE					 0x104078
/* [RW 13] activity counter ram access */
#define CFC_REG_ACTIVITY_COUNTER				 0x104400
#define CFC_REG_ACTIVITY_COUNTER_SIZE				 256
/* [R 1] indication the initializing the cams by the hardware was done. */
#define CFC_REG_CAM_INIT_DONE					 0x10407c
/* [RW 2] Interrupt mask register #0 read/write */
#define CFC_REG_CFC_INT_MASK					 0x104108
/* [R 2] Interrupt register #0 read */
#define CFC_REG_CFC_INT_STS					 0x1040fc
/* [RC 2] Interrupt register #0 read clear */
#define CFC_REG_CFC_INT_STS_CLR 				 0x104100
/* [RW 4] Parity mask register #0 read/write */
#define CFC_REG_CFC_PRTY_MASK					 0x104118
/* [R 4] Parity register #0 read */
#define CFC_REG_CFC_PRTY_STS					 0x10410c
/* [RW 21] CID cam access (21:1 - Data; alid - 0) */
#define CFC_REG_CID_CAM 					 0x104800
#define CFC_REG_CONTROL0					 0x104028
#define CFC_REG_DEBUG0						 0x104050
/* [RW 14] indicates per error (in #cfc_registers_cfc_error_vector.cfc_error
   vector) whether the cfc should be disabled upon it */
#define CFC_REG_DISABLE_ON_ERROR				 0x104044
/* [RC 14] CFC error vector. when the CFC detects an internal error it will
   set one of these bits. the bit description can be found in CFC
   specifications */
#define CFC_REG_ERROR_VECTOR					 0x10403c
#define CFC_REG_INIT_REG					 0x10404c
/* [RW 24] {weight_load_client7[2:0] to weight_load_client0[2:0]}. this
   field allows changing the priorities of the weighted-round-robin arbiter
   which selects which CFC load client should be served next */
#define CFC_REG_LCREQ_WEIGHTS					 0x104084
/* [R 1] indication the initializing the link list by the hardware was done. */
#define CFC_REG_LL_INIT_DONE					 0x104074
/* [R 9] Number of allocated LCIDs which are at empty state */
#define CFC_REG_NUM_LCIDS_ALLOC 				 0x104020
/* [R 9] Number of Arriving LCIDs in Link List Block */
#define CFC_REG_NUM_LCIDS_ARRIVING				 0x104004
/* [R 9] Number of Inside LCIDs in Link List Block */
#define CFC_REG_NUM_LCIDS_INSIDE				 0x104008
/* [R 9] Number of Leaving LCIDs in Link List Block */
#define CFC_REG_NUM_LCIDS_LEAVING				 0x104018
/* [RW 8] The event id for aggregated interrupt 0 */
#define CSDM_REG_AGG_INT_EVENT_0				 0xc2038
/* [RW 13] The start address in the internal RAM for the cfc_rsp lcid */
#define CSDM_REG_CFC_RSP_START_ADDR				 0xc2008
/* [RW 16] The maximum value of the competion counter #0 */
#define CSDM_REG_CMP_COUNTER_MAX0				 0xc201c
/* [RW 16] The maximum value of the competion counter #1 */
#define CSDM_REG_CMP_COUNTER_MAX1				 0xc2020
/* [RW 16] The maximum value of the competion counter #2 */
#define CSDM_REG_CMP_COUNTER_MAX2				 0xc2024
/* [RW 16] The maximum value of the competion counter #3 */
#define CSDM_REG_CMP_COUNTER_MAX3				 0xc2028
/* [RW 13] The start address in the internal RAM for the completion
   counters. */
#define CSDM_REG_CMP_COUNTER_START_ADDR 			 0xc200c
/* [RW 32] Interrupt mask register #0 read/write */
#define CSDM_REG_CSDM_INT_MASK_0				 0xc229c
#define CSDM_REG_CSDM_INT_MASK_1				 0xc22ac
/* [RW 11] Parity mask register #0 read/write */
#define CSDM_REG_CSDM_PRTY_MASK 				 0xc22bc
/* [R 11] Parity register #0 read */
#define CSDM_REG_CSDM_PRTY_STS					 0xc22b0
#define CSDM_REG_ENABLE_IN1					 0xc2238
#define CSDM_REG_ENABLE_IN2					 0xc223c
#define CSDM_REG_ENABLE_OUT1					 0xc2240
#define CSDM_REG_ENABLE_OUT2					 0xc2244
/* [RW 4] The initial number of messages that can be sent to the pxp control
   interface without receiving any ACK. */
#define CSDM_REG_INIT_CREDIT_PXP_CTRL				 0xc24bc
/* [ST 32] The number of ACK after placement messages received */
#define CSDM_REG_NUM_OF_ACK_AFTER_PLACE 			 0xc227c
/* [ST 32] The number of packet end messages received from the parser */
#define CSDM_REG_NUM_OF_PKT_END_MSG				 0xc2274
/* [ST 32] The number of requests received from the pxp async if */
#define CSDM_REG_NUM_OF_PXP_ASYNC_REQ				 0xc2278
/* [ST 32] The number of commands received in queue 0 */
#define CSDM_REG_NUM_OF_Q0_CMD					 0xc2248
/* [ST 32] The number of commands received in queue 10 */
#define CSDM_REG_NUM_OF_Q10_CMD 				 0xc226c
/* [ST 32] The number of commands received in queue 11 */
#define CSDM_REG_NUM_OF_Q11_CMD 				 0xc2270
/* [ST 32] The number of commands received in queue 1 */
#define CSDM_REG_NUM_OF_Q1_CMD					 0xc224c
/* [ST 32] The number of commands received in queue 3 */
#define CSDM_REG_NUM_OF_Q3_CMD					 0xc2250
/* [ST 32] The number of commands received in queue 4 */
#define CSDM_REG_NUM_OF_Q4_CMD					 0xc2254
/* [ST 32] The number of commands received in queue 5 */
#define CSDM_REG_NUM_OF_Q5_CMD					 0xc2258
/* [ST 32] The number of commands received in queue 6 */
#define CSDM_REG_NUM_OF_Q6_CMD					 0xc225c
/* [ST 32] The number of commands received in queue 7 */
#define CSDM_REG_NUM_OF_Q7_CMD					 0xc2260
/* [ST 32] The number of commands received in queue 8 */
#define CSDM_REG_NUM_OF_Q8_CMD					 0xc2264
/* [ST 32] The number of commands received in queue 9 */
#define CSDM_REG_NUM_OF_Q9_CMD					 0xc2268
/* [RW 13] The start address in the internal RAM for queue counters */
#define CSDM_REG_Q_COUNTER_START_ADDR				 0xc2010
/* [R 1] pxp_ctrl rd_data fifo empty in sdm_dma_rsp block */
#define CSDM_REG_RSP_PXP_CTRL_RDATA_EMPTY			 0xc2548
/* [R 1] parser fifo empty in sdm_sync block */
#define CSDM_REG_SYNC_PARSER_EMPTY				 0xc2550
/* [R 1] parser serial fifo empty in sdm_sync block */
#define CSDM_REG_SYNC_SYNC_EMPTY				 0xc2558
/* [RW 32] Tick for timer counter. Applicable only when
   ~csdm_registers_timer_tick_enable.timer_tick_enable =1 */
#define CSDM_REG_TIMER_TICK					 0xc2000
/* [RW 5] The number of time_slots in the arbitration cycle */
#define CSEM_REG_ARB_CYCLE_SIZE 				 0x200034
/* [RW 3] The source that is associated with arbitration element 0. Source
   decoding is: 0- foc0; 1-fic1; 2-sleeping thread with priority 0; 3-
   sleeping thread with priority 1; 4- sleeping thread with priority 2 */
#define CSEM_REG_ARB_ELEMENT0					 0x200020
/* [RW 3] The source that is associated with arbitration element 1. Source
   decoding is: 0- foc0; 1-fic1; 2-sleeping thread with priority 0; 3-
   sleeping thread with priority 1; 4- sleeping thread with priority 2.
   Could not be equal to register ~csem_registers_arb_element0.arb_element0 */
#define CSEM_REG_ARB_ELEMENT1					 0x200024
/* [RW 3] The source that is associated with arbitration element 2. Source
   decoding is: 0- foc0; 1-fic1; 2-sleeping thread with priority 0; 3-
   sleeping thread with priority 1; 4- sleeping thread with priority 2.
   Could not be equal to register ~csem_registers_arb_element0.arb_element0
   and ~csem_registers_arb_element1.arb_element1 */
#define CSEM_REG_ARB_ELEMENT2					 0x200028
/* [RW 3] The source that is associated with arbitration element 3. Source
   decoding is: 0- foc0; 1-fic1; 2-sleeping thread with priority 0; 3-
   sleeping thread with priority 1; 4- sleeping thread with priority 2.Could
   not be equal to register ~csem_registers_arb_element0.arb_element0 and
   ~csem_registers_arb_element1.arb_element1 and
   ~csem_registers_arb_element2.arb_element2 */
#define CSEM_REG_ARB_ELEMENT3					 0x20002c
/* [RW 3] The source that is associated with arbitration element 4. Source
   decoding is: 0- foc0; 1-fic1; 2-sleeping thread with priority 0; 3-
   sleeping thread with priority 1; 4- sleeping thread with priority 2.
   Could not be equal to register ~csem_registers_arb_element0.arb_element0
   and ~csem_registers_arb_element1.arb_element1 and
   ~csem_registers_arb_element2.arb_element2 and
   ~csem_registers_arb_element3.arb_element3 */
#define CSEM_REG_ARB_ELEMENT4					 0x200030
/* [RW 32] Interrupt mask register #0 read/write */
#define CSEM_REG_CSEM_INT_MASK_0				 0x200110
#define CSEM_REG_CSEM_INT_MASK_1				 0x200120
/* [RW 32] Parity mask register #0 read/write */
#define CSEM_REG_CSEM_PRTY_MASK_0				 0x200130
#define CSEM_REG_CSEM_PRTY_MASK_1				 0x200140
/* [R 32] Parity register #0 read */
#define CSEM_REG_CSEM_PRTY_STS_0				 0x200124
#define CSEM_REG_CSEM_PRTY_STS_1				 0x200134
#define CSEM_REG_ENABLE_IN					 0x2000a4
#define CSEM_REG_ENABLE_OUT					 0x2000a8
/* [RW 32] This address space contains all registers and memories that are
   placed in SEM_FAST block. The SEM_FAST registers are described in
   appendix B. In order to access the SEM_FAST registers the base address
   CSEM_REGISTERS_FAST_MEMORY (Offset: 0x220000) should be added to each
   SEM_FAST register offset. */
#define CSEM_REG_FAST_MEMORY					 0x220000
/* [RW 1] Disables input messages from FIC0 May be updated during run_time
   by the microcode */
#define CSEM_REG_FIC0_DISABLE					 0x200224
/* [RW 1] Disables input messages from FIC1 May be updated during run_time
   by the microcode */
#define CSEM_REG_FIC1_DISABLE					 0x200234
/* [RW 15] Interrupt table Read and write access to it is not possible in
   the middle of the work */
#define CSEM_REG_INT_TABLE					 0x200400
/* [ST 24] Statistics register. The number of messages that entered through
   FIC0 */
#define CSEM_REG_MSG_NUM_FIC0					 0x200000
/* [ST 24] Statistics register. The number of messages that entered through
   FIC1 */
#define CSEM_REG_MSG_NUM_FIC1					 0x200004
/* [ST 24] Statistics register. The number of messages that were sent to
   FOC0 */
#define CSEM_REG_MSG_NUM_FOC0					 0x200008
/* [ST 24] Statistics register. The number of messages that were sent to
   FOC1 */
#define CSEM_REG_MSG_NUM_FOC1					 0x20000c
/* [ST 24] Statistics register. The number of messages that were sent to
   FOC2 */
#define CSEM_REG_MSG_NUM_FOC2					 0x200010
/* [ST 24] Statistics register. The number of messages that were sent to
   FOC3 */
#define CSEM_REG_MSG_NUM_FOC3					 0x200014
/* [RW 1] Disables input messages from the passive buffer May be updated
   during run_time by the microcode */
#define CSEM_REG_PAS_DISABLE					 0x20024c
/* [WB 128] Debug only. Passive buffer memory */
#define CSEM_REG_PASSIVE_BUFFER 				 0x202000
/* [WB 46] pram memory. B45 is parity; b[44:0] - data. */
#define CSEM_REG_PRAM						 0x240000
/* [R 16] Valid sleeping threads indication have bit per thread */
#define CSEM_REG_SLEEP_THREADS_VALID				 0x20026c
/* [R 1] EXT_STORE FIFO is empty in sem_slow_ls_ext */
#define CSEM_REG_SLOW_EXT_STORE_EMPTY				 0x2002a0
/* [RW 16] List of free threads . There is a bit per thread. */
#define CSEM_REG_THREADS_LIST					 0x2002e4
/* [RW 3] The arbitration scheme of time_slot 0 */
#define CSEM_REG_TS_0_AS					 0x200038
/* [RW 3] The arbitration scheme of time_slot 10 */
#define CSEM_REG_TS_10_AS					 0x200060
/* [RW 3] The arbitration scheme of time_slot 11 */
#define CSEM_REG_TS_11_AS					 0x200064
/* [RW 3] The arbitration scheme of time_slot 12 */
#define CSEM_REG_TS_12_AS					 0x200068
/* [RW 3] The arbitration scheme of time_slot 13 */
#define CSEM_REG_TS_13_AS					 0x20006c
/* [RW 3] The arbitration scheme of time_slot 14 */
#define CSEM_REG_TS_14_AS					 0x200070
/* [RW 3] The arbitration scheme of time_slot 15 */
#define CSEM_REG_TS_15_AS					 0x200074
/* [RW 3] The arbitration scheme of time_slot 16 */
#define CSEM_REG_TS_16_AS					 0x200078
/* [RW 3] The arbitration scheme of time_slot 17 */
#define CSEM_REG_TS_17_AS					 0x20007c
/* [RW 3] The arbitration scheme of time_slot 18 */
#define CSEM_REG_TS_18_AS					 0x200080
/* [RW 3] The arbitration scheme of time_slot 1 */
#define CSEM_REG_TS_1_AS					 0x20003c
/* [RW 3] The arbitration scheme of time_slot 2 */
#define CSEM_REG_TS_2_AS					 0x200040
/* [RW 3] The arbitration scheme of time_slot 3 */
#define CSEM_REG_TS_3_AS					 0x200044
/* [RW 3] The arbitration scheme of time_slot 4 */
#define CSEM_REG_TS_4_AS					 0x200048
/* [RW 3] The arbitration scheme of time_slot 5 */
#define CSEM_REG_TS_5_AS					 0x20004c
/* [RW 3] The arbitration scheme of time_slot 6 */
#define CSEM_REG_TS_6_AS					 0x200050
/* [RW 3] The arbitration scheme of time_slot 7 */
#define CSEM_REG_TS_7_AS					 0x200054
/* [RW 3] The arbitration scheme of time_slot 8 */
#define CSEM_REG_TS_8_AS					 0x200058
/* [RW 3] The arbitration scheme of time_slot 9 */
#define CSEM_REG_TS_9_AS					 0x20005c
/* [RW 1] Parity mask register #0 read/write */
#define DBG_REG_DBG_PRTY_MASK					 0xc0a8
/* [R 1] Parity register #0 read */
#define DBG_REG_DBG_PRTY_STS					 0xc09c
/* [RW 2] debug only: These bits indicate the credit for PCI request type 4
   interface; MUST be configured AFTER pci_ext_buffer_strt_addr_lsb/msb are
   configured */
#define DBG_REG_PCI_REQ_CREDIT					 0xc120
/* [RW 32] Commands memory. The address to command X; row Y is to calculated
   as 14*X+Y. */
#define DMAE_REG_CMD_MEM					 0x102400
/* [RW 1] If 0 - the CRC-16c initial value is all zeroes; if 1 - the CRC-16c
   initial value is all ones. */
#define DMAE_REG_CRC16C_INIT					 0x10201c
/* [RW 1] If 0 - the CRC-16 T10 initial value is all zeroes; if 1 - the
   CRC-16 T10 initial value is all ones. */
#define DMAE_REG_CRC16T10_INIT					 0x102020
/* [RW 2] Interrupt mask register #0 read/write */
#define DMAE_REG_DMAE_INT_MASK					 0x102054
/* [RW 4] Parity mask register #0 read/write */
#define DMAE_REG_DMAE_PRTY_MASK 				 0x102064
/* [R 4] Parity register #0 read */
#define DMAE_REG_DMAE_PRTY_STS					 0x102058
/* [RW 1] Command 0 go. */
#define DMAE_REG_GO_C0						 0x102080
/* [RW 1] Command 1 go. */
#define DMAE_REG_GO_C1						 0x102084
/* [RW 1] Command 10 go. */
#define DMAE_REG_GO_C10 					 0x102088
#define DMAE_REG_GO_C10_SIZE					 1
/* [RW 1] Command 11 go. */
#define DMAE_REG_GO_C11 					 0x10208c
#define DMAE_REG_GO_C11_SIZE					 1
/* [RW 1] Command 12 go. */
#define DMAE_REG_GO_C12 					 0x102090
#define DMAE_REG_GO_C12_SIZE					 1
/* [RW 1] Command 13 go. */
#define DMAE_REG_GO_C13 					 0x102094
#define DMAE_REG_GO_C13_SIZE					 1
/* [RW 1] Command 14 go. */
#define DMAE_REG_GO_C14 					 0x102098
#define DMAE_REG_GO_C14_SIZE					 1
/* [RW 1] Command 15 go. */
#define DMAE_REG_GO_C15 					 0x10209c
#define DMAE_REG_GO_C15_SIZE					 1
/* [RW 1] Command 10 go. */
#define DMAE_REG_GO_C10 					 0x102088
/* [RW 1] Command 11 go. */
#define DMAE_REG_GO_C11 					 0x10208c
/* [RW 1] Command 12 go. */
#define DMAE_REG_GO_C12 					 0x102090
/* [RW 1] Command 13 go. */
#define DMAE_REG_GO_C13 					 0x102094
/* [RW 1] Command 14 go. */
#define DMAE_REG_GO_C14 					 0x102098
/* [RW 1] Command 15 go. */
#define DMAE_REG_GO_C15 					 0x10209c
/* [RW 1] Command 2 go. */
#define DMAE_REG_GO_C2						 0x1020a0
/* [RW 1] Command 3 go. */
#define DMAE_REG_GO_C3						 0x1020a4
/* [RW 1] Command 4 go. */
#define DMAE_REG_GO_C4						 0x1020a8
/* [RW 1] Command 5 go. */
#define DMAE_REG_GO_C5						 0x1020ac
/* [RW 1] Command 6 go. */
#define DMAE_REG_GO_C6						 0x1020b0
/* [RW 1] Command 7 go. */
#define DMAE_REG_GO_C7						 0x1020b4
/* [RW 1] Command 8 go. */
#define DMAE_REG_GO_C8						 0x1020b8
/* [RW 1] Command 9 go. */
#define DMAE_REG_GO_C9						 0x1020bc
/* [RW 1] DMAE GRC Interface (Target; aster) enable. If 0 - the acknowledge
   input is disregarded; valid is deasserted; all other signals are treated
   as usual; if 1 - normal activity. */
#define DMAE_REG_GRC_IFEN					 0x102008
/* [RW 1] DMAE PCI Interface (Request; ead; rite) enable. If 0 - the
   acknowledge input is disregarded; valid is deasserted; full is asserted;
   all other signals are treated as usual; if 1 - normal activity. */
#define DMAE_REG_PCI_IFEN					 0x102004
/* [RW 4] DMAE- PCI Request Interface initial credit. Write writes the
   initial value to the credit counter; related to the address. Read returns
   the current value of the counter. */
#define DMAE_REG_PXP_REQ_INIT_CRD				 0x1020c0
/* [RW 8] Aggregation command. */
#define DORQ_REG_AGG_CMD0					 0x170060
/* [RW 8] Aggregation command. */
#define DORQ_REG_AGG_CMD1					 0x170064
/* [RW 8] Aggregation command. */
#define DORQ_REG_AGG_CMD2					 0x170068
/* [RW 8] Aggregation command. */
#define DORQ_REG_AGG_CMD3					 0x17006c
/* [RW 28] UCM Header. */
#define DORQ_REG_CMHEAD_RX					 0x170050
/* [RW 5] Interrupt mask register #0 read/write */
#define DORQ_REG_DORQ_INT_MASK					 0x170180
/* [R 5] Interrupt register #0 read */
#define DORQ_REG_DORQ_INT_STS					 0x170174
/* [RC 5] Interrupt register #0 read clear */
#define DORQ_REG_DORQ_INT_STS_CLR				 0x170178
/* [RW 2] Parity mask register #0 read/write */
#define DORQ_REG_DORQ_PRTY_MASK 				 0x170190
/* [R 2] Parity register #0 read */
#define DORQ_REG_DORQ_PRTY_STS					 0x170184
/* [RW 8] The address to write the DPM CID to STORM. */
#define DORQ_REG_DPM_CID_ADDR					 0x170044
/* [RW 5] The DPM mode CID extraction offset. */
#define DORQ_REG_DPM_CID_OFST					 0x170030
/* [RW 12] The threshold of the DQ FIFO to send the almost full interrupt. */
#define DORQ_REG_DQ_FIFO_AFULL_TH				 0x17007c
/* [RW 12] The threshold of the DQ FIFO to send the full interrupt. */
#define DORQ_REG_DQ_FIFO_FULL_TH				 0x170078
/* [R 13] Current value of the DQ FIFO fill level according to following
   pointer. The range is 0 - 256 FIFO rows; where each row stands for the
   doorbell. */
#define DORQ_REG_DQ_FILL_LVLF					 0x1700a4
/* [R 1] DQ FIFO full status. Is set; when FIFO filling level is more or
   equal to full threshold; reset on full clear. */
#define DORQ_REG_DQ_FULL_ST					 0x1700c0
/* [RW 28] The value sent to CM header in the case of CFC load error. */
#define DORQ_REG_ERR_CMHEAD					 0x170058
#define DORQ_REG_IF_EN						 0x170004
#define DORQ_REG_MODE_ACT					 0x170008
/* [RW 5] The normal mode CID extraction offset. */
#define DORQ_REG_NORM_CID_OFST					 0x17002c
/* [RW 28] TCM Header when only TCP context is loaded. */
#define DORQ_REG_NORM_CMHEAD_TX 				 0x17004c
/* [RW 3] The number of simultaneous outstanding requests to Context Fetch
   Interface. */
#define DORQ_REG_OUTST_REQ					 0x17003c
#define DORQ_REG_REGN						 0x170038
/* [R 4] Current value of response A counter credit. Initial credit is
   configured through write to ~dorq_registers_rsp_init_crd.rsp_init_crd
   register. */
#define DORQ_REG_RSPA_CRD_CNT					 0x1700ac
/* [R 4] Current value of response B counter credit. Initial credit is
   configured through write to ~dorq_registers_rsp_init_crd.rsp_init_crd
   register. */
#define DORQ_REG_RSPB_CRD_CNT					 0x1700b0
/* [RW 4] The initial credit at the Doorbell Response Interface. The write
   writes the same initial credit to the rspa_crd_cnt and rspb_crd_cnt. The
   read reads this written value. */
#define DORQ_REG_RSP_INIT_CRD					 0x170048
/* [RW 4] Initial activity counter value on the load request; when the
   shortcut is done. */
#define DORQ_REG_SHRT_ACT_CNT					 0x170070
/* [RW 28] TCM Header when both ULP and TCP context is loaded. */
#define DORQ_REG_SHRT_CMHEAD					 0x170054
#define HC_CONFIG_0_REG_ATTN_BIT_EN_0				 (0x1<<4)
#define HC_CONFIG_0_REG_INT_LINE_EN_0				 (0x1<<3)
#define HC_CONFIG_0_REG_MSI_MSIX_INT_EN_0			 (0x1<<2)
#define HC_CONFIG_0_REG_SINGLE_ISR_EN_0 			 (0x1<<1)
#define HC_REG_AGG_INT_0					 0x108050
#define HC_REG_AGG_INT_1					 0x108054
/* [RW 16] attention bit and attention acknowledge bits status for port 0
   and 1 according to the following address map: addr 0 - attn_bit_0; addr 1
   - attn_ack_bit_0; addr 2 - attn_bit_1; addr 3 - attn_ack_bit_1; */
#define HC_REG_ATTN_BIT 					 0x108120
/* [RW 16] attn bits status index for attn bit msg; addr 0 - function 0;
   addr 1 - functin 1 */
#define HC_REG_ATTN_IDX 					 0x108100
/* [RW 32] port 0 lower 32 bits address field for attn messag. */
#define HC_REG_ATTN_MSG0_ADDR_L 				 0x108018
/* [RW 32] port 1 lower 32 bits address field for attn messag. */
#define HC_REG_ATTN_MSG1_ADDR_L 				 0x108020
/* [RW 8] status block number for attn bit msg - function 0; */
#define HC_REG_ATTN_NUM_P0					 0x108038
/* [RW 8] status block number for attn bit msg - function 1 */
#define HC_REG_ATTN_NUM_P1					 0x10803c
#define HC_REG_CONFIG_0 					 0x108000
#define HC_REG_CONFIG_1 					 0x108004
/* [RW 3] Parity mask register #0 read/write */
#define HC_REG_HC_PRTY_MASK					 0x1080a0
/* [R 3] Parity register #0 read */
#define HC_REG_HC_PRTY_STS					 0x108094
/* [RW 17] status block interrupt mask; one in each bit means unmask; zerow
   in each bit means mask; bit 0 - default SB; bit 1 - SB_0; bit 2 - SB_1...
   bit 16- SB_15; addr 0 - port 0; addr 1 - port 1 */
#define HC_REG_INT_MASK 					 0x108108
/* [RW 16] port 0 attn bit condition monitoring; each bit that is set will
   lock a change fron 0 to 1 in the corresponding attention signals that
   comes from the AEU */
#define HC_REG_LEADING_EDGE_0					 0x108040
#define HC_REG_LEADING_EDGE_1					 0x108048
/* [RW 16] all producer and consumer of port 0 according to the following
   addresses; U_prod: 0-15; C_prod: 16-31; U_cons: 32-47; C_cons:48-63;
   Defoult_prod: U/C/X/T/Attn-64/65/66/67/68; Defoult_cons:
   U/C/X/T/Attn-69/70/71/72/73 */
#define HC_REG_P0_PROD_CONS					 0x108200
/* [RW 16] all producer and consumer of port 1according to the following
   addresses; U_prod: 0-15; C_prod: 16-31; U_cons: 32-47; C_cons:48-63;
   Defoult_prod: U/C/X/T/Attn-64/65/66/67/68; Defoult_cons:
   U/C/X/T/Attn-69/70/71/72/73 */
#define HC_REG_P1_PROD_CONS					 0x108400
/* [W 1] This register is write only and has 4 addresses as follow: 0 =
   clear all PBA bits port 0; 1 = clear all pending interrupts request
   port0; 2 = clear all PBA bits port 1; 3 = clear all pending interrupts
   request port1; here is no meaning for the data in this register */
#define HC_REG_PBA_COMMAND					 0x108140
#define HC_REG_PCI_CONFIG_0					 0x108010
#define HC_REG_PCI_CONFIG_1					 0x108014
/* [RW 24] all counters acording to the following address: LSB: 0=read; 1=
   read_clear; 0-71 = HW counters (the inside order is the same as the
   interrupt table in the spec); 72-219 = SW counters 1 (stops after first
   consumer upd) the inside order is: 72-103 - U_non_default_p0; 104-135
   C_non_defaul_p0; 36-145 U/C/X/T/Attn_default_p0; 146-177
   U_non_default_p1; 178-209 C_non_defaul_p1; 10-219 U/C/X/T/Attn_default_p1
   ; 220-367 = SW counters 2 (stops when prod=cons) the inside order is:
   220-251 - U_non_default_p0; 252-283 C_non_defaul_p0; 84-293
   U/C/X/T/Attn_default_p0; 294-325 U_non_default_p1; 326-357
   C_non_defaul_p1; 58-367 U/C/X/T/Attn_default_p1 ; 368-515 = mailbox
   counters; (the inside order of the mailbox counter is 368-431 U and C
   non_default_p0; 432-441 U/C/X/T/Attn_default_p0; 442-505 U and C
   non_default_p1; 506-515 U/C/X/T/Attn_default_p1) */
#define HC_REG_STATISTIC_COUNTERS				 0x109000
/* [RW 16] port 0 attn bit condition monitoring; each bit that is set will
   lock a change fron 1 to 0 in the corresponding attention signals that
   comes from the AEU */
#define HC_REG_TRAILING_EDGE_0					 0x108044
#define HC_REG_TRAILING_EDGE_1					 0x10804c
#define HC_REG_UC_RAM_ADDR_0					 0x108028
#define HC_REG_UC_RAM_ADDR_1					 0x108030
/* [RW 16] ustorm address for coalesc now message */
#define HC_REG_USTORM_ADDR_FOR_COALESCE 			 0x108068
#define HC_REG_VQID_0						 0x108008
#define HC_REG_VQID_1						 0x10800c
#define MCP_REG_MCPR_NVM_ACCESS_ENABLE				 0x86424
#define MCP_REG_MCPR_NVM_ADDR					 0x8640c
#define MCP_REG_MCPR_NVM_CFG4					 0x8642c
#define MCP_REG_MCPR_NVM_COMMAND				 0x86400
#define MCP_REG_MCPR_NVM_READ					 0x86410
#define MCP_REG_MCPR_NVM_SW_ARB 				 0x86420
#define MCP_REG_MCPR_NVM_WRITE					 0x86408
#define MCP_REG_MCPR_NVM_WRITE1 				 0x86428
#define MCP_REG_MCPR_SCRATCH					 0xa0000
/* [R 32] read first 32 bit after inversion of function 0. mapped as
   follows: [0] NIG attention for function0; [1] NIG attention for
   function1; [2] GPIO1 mcp; [3] GPIO2 mcp; [4] GPIO3 mcp; [5] GPIO4 mcp;
   [6] GPIO1 function 1; [7] GPIO2 function 1; [8] GPIO3 function 1; [9]
   GPIO4 function 1; [10] PCIE glue/PXP VPD event function0; [11] PCIE
   glue/PXP VPD event function1; [12] PCIE glue/PXP Expansion ROM event0;
   [13] PCIE glue/PXP Expansion ROM event1; [14] SPIO4; [15] SPIO5; [16]
   MSI/X indication for mcp; [17] MSI/X indication for function 1; [18] BRB
   Parity error; [19] BRB Hw interrupt; [20] PRS Parity error; [21] PRS Hw
   interrupt; [22] SRC Parity error; [23] SRC Hw interrupt; [24] TSDM Parity
   error; [25] TSDM Hw interrupt; [26] TCM Parity error; [27] TCM Hw
   interrupt; [28] TSEMI Parity error; [29] TSEMI Hw interrupt; [30] PBF
   Parity error; [31] PBF Hw interrupt; */
#define MISC_REG_AEU_AFTER_INVERT_1_FUNC_0			 0xa42c
#define MISC_REG_AEU_AFTER_INVERT_1_FUNC_1			 0xa430
/* [R 32] read first 32 bit after inversion of mcp. mapped as follows: [0]
   NIG attention for function0; [1] NIG attention for function1; [2] GPIO1
   mcp; [3] GPIO2 mcp; [4] GPIO3 mcp; [5] GPIO4 mcp; [6] GPIO1 function 1;
   [7] GPIO2 function 1; [8] GPIO3 function 1; [9] GPIO4 function 1; [10]
   PCIE glue/PXP VPD event function0; [11] PCIE glue/PXP VPD event
   function1; [12] PCIE glue/PXP Expansion ROM event0; [13] PCIE glue/PXP
   Expansion ROM event1; [14] SPIO4; [15] SPIO5; [16] MSI/X indication for
   mcp; [17] MSI/X indication for function 1; [18] BRB Parity error; [19]
   BRB Hw interrupt; [20] PRS Parity error; [21] PRS Hw interrupt; [22] SRC
   Parity error; [23] SRC Hw interrupt; [24] TSDM Parity error; [25] TSDM Hw
   interrupt; [26] TCM Parity error; [27] TCM Hw interrupt; [28] TSEMI
   Parity error; [29] TSEMI Hw interrupt; [30] PBF Parity error; [31] PBF Hw
   interrupt; */
#define MISC_REG_AEU_AFTER_INVERT_1_MCP 			 0xa434
/* [R 32] read second 32 bit after inversion of function 0. mapped as
   follows: [0] PBClient Parity error; [1] PBClient Hw interrupt; [2] QM
   Parity error; [3] QM Hw interrupt; [4] Timers Parity error; [5] Timers Hw
   interrupt; [6] XSDM Parity error; [7] XSDM Hw interrupt; [8] XCM Parity
   error; [9] XCM Hw interrupt; [10] XSEMI Parity error; [11] XSEMI Hw
   interrupt; [12] DoorbellQ Parity error; [13] DoorbellQ Hw interrupt; [14]
   NIG Parity error; [15] NIG Hw interrupt; [16] Vaux PCI core Parity error;
   [17] Vaux PCI core Hw interrupt; [18] Debug Parity error; [19] Debug Hw
   interrupt; [20] USDM Parity error; [21] USDM Hw interrupt; [22] UCM
   Parity error; [23] UCM Hw interrupt; [24] USEMI Parity error; [25] USEMI
   Hw interrupt; [26] UPB Parity error; [27] UPB Hw interrupt; [28] CSDM
   Parity error; [29] CSDM Hw interrupt; [30] CCM Parity error; [31] CCM Hw
   interrupt; */
#define MISC_REG_AEU_AFTER_INVERT_2_FUNC_0			 0xa438
#define MISC_REG_AEU_AFTER_INVERT_2_FUNC_1			 0xa43c
/* [R 32] read second 32 bit after inversion of mcp. mapped as follows: [0]
   PBClient Parity error; [1] PBClient Hw interrupt; [2] QM Parity error;
   [3] QM Hw interrupt; [4] Timers Parity error; [5] Timers Hw interrupt;
   [6] XSDM Parity error; [7] XSDM Hw interrupt; [8] XCM Parity error; [9]
   XCM Hw interrupt; [10] XSEMI Parity error; [11] XSEMI Hw interrupt; [12]
   DoorbellQ Parity error; [13] DoorbellQ Hw interrupt; [14] NIG Parity
   error; [15] NIG Hw interrupt; [16] Vaux PCI core Parity error; [17] Vaux
   PCI core Hw interrupt; [18] Debug Parity error; [19] Debug Hw interrupt;
   [20] USDM Parity error; [21] USDM Hw interrupt; [22] UCM Parity error;
   [23] UCM Hw interrupt; [24] USEMI Parity error; [25] USEMI Hw interrupt;
   [26] UPB Parity error; [27] UPB Hw interrupt; [28] CSDM Parity error;
   [29] CSDM Hw interrupt; [30] CCM Parity error; [31] CCM Hw interrupt; */
#define MISC_REG_AEU_AFTER_INVERT_2_MCP 			 0xa440
/* [R 32] read third 32 bit after inversion of function 0. mapped as
   follows: [0] CSEMI Parity error; [1] CSEMI Hw interrupt; [2] PXP Parity
   error; [3] PXP Hw interrupt; [4] PXPpciClockClient Parity error; [5]
   PXPpciClockClient Hw interrupt; [6] CFC Parity error; [7] CFC Hw
   interrupt; [8] CDU Parity error; [9] CDU Hw interrupt; [10] DMAE Parity
   error; [11] DMAE Hw interrupt; [12] IGU (HC) Parity error; [13] IGU (HC)
   Hw interrupt; [14] MISC Parity error; [15] MISC Hw interrupt; [16]
   pxp_misc_mps_attn; [17] Flash event; [18] SMB event; [19] MCP attn0; [20]
   MCP attn1; [21] SW timers attn_1 func0; [22] SW timers attn_2 func0; [23]
   SW timers attn_3 func0; [24] SW timers attn_4 func0; [25] PERST; [26] SW
   timers attn_1 func1; [27] SW timers attn_2 func1; [28] SW timers attn_3
   func1; [29] SW timers attn_4 func1; [30] General attn0; [31] General
   attn1; */
#define MISC_REG_AEU_AFTER_INVERT_3_FUNC_0			 0xa444
#define MISC_REG_AEU_AFTER_INVERT_3_FUNC_1			 0xa448
/* [R 32] read third 32 bit after inversion of mcp. mapped as follows: [0]
   CSEMI Parity error; [1] CSEMI Hw interrupt; [2] PXP Parity error; [3] PXP
   Hw interrupt; [4] PXPpciClockClient Parity error; [5] PXPpciClockClient
   Hw interrupt; [6] CFC Parity error; [7] CFC Hw interrupt; [8] CDU Parity
   error; [9] CDU Hw interrupt; [10] DMAE Parity error; [11] DMAE Hw
   interrupt; [12] IGU (HC) Parity error; [13] IGU (HC) Hw interrupt; [14]
   MISC Parity error; [15] MISC Hw interrupt; [16] pxp_misc_mps_attn; [17]
   Flash event; [18] SMB event; [19] MCP attn0; [20] MCP attn1; [21] SW
   timers attn_1 func0; [22] SW timers attn_2 func0; [23] SW timers attn_3
   func0; [24] SW timers attn_4 func0; [25] PERST; [26] SW timers attn_1
   func1; [27] SW timers attn_2 func1; [28] SW timers attn_3 func1; [29] SW
   timers attn_4 func1; [30] General attn0; [31] General attn1; */
#define MISC_REG_AEU_AFTER_INVERT_3_MCP 			 0xa44c
/* [R 32] read fourth 32 bit after inversion of function 0. mapped as
   follows: [0] General attn2; [1] General attn3; [2] General attn4; [3]
   General attn5; [4] General attn6; [5] General attn7; [6] General attn8;
   [7] General attn9; [8] General attn10; [9] General attn11; [10] General
   attn12; [11] General attn13; [12] General attn14; [13] General attn15;
   [14] General attn16; [15] General attn17; [16] General attn18; [17]
   General attn19; [18] General attn20; [19] General attn21; [20] Main power
   interrupt; [21] RBCR Latched attn; [22] RBCT Latched attn; [23] RBCN
   Latched attn; [24] RBCU Latched attn; [25] RBCP Latched attn; [26] GRC
   Latched timeout attention; [27] GRC Latched reserved access attention;
   [28] MCP Latched rom_parity; [29] MCP Latched ump_rx_parity; [30] MCP
   Latched ump_tx_parity; [31] MCP Latched scpad_parity; */
#define MISC_REG_AEU_AFTER_INVERT_4_FUNC_0			 0xa450
#define MISC_REG_AEU_AFTER_INVERT_4_FUNC_1			 0xa454
/* [R 32] read fourth 32 bit after inversion of mcp. mapped as follows: [0]
   General attn2; [1] General attn3; [2] General attn4; [3] General attn5;
   [4] General attn6; [5] General attn7; [6] General attn8; [7] General
   attn9; [8] General attn10; [9] General attn11; [10] General attn12; [11]
   General attn13; [12] General attn14; [13] General attn15; [14] General
   attn16; [15] General attn17; [16] General attn18; [17] General attn19;
   [18] General attn20; [19] General attn21; [20] Main power interrupt; [21]
   RBCR Latched attn; [22] RBCT Latched attn; [23] RBCN Latched attn; [24]
   RBCU Latched attn; [25] RBCP Latched attn; [26] GRC Latched timeout
   attention; [27] GRC Latched reserved access attention; [28] MCP Latched
   rom_parity; [29] MCP Latched ump_rx_parity; [30] MCP Latched
   ump_tx_parity; [31] MCP Latched scpad_parity; */
#define MISC_REG_AEU_AFTER_INVERT_4_MCP 			 0xa458
/* [W 11] write to this register results with the clear of the latched
   signals; one in d0 clears RBCR latch; one in d1 clears RBCT latch; one in
   d2 clears RBCN latch; one in d3 clears RBCU latch; one in d4 clears RBCP
   latch; one in d5 clears GRC Latched timeout attention; one in d6 clears
   GRC Latched reserved access attention; one in d7 clears Latched
   rom_parity; one in d8 clears Latched ump_rx_parity; one in d9 clears
   Latched ump_tx_parity; one in d10 clears Latched scpad_parity; read from
   this register return zero */
#define MISC_REG_AEU_CLR_LATCH_SIGNAL				 0xa45c
/* [RW 32] first 32b for enabling the output for function 0 output0. mapped
   as follows: [0] NIG attention for function0; [1] NIG attention for
   function1; [2] GPIO1 function 0; [3] GPIO2 function 0; [4] GPIO3 function
   0; [5] GPIO4 function 0; [6] GPIO1 function 1; [7] GPIO2 function 1; [8]
   GPIO3 function 1; [9] GPIO4 function 1; [10] PCIE glue/PXP VPD event
   function0; [11] PCIE glue/PXP VPD event function1; [12] PCIE glue/PXP
   Expansion ROM event0; [13] PCIE glue/PXP Expansion ROM event1; [14]
   SPIO4; [15] SPIO5; [16] MSI/X indication for function 0; [17] MSI/X
   indication for function 1; [18] BRB Parity error; [19] BRB Hw interrupt;
   [20] PRS Parity error; [21] PRS Hw interrupt; [22] SRC Parity error; [23]
   SRC Hw interrupt; [24] TSDM Parity error; [25] TSDM Hw interrupt; [26]
   TCM Parity error; [27] TCM Hw interrupt; [28] TSEMI Parity error; [29]
   TSEMI Hw interrupt; [30] PBF Parity error; [31] PBF Hw interrupt; */
#define MISC_REG_AEU_ENABLE1_FUNC_0_OUT_0			 0xa06c
#define MISC_REG_AEU_ENABLE1_FUNC_0_OUT_1			 0xa07c
#define MISC_REG_AEU_ENABLE1_FUNC_0_OUT_3			 0xa09c
/* [RW 32] first 32b for enabling the output for function 1 output0. mapped
   as follows: [0] NIG attention for function0; [1] NIG attention for
   function1; [2] GPIO1 function 1; [3] GPIO2 function 1; [4] GPIO3 function
   1; [5] GPIO4 function 1; [6] GPIO1 function 1; [7] GPIO2 function 1; [8]
   GPIO3 function 1; [9] GPIO4 function 1; [10] PCIE glue/PXP VPD event
   function0; [11] PCIE glue/PXP VPD event function1; [12] PCIE glue/PXP
   Expansion ROM event0; [13] PCIE glue/PXP Expansion ROM event1; [14]
   SPIO4; [15] SPIO5; [16] MSI/X indication for function 1; [17] MSI/X
   indication for function 1; [18] BRB Parity error; [19] BRB Hw interrupt;
   [20] PRS Parity error; [21] PRS Hw interrupt; [22] SRC Parity error; [23]
   SRC Hw interrupt; [24] TSDM Parity error; [25] TSDM Hw interrupt; [26]
   TCM Parity error; [27] TCM Hw interrupt; [28] TSEMI Parity error; [29]
   TSEMI Hw interrupt; [30] PBF Parity error; [31] PBF Hw interrupt; */
#define MISC_REG_AEU_ENABLE1_FUNC_1_OUT_0			 0xa10c
#define MISC_REG_AEU_ENABLE1_FUNC_1_OUT_1			 0xa11c
#define MISC_REG_AEU_ENABLE1_FUNC_1_OUT_3			 0xa13c
/* [RW 32] first 32b for enabling the output for close the gate nig 0.
   mapped as follows: [0] NIG attention for function0; [1] NIG attention for
   function1; [2] GPIO1 function 0; [3] GPIO2 function 0; [4] GPIO3 function
   0; [5] GPIO4 function 0; [6] GPIO1 function 1; [7] GPIO2 function 1; [8]
   GPIO3 function 1; [9] GPIO4 function 1; [10] PCIE glue/PXP VPD event
   function0; [11] PCIE glue/PXP VPD event function1; [12] PCIE glue/PXP
   Expansion ROM event0; [13] PCIE glue/PXP Expansion ROM event1; [14]
   SPIO4; [15] SPIO5; [16] MSI/X indication for function 0; [17] MSI/X
   indication for function 1; [18] BRB Parity error; [19] BRB Hw interrupt;
   [20] PRS Parity error; [21] PRS Hw interrupt; [22] SRC Parity error; [23]
   SRC Hw interrupt; [24] TSDM Parity error; [25] TSDM Hw interrupt; [26]
   TCM Parity error; [27] TCM Hw interrupt; [28] TSEMI Parity error; [29]
   TSEMI Hw interrupt; [30] PBF Parity error; [31] PBF Hw interrupt; */
#define MISC_REG_AEU_ENABLE1_NIG_0				 0xa0ec
#define MISC_REG_AEU_ENABLE1_NIG_1				 0xa18c
/* [RW 32] first 32b for enabling the output for close the gate pxp 0.
   mapped as follows: [0] NIG attention for function0; [1] NIG attention for
   function1; [2] GPIO1 function 0; [3] GPIO2 function 0; [4] GPIO3 function
   0; [5] GPIO4 function 0; [6] GPIO1 function 1; [7] GPIO2 function 1; [8]
   GPIO3 function 1; [9] GPIO4 function 1; [10] PCIE glue/PXP VPD event
   function0; [11] PCIE glue/PXP VPD event function1; [12] PCIE glue/PXP
   Expansion ROM event0; [13] PCIE glue/PXP Expansion ROM event1; [14]
   SPIO4; [15] SPIO5; [16] MSI/X indication for function 0; [17] MSI/X
   indication for function 1; [18] BRB Parity error; [19] BRB Hw interrupt;
   [20] PRS Parity error; [21] PRS Hw interrupt; [22] SRC Parity error; [23]
   SRC Hw interrupt; [24] TSDM Parity error; [25] TSDM Hw interrupt; [26]
   TCM Parity error; [27] TCM Hw interrupt; [28] TSEMI Parity error; [29]
   TSEMI Hw interrupt; [30] PBF Parity error; [31] PBF Hw interrupt; */
#define MISC_REG_AEU_ENABLE1_PXP_0				 0xa0fc
#define MISC_REG_AEU_ENABLE1_PXP_1				 0xa19c
/* [RW 32] second 32b for enabling the output for function 0 output0. mapped
   as follows: [0] PBClient Parity error; [1] PBClient Hw interrupt; [2] QM
   Parity error; [3] QM Hw interrupt; [4] Timers Parity error; [5] Timers Hw
   interrupt; [6] XSDM Parity error; [7] XSDM Hw interrupt; [8] XCM Parity
   error; [9] XCM Hw interrupt; [10] XSEMI Parity error; [11] XSEMI Hw
   interrupt; [12] DoorbellQ Parity error; [13] DoorbellQ Hw interrupt; [14]
   NIG Parity error; [15] NIG Hw interrupt; [16] Vaux PCI core Parity error;
   [17] Vaux PCI core Hw interrupt; [18] Debug Parity error; [19] Debug Hw
   interrupt; [20] USDM Parity error; [21] USDM Hw interrupt; [22] UCM
   Parity error; [23] UCM Hw interrupt; [24] USEMI Parity error; [25] USEMI
   Hw interrupt; [26] UPB Parity error; [27] UPB Hw interrupt; [28] CSDM
   Parity error; [29] CSDM Hw interrupt; [30] CCM Parity error; [31] CCM Hw
   interrupt; */
#define MISC_REG_AEU_ENABLE2_FUNC_0_OUT_0			 0xa070
#define MISC_REG_AEU_ENABLE2_FUNC_0_OUT_1			 0xa080
/* [RW 32] second 32b for enabling the output for function 1 output0. mapped
   as follows: [0] PBClient Parity error; [1] PBClient Hw interrupt; [2] QM
   Parity error; [3] QM Hw interrupt; [4] Timers Parity error; [5] Timers Hw
   interrupt; [6] XSDM Parity error; [7] XSDM Hw interrupt; [8] XCM Parity
   error; [9] XCM Hw interrupt; [10] XSEMI Parity error; [11] XSEMI Hw
   interrupt; [12] DoorbellQ Parity error; [13] DoorbellQ Hw interrupt; [14]
   NIG Parity error; [15] NIG Hw interrupt; [16] Vaux PCI core Parity error;
   [17] Vaux PCI core Hw interrupt; [18] Debug Parity error; [19] Debug Hw
   interrupt; [20] USDM Parity error; [21] USDM Hw interrupt; [22] UCM
   Parity error; [23] UCM Hw interrupt; [24] USEMI Parity error; [25] USEMI
   Hw interrupt; [26] UPB Parity error; [27] UPB Hw interrupt; [28] CSDM
   Parity error; [29] CSDM Hw interrupt; [30] CCM Parity error; [31] CCM Hw
   interrupt; */
#define MISC_REG_AEU_ENABLE2_FUNC_1_OUT_0			 0xa110
#define MISC_REG_AEU_ENABLE2_FUNC_1_OUT_1			 0xa120
/* [RW 32] second 32b for enabling the output for close the gate nig 0.
   mapped as follows: [0] PBClient Parity error; [1] PBClient Hw interrupt;
   [2] QM Parity error; [3] QM Hw interrupt; [4] Timers Parity error; [5]
   Timers Hw interrupt; [6] XSDM Parity error; [7] XSDM Hw interrupt; [8]
   XCM Parity error; [9] XCM Hw interrupt; [10] XSEMI Parity error; [11]
   XSEMI Hw interrupt; [12] DoorbellQ Parity error; [13] DoorbellQ Hw
   interrupt; [14] NIG Parity error; [15] NIG Hw interrupt; [16] Vaux PCI
   core Parity error; [17] Vaux PCI core Hw interrupt; [18] Debug Parity
   error; [19] Debug Hw interrupt; [20] USDM Parity error; [21] USDM Hw
   interrupt; [22] UCM Parity error; [23] UCM Hw interrupt; [24] USEMI
   Parity error; [25] USEMI Hw interrupt; [26] UPB Parity error; [27] UPB Hw
   interrupt; [28] CSDM Parity error; [29] CSDM Hw interrupt; [30] CCM
   Parity error; [31] CCM Hw interrupt; */
#define MISC_REG_AEU_ENABLE2_NIG_0				 0xa0f0
#define MISC_REG_AEU_ENABLE2_NIG_1				 0xa190
/* [RW 32] second 32b for enabling the output for close the gate pxp 0.
   mapped as follows: [0] PBClient Parity error; [1] PBClient Hw interrupt;
   [2] QM Parity error; [3] QM Hw interrupt; [4] Timers Parity error; [5]
   Timers Hw interrupt; [6] XSDM Parity error; [7] XSDM Hw interrupt; [8]
   XCM Parity error; [9] XCM Hw interrupt; [10] XSEMI Parity error; [11]
   XSEMI Hw interrupt; [12] DoorbellQ Parity error; [13] DoorbellQ Hw
   interrupt; [14] NIG Parity error; [15] NIG Hw interrupt; [16] Vaux PCI
   core Parity error; [17] Vaux PCI core Hw interrupt; [18] Debug Parity
   error; [19] Debug Hw interrupt; [20] USDM Parity error; [21] USDM Hw
   interrupt; [22] UCM Parity error; [23] UCM Hw interrupt; [24] USEMI
   Parity error; [25] USEMI Hw interrupt; [26] UPB Parity error; [27] UPB Hw
   interrupt; [28] CSDM Parity error; [29] CSDM Hw interrupt; [30] CCM
   Parity error; [31] CCM Hw interrupt; */
#define MISC_REG_AEU_ENABLE2_PXP_0				 0xa100
#define MISC_REG_AEU_ENABLE2_PXP_1				 0xa1a0
/* [RW 32] third 32b for enabling the output for function 0 output0. mapped
   as follows: [0] CSEMI Parity error; [1] CSEMI Hw interrupt; [2] PXP
   Parity error; [3] PXP Hw interrupt; [4] PXPpciClockClient Parity error;
   [5] PXPpciClockClient Hw interrupt; [6] CFC Parity error; [7] CFC Hw
   interrupt; [8] CDU Parity error; [9] CDU Hw interrupt; [10] DMAE Parity
   error; [11] DMAE Hw interrupt; [12] IGU (HC) Parity error; [13] IGU (HC)
   Hw interrupt; [14] MISC Parity error; [15] MISC Hw interrupt; [16]
   pxp_misc_mps_attn; [17] Flash event; [18] SMB event; [19] MCP attn0; [20]
   MCP attn1; [21] SW timers attn_1 func0; [22] SW timers attn_2 func0; [23]
   SW timers attn_3 func0; [24] SW timers attn_4 func0; [25] PERST; [26] SW
   timers attn_1 func1; [27] SW timers attn_2 func1; [28] SW timers attn_3
   func1; [29] SW timers attn_4 func1; [30] General attn0; [31] General
   attn1; */
#define MISC_REG_AEU_ENABLE3_FUNC_0_OUT_0			 0xa074
#define MISC_REG_AEU_ENABLE3_FUNC_0_OUT_1			 0xa084
/* [RW 32] third 32b for enabling the output for function 1 output0. mapped
   as follows: [0] CSEMI Parity error; [1] CSEMI Hw interrupt; [2] PXP
   Parity error; [3] PXP Hw interrupt; [4] PXPpciClockClient Parity error;
   [5] PXPpciClockClient Hw interrupt; [6] CFC Parity error; [7] CFC Hw
   interrupt; [8] CDU Parity error; [9] CDU Hw interrupt; [10] DMAE Parity
   error; [11] DMAE Hw interrupt; [12] IGU (HC) Parity error; [13] IGU (HC)
   Hw interrupt; [14] MISC Parity error; [15] MISC Hw interrupt; [16]
   pxp_misc_mps_attn; [17] Flash event; [18] SMB event; [19] MCP attn0; [20]
   MCP attn1; [21] SW timers attn_1 func0; [22] SW timers attn_2 func0; [23]
   SW timers attn_3 func0; [24] SW timers attn_4 func0; [25] PERST; [26] SW
   timers attn_1 func1; [27] SW timers attn_2 func1; [28] SW timers attn_3
   func1; [29] SW timers attn_4 func1; [30] General attn0; [31] General
   attn1; */
#define MISC_REG_AEU_ENABLE3_FUNC_1_OUT_0			 0xa114
#define MISC_REG_AEU_ENABLE3_FUNC_1_OUT_1			 0xa124
/* [RW 32] third 32b for enabling the output for close the gate nig 0.
   mapped as follows: [0] CSEMI Parity error; [1] CSEMI Hw interrupt; [2]
   PXP Parity error; [3] PXP Hw interrupt; [4] PXPpciClockClient Parity
   error; [5] PXPpciClockClient Hw interrupt; [6] CFC Parity error; [7] CFC
   Hw interrupt; [8] CDU Parity error; [9] CDU Hw interrupt; [10] DMAE
   Parity error; [11] DMAE Hw interrupt; [12] IGU (HC) Parity error; [13]
   IGU (HC) Hw interrupt; [14] MISC Parity error; [15] MISC Hw interrupt;
   [16] pxp_misc_mps_attn; [17] Flash event; [18] SMB event; [19] MCP attn0;
   [20] MCP attn1; [21] SW timers attn_1 func0; [22] SW timers attn_2 func0;
   [23] SW timers attn_3 func0; [24] SW timers attn_4 func0; [25] PERST;
   [26] SW timers attn_1 func1; [27] SW timers attn_2 func1; [28] SW timers
   attn_3 func1; [29] SW timers attn_4 func1; [30] General attn0; [31]
   General attn1; */
#define MISC_REG_AEU_ENABLE3_NIG_0				 0xa0f4
#define MISC_REG_AEU_ENABLE3_NIG_1				 0xa194
/* [RW 32] third 32b for enabling the output for close the gate pxp 0.
   mapped as follows: [0] CSEMI Parity error; [1] CSEMI Hw interrupt; [2]
   PXP Parity error; [3] PXP Hw interrupt; [4] PXPpciClockClient Parity
   error; [5] PXPpciClockClient Hw interrupt; [6] CFC Parity error; [7] CFC
   Hw interrupt; [8] CDU Parity error; [9] CDU Hw interrupt; [10] DMAE
   Parity error; [11] DMAE Hw interrupt; [12] IGU (HC) Parity error; [13]
   IGU (HC) Hw interrupt; [14] MISC Parity error; [15] MISC Hw interrupt;
   [16] pxp_misc_mps_attn; [17] Flash event; [18] SMB event; [19] MCP attn0;
   [20] MCP attn1; [21] SW timers attn_1 func0; [22] SW timers attn_2 func0;
   [23] SW timers attn_3 func0; [24] SW timers attn_4 func0; [25] PERST;
   [26] SW timers attn_1 func1; [27] SW timers attn_2 func1; [28] SW timers
   attn_3 func1; [29] SW timers attn_4 func1; [30] General attn0; [31]
   General attn1; */
#define MISC_REG_AEU_ENABLE3_PXP_0				 0xa104
#define MISC_REG_AEU_ENABLE3_PXP_1				 0xa1a4
/* [RW 32] fourth 32b for enabling the output for function 0 output0.mapped
   as follows: [0] General attn2; [1] General attn3; [2] General attn4; [3]
   General attn5; [4] General attn6; [5] General attn7; [6] General attn8;
   [7] General attn9; [8] General attn10; [9] General attn11; [10] General
   attn12; [11] General attn13; [12] General attn14; [13] General attn15;
   [14] General attn16; [15] General attn17; [16] General attn18; [17]
   General attn19; [18] General attn20; [19] General attn21; [20] Main power
   interrupt; [21] RBCR Latched attn; [22] RBCT Latched attn; [23] RBCN
   Latched attn; [24] RBCU Latched attn; [25] RBCP Latched attn; [26] GRC
   Latched timeout attention; [27] GRC Latched reserved access attention;
   [28] MCP Latched rom_parity; [29] MCP Latched ump_rx_parity; [30] MCP
   Latched ump_tx_parity; [31] MCP Latched scpad_parity; */
#define MISC_REG_AEU_ENABLE4_FUNC_0_OUT_0			 0xa078
#define MISC_REG_AEU_ENABLE4_FUNC_0_OUT_2			 0xa098
/* [RW 32] fourth 32b for enabling the output for function 1 output0.mapped
   as follows: [0] General attn2; [1] General attn3; [2] General attn4; [3]
   General attn5; [4] General attn6; [5] General attn7; [6] General attn8;
   [7] General attn9; [8] General attn10; [9] General attn11; [10] General
   attn12; [11] General attn13; [12] General attn14; [13] General attn15;
   [14] General attn16; [15] General attn17; [16] General attn18; [17]
   General attn19; [18] General attn20; [19] General attn21; [20] Main power
   interrupt; [21] RBCR Latched attn; [22] RBCT Latched attn; [23] RBCN
   Latched attn; [24] RBCU Latched attn; [25] RBCP Latched attn; [26] GRC
   Latched timeout attention; [27] GRC Latched reserved access attention;
   [28] MCP Latched rom_parity; [29] MCP Latched ump_rx_parity; [30] MCP
   Latched ump_tx_parity; [31] MCP Latched scpad_parity; */
#define MISC_REG_AEU_ENABLE4_FUNC_1_OUT_0			 0xa118
#define MISC_REG_AEU_ENABLE4_FUNC_1_OUT_2			 0xa138
/* [RW 32] fourth 32b for enabling the output for close the gate nig
   0.mapped as follows: [0] General attn2; [1] General attn3; [2] General
   attn4; [3] General attn5; [4] General attn6; [5] General attn7; [6]
   General attn8; [7] General attn9; [8] General attn10; [9] General attn11;
   [10] General attn12; [11] General attn13; [12] General attn14; [13]
   General attn15; [14] General attn16; [15] General attn17; [16] General
   attn18; [17] General attn19; [18] General attn20; [19] General attn21;
   [20] Main power interrupt; [21] RBCR Latched attn; [22] RBCT Latched
   attn; [23] RBCN Latched attn; [24] RBCU Latched attn; [25] RBCP Latched
   attn; [26] GRC Latched timeout attention; [27] GRC Latched reserved
   access attention; [28] MCP Latched rom_parity; [29] MCP Latched
   ump_rx_parity; [30] MCP Latched ump_tx_parity; [31] MCP Latched
   scpad_parity; */
#define MISC_REG_AEU_ENABLE4_NIG_0				 0xa0f8
#define MISC_REG_AEU_ENABLE4_NIG_1				 0xa198
/* [RW 32] fourth 32b for enabling the output for close the gate pxp
   0.mapped as follows: [0] General attn2; [1] General attn3; [2] General
   attn4; [3] General attn5; [4] General attn6; [5] General attn7; [6]
   General attn8; [7] General attn9; [8] General attn10; [9] General attn11;
   [10] General attn12; [11] General attn13; [12] General attn14; [13]
   General attn15; [14] General attn16; [15] General attn17; [16] General
   attn18; [17] General attn19; [18] General attn20; [19] General attn21;
   [20] Main power interrupt; [21] RBCR Latched attn; [22] RBCT Latched
   attn; [23] RBCN Latched attn; [24] RBCU Latched attn; [25] RBCP Latched
   attn; [26] GRC Latched timeout attention; [27] GRC Latched reserved
   access attention; [28] MCP Latched rom_parity; [29] MCP Latched
   ump_rx_parity; [30] MCP Latched ump_tx_parity; [31] MCP Latched
   scpad_parity; */
#define MISC_REG_AEU_ENABLE4_PXP_0				 0xa108
#define MISC_REG_AEU_ENABLE4_PXP_1				 0xa1a8
/* [RW 1] set/clr general attention 0; this will set/clr bit 94 in the aeu
   128 bit vector */
#define MISC_REG_AEU_GENERAL_ATTN_0				 0xa000
#define MISC_REG_AEU_GENERAL_ATTN_1				 0xa004
#define MISC_REG_AEU_GENERAL_ATTN_10				 0xa028
#define MISC_REG_AEU_GENERAL_ATTN_11				 0xa02c
#define MISC_REG_AEU_GENERAL_ATTN_12				 0xa030
#define MISC_REG_AEU_GENERAL_ATTN_13				 0xa034
#define MISC_REG_AEU_GENERAL_ATTN_14				 0xa038
#define MISC_REG_AEU_GENERAL_ATTN_15				 0xa03c
#define MISC_REG_AEU_GENERAL_ATTN_16				 0xa040
#define MISC_REG_AEU_GENERAL_ATTN_17				 0xa044
#define MISC_REG_AEU_GENERAL_ATTN_18				 0xa048
#define MISC_REG_AEU_GENERAL_ATTN_19				 0xa04c
#define MISC_REG_AEU_GENERAL_ATTN_10				 0xa028
#define MISC_REG_AEU_GENERAL_ATTN_11				 0xa02c
#define MISC_REG_AEU_GENERAL_ATTN_2				 0xa008
#define MISC_REG_AEU_GENERAL_ATTN_20				 0xa050
#define MISC_REG_AEU_GENERAL_ATTN_21				 0xa054
#define MISC_REG_AEU_GENERAL_ATTN_3				 0xa00c
#define MISC_REG_AEU_GENERAL_ATTN_4				 0xa010
#define MISC_REG_AEU_GENERAL_ATTN_5				 0xa014
#define MISC_REG_AEU_GENERAL_ATTN_6				 0xa018
#define MISC_REG_AEU_GENERAL_ATTN_7				 0xa01c
#define MISC_REG_AEU_GENERAL_ATTN_8				 0xa020
#define MISC_REG_AEU_GENERAL_ATTN_9				 0xa024
/* [RW 32] first 32b for inverting the input for function 0; for each bit:
   0= do not invert; 1= invert; mapped as follows: [0] NIG attention for
   function0; [1] NIG attention for function1; [2] GPIO1 mcp; [3] GPIO2 mcp;
   [4] GPIO3 mcp; [5] GPIO4 mcp; [6] GPIO1 function 1; [7] GPIO2 function 1;
   [8] GPIO3 function 1; [9] GPIO4 function 1; [10] PCIE glue/PXP VPD event
   function0; [11] PCIE glue/PXP VPD event function1; [12] PCIE glue/PXP
   Expansion ROM event0; [13] PCIE glue/PXP Expansion ROM event1; [14]
   SPIO4; [15] SPIO5; [16] MSI/X indication for mcp; [17] MSI/X indication
   for function 1; [18] BRB Parity error; [19] BRB Hw interrupt; [20] PRS
   Parity error; [21] PRS Hw interrupt; [22] SRC Parity error; [23] SRC Hw
   interrupt; [24] TSDM Parity error; [25] TSDM Hw interrupt; [26] TCM
   Parity error; [27] TCM Hw interrupt; [28] TSEMI Parity error; [29] TSEMI
   Hw interrupt; [30] PBF Parity error; [31] PBF Hw interrupt; */
#define MISC_REG_AEU_INVERTER_1_FUNC_0				 0xa22c
#define MISC_REG_AEU_INVERTER_1_FUNC_1				 0xa23c
/* [RW 32] second 32b for inverting the input for function 0; for each bit:
   0= do not invert; 1= invert. mapped as follows: [0] PBClient Parity
   error; [1] PBClient Hw interrupt; [2] QM Parity error; [3] QM Hw
   interrupt; [4] Timers Parity error; [5] Timers Hw interrupt; [6] XSDM
   Parity error; [7] XSDM Hw interrupt; [8] XCM Parity error; [9] XCM Hw
   interrupt; [10] XSEMI Parity error; [11] XSEMI Hw interrupt; [12]
   DoorbellQ Parity error; [13] DoorbellQ Hw interrupt; [14] NIG Parity
   error; [15] NIG Hw interrupt; [16] Vaux PCI core Parity error; [17] Vaux
   PCI core Hw interrupt; [18] Debug Parity error; [19] Debug Hw interrupt;
   [20] USDM Parity error; [21] USDM Hw interrupt; [22] UCM Parity error;
   [23] UCM Hw interrupt; [24] USEMI Parity error; [25] USEMI Hw interrupt;
   [26] UPB Parity error; [27] UPB Hw interrupt; [28] CSDM Parity error;
   [29] CSDM Hw interrupt; [30] CCM Parity error; [31] CCM Hw interrupt; */
#define MISC_REG_AEU_INVERTER_2_FUNC_0				 0xa230
#define MISC_REG_AEU_INVERTER_2_FUNC_1				 0xa240
/* [RW 10] [7:0] = mask 8 attention output signals toward IGU function0;
   [9:8] = mask close the gates signals of function 0 toward PXP [8] and NIG
   [9]. Zero = mask; one = unmask */
#define MISC_REG_AEU_MASK_ATTN_FUNC_0				 0xa060
#define MISC_REG_AEU_MASK_ATTN_FUNC_1				 0xa064
/* [R 4] This field indicates the type of the device. '0' - 2 Ports; '1' - 1
   Port. */
#define MISC_REG_BOND_ID					 0xa400
/* [R 8] These bits indicate the metal revision of the chip. This value
   starts at 0x00 for each all-layer tape-out and increments by one for each
   tape-out. */
#define MISC_REG_CHIP_METAL					 0xa404
/* [R 16] These bits indicate the part number for the chip. */
#define MISC_REG_CHIP_NUM					 0xa408
/* [R 4] These bits indicate the base revision of the chip. This value
   starts at 0x0 for the A0 tape-out and increments by one for each
   all-layer tape-out. */
#define MISC_REG_CHIP_REV					 0xa40c
/* [RW 32] The following driver registers(1..6) represent 6 drivers and 32
   clients. Each client can be controlled by one driver only. One in each
   bit represent that this driver control the appropriate client (Ex: bit 5
   is set means this driver control client number 5). addr1 = set; addr0 =
   clear; read from both addresses will give the same result = status. write
   to address 1 will set a request to control all the clients that their
   appropriate bit (in the write command) is set. if the client is free (the
   appropriate bit in all the other drivers is clear) one will be written to
   that driver register; if the client isn't free the bit will remain zero.
   if the appropriate bit is set (the driver request to gain control on a
   client it already controls the ~MISC_REGISTERS_INT_STS.GENERIC_SW
   interrupt will be asserted). write to address 0 will set a request to
   free all the clients that their appropriate bit (in the write command) is
   set. if the appropriate bit is clear (the driver request to free a client
   it doesn't controls the ~MISC_REGISTERS_INT_STS.GENERIC_SW interrupt will
   be asserted). */
#define MISC_REG_DRIVER_CONTROL_1				 0xa510
/* [RW 32] GPIO. [31-28] FLOAT port 0; [27-24] FLOAT port 0; When any of
   these bits is written as a '1'; the corresponding SPIO bit will turn off
   it's drivers and become an input. This is the reset state of all GPIO
   pins. The read value of these bits will be a '1' if that last command
   (#SET; #CLR; or #FLOAT) for this bit was a #FLOAT. (reset value 0xff).
   [23-20] CLR port 1; 19-16] CLR port 0; When any of these bits is written
   as a '1'; the corresponding GPIO bit will drive low. The read value of
   these bits will be a '1' if that last command (#SET; #CLR; or #FLOAT) for
   this bit was a #CLR. (reset value 0). [15-12] SET port 1; 11-8] port 0;
   SET When any of these bits is written as a '1'; the corresponding GPIO
   bit will drive high (if it has that capability). The read value of these
   bits will be a '1' if that last command (#SET; #CLR; or #FLOAT) for this
   bit was a #SET. (reset value 0). [7-4] VALUE port 1; [3-0] VALUE port 0;
   RO; These bits indicate the read value of each of the eight GPIO pins.
   This is the result value of the pin; not the drive value. Writing these
   bits will have not effect. */
#define MISC_REG_GPIO						 0xa490
/* [RW 1] Setting this bit enables a timer in the GRC block to timeout any
   access that does not finish within
   ~misc_registers_grc_timout_val.grc_timeout_val cycles. When this bit is
   cleared; this timeout is disabled. If this timeout occurs; the GRC shall
   assert it attention output. */
#define MISC_REG_GRC_TIMEOUT_EN 				 0xa280
/* [RW 28] 28 LSB of LCPLL first register; reset val = 521. inside order of
   the bits is: [2:0] OAC reset value 001) CML output buffer bias control;
   111 for +40%; 011 for +20%; 001 for 0%; 000 for -20%. [5:3] Icp_ctrl
   (reset value 001) Charge pump current control; 111 for 720u; 011 for
   600u; 001 for 480u and 000 for 360u. [7:6] Bias_ctrl (reset value 00)
   Global bias control; When bit 7 is high bias current will be 10 0gh; When
   bit 6 is high bias will be 100w; Valid values are 00; 10; 01. [10:8]
   Pll_observe (reset value 010) Bits to control observability. bit 10 is
   for test bias; bit 9 is for test CK; bit 8 is test Vc. [12:11] Vth_ctrl
   (reset value 00) Comparator threshold control. 00 for 0.6V; 01 for 0.54V
   and 10 for 0.66V. [13] pllSeqStart (reset value 0) Enables VCO tuning
   sequencer: 1= sequencer disabled; 0= sequencer enabled (inverted
   internally). [14] reserved (reset value 0) Reset for VCO sequencer is
   connected to RESET input directly. [15] capRetry_en (reset value 0)
   enable retry on cap search failure (inverted). [16] freqMonitor_e (reset
   value 0) bit to continuously monitor vco freq (inverted). [17]
   freqDetRestart_en (reset value 0) bit to enable restart when not freq
   locked (inverted). [18] freqDetRetry_en (reset value 0) bit to enable
   retry on freq det failure(inverted). [19] pllForceFdone_en (reset value
   0) bit to enable pllForceFdone & pllForceFpass into pllSeq. [20]
   pllForceFdone (reset value 0) bit to force freqDone. [21] pllForceFpass
   (reset value 0) bit to force freqPass. [22] pllForceDone_en (reset value
   0) bit to enable pllForceCapDone. [23] pllForceCapDone (reset value 0)
   bit to force capDone. [24] pllForceCapPass_en (reset value 0) bit to
   enable pllForceCapPass. [25] pllForceCapPass (reset value 0) bit to force
   capPass. [26] capRestart (reset value 0) bit to force cap sequencer to
   restart. [27] capSelectM_en (reset value 0) bit to enable cap select
   register bits. */
#define MISC_REG_LCPLL_CTRL_1					 0xa2a4
#define MISC_REG_LCPLL_CTRL_REG_2				 0xa2a8
/* [RW 4] Interrupt mask register #0 read/write */
#define MISC_REG_MISC_INT_MASK					 0xa388
/* [RW 1] Parity mask register #0 read/write */
#define MISC_REG_MISC_PRTY_MASK 				 0xa398
/* [R 1] Parity register #0 read */
#define MISC_REG_MISC_PRTY_STS					 0xa38c
/* [RW 32] 32 LSB of storm PLL first register; reset val = 0x 071d2911.
   inside order of the bits is: [0] P1 divider[0] (reset value 1); [1] P1
   divider[1] (reset value 0); [2] P1 divider[2] (reset value 0); [3] P1
   divider[3] (reset value 0); [4] P2 divider[0] (reset value 1); [5] P2
   divider[1] (reset value 0); [6] P2 divider[2] (reset value 0); [7] P2
   divider[3] (reset value 0); [8] ph_det_dis (reset value 1); [9]
   freq_det_dis (reset value 0); [10] Icpx[0] (reset value 0); [11] Icpx[1]
   (reset value 1); [12] Icpx[2] (reset value 0); [13] Icpx[3] (reset value
   1); [14] Icpx[4] (reset value 0); [15] Icpx[5] (reset value 0); [16]
   Rx[0] (reset value 1); [17] Rx[1] (reset value 0); [18] vc_en (reset
   value 1); [19] vco_rng[0] (reset value 1); [20] vco_rng[1] (reset value
   1); [21] Kvco_xf[0] (reset value 0); [22] Kvco_xf[1] (reset value 0);
   [23] Kvco_xf[2] (reset value 0); [24] Kvco_xs[0] (reset value 1); [25]
   Kvco_xs[1] (reset value 1); [26] Kvco_xs[2] (reset value 1); [27]
   testd_en (reset value 0); [28] testd_sel[0] (reset value 0); [29]
   testd_sel[1] (reset value 0); [30] testd_sel[2] (reset value 0); [31]
   testa_en (reset value 0); */
#define MISC_REG_PLL_STORM_CTRL_1				 0xa294
#define MISC_REG_PLL_STORM_CTRL_2				 0xa298
#define MISC_REG_PLL_STORM_CTRL_3				 0xa29c
#define MISC_REG_PLL_STORM_CTRL_4				 0xa2a0
/* [RW 32] reset reg#1; rite/read one = the specific block is out of reset;
   write/read zero = the specific block is in reset; addr 0-wr- the write
   value will be written to the register; addr 1-set - one will be written
   to all the bits that have the value of one in the data written (bits that
   have the value of zero will not be change) ; addr 2-clear - zero will be
   written to all the bits that have the value of one in the data written
   (bits that have the value of zero will not be change); addr 3-ignore;
   read ignore from all addr except addr 00; inside order of the bits is:
   [0] rst_brb1; [1] rst_prs; [2] rst_src; [3] rst_tsdm; [4] rst_tsem; [5]
   rst_tcm; [6] rst_rbcr; [7] rst_nig; [8] rst_usdm; [9] rst_ucm; [10]
   rst_usem; [11] rst_upb; [12] rst_ccm; [13] rst_csem; [14] rst_csdm; [15]
   rst_rbcu; [16] rst_pbf; [17] rst_qm; [18] rst_tm; [19] rst_dorq; [20]
   rst_xcm; [21] rst_xsdm; [22] rst_xsem; [23] rst_rbct; [24] rst_cdu; [25]
   rst_cfc; [26] rst_pxp; [27] rst_pxpv; [28] rst_rbcp; [29] rst_hc; [30]
   rst_dmae; [31] rst_semi_rtc; */
#define MISC_REG_RESET_REG_1					 0xa580
#define MISC_REG_RESET_REG_2					 0xa590
/* [RW 20] 20 bit GRC address where the scratch-pad of the MCP that is
   shared with the driver resides */
#define MISC_REG_SHARED_MEM_ADDR				 0xa2b4
/* [RW 32] SPIO. [31-24] FLOAT When any of these bits is written as a '1';
   the corresponding SPIO bit will turn off it's drivers and become an
   input. This is the reset state of all SPIO pins. The read value of these
   bits will be a '1' if that last command (#SET; #CL; or #FLOAT) for this
   bit was a #FLOAT. (reset value 0xff). [23-16] CLR When any of these bits
   is written as a '1'; the corresponding SPIO bit will drive low. The read
   value of these bits will be a '1' if that last command (#SET; #CLR; or
#FLOAT) for this bit was a #CLR. (reset value 0). [15-8] SET When any of
   these bits is written as a '1'; the corresponding SPIO bit will drive
   high (if it has that capability). The read value of these bits will be a
   '1' if that last command (#SET; #CLR; or #FLOAT) for this bit was a #SET.
   (reset value 0). [7-0] VALUE RO; These bits indicate the read value of
   each of the eight SPIO pins. This is the result value of the pin; not the
   drive value. Writing these bits will have not effect. Each 8 bits field
   is divided as follows: [0] VAUX Enable; when pulsed low; enables supply
   from VAUX. (This is an output pin only; the FLOAT field is not applicable
   for this pin); [1] VAUX Disable; when pulsed low; disables supply form
   VAUX. (This is an output pin only; FLOAT field is not applicable for this
   pin); [2] SEL_VAUX_B - Control to power switching logic. Drive low to
   select VAUX supply. (This is an output pin only; it is not controlled by
   the SET and CLR fields; it is controlled by the Main Power SM; the FLOAT
   field is not applicable for this pin; only the VALUE fields is relevant -
   it reflects the output value); [3] reserved; [4] spio_4; [5] spio_5; [6]
   Bit 0 of UMP device ID select; read by UMP firmware; [7] Bit 1 of UMP
   device ID select; read by UMP firmware. */
#define MISC_REG_SPIO						 0xa4fc
/* [RW 8] These bits enable the SPIO_INTs to signals event to the IGU/MC.
   according to the following map: [3:0] reserved; [4] spio_4 [5] spio_5;
   [7:0] reserved */
#define MISC_REG_SPIO_EVENT_EN					 0xa2b8
/* [RW 32] SPIO INT. [31-24] OLD_CLR Writing a '1' to these bit clears the
   corresponding bit in the #OLD_VALUE register. This will acknowledge an
   interrupt on the falling edge of corresponding SPIO input (reset value
   0). [23-16] OLD_SET Writing a '1' to these bit sets the corresponding bit
   in the #OLD_VALUE register. This will acknowledge an interrupt on the
   rising edge of corresponding SPIO input (reset value 0). [15-8] OLD_VALUE
   RO; These bits indicate the old value of the SPIO input value. When the
   ~INT_STATE bit is set; this bit indicates the OLD value of the pin such
   that if ~INT_STATE is set and this bit is '0'; then the interrupt is due
   to a low to high edge. If ~INT_STATE is set and this bit is '1'; then the
   interrupt is due to a high to low edge (reset value 0). [7-0] INT_STATE
   RO; These bits indicate the current SPIO interrupt state for each SPIO
   pin. This bit is cleared when the appropriate #OLD_SET or #OLD_CLR
   command bit is written. This bit is set when the SPIO input does not
   match the current value in #OLD_VALUE (reset value 0). */
#define MISC_REG_SPIO_INT					 0xa500
/* [RW 1] Set by the MCP to remember if one or more of the drivers is/are
   loaded; 0-prepare; -unprepare */
#define MISC_REG_UNPREPARED					 0xa424
#define NIG_MASK_INTERRUPT_PORT0_REG_MASK_EMAC0_MISC_MI_INT	 (0x1<<0)
#define NIG_MASK_INTERRUPT_PORT0_REG_MASK_SERDES0_LINK_STATUS	 (0x1<<9)
#define NIG_MASK_INTERRUPT_PORT0_REG_MASK_XGXS0_LINK10G 	 (0x1<<15)
#define NIG_MASK_INTERRUPT_PORT0_REG_MASK_XGXS0_LINK_STATUS	 (0xf<<18)
/* [RW 1] Input enable for RX_BMAC0 IF */
#define NIG_REG_BMAC0_IN_EN					 0x100ac
/* [RW 1] output enable for TX_BMAC0 IF */
#define NIG_REG_BMAC0_OUT_EN					 0x100e0
/* [RW 1] output enable for TX BMAC pause port 0 IF */
#define NIG_REG_BMAC0_PAUSE_OUT_EN				 0x10110
/* [RW 1] output enable for RX_BMAC0_REGS IF */
#define NIG_REG_BMAC0_REGS_OUT_EN				 0x100e8
/* [RW 1] output enable for RX BRB1 port0 IF */
#define NIG_REG_BRB0_OUT_EN					 0x100f8
/* [RW 1] Input enable for TX BRB1 pause port 0 IF */
#define NIG_REG_BRB0_PAUSE_IN_EN				 0x100c4
/* [RW 1] output enable for RX BRB1 port1 IF */
#define NIG_REG_BRB1_OUT_EN					 0x100fc
/* [RW 1] Input enable for TX BRB1 pause port 1 IF */
#define NIG_REG_BRB1_PAUSE_IN_EN				 0x100c8
/* [RW 1] output enable for RX BRB1 LP IF */
#define NIG_REG_BRB_LB_OUT_EN					 0x10100
/* [WB_W 72] Debug packet to LP from RBC; Data spelling:[63:0] data; 64]
   error; [67:65]eop_bvalid; [68]eop; [69]sop; [70]port_id; 71]flush */
#define NIG_REG_DEBUG_PACKET_LB 				 0x10800
/* [RW 1] Input enable for TX Debug packet */
#define NIG_REG_EGRESS_DEBUG_IN_EN				 0x100dc
/* [RW 1] If 1 - egress drain mode for port0 is active. In this mode all
   packets from PBFare not forwarded to the MAC and just deleted from FIFO.
   First packet may be deleted from the middle. And last packet will be
   always deleted till the end. */
#define NIG_REG_EGRESS_DRAIN0_MODE				 0x10060
/* [RW 1] Output enable to EMAC0 */
#define NIG_REG_EGRESS_EMAC0_OUT_EN				 0x10120
/* [RW 1] MAC configuration for packets of port0. If 1 - all packet outputs
   to emac for port0; other way to bmac for port0 */
#define NIG_REG_EGRESS_EMAC0_PORT				 0x10058
/* [RW 1] Input enable for TX PBF user packet port0 IF */
#define NIG_REG_EGRESS_PBF0_IN_EN				 0x100cc
/* [RW 1] Input enable for TX PBF user packet port1 IF */
#define NIG_REG_EGRESS_PBF1_IN_EN				 0x100d0
/* [RW 1] Input enable for RX_EMAC0 IF */
#define NIG_REG_EMAC0_IN_EN					 0x100a4
/* [RW 1] output enable for TX EMAC pause port 0 IF */
#define NIG_REG_EMAC0_PAUSE_OUT_EN				 0x10118
/* [R 1] status from emac0. This bit is set when MDINT from either the
   EXT_MDINT pin or from the Copper PHY is driven low. This condition must
   be cleared in the attached PHY device that is driving the MINT pin. */
#define NIG_REG_EMAC0_STATUS_MISC_MI_INT			 0x10494
/* [WB 48] This address space contains BMAC0 registers. The BMAC registers
   are described in appendix A. In order to access the BMAC0 registers; the
   base address; NIG_REGISTERS_INGRESS_BMAC0_MEM; Offset: 0x10c00; should be
   added to each BMAC register offset */
#define NIG_REG_INGRESS_BMAC0_MEM				 0x10c00
/* [WB 48] This address space contains BMAC1 registers. The BMAC registers
   are described in appendix A. In order to access the BMAC0 registers; the
   base address; NIG_REGISTERS_INGRESS_BMAC1_MEM; Offset: 0x11000; should be
   added to each BMAC register offset */
#define NIG_REG_INGRESS_BMAC1_MEM				 0x11000
/* [R 1] FIFO empty in EOP descriptor FIFO of LP in NIG_RX_EOP */
#define NIG_REG_INGRESS_EOP_LB_EMPTY				 0x104e0
/* [RW 17] Debug only. RX_EOP_DSCR_lb_FIFO in NIG_RX_EOP. Data
   packet_length[13:0]; mac_error[14]; trunc_error[15]; parity[16] */
#define NIG_REG_INGRESS_EOP_LB_FIFO				 0x104e4
/* [RW 1] led 10g for port 0 */
#define NIG_REG_LED_10G_P0					 0x10320
/* [RW 1] Port0: This bit is set to enable the use of the
   ~nig_registers_led_control_blink_rate_p0.led_control_blink_rate_p0 field
   defined below. If this bit is cleared; then the blink rate will be about
   8Hz. */
#define NIG_REG_LED_CONTROL_BLINK_RATE_ENA_P0			 0x10318
/* [RW 12] Port0: Specifies the period of each blink cycle (on + off) for
   Traffic LED in milliseconds. Must be a non-zero value. This 12-bit field
   is reset to 0x080; giving a default blink period of approximately 8Hz. */
#define NIG_REG_LED_CONTROL_BLINK_RATE_P0			 0x10310
/* [RW 1] Port0: If set along with the
   nig_registers_led_control_override_traffic_p0.led_control_override_traffic_p0
   bit and ~nig_registers_led_control_traffic_p0.led_control_traffic_p0 LED
   bit; the Traffic LED will blink with the blink rate specified in
   ~nig_registers_led_control_blink_rate_p0.led_control_blink_rate_p0 and
   ~nig_registers_led_control_blink_rate_ena_p0.led_control_blink_rate_ena_p0
   fields. */
#define NIG_REG_LED_CONTROL_BLINK_TRAFFIC_P0			 0x10308
/* [RW 1] Port0: If set overrides hardware control of the Traffic LED. The
   Traffic LED will then be controlled via bit ~nig_registers_
   led_control_traffic_p0.led_control_traffic_p0 and bit
   ~nig_registers_led_control_blink_traffic_p0.led_control_blink_traffic_p0 */
#define NIG_REG_LED_CONTROL_OVERRIDE_TRAFFIC_P0 		 0x102f8
/* [RW 1] Port0: If set along with the led_control_override_trafic_p0 bit;
   turns on the Traffic LED. If the led_control_blink_traffic_p0 bit is also
   set; the LED will blink with blink rate specified in
   ~nig_registers_led_control_blink_rate_p0.led_control_blink_rate_p0 and
   ~nig_regsters_led_control_blink_rate_ena_p0.led_control_blink_rate_ena_p0
   fields. */
#define NIG_REG_LED_CONTROL_TRAFFIC_P0				 0x10300
/* [RW 4] led mode for port0: 0 MAC; 1-3 PHY1; 4 MAC2; 5-7 PHY4; 8-MAC3;
   9-11PHY7; 12 MAC4; 13-15 PHY10; */
#define NIG_REG_LED_MODE_P0					 0x102f0
#define NIG_REG_LLH0_BRB1_DRV_MASK				 0x10244
/* [RW 1] send to BRB1 if no match on any of RMP rules. */
#define NIG_REG_LLH0_BRB1_NOT_MCP				 0x1025c
/* [RW 32] cm header for llh0 */
#define NIG_REG_LLH0_CM_HEADER					 0x1007c
#define NIG_REG_LLH0_ERROR_MASK 				 0x1008c
/* [RW 8] event id for llh0 */
#define NIG_REG_LLH0_EVENT_ID					 0x10084
/* [RW 8] init credit counter for port0 in LLH */
#define NIG_REG_LLH0_XCM_INIT_CREDIT				 0x10554
#define NIG_REG_LLH0_XCM_MASK					 0x10130
/* [RW 1] send to BRB1 if no match on any of RMP rules. */
#define NIG_REG_LLH1_BRB1_NOT_MCP				 0x102dc
/* [RW 32] cm header for llh1 */
#define NIG_REG_LLH1_CM_HEADER					 0x10080
#define NIG_REG_LLH1_ERROR_MASK 				 0x10090
/* [RW 8] event id for llh1 */
#define NIG_REG_LLH1_EVENT_ID					 0x10088
/* [RW 8] init credit counter for port1 in LLH */
#define NIG_REG_LLH1_XCM_INIT_CREDIT				 0x10564
#define NIG_REG_LLH1_XCM_MASK					 0x10134
#define NIG_REG_MASK_INTERRUPT_PORT0				 0x10330
#define NIG_REG_MASK_INTERRUPT_PORT1				 0x10334
/* [RW 1] Output signal from NIG to EMAC0. When set enables the EMAC0 block. */
#define NIG_REG_NIG_EMAC0_EN					 0x1003c
/* [RW 1] Output signal from NIG to TX_EMAC0. When set indicates to the
   EMAC0 to strip the CRC from the ingress packets. */
#define NIG_REG_NIG_INGRESS_EMAC0_NO_CRC			 0x10044
/* [RW 1] Input enable for RX PBF LP IF */
#define NIG_REG_PBF_LB_IN_EN					 0x100b4
/* [RW 1] Value of this register will be transmitted to port swap when
   ~nig_registers_strap_override.strap_override =1 */
#define NIG_REG_PORT_SWAP					 0x10394
/* [RW 1] output enable for RX parser descriptor IF */
#define NIG_REG_PRS_EOP_OUT_EN					 0x10104
/* [RW 1] Input enable for RX parser request IF */
#define NIG_REG_PRS_REQ_IN_EN					 0x100b8
/* [RW 5] control to serdes - CL22 PHY_ADD and CL45 PRTAD */
#define NIG_REG_SERDES0_CTRL_PHY_ADDR				 0x10374
/* [R 1] status from serdes0 that inputs to interrupt logic of link status */
#define NIG_REG_SERDES0_STATUS_LINK_STATUS			 0x10578
/* [R 32] Rx statistics : In user packets discarded due to BRB backpressure
   for port0 */
#define NIG_REG_STAT0_BRB_DISCARD				 0x105f0
/* [R 32] Rx statistics : In user packets discarded due to BRB backpressure
   for port1 */
#define NIG_REG_STAT1_BRB_DISCARD				 0x10628
/* [WB_R 64] Rx statistics : User octets received for LP */
#define NIG_REG_STAT2_BRB_OCTET 				 0x107e0
#define NIG_REG_STATUS_INTERRUPT_PORT0				 0x10328
#define NIG_REG_STATUS_INTERRUPT_PORT1				 0x1032c
/* [RW 1] port swap mux selection. If this register equal to 0 then port
   swap is equal to SPIO pin that inputs from ifmux_serdes_swap. If 1 then
   ort swap is equal to ~nig_registers_port_swap.port_swap */
#define NIG_REG_STRAP_OVERRIDE					 0x10398
/* [RW 1] output enable for RX_XCM0 IF */
#define NIG_REG_XCM0_OUT_EN					 0x100f0
/* [RW 1] output enable for RX_XCM1 IF */
#define NIG_REG_XCM1_OUT_EN					 0x100f4
/* [RW 5] control to xgxs - CL45 DEVAD */
#define NIG_REG_XGXS0_CTRL_MD_DEVAD				 0x1033c
/* [RW 5] control to xgxs - CL22 PHY_ADD and CL45 PRTAD */
#define NIG_REG_XGXS0_CTRL_PHY_ADDR				 0x10340
/* [R 1] status from xgxs0 that inputs to interrupt logic of link10g. */
#define NIG_REG_XGXS0_STATUS_LINK10G				 0x10680
/* [R 4] status from xgxs0 that inputs to interrupt logic of link status */
#define NIG_REG_XGXS0_STATUS_LINK_STATUS			 0x10684
/* [RW 2] selection for XGXS lane of port 0 in NIG_MUX block */
#define NIG_REG_XGXS_LANE_SEL_P0				 0x102e8
/* [RW 1] selection for port0 for NIG_MUX block : 0 = SerDes; 1 = XGXS */
#define NIG_REG_XGXS_SERDES0_MODE_SEL				 0x102e0
#define NIG_STATUS_INTERRUPT_PORT0_REG_STATUS_SERDES0_LINK_STATUS (0x1<<9)
#define NIG_STATUS_INTERRUPT_PORT0_REG_STATUS_XGXS0_LINK10G	 (0x1<<15)
#define NIG_STATUS_INTERRUPT_PORT0_REG_STATUS_XGXS0_LINK_STATUS  (0xf<<18)
#define NIG_STATUS_INTERRUPT_PORT0_REG_STATUS_XGXS0_LINK_STATUS_SIZE 18
/* [RW 1] Disable processing further tasks from port 0 (after ending the
   current task in process). */
#define PBF_REG_DISABLE_NEW_TASK_PROC_P0			 0x14005c
/* [RW 1] Disable processing further tasks from port 1 (after ending the
   current task in process). */
#define PBF_REG_DISABLE_NEW_TASK_PROC_P1			 0x140060
/* [RW 1] Disable processing further tasks from port 4 (after ending the
   current task in process). */
#define PBF_REG_DISABLE_NEW_TASK_PROC_P4			 0x14006c
#define PBF_REG_IF_ENABLE_REG					 0x140044
/* [RW 1] Init bit. When set the initial credits are copied to the credit
   registers (except the port credits). Should be set and then reset after
   the configuration of the block has ended. */
#define PBF_REG_INIT						 0x140000
/* [RW 1] Init bit for port 0. When set the initial credit of port 0 is
   copied to the credit register. Should be set and then reset after the
   configuration of the port has ended. */
#define PBF_REG_INIT_P0 					 0x140004
/* [RW 1] Init bit for port 1. When set the initial credit of port 1 is
   copied to the credit register. Should be set and then reset after the
   configuration of the port has ended. */
#define PBF_REG_INIT_P1 					 0x140008
/* [RW 1] Init bit for port 4. When set the initial credit of port 4 is
   copied to the credit register. Should be set and then reset after the
   configuration of the port has ended. */
#define PBF_REG_INIT_P4 					 0x14000c
/* [RW 1] Enable for mac interface 0. */
#define PBF_REG_MAC_IF0_ENABLE					 0x140030
/* [RW 1] Enable for mac interface 1. */
#define PBF_REG_MAC_IF1_ENABLE					 0x140034
/* [RW 1] Enable for the loopback interface. */
#define PBF_REG_MAC_LB_ENABLE					 0x140040
/* [RW 10] Port 0 threshold used by arbiter in 16 byte lines used when pause
   not suppoterd. */
#define PBF_REG_P0_ARB_THRSH					 0x1400e4
/* [R 11] Current credit for port 0 in the tx port buffers in 16 byte lines. */
#define PBF_REG_P0_CREDIT					 0x140200
/* [RW 11] Initial credit for port 0 in the tx port buffers in 16 byte
   lines. */
#define PBF_REG_P0_INIT_CRD					 0x1400d0
/* [RW 1] Indication that pause is enabled for port 0. */
#define PBF_REG_P0_PAUSE_ENABLE 				 0x140014
/* [R 8] Number of tasks in port 0 task queue. */
#define PBF_REG_P0_TASK_CNT					 0x140204
/* [R 11] Current credit for port 1 in the tx port buffers in 16 byte lines. */
#define PBF_REG_P1_CREDIT					 0x140208
/* [RW 11] Initial credit for port 1 in the tx port buffers in 16 byte
   lines. */
#define PBF_REG_P1_INIT_CRD					 0x1400d4
/* [R 8] Number of tasks in port 1 task queue. */
#define PBF_REG_P1_TASK_CNT					 0x14020c
/* [R 11] Current credit for port 4 in the tx port buffers in 16 byte lines. */
#define PBF_REG_P4_CREDIT					 0x140210
/* [RW 11] Initial credit for port 4 in the tx port buffers in 16 byte
   lines. */
#define PBF_REG_P4_INIT_CRD					 0x1400e0
/* [R 8] Number of tasks in port 4 task queue. */
#define PBF_REG_P4_TASK_CNT					 0x140214
/* [RW 5] Interrupt mask register #0 read/write */
#define PBF_REG_PBF_INT_MASK					 0x1401d4
/* [R 5] Interrupt register #0 read */
#define PBF_REG_PBF_INT_STS					 0x1401c8
#define PB_REG_CONTROL						 0
/* [RW 2] Interrupt mask register #0 read/write */
#define PB_REG_PB_INT_MASK					 0x28
/* [R 2] Interrupt register #0 read */
#define PB_REG_PB_INT_STS					 0x1c
/* [RW 4] Parity mask register #0 read/write */
#define PB_REG_PB_PRTY_MASK					 0x38
/* [R 4] Parity register #0 read */
#define PB_REG_PB_PRTY_STS					 0x2c
#define PRS_REG_A_PRSU_20					 0x40134
/* [R 8] debug only: CFC load request current credit. Transaction based. */
#define PRS_REG_CFC_LD_CURRENT_CREDIT				 0x40164
/* [R 8] debug only: CFC search request current credit. Transaction based. */
#define PRS_REG_CFC_SEARCH_CURRENT_CREDIT			 0x40168
/* [RW 6] The initial credit for the search message to the CFC interface.
   Credit is transaction based. */
#define PRS_REG_CFC_SEARCH_INITIAL_CREDIT			 0x4011c
/* [RW 24] CID for port 0 if no match */
#define PRS_REG_CID_PORT_0					 0x400fc
#define PRS_REG_CID_PORT_1					 0x40100
/* [RW 32] The CM header for flush message where 'load existed' bit in CFC
   load response is reset and packet type is 0. Used in packet start message
   to TCM. */
#define PRS_REG_CM_HDR_FLUSH_LOAD_TYPE_0			 0x400dc
#define PRS_REG_CM_HDR_FLUSH_LOAD_TYPE_1			 0x400e0
#define PRS_REG_CM_HDR_FLUSH_LOAD_TYPE_2			 0x400e4
#define PRS_REG_CM_HDR_FLUSH_LOAD_TYPE_3			 0x400e8
#define PRS_REG_CM_HDR_FLUSH_LOAD_TYPE_4			 0x400ec
/* [RW 32] The CM header for flush message where 'load existed' bit in CFC
   load response is set and packet type is 0. Used in packet start message
   to TCM. */
#define PRS_REG_CM_HDR_FLUSH_NO_LOAD_TYPE_0			 0x400bc
#define PRS_REG_CM_HDR_FLUSH_NO_LOAD_TYPE_1			 0x400c0
#define PRS_REG_CM_HDR_FLUSH_NO_LOAD_TYPE_2			 0x400c4
#define PRS_REG_CM_HDR_FLUSH_NO_LOAD_TYPE_3			 0x400c8
#define PRS_REG_CM_HDR_FLUSH_NO_LOAD_TYPE_4			 0x400cc
/* [RW 32] The CM header for a match and packet type 1 for loopback port.
   Used in packet start message to TCM. */
#define PRS_REG_CM_HDR_LOOPBACK_TYPE_1				 0x4009c
#define PRS_REG_CM_HDR_LOOPBACK_TYPE_2				 0x400a0
#define PRS_REG_CM_HDR_LOOPBACK_TYPE_3				 0x400a4
#define PRS_REG_CM_HDR_LOOPBACK_TYPE_4				 0x400a8
/* [RW 32] The CM header for a match and packet type 0. Used in packet start
   message to TCM. */
#define PRS_REG_CM_HDR_TYPE_0					 0x40078
#define PRS_REG_CM_HDR_TYPE_1					 0x4007c
#define PRS_REG_CM_HDR_TYPE_2					 0x40080
#define PRS_REG_CM_HDR_TYPE_3					 0x40084
#define PRS_REG_CM_HDR_TYPE_4					 0x40088
/* [RW 32] The CM header in case there was not a match on the connection */
#define PRS_REG_CM_NO_MATCH_HDR 				 0x400b8
/* [RW 8] The 8-bit event ID for a match and packet type 1. Used in packet
   start message to TCM. */
#define PRS_REG_EVENT_ID_1					 0x40054
#define PRS_REG_EVENT_ID_2					 0x40058
#define PRS_REG_EVENT_ID_3					 0x4005c
/* [RW 8] Context region for flush packet with packet type 0. Used in CFC
   load request message. */
#define PRS_REG_FLUSH_REGIONS_TYPE_0				 0x40004
#define PRS_REG_FLUSH_REGIONS_TYPE_1				 0x40008
#define PRS_REG_FLUSH_REGIONS_TYPE_2				 0x4000c
#define PRS_REG_FLUSH_REGIONS_TYPE_3				 0x40010
#define PRS_REG_FLUSH_REGIONS_TYPE_4				 0x40014
#define PRS_REG_FLUSH_REGIONS_TYPE_5				 0x40018
#define PRS_REG_FLUSH_REGIONS_TYPE_6				 0x4001c
#define PRS_REG_FLUSH_REGIONS_TYPE_7				 0x40020
/* [RW 4] The increment value to send in the CFC load request message */
#define PRS_REG_INC_VALUE					 0x40048
/* [RW 1] If set indicates not to send messages to CFC on received packets */
#define PRS_REG_NIC_MODE					 0x40138
/* [RW 8] The 8-bit event ID for cases where there is no match on the
   connection. Used in packet start message to TCM. */
#define PRS_REG_NO_MATCH_EVENT_ID				 0x40070
/* [ST 24] The number of input CFC flush packets */
#define PRS_REG_NUM_OF_CFC_FLUSH_MESSAGES			 0x40128
/* [ST 32] The number of cycles the Parser halted its operation since it
   could not allocate the next serial number */
#define PRS_REG_NUM_OF_DEAD_CYCLES				 0x40130
/* [ST 24] The number of input packets */
#define PRS_REG_NUM_OF_PACKETS					 0x40124
/* [ST 24] The number of input transparent flush packets */
#define PRS_REG_NUM_OF_TRANSPARENT_FLUSH_MESSAGES		 0x4012c
/* [RW 8] Context region for received Ethernet packet with a match and
   packet type 0. Used in CFC load request message */
#define PRS_REG_PACKET_REGIONS_TYPE_0				 0x40028
#define PRS_REG_PACKET_REGIONS_TYPE_1				 0x4002c
#define PRS_REG_PACKET_REGIONS_TYPE_2				 0x40030
#define PRS_REG_PACKET_REGIONS_TYPE_3				 0x40034
#define PRS_REG_PACKET_REGIONS_TYPE_4				 0x40038
#define PRS_REG_PACKET_REGIONS_TYPE_5				 0x4003c
#define PRS_REG_PACKET_REGIONS_TYPE_6				 0x40040
#define PRS_REG_PACKET_REGIONS_TYPE_7				 0x40044
/* [R 2] debug only: Number of pending requests for CAC on port 0. */
#define PRS_REG_PENDING_BRB_CAC0_RQ				 0x40174
/* [R 2] debug only: Number of pending requests for header parsing. */
#define PRS_REG_PENDING_BRB_PRS_RQ				 0x40170
/* [R 1] Interrupt register #0 read */
#define PRS_REG_PRS_INT_STS					 0x40188
/* [RW 8] Parity mask register #0 read/write */
#define PRS_REG_PRS_PRTY_MASK					 0x401a4
/* [R 8] Parity register #0 read */
#define PRS_REG_PRS_PRTY_STS					 0x40198
/* [RW 8] Context region for pure acknowledge packets. Used in CFC load
   request message */
#define PRS_REG_PURE_REGIONS					 0x40024
/* [R 32] debug only: Serial number status lsb 32 bits. '1' indicates this
   serail number was released by SDM but cannot be used because a previous
   serial number was not released. */
#define PRS_REG_SERIAL_NUM_STATUS_LSB				 0x40154
/* [R 32] debug only: Serial number status msb 32 bits. '1' indicates this
   serail number was released by SDM but cannot be used because a previous
   serial number was not released. */
#define PRS_REG_SERIAL_NUM_STATUS_MSB				 0x40158
/* [R 4] debug only: SRC current credit. Transaction based. */
#define PRS_REG_SRC_CURRENT_CREDIT				 0x4016c
/* [R 8] debug only: TCM current credit. Cycle based. */
#define PRS_REG_TCM_CURRENT_CREDIT				 0x40160
/* [R 8] debug only: TSDM current credit. Transaction based. */
#define PRS_REG_TSDM_CURRENT_CREDIT				 0x4015c
/* [R 6] Debug only: Number of used entries in the data FIFO */
#define PXP2_REG_HST_DATA_FIFO_STATUS				 0x12047c
/* [R 7] Debug only: Number of used entries in the header FIFO */
#define PXP2_REG_HST_HEADER_FIFO_STATUS 			 0x120478
#define PXP2_REG_PGL_CONTROL0					 0x120490
#define PXP2_REG_PGL_CONTROL1					 0x120514
/* [RW 32] Inbound interrupt table for CSDM: bits[31:16]-mask;
   its[15:0]-address */
#define PXP2_REG_PGL_INT_CSDM_0 				 0x1204f4
#define PXP2_REG_PGL_INT_CSDM_1 				 0x1204f8
#define PXP2_REG_PGL_INT_CSDM_2 				 0x1204fc
#define PXP2_REG_PGL_INT_CSDM_3 				 0x120500
#define PXP2_REG_PGL_INT_CSDM_4 				 0x120504
#define PXP2_REG_PGL_INT_CSDM_5 				 0x120508
#define PXP2_REG_PGL_INT_CSDM_6 				 0x12050c
#define PXP2_REG_PGL_INT_CSDM_7 				 0x120510
/* [RW 32] Inbound interrupt table for TSDM: bits[31:16]-mask;
   its[15:0]-address */
#define PXP2_REG_PGL_INT_TSDM_0 				 0x120494
#define PXP2_REG_PGL_INT_TSDM_1 				 0x120498
#define PXP2_REG_PGL_INT_TSDM_2 				 0x12049c
#define PXP2_REG_PGL_INT_TSDM_3 				 0x1204a0
#define PXP2_REG_PGL_INT_TSDM_4 				 0x1204a4
#define PXP2_REG_PGL_INT_TSDM_5 				 0x1204a8
#define PXP2_REG_PGL_INT_TSDM_6 				 0x1204ac
#define PXP2_REG_PGL_INT_TSDM_7 				 0x1204b0
/* [RW 32] Inbound interrupt table for USDM: bits[31:16]-mask;
   its[15:0]-address */
#define PXP2_REG_PGL_INT_USDM_0 				 0x1204b4
#define PXP2_REG_PGL_INT_USDM_1 				 0x1204b8
#define PXP2_REG_PGL_INT_USDM_2 				 0x1204bc
#define PXP2_REG_PGL_INT_USDM_3 				 0x1204c0
#define PXP2_REG_PGL_INT_USDM_4 				 0x1204c4
#define PXP2_REG_PGL_INT_USDM_5 				 0x1204c8
#define PXP2_REG_PGL_INT_USDM_6 				 0x1204cc
#define PXP2_REG_PGL_INT_USDM_7 				 0x1204d0
/* [RW 32] Inbound interrupt table for XSDM: bits[31:16]-mask;
   its[15:0]-address */
#define PXP2_REG_PGL_INT_XSDM_0 				 0x1204d4
#define PXP2_REG_PGL_INT_XSDM_1 				 0x1204d8
#define PXP2_REG_PGL_INT_XSDM_2 				 0x1204dc
#define PXP2_REG_PGL_INT_XSDM_3 				 0x1204e0
#define PXP2_REG_PGL_INT_XSDM_4 				 0x1204e4
#define PXP2_REG_PGL_INT_XSDM_5 				 0x1204e8
#define PXP2_REG_PGL_INT_XSDM_6 				 0x1204ec
#define PXP2_REG_PGL_INT_XSDM_7 				 0x1204f0
/* [R 1] this bit indicates that a read request was blocked because of
   bus_master_en was deasserted */
#define PXP2_REG_PGL_READ_BLOCKED				 0x120568
/* [R 6] debug only */
#define PXP2_REG_PGL_TXR_CDTS					 0x120528
/* [R 18] debug only */
#define PXP2_REG_PGL_TXW_CDTS					 0x12052c
/* [R 1] this bit indicates that a write request was blocked because of
   bus_master_en was deasserted */
#define PXP2_REG_PGL_WRITE_BLOCKED				 0x120564
#define PXP2_REG_PSWRQ_BW_ADD1					 0x1201c0
#define PXP2_REG_PSWRQ_BW_ADD10 				 0x1201e4
#define PXP2_REG_PSWRQ_BW_ADD11 				 0x1201e8
#define PXP2_REG_PSWRQ_BW_ADD10 				 0x1201e4
#define PXP2_REG_PSWRQ_BW_ADD11 				 0x1201e8
#define PXP2_REG_PSWRQ_BW_ADD2					 0x1201c4
#define PXP2_REG_PSWRQ_BW_ADD28 				 0x120228
#define PXP2_REG_PSWRQ_BW_ADD28 				 0x120228
#define PXP2_REG_PSWRQ_BW_ADD3					 0x1201c8
#define PXP2_REG_PSWRQ_BW_ADD6					 0x1201d4
#define PXP2_REG_PSWRQ_BW_ADD7					 0x1201d8
#define PXP2_REG_PSWRQ_BW_ADD8					 0x1201dc
#define PXP2_REG_PSWRQ_BW_ADD9					 0x1201e0
#define PXP2_REG_PSWRQ_BW_CREDIT				 0x12032c
#define PXP2_REG_PSWRQ_BW_L1					 0x1202b0
#define PXP2_REG_PSWRQ_BW_L10					 0x1202d4
#define PXP2_REG_PSWRQ_BW_L11					 0x1202d8
#define PXP2_REG_PSWRQ_BW_L10					 0x1202d4
#define PXP2_REG_PSWRQ_BW_L11					 0x1202d8
#define PXP2_REG_PSWRQ_BW_L2					 0x1202b4
#define PXP2_REG_PSWRQ_BW_L28					 0x120318
#define PXP2_REG_PSWRQ_BW_L28					 0x120318
#define PXP2_REG_PSWRQ_BW_L3					 0x1202b8
#define PXP2_REG_PSWRQ_BW_L6					 0x1202c4
#define PXP2_REG_PSWRQ_BW_L7					 0x1202c8
#define PXP2_REG_PSWRQ_BW_L8					 0x1202cc
#define PXP2_REG_PSWRQ_BW_L9					 0x1202d0
#define PXP2_REG_PSWRQ_BW_RD					 0x120324
#define PXP2_REG_PSWRQ_BW_UB1					 0x120238
#define PXP2_REG_PSWRQ_BW_UB10					 0x12025c
#define PXP2_REG_PSWRQ_BW_UB11					 0x120260
#define PXP2_REG_PSWRQ_BW_UB10					 0x12025c
#define PXP2_REG_PSWRQ_BW_UB11					 0x120260
#define PXP2_REG_PSWRQ_BW_UB2					 0x12023c
#define PXP2_REG_PSWRQ_BW_UB28					 0x1202a0
#define PXP2_REG_PSWRQ_BW_UB28					 0x1202a0
#define PXP2_REG_PSWRQ_BW_UB3					 0x120240
#define PXP2_REG_PSWRQ_BW_UB6					 0x12024c
#define PXP2_REG_PSWRQ_BW_UB7					 0x120250
#define PXP2_REG_PSWRQ_BW_UB8					 0x120254
#define PXP2_REG_PSWRQ_BW_UB9					 0x120258
#define PXP2_REG_PSWRQ_BW_WR					 0x120328
#define PXP2_REG_PSWRQ_CDU0_L2P 				 0x120000
#define PXP2_REG_PSWRQ_QM0_L2P					 0x120038
#define PXP2_REG_PSWRQ_SRC0_L2P 				 0x120054
#define PXP2_REG_PSWRQ_TM0_L2P					 0x12001c
/* [RW 25] Interrupt mask register #0 read/write */
#define PXP2_REG_PXP2_INT_MASK					 0x120578
/* [R 25] Interrupt register #0 read */
#define PXP2_REG_PXP2_INT_STS					 0x12056c
/* [RC 25] Interrupt register #0 read clear */
#define PXP2_REG_PXP2_INT_STS_CLR				 0x120570
/* [RW 32] Parity mask register #0 read/write */
#define PXP2_REG_PXP2_PRTY_MASK_0				 0x120588
#define PXP2_REG_PXP2_PRTY_MASK_1				 0x120598
/* [R 32] Parity register #0 read */
#define PXP2_REG_PXP2_PRTY_STS_0				 0x12057c
#define PXP2_REG_PXP2_PRTY_STS_1				 0x12058c
/* [R 1] Debug only: The 'almost full' indication from each fifo (gives
   indication about backpressure) */
#define PXP2_REG_RD_ALMOST_FULL_0				 0x120424
/* [R 8] Debug only: The blocks counter - number of unused block ids */
#define PXP2_REG_RD_BLK_CNT					 0x120418
/* [RW 8] Debug only: Total number of available blocks in Tetris Buffer.
   Must be bigger than 6. Normally should not be changed. */
#define PXP2_REG_RD_BLK_NUM_CFG 				 0x12040c
/* [RW 2] CDU byte swapping mode configuration for master read requests */
#define PXP2_REG_RD_CDURD_SWAP_MODE				 0x120404
/* [RW 1] When '1'; inputs to the PSWRD block are ignored */
#define PXP2_REG_RD_DISABLE_INPUTS				 0x120374
/* [R 1] PSWRD internal memories initialization is done */
#define PXP2_REG_RD_INIT_DONE					 0x120370
/* [RW 8] The maximum number of blocks in Tetris Buffer that can be
   allocated for vq10 */
#define PXP2_REG_RD_MAX_BLKS_VQ10				 0x1203a0
/* [RW 8] The maximum number of blocks in Tetris Buffer that can be
   allocated for vq11 */
#define PXP2_REG_RD_MAX_BLKS_VQ11				 0x1203a4
/* [RW 8] The maximum number of blocks in Tetris Buffer that can be
   allocated for vq17 */
#define PXP2_REG_RD_MAX_BLKS_VQ17				 0x1203bc
/* [RW 8] The maximum number of blocks in Tetris Buffer that can be
   allocated for vq18 */
#define PXP2_REG_RD_MAX_BLKS_VQ18				 0x1203c0
/* [RW 8] The maximum number of blocks in Tetris Buffer that can be
   allocated for vq19 */
#define PXP2_REG_RD_MAX_BLKS_VQ19				 0x1203c4
/* [RW 8] The maximum number of blocks in Tetris Buffer that can be
   allocated for vq22 */
#define PXP2_REG_RD_MAX_BLKS_VQ22				 0x1203d0
/* [RW 8] The maximum number of blocks in Tetris Buffer that can be
   allocated for vq6 */
#define PXP2_REG_RD_MAX_BLKS_VQ6				 0x120390
/* [RW 8] The maximum number of blocks in Tetris Buffer that can be
   allocated for vq9 */
#define PXP2_REG_RD_MAX_BLKS_VQ9				 0x12039c
/* [RW 2] PBF byte swapping mode configuration for master read requests */
#define PXP2_REG_RD_PBF_SWAP_MODE				 0x1203f4
/* [R 1] Debug only: Indication if delivery ports are idle */
#define PXP2_REG_RD_PORT_IS_IDLE_0				 0x12041c
#define PXP2_REG_RD_PORT_IS_IDLE_1				 0x120420
/* [RW 2] QM byte swapping mode configuration for master read requests */
#define PXP2_REG_RD_QM_SWAP_MODE				 0x1203f8
/* [R 7] Debug only: The SR counter - number of unused sub request ids */
#define PXP2_REG_RD_SR_CNT					 0x120414
/* [RW 2] SRC byte swapping mode configuration for master read requests */
#define PXP2_REG_RD_SRC_SWAP_MODE				 0x120400
/* [RW 7] Debug only: Total number of available PCI read sub-requests. Must
   be bigger than 1. Normally should not be changed. */
#define PXP2_REG_RD_SR_NUM_CFG					 0x120408
/* [RW 1] Signals the PSWRD block to start initializing internal memories */
#define PXP2_REG_RD_START_INIT					 0x12036c
/* [RW 2] TM byte swapping mode configuration for master read requests */
#define PXP2_REG_RD_TM_SWAP_MODE				 0x1203fc
/* [RW 10] Bandwidth addition to VQ0 write requests */
#define PXP2_REG_RQ_BW_RD_ADD0					 0x1201bc
/* [RW 10] Bandwidth addition to VQ12 read requests */
#define PXP2_REG_RQ_BW_RD_ADD12 				 0x1201ec
/* [RW 10] Bandwidth addition to VQ13 read requests */
#define PXP2_REG_RQ_BW_RD_ADD13 				 0x1201f0
/* [RW 10] Bandwidth addition to VQ14 read requests */
#define PXP2_REG_RQ_BW_RD_ADD14 				 0x1201f4
/* [RW 10] Bandwidth addition to VQ15 read requests */
#define PXP2_REG_RQ_BW_RD_ADD15 				 0x1201f8
/* [RW 10] Bandwidth addition to VQ16 read requests */
#define PXP2_REG_RQ_BW_RD_ADD16 				 0x1201fc
/* [RW 10] Bandwidth addition to VQ17 read requests */
#define PXP2_REG_RQ_BW_RD_ADD17 				 0x120200
/* [RW 10] Bandwidth addition to VQ18 read requests */
#define PXP2_REG_RQ_BW_RD_ADD18 				 0x120204
/* [RW 10] Bandwidth addition to VQ19 read requests */
#define PXP2_REG_RQ_BW_RD_ADD19 				 0x120208
/* [RW 10] Bandwidth addition to VQ20 read requests */
#define PXP2_REG_RQ_BW_RD_ADD20 				 0x12020c
/* [RW 10] Bandwidth addition to VQ22 read requests */
#define PXP2_REG_RQ_BW_RD_ADD22 				 0x120210
/* [RW 10] Bandwidth addition to VQ23 read requests */
#define PXP2_REG_RQ_BW_RD_ADD23 				 0x120214
/* [RW 10] Bandwidth addition to VQ24 read requests */
#define PXP2_REG_RQ_BW_RD_ADD24 				 0x120218
/* [RW 10] Bandwidth addition to VQ25 read requests */
#define PXP2_REG_RQ_BW_RD_ADD25 				 0x12021c
/* [RW 10] Bandwidth addition to VQ26 read requests */
#define PXP2_REG_RQ_BW_RD_ADD26 				 0x120220
/* [RW 10] Bandwidth addition to VQ27 read requests */
#define PXP2_REG_RQ_BW_RD_ADD27 				 0x120224
/* [RW 10] Bandwidth addition to VQ4 read requests */
#define PXP2_REG_RQ_BW_RD_ADD4					 0x1201cc
/* [RW 10] Bandwidth addition to VQ5 read requests */
#define PXP2_REG_RQ_BW_RD_ADD5					 0x1201d0
/* [RW 10] Bandwidth Typical L for VQ0 Read requests */
#define PXP2_REG_RQ_BW_RD_L0					 0x1202ac
/* [RW 10] Bandwidth Typical L for VQ12 Read requests */
#define PXP2_REG_RQ_BW_RD_L12					 0x1202dc
/* [RW 10] Bandwidth Typical L for VQ13 Read requests */
#define PXP2_REG_RQ_BW_RD_L13					 0x1202e0
/* [RW 10] Bandwidth Typical L for VQ14 Read requests */
#define PXP2_REG_RQ_BW_RD_L14					 0x1202e4
/* [RW 10] Bandwidth Typical L for VQ15 Read requests */
#define PXP2_REG_RQ_BW_RD_L15					 0x1202e8
/* [RW 10] Bandwidth Typical L for VQ16 Read requests */
#define PXP2_REG_RQ_BW_RD_L16					 0x1202ec
/* [RW 10] Bandwidth Typical L for VQ17 Read requests */
#define PXP2_REG_RQ_BW_RD_L17					 0x1202f0
/* [RW 10] Bandwidth Typical L for VQ18 Read requests */
#define PXP2_REG_RQ_BW_RD_L18					 0x1202f4
/* [RW 10] Bandwidth Typical L for VQ19 Read requests */
#define PXP2_REG_RQ_BW_RD_L19					 0x1202f8
/* [RW 10] Bandwidth Typical L for VQ20 Read requests */
#define PXP2_REG_RQ_BW_RD_L20					 0x1202fc
/* [RW 10] Bandwidth Typical L for VQ22 Read requests */
#define PXP2_REG_RQ_BW_RD_L22					 0x120300
/* [RW 10] Bandwidth Typical L for VQ23 Read requests */
#define PXP2_REG_RQ_BW_RD_L23					 0x120304
/* [RW 10] Bandwidth Typical L for VQ24 Read requests */
#define PXP2_REG_RQ_BW_RD_L24					 0x120308
/* [RW 10] Bandwidth Typical L for VQ25 Read requests */
#define PXP2_REG_RQ_BW_RD_L25					 0x12030c
/* [RW 10] Bandwidth Typical L for VQ26 Read requests */
#define PXP2_REG_RQ_BW_RD_L26					 0x120310
/* [RW 10] Bandwidth Typical L for VQ27 Read requests */
#define PXP2_REG_RQ_BW_RD_L27					 0x120314
/* [RW 10] Bandwidth Typical L for VQ4 Read requests */
#define PXP2_REG_RQ_BW_RD_L4					 0x1202bc
/* [RW 10] Bandwidth Typical L for VQ5 Read- currently not used */
#define PXP2_REG_RQ_BW_RD_L5					 0x1202c0
/* [RW 7] Bandwidth upper bound for VQ0 read requests */
#define PXP2_REG_RQ_BW_RD_UBOUND0				 0x120234
/* [RW 7] Bandwidth upper bound for VQ12 read requests */
#define PXP2_REG_RQ_BW_RD_UBOUND12				 0x120264
/* [RW 7] Bandwidth upper bound for VQ13 read requests */
#define PXP2_REG_RQ_BW_RD_UBOUND13				 0x120268
/* [RW 7] Bandwidth upper bound for VQ14 read requests */
#define PXP2_REG_RQ_BW_RD_UBOUND14				 0x12026c
/* [RW 7] Bandwidth upper bound for VQ15 read requests */
#define PXP2_REG_RQ_BW_RD_UBOUND15				 0x120270
/* [RW 7] Bandwidth upper bound for VQ16 read requests */
#define PXP2_REG_RQ_BW_RD_UBOUND16				 0x120274
/* [RW 7] Bandwidth upper bound for VQ17 read requests */
#define PXP2_REG_RQ_BW_RD_UBOUND17				 0x120278
/* [RW 7] Bandwidth upper bound for VQ18 read requests */
#define PXP2_REG_RQ_BW_RD_UBOUND18				 0x12027c
/* [RW 7] Bandwidth upper bound for VQ19 read requests */
#define PXP2_REG_RQ_BW_RD_UBOUND19				 0x120280
/* [RW 7] Bandwidth upper bound for VQ20 read requests */
#define PXP2_REG_RQ_BW_RD_UBOUND20				 0x120284
/* [RW 7] Bandwidth upper bound for VQ22 read requests */
#define PXP2_REG_RQ_BW_RD_UBOUND22				 0x120288
/* [RW 7] Bandwidth upper bound for VQ23 read requests */
#define PXP2_REG_RQ_BW_RD_UBOUND23				 0x12028c
/* [RW 7] Bandwidth upper bound for VQ24 read requests */
#define PXP2_REG_RQ_BW_RD_UBOUND24				 0x120290
/* [RW 7] Bandwidth upper bound for VQ25 read requests */
#define PXP2_REG_RQ_BW_RD_UBOUND25				 0x120294
/* [RW 7] Bandwidth upper bound for VQ26 read requests */
#define PXP2_REG_RQ_BW_RD_UBOUND26				 0x120298
/* [RW 7] Bandwidth upper bound for VQ27 read requests */
#define PXP2_REG_RQ_BW_RD_UBOUND27				 0x12029c
/* [RW 7] Bandwidth upper bound for VQ4 read requests */
#define PXP2_REG_RQ_BW_RD_UBOUND4				 0x120244
/* [RW 7] Bandwidth upper bound for VQ5 read requests */
#define PXP2_REG_RQ_BW_RD_UBOUND5				 0x120248
/* [RW 10] Bandwidth addition to VQ29 write requests */
#define PXP2_REG_RQ_BW_WR_ADD29 				 0x12022c
/* [RW 10] Bandwidth addition to VQ30 write requests */
#define PXP2_REG_RQ_BW_WR_ADD30 				 0x120230
/* [RW 10] Bandwidth Typical L for VQ29 Write requests */
#define PXP2_REG_RQ_BW_WR_L29					 0x12031c
/* [RW 10] Bandwidth Typical L for VQ30 Write requests */
#define PXP2_REG_RQ_BW_WR_L30					 0x120320
/* [RW 7] Bandwidth upper bound for VQ29 */
#define PXP2_REG_RQ_BW_WR_UBOUND29				 0x1202a4
/* [RW 7] Bandwidth upper bound for VQ30 */
#define PXP2_REG_RQ_BW_WR_UBOUND30				 0x1202a8
/* [RW 2] Endian mode for cdu */
#define PXP2_REG_RQ_CDU_ENDIAN_M				 0x1201a0
/* [RW 3] page size in L2P table for CDU module; -4k; -8k; -16k; -32k; -64k;
   -128k */
#define PXP2_REG_RQ_CDU_P_SIZE					 0x120018
/* [R 1] 1' indicates that the requester has finished its internal
   configuration */
#define PXP2_REG_RQ_CFG_DONE					 0x1201b4
/* [RW 2] Endian mode for debug */
#define PXP2_REG_RQ_DBG_ENDIAN_M				 0x1201a4
/* [RW 1] When '1'; requests will enter input buffers but wont get out
   towards the glue */
#define PXP2_REG_RQ_DISABLE_INPUTS				 0x120330
/* [RW 2] Endian mode for hc */
#define PXP2_REG_RQ_HC_ENDIAN_M 				 0x1201a8
/* [WB 53] Onchip address table */
#define PXP2_REG_RQ_ONCHIP_AT					 0x122000
/* [RW 13] Pending read limiter threshold; in Dwords */
#define PXP2_REG_RQ_PDR_LIMIT					 0x12033c
/* [RW 2] Endian mode for qm */
#define PXP2_REG_RQ_QM_ENDIAN_M 				 0x120194
/* [RW 3] page size in L2P table for QM module; -4k; -8k; -16k; -32k; -64k;
   -128k */
#define PXP2_REG_RQ_QM_P_SIZE					 0x120050
/* [RW 1] 1' indicates that the RBC has finished configurating the PSWRQ */
#define PXP2_REG_RQ_RBC_DONE					 0x1201b0
/* [RW 3] Max burst size filed for read requests port 0; 000 - 128B;
   001:256B; 010: 512B; 11:1K:100:2K; 01:4K */
#define PXP2_REG_RQ_RD_MBS0					 0x120160
/* [RW 3] Max burst size filed for read requests port 1; 000 - 128B;