* MAINTAINERS: Mark a29k target as obsolete.

* Makefile.in (a29k-tdep.o, remote-adapt.o, remote-eb.o)
(remote-mm.o, remote-udi.o): Obsolete.  Remove references in
comments.
* NEWS: Note that a29k targets are obsolete.
* a29k-tdep.c: Mark as obsolete.
* configure.tgt: Mark a29k-*-aout*, a29k-*-coff*, a29k-*-elf*,
a29k-*-ebmon*, a29k-*-kern*, a29k-*-none*, a29k-*-udi* and
a29k-*-vxworks* targets as obsolete.
* remote-adapt.c: Obsolete.
* remote-eb.c: Obsolete.
* remote-mm.c: Obsolete.
* remote-udi.c: Obsolete.
* config/a29k/a29k-udi.mt: Obsolete.
* config/a29k/a29k.mt: Obsolete.
* config/a29k/tm-a29k.h: Obsolete.
* config/a29k/tm-vx29k.h: Obsolete.
* config/a29k/vx29k.mt: Obsolete.

1 files changed, 1015 insertions, 1015 deletions

diff --git a/gdb/a29k-tdep.c b/gdb/a29k-tdep.c
index 2a6d341..4fcc0f2 100644
--- a/gdb/a29k-tdep.c
+++ b/gdb/a29k-tdep.c
@@ -1,1015 +1,1015 @@
-/* Target-machine dependent code for the AMD 29000
-   Copyright 1990, 1991, 1992, 1993, 1994, 1995, 1996, 1998, 1999, 2000,
-   2001
-   Free Software Foundation, Inc.
-   Contributed by Cygnus Support.  Written by Jim Kingdon.
-
-   This file is part of GDB.
-
-   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; either version 2 of the License, or
-   (at your option) any later version.
-
-   This program is distributed in the hope that it will 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 to the Free Software
-   Foundation, Inc., 59 Temple Place - Suite 330,
-   Boston, MA 02111-1307, USA.  */
-
-#include "defs.h"
-#include "gdbcore.h"
-#include "frame.h"
-#include "value.h"
-#include "symtab.h"
-#include "inferior.h"
-#include "gdbcmd.h"
-#include "regcache.h"
-
-/* If all these bits in an instruction word are zero, it is a "tag word"
-   which precedes a function entry point and gives stack traceback info.
-   This used to be defined as 0xff000000, but that treated 0x00000deb as
-   a tag word, while it is really used as a breakpoint.  */
-#define	TAGWORD_ZERO_MASK	0xff00f800
-
-extern CORE_ADDR text_start;	/* FIXME, kludge... */
-
-/* The user-settable top of the register stack in virtual memory.  We
-   won't attempt to access any stored registers above this address, if set
-   nonzero.  */
-
-static CORE_ADDR rstack_high_address = UINT_MAX;
-
-
-/* Should call_function allocate stack space for a struct return?  */
-/* On the a29k objects over 16 words require the caller to allocate space.  */
-int
-a29k_use_struct_convention (int gcc_p, struct type *type)
-{
-  return (TYPE_LENGTH (type) > 16 * 4);
-}
-
-
-/* Structure to hold cached info about function prologues.  */
-
-struct prologue_info
-{
-  CORE_ADDR pc;			/* First addr after fn prologue */
-  unsigned rsize, msize;	/* register stack frame size, mem stack ditto */
-  unsigned mfp_used:1;		/* memory frame pointer used */
-  unsigned rsize_valid:1;	/* Validity bits for the above */
-  unsigned msize_valid:1;
-  unsigned mfp_valid:1;
-};
-
-/* Examine the prologue of a function which starts at PC.  Return
-   the first addess past the prologue.  If MSIZE is non-NULL, then
-   set *MSIZE to the memory stack frame size.  If RSIZE is non-NULL,
-   then set *RSIZE to the register stack frame size (not including
-   incoming arguments and the return address & frame pointer stored
-   with them).  If no prologue is found, *RSIZE is set to zero.
-   If no prologue is found, or a prologue which doesn't involve
-   allocating a memory stack frame, then set *MSIZE to zero.
-
-   Note that both msize and rsize are in bytes.  This is not consistent
-   with the _User's Manual_ with respect to rsize, but it is much more
-   convenient.
-
-   If MFP_USED is non-NULL, *MFP_USED is set to nonzero if a memory
-   frame pointer is being used.  */
-
-CORE_ADDR
-examine_prologue (CORE_ADDR pc, unsigned *rsize, unsigned *msize, int *mfp_used)
-{
-  long insn;
-  CORE_ADDR p = pc;
-  struct minimal_symbol *msymbol = lookup_minimal_symbol_by_pc (pc);
-  struct prologue_info *mi = 0;
-
-  if (msymbol != NULL)
-    mi = (struct prologue_info *) msymbol->info;
-
-  if (mi != 0)
-    {
-      int valid = 1;
-      if (rsize != NULL)
-	{
-	  *rsize = mi->rsize;
-	  valid &= mi->rsize_valid;
-	}
-      if (msize != NULL)
-	{
-	  *msize = mi->msize;
-	  valid &= mi->msize_valid;
-	}
-      if (mfp_used != NULL)
-	{
-	  *mfp_used = mi->mfp_used;
-	  valid &= mi->mfp_valid;
-	}
-      if (valid)
-	return mi->pc;
-    }
-
-  if (rsize != NULL)
-    *rsize = 0;
-  if (msize != NULL)
-    *msize = 0;
-  if (mfp_used != NULL)
-    *mfp_used = 0;
-
-  /* Prologue must start with subtracting a constant from gr1.
-     Normally this is sub gr1,gr1,<rsize * 4>.  */
-  insn = read_memory_integer (p, 4);
-  if ((insn & 0xffffff00) != 0x25010100)
-    {
-      /* If the frame is large, instead of a single instruction it
-         might be a pair of instructions:
-         const <reg>, <rsize * 4>
-         sub gr1,gr1,<reg>
-       */
-      int reg;
-      /* Possible value for rsize.  */
-      unsigned int rsize0;
-
-      if ((insn & 0xff000000) != 0x03000000)
-	{
-	  p = pc;
-	  goto done;
-	}
-      reg = (insn >> 8) & 0xff;
-      rsize0 = (((insn >> 8) & 0xff00) | (insn & 0xff));
-      p += 4;
-      insn = read_memory_integer (p, 4);
-      if ((insn & 0xffffff00) != 0x24010100
-	  || (insn & 0xff) != reg)
-	{
-	  p = pc;
-	  goto done;
-	}
-      if (rsize != NULL)
-	*rsize = rsize0;
-    }
-  else
-    {
-      if (rsize != NULL)
-	*rsize = (insn & 0xff);
-    }
-  p += 4;
-
-  /* Next instruction ought to be asgeu V_SPILL,gr1,rab.  
-   * We don't check the vector number to allow for kernel debugging.  The 
-   * kernel will use a different trap number. 
-   * If this insn is missing, we just keep going; Metaware R2.3u compiler
-   * generates prologue that intermixes initializations and puts the asgeu
-   * way down.
-   */
-  insn = read_memory_integer (p, 4);
-  if ((insn & 0xff00ffff) == (0x5e000100 | RAB_HW_REGNUM))
-    {
-      p += 4;
-    }
-
-  /* Next instruction usually sets the frame pointer (lr1) by adding
-     <size * 4> from gr1.  However, this can (and high C does) be
-     deferred until anytime before the first function call.  So it is
-     OK if we don't see anything which sets lr1.  
-     To allow for alternate register sets (gcc -mkernel-registers)  the msp
-     register number is a compile time constant. */
-
-  /* Normally this is just add lr1,gr1,<size * 4>.  */
-  insn = read_memory_integer (p, 4);
-  if ((insn & 0xffffff00) == 0x15810100)
-    p += 4;
-  else
-    {
-      /* However, for large frames it can be
-         const <reg>, <size *4>
-         add lr1,gr1,<reg>
-       */
-      int reg;
-      CORE_ADDR q;
-
-      if ((insn & 0xff000000) == 0x03000000)
-	{
-	  reg = (insn >> 8) & 0xff;
-	  q = p + 4;
-	  insn = read_memory_integer (q, 4);
-	  if ((insn & 0xffffff00) == 0x14810100
-	      && (insn & 0xff) == reg)
-	    p = q;
-	}
-    }
-
-  /* Next comes "add lr{<rsize-1>},msp,0", but only if a memory
-     frame pointer is in use.  We just check for add lr<anything>,msp,0;
-     we don't check this rsize against the first instruction, and
-     we don't check that the trace-back tag indicates a memory frame pointer
-     is in use.  
-     To allow for alternate register sets (gcc -mkernel-registers)  the msp
-     register number is a compile time constant.
-
-     The recommended instruction is actually "sll lr<whatever>,msp,0". 
-     We check for that, too.  Originally Jim Kingdon's code seemed
-     to be looking for a "sub" instruction here, but the mask was set
-     up to lose all the time. */
-  insn = read_memory_integer (p, 4);
-  if (((insn & 0xff80ffff) == (0x15800000 | (MSP_HW_REGNUM << 8)))	/* add */
-      || ((insn & 0xff80ffff) == (0x81800000 | (MSP_HW_REGNUM << 8))))	/* sll */
-    {
-      p += 4;
-      if (mfp_used != NULL)
-	*mfp_used = 1;
-    }
-
-  /* Next comes a subtraction from msp to allocate a memory frame,
-     but only if a memory frame is
-     being used.  We don't check msize against the trace-back tag.
-
-     To allow for alternate register sets (gcc -mkernel-registers) the msp
-     register number is a compile time constant.
-
-     Normally this is just
-     sub msp,msp,<msize>
-   */
-  insn = read_memory_integer (p, 4);
-  if ((insn & 0xffffff00) ==
-      (0x25000000 | (MSP_HW_REGNUM << 16) | (MSP_HW_REGNUM << 8)))
-    {
-      p += 4;
-      if (msize != NULL)
-	*msize = insn & 0xff;
-    }
-  else
-    {
-      /* For large frames, instead of a single instruction it might
-         be
-
-         const <reg>, <msize>
-         consth <reg>, <msize>     ; optional
-         sub msp,msp,<reg>
-       */
-      int reg;
-      unsigned msize0;
-      CORE_ADDR q = p;
-
-      if ((insn & 0xff000000) == 0x03000000)
-	{
-	  reg = (insn >> 8) & 0xff;
-	  msize0 = ((insn >> 8) & 0xff00) | (insn & 0xff);
-	  q += 4;
-	  insn = read_memory_integer (q, 4);
-	  /* Check for consth.  */
-	  if ((insn & 0xff000000) == 0x02000000
-	      && (insn & 0x0000ff00) == reg)
-	    {
-	      msize0 |= (insn << 8) & 0xff000000;
-	      msize0 |= (insn << 16) & 0x00ff0000;
-	      q += 4;
-	      insn = read_memory_integer (q, 4);
-	    }
-	  /* Check for sub msp,msp,<reg>.  */
-	  if ((insn & 0xffffff00) ==
-	      (0x24000000 | (MSP_HW_REGNUM << 16) | (MSP_HW_REGNUM << 8))
-	      && (insn & 0xff) == reg)
-	    {
-	      p = q + 4;
-	      if (msize != NULL)
-		*msize = msize0;
-	    }
-	}
-    }
-
-  /* Next instruction might be asgeu V_SPILL,gr1,rab.  
-   * We don't check the vector number to allow for kernel debugging.  The 
-   * kernel will use a different trap number. 
-   * Metaware R2.3u compiler
-   * generates prologue that intermixes initializations and puts the asgeu
-   * way down after everything else.
-   */
-  insn = read_memory_integer (p, 4);
-  if ((insn & 0xff00ffff) == (0x5e000100 | RAB_HW_REGNUM))
-    {
-      p += 4;
-    }
-
-done:
-  if (msymbol != NULL)
-    {
-      if (mi == 0)
-	{
-	  /* Add a new cache entry.  */
-	  mi = (struct prologue_info *) xmalloc (sizeof (struct prologue_info));
-	  msymbol->info = (char *) mi;
-	  mi->rsize_valid = 0;
-	  mi->msize_valid = 0;
-	  mi->mfp_valid = 0;
-	}
-      /* else, cache entry exists, but info is incomplete.  */
-      mi->pc = p;
-      if (rsize != NULL)
-	{
-	  mi->rsize = *rsize;
-	  mi->rsize_valid = 1;
-	}
-      if (msize != NULL)
-	{
-	  mi->msize = *msize;
-	  mi->msize_valid = 1;
-	}
-      if (mfp_used != NULL)
-	{
-	  mi->mfp_used = *mfp_used;
-	  mi->mfp_valid = 1;
-	}
-    }
-  return p;
-}
-
-/* Advance PC across any function entry prologue instructions
-   to reach some "real" code.  */
-
-CORE_ADDR
-a29k_skip_prologue (CORE_ADDR pc)
-{
-  return examine_prologue (pc, NULL, NULL, NULL);
-}
-
-/*
- * Examine the one or two word tag at the beginning of a function.
- * The tag word is expect to be at 'p', if it is not there, we fail
- * by returning 0.  The documentation for the tag word was taken from
- * page 7-15 of the 29050 User's Manual.  We are assuming that the
- * m bit is in bit 22 of the tag word, which seems to be the agreed upon
- * convention today (1/15/92).
- * msize is return in bytes.
- */
-
-static int			/* 0/1 - failure/success of finding the tag word  */
-examine_tag (CORE_ADDR p, int *is_trans, int *argcount, unsigned *msize,
-	     int *mfp_used)
-{
-  unsigned int tag1, tag2;
-
-  tag1 = read_memory_integer (p, 4);
-  if ((tag1 & TAGWORD_ZERO_MASK) != 0)	/* Not a tag word */
-    return 0;
-  if (tag1 & (1 << 23))		/* A two word tag */
-    {
-      tag2 = read_memory_integer (p - 4, 4);
-      if (msize)
-	*msize = tag2 * 2;
-    }
-  else
-    /* A one word tag */
-    {
-      if (msize)
-	*msize = tag1 & 0x7ff;
-    }
-  if (is_trans)
-    *is_trans = ((tag1 & (1 << 21)) ? 1 : 0);
-  /* Note that this includes the frame pointer and the return address
-     register, so the actual number of registers of arguments is two less.
-     argcount can be zero, however, sometimes, for strange assembler
-     routines.  */
-  if (argcount)
-    *argcount = (tag1 >> 16) & 0x1f;
-  if (mfp_used)
-    *mfp_used = ((tag1 & (1 << 22)) ? 1 : 0);
-  return 1;
-}
-
-/* Initialize the frame.  In addition to setting "extra" frame info,
-   we also set ->frame because we use it in a nonstandard way, and ->pc
-   because we need to know it to get the other stuff.  See the diagram
-   of stacks and the frame cache in tm-a29k.h for more detail.  */
-
-static void
-init_frame_info (int innermost_frame, struct frame_info *frame)
-{
-  CORE_ADDR p;
-  long insn;
-  unsigned rsize;
-  unsigned msize;
-  int mfp_used, trans;
-  struct symbol *func;
-
-  p = frame->pc;
-
-  if (innermost_frame)
-    frame->frame = read_register (GR1_REGNUM);
-  else
-    frame->frame = frame->next->frame + frame->next->rsize;
-
-#if 0				/* CALL_DUMMY_LOCATION == ON_STACK */
-  This wont work;
-#else
-  if (PC_IN_CALL_DUMMY (p, 0, 0))
-#endif
-    {
-      frame->rsize = DUMMY_FRAME_RSIZE;
-      /* This doesn't matter since we never try to get locals or args
-         from a dummy frame.  */
-      frame->msize = 0;
-      /* Dummy frames always use a memory frame pointer.  */
-      frame->saved_msp =
-	read_register_stack_integer (frame->frame + DUMMY_FRAME_RSIZE - 4, 4);
-      frame->flags |= (TRANSPARENT_FRAME | MFP_USED);
-      return;
-    }
-
-  func = find_pc_function (p);
-  if (func != NULL)
-    p = BLOCK_START (SYMBOL_BLOCK_VALUE (func));
-  else
-    {
-      /* Search backward to find the trace-back tag.  However,
-         do not trace back beyond the start of the text segment
-         (just as a sanity check to avoid going into never-never land).  */
-#if 1
-      while (p >= text_start
-	  && ((insn = read_memory_integer (p, 4)) & TAGWORD_ZERO_MASK) != 0)
-	p -= 4;
-#else /* 0 */
-      char pat[4] =
-      {0, 0, 0, 0};
-      char mask[4];
-      char insn_raw[4];
-      store_unsigned_integer (mask, 4, TAGWORD_ZERO_MASK);
-      /* Enable this once target_search is enabled and tested.  */
-      target_search (4, pat, mask, p, -4, text_start, p + 1, &p, &insn_raw);
-      insn = extract_unsigned_integer (insn_raw, 4);
-#endif /* 0 */
-
-      if (p < text_start)
-	{
-	  /* Couldn't find the trace-back tag.
-	     Something strange is going on.  */
-	  frame->saved_msp = 0;
-	  frame->rsize = 0;
-	  frame->msize = 0;
-	  frame->flags = TRANSPARENT_FRAME;
-	  return;
-	}
-      else
-	/* Advance to the first word of the function, i.e. the word
-	   after the trace-back tag.  */
-	p += 4;
-    }
-
-  /* We've found the start of the function.  
-     Try looking for a tag word that indicates whether there is a
-     memory frame pointer and what the memory stack allocation is.
-     If one doesn't exist, try using a more exhaustive search of
-     the prologue.  */
-
-  if (examine_tag (p - 4, &trans, (int *) NULL, &msize, &mfp_used))	/* Found good tag */
-    examine_prologue (p, &rsize, 0, 0);
-  else				/* No tag try prologue */
-    examine_prologue (p, &rsize, &msize, &mfp_used);
-
-  frame->rsize = rsize;
-  frame->msize = msize;
-  frame->flags = 0;
-  if (mfp_used)
-    frame->flags |= MFP_USED;
-  if (trans)
-    frame->flags |= TRANSPARENT_FRAME;
-  if (innermost_frame)
-    {
-      frame->saved_msp = read_register (MSP_REGNUM) + msize;
-    }
-  else
-    {
-      if (mfp_used)
-	frame->saved_msp =
-	  read_register_stack_integer (frame->frame + rsize - 4, 4);
-      else
-	frame->saved_msp = frame->next->saved_msp + msize;
-    }
-}
-
-void
-init_extra_frame_info (struct frame_info *frame)
-{
-  if (frame->next == 0)
-    /* Assume innermost frame.  May produce strange results for "info frame"
-       but there isn't any way to tell the difference.  */
-    init_frame_info (1, frame);
-  else
-    {
-      /* We're in get_prev_frame.
-         Take care of everything in init_frame_pc.  */
-      ;
-    }
-}
-
-void
-init_frame_pc (int fromleaf, struct frame_info *frame)
-{
-  frame->pc = (fromleaf ? SAVED_PC_AFTER_CALL (frame->next) :
-	       frame->next ? FRAME_SAVED_PC (frame->next) : read_pc ());
-  init_frame_info (fromleaf, frame);
-}
-
-/* Local variables (i.e. LOC_LOCAL) are on the memory stack, with their
-   offsets being relative to the memory stack pointer (high C) or
-   saved_msp (gcc).  */
-
-CORE_ADDR
-frame_locals_address (struct frame_info *fi)
-{
-  if (fi->flags & MFP_USED)
-    return fi->saved_msp;
-  else
-    return fi->saved_msp - fi->msize;
-}
-
-/* Routines for reading the register stack.  The caller gets to treat
-   the register stack as a uniform stack in memory, from address $gr1
-   straight through $rfb and beyond.  */
-
-/* Analogous to read_memory except the length is understood to be 4.
-   Also, myaddr can be NULL (meaning don't bother to read), and
-   if actual_mem_addr is non-NULL, store there the address that it
-   was fetched from (or if from a register the offset within
-   registers).  Set *LVAL to lval_memory or lval_register, depending
-   on where it came from.  The contents written into MYADDR are in
-   target format.  */
-void
-read_register_stack (CORE_ADDR memaddr, char *myaddr,
-		     CORE_ADDR *actual_mem_addr, enum lval_type *lval)
-{
-  long rfb = read_register (RFB_REGNUM);
-  long rsp = read_register (RSP_REGNUM);
-
-  /* If we don't do this 'info register' stops in the middle. */
-  if (memaddr >= rstack_high_address)
-    {
-      /* a bogus value */
-      static char val[] =
-      {~0, ~0, ~0, ~0};
-      /* It's in a local register, but off the end of the stack.  */
-      int regnum = (memaddr - rsp) / 4 + LR0_REGNUM;
-      if (myaddr != NULL)
-	{
-	  /* Provide bogusness */
-	  memcpy (myaddr, val, 4);
-	}
-      supply_register (regnum, val);	/* More bogusness */
-      if (lval != NULL)
-	*lval = lval_register;
-      if (actual_mem_addr != NULL)
-	*actual_mem_addr = REGISTER_BYTE (regnum);
-    }
-  /* If it's in the part of the register stack that's in real registers,
-     get the value from the registers.  If it's anywhere else in memory
-     (e.g. in another thread's saved stack), skip this part and get
-     it from real live memory.  */
-  else if (memaddr < rfb && memaddr >= rsp)
-    {
-      /* It's in a register.  */
-      int regnum = (memaddr - rsp) / 4 + LR0_REGNUM;
-      if (regnum > LR0_REGNUM + 127)
-	error ("Attempt to read register stack out of range.");
-      if (myaddr != NULL)
-	read_register_gen (regnum, myaddr);
-      if (lval != NULL)
-	*lval = lval_register;
-      if (actual_mem_addr != NULL)
-	*actual_mem_addr = REGISTER_BYTE (regnum);
-    }
-  else
-    {
-      /* It's in the memory portion of the register stack.  */
-      if (myaddr != NULL)
-	read_memory (memaddr, myaddr, 4);
-      if (lval != NULL)
-	*lval = lval_memory;
-      if (actual_mem_addr != NULL)
-	*actual_mem_addr = memaddr;
-    }
-}
-
-/* Analogous to read_memory_integer
-   except the length is understood to be 4.  */
-long
-read_register_stack_integer (CORE_ADDR memaddr, int len)
-{
-  char buf[4];
-  read_register_stack (memaddr, buf, NULL, NULL);
-  return extract_signed_integer (buf, 4);
-}
-
-/* Copy 4 bytes from GDB memory at MYADDR into inferior memory
-   at MEMADDR and put the actual address written into in
-   *ACTUAL_MEM_ADDR.  */
-static void
-write_register_stack (CORE_ADDR memaddr, char *myaddr,
-		      CORE_ADDR *actual_mem_addr)
-{
-  long rfb = read_register (RFB_REGNUM);
-  long rsp = read_register (RSP_REGNUM);
-  /* If we don't do this 'info register' stops in the middle. */
-  if (memaddr >= rstack_high_address)
-    {
-      /* It's in a register, but off the end of the stack.  */
-      if (actual_mem_addr != NULL)
-	*actual_mem_addr = 0;
-    }
-  else if (memaddr < rfb)
-    {
-      /* It's in a register.  */
-      int regnum = (memaddr - rsp) / 4 + LR0_REGNUM;
-      if (regnum < LR0_REGNUM || regnum > LR0_REGNUM + 127)
-	error ("Attempt to read register stack out of range.");
-      if (myaddr != NULL)
-	write_register (regnum, *(long *) myaddr);
-      if (actual_mem_addr != NULL)
-	*actual_mem_addr = 0;
-    }
-  else
-    {
-      /* It's in the memory portion of the register stack.  */
-      if (myaddr != NULL)
-	write_memory (memaddr, myaddr, 4);
-      if (actual_mem_addr != NULL)
-	*actual_mem_addr = memaddr;
-    }
-}
-
-/* Find register number REGNUM relative to FRAME and put its
-   (raw) contents in *RAW_BUFFER.  Set *OPTIMIZED if the variable
-   was optimized out (and thus can't be fetched).  If the variable
-   was fetched from memory, set *ADDRP to where it was fetched from,
-   otherwise it was fetched from a register.
-
-   The argument RAW_BUFFER must point to aligned memory.  */
-
-void
-a29k_get_saved_register (char *raw_buffer, int *optimized, CORE_ADDR *addrp,
-			 struct frame_info *frame, int regnum,
-			 enum lval_type *lvalp)
-{
-  struct frame_info *fi;
-  CORE_ADDR addr;
-  enum lval_type lval;
-
-  if (!target_has_registers)
-    error ("No registers.");
-
-  /* Probably now redundant with the target_has_registers check.  */
-  if (frame == 0)
-    return;
-
-  /* Once something has a register number, it doesn't get optimized out.  */
-  if (optimized != NULL)
-    *optimized = 0;
-  if (regnum == RSP_REGNUM)
-    {
-      if (raw_buffer != NULL)
-	{
-	  store_address (raw_buffer, REGISTER_RAW_SIZE (regnum), frame->frame);
-	}
-      if (lvalp != NULL)
-	*lvalp = not_lval;
-      return;
-    }
-  else if (regnum == PC_REGNUM && frame->next != NULL)
-    {
-      if (raw_buffer != NULL)
-	{
-	  store_address (raw_buffer, REGISTER_RAW_SIZE (regnum), frame->pc);
-	}
-
-      /* Not sure we have to do this.  */
-      if (lvalp != NULL)
-	*lvalp = not_lval;
-
-      return;
-    }
-  else if (regnum == MSP_REGNUM)
-    {
-      if (raw_buffer != NULL)
-	{
-	  if (frame->next != NULL)
-	    {
-	      store_address (raw_buffer, REGISTER_RAW_SIZE (regnum),
-			     frame->next->saved_msp);
-	    }
-	  else
-	    read_register_gen (MSP_REGNUM, raw_buffer);
-	}
-      /* The value may have been computed, not fetched.  */
-      if (lvalp != NULL)
-	*lvalp = not_lval;
-      return;
-    }
-  else if (regnum < LR0_REGNUM || regnum >= LR0_REGNUM + 128)
-    {
-      /* These registers are not saved over procedure calls,
-         so just print out the current values.  */
-      if (raw_buffer != NULL)
-	read_register_gen (regnum, raw_buffer);
-      if (lvalp != NULL)
-	*lvalp = lval_register;
-      if (addrp != NULL)
-	*addrp = REGISTER_BYTE (regnum);
-      return;
-    }
-
-  addr = frame->frame + (regnum - LR0_REGNUM) * 4;
-  if (raw_buffer != NULL)
-    read_register_stack (addr, raw_buffer, &addr, &lval);
-  if (lvalp != NULL)
-    *lvalp = lval;
-  if (addrp != NULL)
-    *addrp = addr;
-}
-
-
-/* Discard from the stack the innermost frame,
-   restoring all saved registers.  */
-
-void
-pop_frame (void)
-{
-  struct frame_info *frame = get_current_frame ();
-  CORE_ADDR rfb = read_register (RFB_REGNUM);
-  CORE_ADDR gr1 = frame->frame + frame->rsize;
-  CORE_ADDR lr1;
-  CORE_ADDR original_lr0;
-  int must_fix_lr0 = 0;
-  int i;
-
-  /* If popping a dummy frame, need to restore registers.  */
-  if (PC_IN_CALL_DUMMY (read_register (PC_REGNUM),
-			read_register (SP_REGNUM),
-			FRAME_FP (frame)))
-    {
-      int lrnum = LR0_REGNUM + DUMMY_ARG / 4;
-      for (i = 0; i < DUMMY_SAVE_SR128; ++i)
-	write_register (SR_REGNUM (i + 128), read_register (lrnum++));
-      for (i = 0; i < DUMMY_SAVE_SR160; ++i)
-	write_register (SR_REGNUM (i + 160), read_register (lrnum++));
-      for (i = 0; i < DUMMY_SAVE_GREGS; ++i)
-	write_register (RETURN_REGNUM + i, read_register (lrnum++));
-      /* Restore the PCs and prepare to restore LR0.  */
-      write_register (PC_REGNUM, read_register (lrnum++));
-      write_register (NPC_REGNUM, read_register (lrnum++));
-      write_register (PC2_REGNUM, read_register (lrnum++));
-      original_lr0 = read_register (lrnum++);
-      must_fix_lr0 = 1;
-    }
-
-  /* Restore the memory stack pointer.  */
-  write_register (MSP_REGNUM, frame->saved_msp);
-  /* Restore the register stack pointer.  */
-  write_register (GR1_REGNUM, gr1);
-
-  /* If we popped a dummy frame, restore lr0 now that gr1 has been restored. */
-  if (must_fix_lr0)
-    write_register (LR0_REGNUM, original_lr0);
-
-  /* Check whether we need to fill registers.  */
-  lr1 = read_register (LR0_REGNUM + 1);
-  if (lr1 > rfb)
-    {
-      /* Fill.  */
-      int num_bytes = lr1 - rfb;
-      int i;
-      long word;
-
-      write_register (RAB_REGNUM, read_register (RAB_REGNUM) + num_bytes);
-      write_register (RFB_REGNUM, lr1);
-      for (i = 0; i < num_bytes; i += 4)
-	{
-	  /* Note: word is in host byte order.  */
-	  word = read_memory_integer (rfb + i, 4);
-	  write_register (LR0_REGNUM + ((rfb - gr1) % 0x80) + i / 4, word);
-	}
-    }
-  flush_cached_frames ();
-}
-
-/* Push an empty stack frame, to record the current PC, etc.  */
-
-void
-push_dummy_frame (void)
-{
-  long w;
-  CORE_ADDR rab, gr1;
-  CORE_ADDR msp = read_register (MSP_REGNUM);
-  int lrnum, i;
-  CORE_ADDR original_lr0;
-
-  /* Read original lr0 before changing gr1.  This order isn't really needed
-     since GDB happens to have a snapshot of all the regs and doesn't toss
-     it when gr1 is changed.  But it's The Right Thing To Do.  */
-  original_lr0 = read_register (LR0_REGNUM);
-
-  /* Allocate the new frame. */
-  gr1 = read_register (GR1_REGNUM) - DUMMY_FRAME_RSIZE;
-  write_register (GR1_REGNUM, gr1);
-
-#ifdef VXWORKS_TARGET
-  /* We force re-reading all registers to get the new local registers set
-     after gr1 has been modified. This fix is due to the lack of single
-     register read/write operation in the RPC interface between VxGDB and
-     VxWorks. This really must be changed ! */
-
-  vx_read_register (-1);
-
-#endif /* VXWORK_TARGET */
-
-  rab = read_register (RAB_REGNUM);
-  if (gr1 < rab)
-    {
-      /* We need to spill registers.  */
-      int num_bytes = rab - gr1;
-      CORE_ADDR rfb = read_register (RFB_REGNUM);
-      int i;
-      long word;
-
-      write_register (RFB_REGNUM, rfb - num_bytes);
-      write_register (RAB_REGNUM, gr1);
-      for (i = 0; i < num_bytes; i += 4)
-	{
-	  /* Note:  word is in target byte order.  */
-	  read_register_gen (LR0_REGNUM + i / 4, (char *) &word);
-	  write_memory (rfb - num_bytes + i, (char *) &word, 4);
-	}
-    }
-
-  /* There are no arguments in to the dummy frame, so we don't need
-     more than rsize plus the return address and lr1.  */
-  write_register (LR0_REGNUM + 1, gr1 + DUMMY_FRAME_RSIZE + 2 * 4);
-
-  /* Set the memory frame pointer.  */
-  write_register (LR0_REGNUM + DUMMY_FRAME_RSIZE / 4 - 1, msp);
-
-  /* Allocate arg_slop.  */
-  write_register (MSP_REGNUM, msp - 16 * 4);
-
-  /* Save registers.  */
-  lrnum = LR0_REGNUM + DUMMY_ARG / 4;
-  for (i = 0; i < DUMMY_SAVE_SR128; ++i)
-    write_register (lrnum++, read_register (SR_REGNUM (i + 128)));
-  for (i = 0; i < DUMMY_SAVE_SR160; ++i)
-    write_register (lrnum++, read_register (SR_REGNUM (i + 160)));
-  for (i = 0; i < DUMMY_SAVE_GREGS; ++i)
-    write_register (lrnum++, read_register (RETURN_REGNUM + i));
-  /* Save the PCs and LR0.  */
-  write_register (lrnum++, read_register (PC_REGNUM));
-  write_register (lrnum++, read_register (NPC_REGNUM));
-  write_register (lrnum++, read_register (PC2_REGNUM));
-
-  /* Why are we saving LR0?  What would clobber it? (the dummy frame should
-     be below it on the register stack, no?).  */
-  write_register (lrnum++, original_lr0);
-}
-
-
-
-/*
-   This routine takes three arguments and makes the cached frames look
-   as if these arguments defined a frame on the cache.  This allows the
-   rest of `info frame' to extract the important arguments without much
-   difficulty.  Since an individual frame on the 29K is determined by
-   three values (FP, PC, and MSP), we really need all three to do a
-   good job.  */
-
-struct frame_info *
-setup_arbitrary_frame (int argc, CORE_ADDR *argv)
-{
-  struct frame_info *frame;
-
-  if (argc != 3)
-    error ("AMD 29k frame specifications require three arguments: rsp pc msp");
-
-  frame = create_new_frame (argv[0], argv[1]);
-
-  if (!frame)
-    internal_error (__FILE__, __LINE__,
-		    "create_new_frame returned invalid frame id");
-
-  /* Creating a new frame munges the `frame' value from the current
-     GR1, so we restore it again here.  FIXME, untangle all this
-     29K frame stuff...  */
-  frame->frame = argv[0];
-
-  /* Our MSP is in argv[2].  It'd be intelligent if we could just
-     save this value in the FRAME.  But the way it's set up (FIXME),
-     we must save our caller's MSP.  We compute that by adding our
-     memory stack frame size to our MSP.  */
-  frame->saved_msp = argv[2] + frame->msize;
-
-  return frame;
-}
-
-int
-gdb_print_insn_a29k (bfd_vma memaddr, disassemble_info *info)
-{
-  if (TARGET_BYTE_ORDER == BFD_ENDIAN_BIG)
-    return print_insn_big_a29k (memaddr, info);
-  else
-    return print_insn_little_a29k (memaddr, info);
-}
-
-enum a29k_processor_types processor_type = a29k_unknown;
-
-void
-a29k_get_processor_type (void)
-{
-  unsigned int cfg_reg = (unsigned int) read_register (CFG_REGNUM);
-
-  /* Most of these don't have freeze mode.  */
-  processor_type = a29k_no_freeze_mode;
-
-  switch ((cfg_reg >> 28) & 0xf)
-    {
-    case 0:
-      fprintf_filtered (gdb_stderr, "Remote debugging an Am29000");
-      break;
-    case 1:
-      fprintf_filtered (gdb_stderr, "Remote debugging an Am29005");
-      break;
-    case 2:
-      fprintf_filtered (gdb_stderr, "Remote debugging an Am29050");
-      processor_type = a29k_freeze_mode;
-      break;
-    case 3:
-      fprintf_filtered (gdb_stderr, "Remote debugging an Am29035");
-      break;
-    case 4:
-      fprintf_filtered (gdb_stderr, "Remote debugging an Am29030");
-      break;
-    case 5:
-      fprintf_filtered (gdb_stderr, "Remote debugging an Am2920*");
-      break;
-    case 6:
-      fprintf_filtered (gdb_stderr, "Remote debugging an Am2924*");
-      break;
-    case 7:
-      fprintf_filtered (gdb_stderr, "Remote debugging an Am29040");
-      break;
-    default:
-      fprintf_filtered (gdb_stderr, "Remote debugging an unknown Am29k\n");
-      /* Don't bother to print the revision.  */
-      return;
-    }
-  fprintf_filtered (gdb_stderr, " revision %c\n", 'A' + ((cfg_reg >> 24) & 0x0f));
-}
-
-#ifdef GET_LONGJMP_TARGET
-/* Figure out where the longjmp will land.  We expect that we have just entered
-   longjmp and haven't yet setup the stack frame, so the args are still in the
-   output regs.  lr2 (LR2_REGNUM) points at the jmp_buf structure from which we
-   extract the pc (JB_PC) that we will land at.  The pc is copied into ADDR.
-   This routine returns true on success */
-
-int
-get_longjmp_target (CORE_ADDR *pc)
-{
-  CORE_ADDR jb_addr;
-  char buf[sizeof (CORE_ADDR)];
-
-  jb_addr = read_register (LR2_REGNUM);
-
-  if (target_read_memory (jb_addr + JB_PC * JB_ELEMENT_SIZE, (char *) buf,
-			  sizeof (CORE_ADDR)))
-    return 0;
-
-  *pc = extract_address ((PTR) buf, sizeof (CORE_ADDR));
-  return 1;
-}
-#endif /* GET_LONGJMP_TARGET */
-
-void
-_initialize_a29k_tdep (void)
-{
-  extern CORE_ADDR text_end;
-
-  tm_print_insn = gdb_print_insn_a29k;
-
-  /* FIXME, there should be a way to make a CORE_ADDR variable settable. */
-  add_show_from_set
-    (add_set_cmd ("rstack_high_address", class_support, var_uinteger,
-		  (char *) &rstack_high_address,
-		  "Set top address in memory of the register stack.\n\
-Attempts to access registers saved above this address will be ignored\n\
-or will produce the value -1.", &setlist),
-     &showlist);
-
-  /* FIXME, there should be a way to make a CORE_ADDR variable settable. */
-  add_show_from_set
-    (add_set_cmd ("call_scratch_address", class_support, var_uinteger,
-		  (char *) &text_end,
-		  "Set address in memory where small amounts of RAM can be used\n\
-when making function calls into the inferior.", &setlist),
-     &showlist);
-}
+/* OBSOLETE /* Target-machine dependent code for the AMD 29000 */
+/* OBSOLETE    Copyright 1990, 1991, 1992, 1993, 1994, 1995, 1996, 1998, 1999, 2000, */
+/* OBSOLETE    2001 */
+/* OBSOLETE    Free Software Foundation, Inc. */
+/* OBSOLETE    Contributed by Cygnus Support.  Written by Jim Kingdon. */
+/* OBSOLETE  */
+/* OBSOLETE    This file is part of GDB. */
+/* OBSOLETE  */
+/* OBSOLETE    This program is free software; you can redistribute it and/or modify */
+/* OBSOLETE    it under the terms of the GNU General Public License as published by */
+/* OBSOLETE    the Free Software Foundation; either version 2 of the License, or */
+/* OBSOLETE    (at your option) any later version. */
+/* OBSOLETE  */
+/* OBSOLETE    This program is distributed in the hope that it will be useful, */
+/* OBSOLETE    but WITHOUT ANY WARRANTY; without even the implied warranty of */
+/* OBSOLETE    MERCHANTABILITY or FITNESS FOR A PARTICULAR PURPOSE.  See the */
+/* OBSOLETE    GNU General Public License for more details. */
+/* OBSOLETE  */
+/* OBSOLETE    You should have received a copy of the GNU General Public License */
+/* OBSOLETE    along with this program; if not, write to the Free Software */
+/* OBSOLETE    Foundation, Inc., 59 Temple Place - Suite 330, */
+/* OBSOLETE    Boston, MA 02111-1307, USA.  */ */
+/* OBSOLETE  */
+/* OBSOLETE #include "defs.h" */
+/* OBSOLETE #include "gdbcore.h" */
+/* OBSOLETE #include "frame.h" */
+/* OBSOLETE #include "value.h" */
+/* OBSOLETE #include "symtab.h" */
+/* OBSOLETE #include "inferior.h" */
+/* OBSOLETE #include "gdbcmd.h" */
+/* OBSOLETE #include "regcache.h" */
+/* OBSOLETE  */
+/* OBSOLETE /* If all these bits in an instruction word are zero, it is a "tag word" */
+/* OBSOLETE    which precedes a function entry point and gives stack traceback info. */
+/* OBSOLETE    This used to be defined as 0xff000000, but that treated 0x00000deb as */
+/* OBSOLETE    a tag word, while it is really used as a breakpoint.  */ */
+/* OBSOLETE #define	TAGWORD_ZERO_MASK	0xff00f800 */
+/* OBSOLETE  */
+/* OBSOLETE extern CORE_ADDR text_start;	/* FIXME, kludge... */ */
+/* OBSOLETE  */
+/* OBSOLETE /* The user-settable top of the register stack in virtual memory.  We */
+/* OBSOLETE    won't attempt to access any stored registers above this address, if set */
+/* OBSOLETE    nonzero.  */ */
+/* OBSOLETE  */
+/* OBSOLETE static CORE_ADDR rstack_high_address = UINT_MAX; */
+/* OBSOLETE  */
+/* OBSOLETE  */
+/* OBSOLETE /* Should call_function allocate stack space for a struct return?  */ */
+/* OBSOLETE /* On the a29k objects over 16 words require the caller to allocate space.  */ */
+/* OBSOLETE int */
+/* OBSOLETE a29k_use_struct_convention (int gcc_p, struct type *type) */
+/* OBSOLETE { */
+/* OBSOLETE   return (TYPE_LENGTH (type) > 16 * 4); */
+/* OBSOLETE } */
+/* OBSOLETE  */
+/* OBSOLETE  */
+/* OBSOLETE /* Structure to hold cached info about function prologues.  */ */
+/* OBSOLETE  */
+/* OBSOLETE struct prologue_info */
+/* OBSOLETE { */
+/* OBSOLETE   CORE_ADDR pc;			/* First addr after fn prologue */ */
+/* OBSOLETE   unsigned rsize, msize;	/* register stack frame size, mem stack ditto */ */
+/* OBSOLETE   unsigned mfp_used:1;		/* memory frame pointer used */ */
+/* OBSOLETE   unsigned rsize_valid:1;	/* Validity bits for the above */ */
+/* OBSOLETE   unsigned msize_valid:1; */
+/* OBSOLETE   unsigned mfp_valid:1; */
+/* OBSOLETE }; */
+/* OBSOLETE  */
+/* OBSOLETE /* Examine the prologue of a function which starts at PC.  Return */
+/* OBSOLETE    the first addess past the prologue.  If MSIZE is non-NULL, then */
+/* OBSOLETE    set *MSIZE to the memory stack frame size.  If RSIZE is non-NULL, */
+/* OBSOLETE    then set *RSIZE to the register stack frame size (not including */
+/* OBSOLETE    incoming arguments and the return address & frame pointer stored */
+/* OBSOLETE    with them).  If no prologue is found, *RSIZE is set to zero. */
+/* OBSOLETE    If no prologue is found, or a prologue which doesn't involve */
+/* OBSOLETE    allocating a memory stack frame, then set *MSIZE to zero. */
+/* OBSOLETE  */
+/* OBSOLETE    Note that both msize and rsize are in bytes.  This is not consistent */
+/* OBSOLETE    with the _User's Manual_ with respect to rsize, but it is much more */
+/* OBSOLETE    convenient. */
+/* OBSOLETE  */
+/* OBSOLETE    If MFP_USED is non-NULL, *MFP_USED is set to nonzero if a memory */
+/* OBSOLETE    frame pointer is being used.  */ */
+/* OBSOLETE  */
+/* OBSOLETE CORE_ADDR */
+/* OBSOLETE examine_prologue (CORE_ADDR pc, unsigned *rsize, unsigned *msize, int *mfp_used) */
+/* OBSOLETE { */
+/* OBSOLETE   long insn; */
+/* OBSOLETE   CORE_ADDR p = pc; */
+/* OBSOLETE   struct minimal_symbol *msymbol = lookup_minimal_symbol_by_pc (pc); */
+/* OBSOLETE   struct prologue_info *mi = 0; */
+/* OBSOLETE  */
+/* OBSOLETE   if (msymbol != NULL) */
+/* OBSOLETE     mi = (struct prologue_info *) msymbol->info; */
+/* OBSOLETE  */
+/* OBSOLETE   if (mi != 0) */
+/* OBSOLETE     { */
+/* OBSOLETE       int valid = 1; */
+/* OBSOLETE       if (rsize != NULL) */
+/* OBSOLETE 	{ */
+/* OBSOLETE 	  *rsize = mi->rsize; */
+/* OBSOLETE 	  valid &= mi->rsize_valid; */
+/* OBSOLETE 	} */
+/* OBSOLETE       if (msize != NULL) */
+/* OBSOLETE 	{ */
+/* OBSOLETE 	  *msize = mi->msize; */
+/* OBSOLETE 	  valid &= mi->msize_valid; */
+/* OBSOLETE 	} */
+/* OBSOLETE       if (mfp_used != NULL) */
+/* OBSOLETE 	{ */
+/* OBSOLETE 	  *mfp_used = mi->mfp_used; */
+/* OBSOLETE 	  valid &= mi->mfp_valid; */
+/* OBSOLETE 	} */
+/* OBSOLETE       if (valid) */
+/* OBSOLETE 	return mi->pc; */
+/* OBSOLETE     } */
+/* OBSOLETE  */
+/* OBSOLETE   if (rsize != NULL) */
+/* OBSOLETE     *rsize = 0; */
+/* OBSOLETE   if (msize != NULL) */
+/* OBSOLETE     *msize = 0; */
+/* OBSOLETE   if (mfp_used != NULL) */
+/* OBSOLETE     *mfp_used = 0; */
+/* OBSOLETE  */
+/* OBSOLETE   /* Prologue must start with subtracting a constant from gr1. */
+/* OBSOLETE      Normally this is sub gr1,gr1,<rsize * 4>.  */ */
+/* OBSOLETE   insn = read_memory_integer (p, 4); */
+/* OBSOLETE   if ((insn & 0xffffff00) != 0x25010100) */
+/* OBSOLETE     { */
+/* OBSOLETE       /* If the frame is large, instead of a single instruction it */
+/* OBSOLETE          might be a pair of instructions: */
+/* OBSOLETE          const <reg>, <rsize * 4> */
+/* OBSOLETE          sub gr1,gr1,<reg> */
+/* OBSOLETE        */ */
+/* OBSOLETE       int reg; */
+/* OBSOLETE       /* Possible value for rsize.  */ */
+/* OBSOLETE       unsigned int rsize0; */
+/* OBSOLETE  */
+/* OBSOLETE       if ((insn & 0xff000000) != 0x03000000) */
+/* OBSOLETE 	{ */
+/* OBSOLETE 	  p = pc; */
+/* OBSOLETE 	  goto done; */
+/* OBSOLETE 	} */
+/* OBSOLETE       reg = (insn >> 8) & 0xff; */
+/* OBSOLETE       rsize0 = (((insn >> 8) & 0xff00) | (insn & 0xff)); */
+/* OBSOLETE       p += 4; */
+/* OBSOLETE       insn = read_memory_integer (p, 4); */
+/* OBSOLETE       if ((insn & 0xffffff00) != 0x24010100 */
+/* OBSOLETE 	  || (insn & 0xff) != reg) */
+/* OBSOLETE 	{ */
+/* OBSOLETE 	  p = pc; */
+/* OBSOLETE 	  goto done; */
+/* OBSOLETE 	} */
+/* OBSOLETE       if (rsize != NULL) */
+/* OBSOLETE 	*rsize = rsize0; */
+/* OBSOLETE     } */
+/* OBSOLETE   else */
+/* OBSOLETE     { */
+/* OBSOLETE       if (rsize != NULL) */
+/* OBSOLETE 	*rsize = (insn & 0xff); */
+/* OBSOLETE     } */
+/* OBSOLETE   p += 4; */
+/* OBSOLETE  */
+/* OBSOLETE   /* Next instruction ought to be asgeu V_SPILL,gr1,rab.   */
+/* OBSOLETE    * We don't check the vector number to allow for kernel debugging.  The  */
+/* OBSOLETE    * kernel will use a different trap number.  */
+/* OBSOLETE    * If this insn is missing, we just keep going; Metaware R2.3u compiler */
+/* OBSOLETE    * generates prologue that intermixes initializations and puts the asgeu */
+/* OBSOLETE    * way down. */
+/* OBSOLETE    */ */
+/* OBSOLETE   insn = read_memory_integer (p, 4); */
+/* OBSOLETE   if ((insn & 0xff00ffff) == (0x5e000100 | RAB_HW_REGNUM)) */
+/* OBSOLETE     { */
+/* OBSOLETE       p += 4; */
+/* OBSOLETE     } */
+/* OBSOLETE  */
+/* OBSOLETE   /* Next instruction usually sets the frame pointer (lr1) by adding */
+/* OBSOLETE      <size * 4> from gr1.  However, this can (and high C does) be */
+/* OBSOLETE      deferred until anytime before the first function call.  So it is */
+/* OBSOLETE      OK if we don't see anything which sets lr1.   */
+/* OBSOLETE      To allow for alternate register sets (gcc -mkernel-registers)  the msp */
+/* OBSOLETE      register number is a compile time constant. */ */
+/* OBSOLETE  */
+/* OBSOLETE   /* Normally this is just add lr1,gr1,<size * 4>.  */ */
+/* OBSOLETE   insn = read_memory_integer (p, 4); */
+/* OBSOLETE   if ((insn & 0xffffff00) == 0x15810100) */
+/* OBSOLETE     p += 4; */
+/* OBSOLETE   else */
+/* OBSOLETE     { */
+/* OBSOLETE       /* However, for large frames it can be */
+/* OBSOLETE          const <reg>, <size *4> */
+/* OBSOLETE          add lr1,gr1,<reg> */
+/* OBSOLETE        */ */
+/* OBSOLETE       int reg; */
+/* OBSOLETE       CORE_ADDR q; */
+/* OBSOLETE  */
+/* OBSOLETE       if ((insn & 0xff000000) == 0x03000000) */
+/* OBSOLETE 	{ */
+/* OBSOLETE 	  reg = (insn >> 8) & 0xff; */
+/* OBSOLETE 	  q = p + 4; */
+/* OBSOLETE 	  insn = read_memory_integer (q, 4); */
+/* OBSOLETE 	  if ((insn & 0xffffff00) == 0x14810100 */
+/* OBSOLETE 	      && (insn & 0xff) == reg) */
+/* OBSOLETE 	    p = q; */
+/* OBSOLETE 	} */
+/* OBSOLETE     } */
+/* OBSOLETE  */
+/* OBSOLETE   /* Next comes "add lr{<rsize-1>},msp,0", but only if a memory */
+/* OBSOLETE      frame pointer is in use.  We just check for add lr<anything>,msp,0; */
+/* OBSOLETE      we don't check this rsize against the first instruction, and */
+/* OBSOLETE      we don't check that the trace-back tag indicates a memory frame pointer */
+/* OBSOLETE      is in use.   */
+/* OBSOLETE      To allow for alternate register sets (gcc -mkernel-registers)  the msp */
+/* OBSOLETE      register number is a compile time constant. */
+/* OBSOLETE  */
+/* OBSOLETE      The recommended instruction is actually "sll lr<whatever>,msp,0".  */
+/* OBSOLETE      We check for that, too.  Originally Jim Kingdon's code seemed */
+/* OBSOLETE      to be looking for a "sub" instruction here, but the mask was set */
+/* OBSOLETE      up to lose all the time. */ */
+/* OBSOLETE   insn = read_memory_integer (p, 4); */
+/* OBSOLETE   if (((insn & 0xff80ffff) == (0x15800000 | (MSP_HW_REGNUM << 8)))	/* add */ */
+/* OBSOLETE       || ((insn & 0xff80ffff) == (0x81800000 | (MSP_HW_REGNUM << 8))))	/* sll */ */
+/* OBSOLETE     { */
+/* OBSOLETE       p += 4; */
+/* OBSOLETE       if (mfp_used != NULL) */
+/* OBSOLETE 	*mfp_used = 1; */
+/* OBSOLETE     } */
+/* OBSOLETE  */
+/* OBSOLETE   /* Next comes a subtraction from msp to allocate a memory frame, */
+/* OBSOLETE      but only if a memory frame is */
+/* OBSOLETE      being used.  We don't check msize against the trace-back tag. */
+/* OBSOLETE  */
+/* OBSOLETE      To allow for alternate register sets (gcc -mkernel-registers) the msp */
+/* OBSOLETE      register number is a compile time constant. */
+/* OBSOLETE  */
+/* OBSOLETE      Normally this is just */
+/* OBSOLETE      sub msp,msp,<msize> */
+/* OBSOLETE    */ */
+/* OBSOLETE   insn = read_memory_integer (p, 4); */
+/* OBSOLETE   if ((insn & 0xffffff00) == */
+/* OBSOLETE       (0x25000000 | (MSP_HW_REGNUM << 16) | (MSP_HW_REGNUM << 8))) */
+/* OBSOLETE     { */
+/* OBSOLETE       p += 4; */
+/* OBSOLETE       if (msize != NULL) */
+/* OBSOLETE 	*msize = insn & 0xff; */
+/* OBSOLETE     } */
+/* OBSOLETE   else */
+/* OBSOLETE     { */
+/* OBSOLETE       /* For large frames, instead of a single instruction it might */
+/* OBSOLETE          be */
+/* OBSOLETE  */
+/* OBSOLETE          const <reg>, <msize> */
+/* OBSOLETE          consth <reg>, <msize>     ; optional */
+/* OBSOLETE          sub msp,msp,<reg> */
+/* OBSOLETE        */ */
+/* OBSOLETE       int reg; */
+/* OBSOLETE       unsigned msize0; */
+/* OBSOLETE       CORE_ADDR q = p; */
+/* OBSOLETE  */
+/* OBSOLETE       if ((insn & 0xff000000) == 0x03000000) */
+/* OBSOLETE 	{ */
+/* OBSOLETE 	  reg = (insn >> 8) & 0xff; */
+/* OBSOLETE 	  msize0 = ((insn >> 8) & 0xff00) | (insn & 0xff); */
+/* OBSOLETE 	  q += 4; */
+/* OBSOLETE 	  insn = read_memory_integer (q, 4); */
+/* OBSOLETE 	  /* Check for consth.  */ */
+/* OBSOLETE 	  if ((insn & 0xff000000) == 0x02000000 */
+/* OBSOLETE 	      && (insn & 0x0000ff00) == reg) */
+/* OBSOLETE 	    { */
+/* OBSOLETE 	      msize0 |= (insn << 8) & 0xff000000; */
+/* OBSOLETE 	      msize0 |= (insn << 16) & 0x00ff0000; */
+/* OBSOLETE 	      q += 4; */
+/* OBSOLETE 	      insn = read_memory_integer (q, 4); */
+/* OBSOLETE 	    } */
+/* OBSOLETE 	  /* Check for sub msp,msp,<reg>.  */ */
+/* OBSOLETE 	  if ((insn & 0xffffff00) == */
+/* OBSOLETE 	      (0x24000000 | (MSP_HW_REGNUM << 16) | (MSP_HW_REGNUM << 8)) */
+/* OBSOLETE 	      && (insn & 0xff) == reg) */
+/* OBSOLETE 	    { */
+/* OBSOLETE 	      p = q + 4; */
+/* OBSOLETE 	      if (msize != NULL) */
+/* OBSOLETE 		*msize = msize0; */
+/* OBSOLETE 	    } */
+/* OBSOLETE 	} */
+/* OBSOLETE     } */
+/* OBSOLETE  */
+/* OBSOLETE   /* Next instruction might be asgeu V_SPILL,gr1,rab.   */
+/* OBSOLETE    * We don't check the vector number to allow for kernel debugging.  The  */
+/* OBSOLETE    * kernel will use a different trap number.  */
+/* OBSOLETE    * Metaware R2.3u compiler */
+/* OBSOLETE    * generates prologue that intermixes initializations and puts the asgeu */
+/* OBSOLETE    * way down after everything else. */
+/* OBSOLETE    */ */
+/* OBSOLETE   insn = read_memory_integer (p, 4); */
+/* OBSOLETE   if ((insn & 0xff00ffff) == (0x5e000100 | RAB_HW_REGNUM)) */
+/* OBSOLETE     { */
+/* OBSOLETE       p += 4; */
+/* OBSOLETE     } */
+/* OBSOLETE  */
+/* OBSOLETE done: */
+/* OBSOLETE   if (msymbol != NULL) */
+/* OBSOLETE     { */
+/* OBSOLETE       if (mi == 0) */
+/* OBSOLETE 	{ */
+/* OBSOLETE 	  /* Add a new cache entry.  */ */
+/* OBSOLETE 	  mi = (struct prologue_info *) xmalloc (sizeof (struct prologue_info)); */
+/* OBSOLETE 	  msymbol->info = (char *) mi; */
+/* OBSOLETE 	  mi->rsize_valid = 0; */
+/* OBSOLETE 	  mi->msize_valid = 0; */
+/* OBSOLETE 	  mi->mfp_valid = 0; */
+/* OBSOLETE 	} */
+/* OBSOLETE       /* else, cache entry exists, but info is incomplete.  */ */
+/* OBSOLETE       mi->pc = p; */
+/* OBSOLETE       if (rsize != NULL) */
+/* OBSOLETE 	{ */
+/* OBSOLETE 	  mi->rsize = *rsize; */
+/* OBSOLETE 	  mi->rsize_valid = 1; */
+/* OBSOLETE 	} */
+/* OBSOLETE       if (msize != NULL) */
+/* OBSOLETE 	{ */
+/* OBSOLETE 	  mi->msize = *msize; */
+/* OBSOLETE 	  mi->msize_valid = 1; */
+/* OBSOLETE 	} */
+/* OBSOLETE       if (mfp_used != NULL) */
+/* OBSOLETE 	{ */
+/* OBSOLETE 	  mi->mfp_used = *mfp_used; */
+/* OBSOLETE 	  mi->mfp_valid = 1; */
+/* OBSOLETE 	} */
+/* OBSOLETE     } */
+/* OBSOLETE   return p; */
+/* OBSOLETE } */
+/* OBSOLETE  */
+/* OBSOLETE /* Advance PC across any function entry prologue instructions */
+/* OBSOLETE    to reach some "real" code.  */ */
+/* OBSOLETE  */
+/* OBSOLETE CORE_ADDR */
+/* OBSOLETE a29k_skip_prologue (CORE_ADDR pc) */
+/* OBSOLETE { */
+/* OBSOLETE   return examine_prologue (pc, NULL, NULL, NULL); */
+/* OBSOLETE } */
+/* OBSOLETE  */
+/* OBSOLETE /* */
+/* OBSOLETE  * Examine the one or two word tag at the beginning of a function. */
+/* OBSOLETE  * The tag word is expect to be at 'p', if it is not there, we fail */
+/* OBSOLETE  * by returning 0.  The documentation for the tag word was taken from */
+/* OBSOLETE  * page 7-15 of the 29050 User's Manual.  We are assuming that the */
+/* OBSOLETE  * m bit is in bit 22 of the tag word, which seems to be the agreed upon */
+/* OBSOLETE  * convention today (1/15/92). */
+/* OBSOLETE  * msize is return in bytes. */
+/* OBSOLETE  */ */
+/* OBSOLETE  */
+/* OBSOLETE static int			/* 0/1 - failure/success of finding the tag word  */ */
+/* OBSOLETE examine_tag (CORE_ADDR p, int *is_trans, int *argcount, unsigned *msize, */
+/* OBSOLETE 	     int *mfp_used) */
+/* OBSOLETE { */
+/* OBSOLETE   unsigned int tag1, tag2; */
+/* OBSOLETE  */
+/* OBSOLETE   tag1 = read_memory_integer (p, 4); */
+/* OBSOLETE   if ((tag1 & TAGWORD_ZERO_MASK) != 0)	/* Not a tag word */ */
+/* OBSOLETE     return 0; */
+/* OBSOLETE   if (tag1 & (1 << 23))		/* A two word tag */ */
+/* OBSOLETE     { */
+/* OBSOLETE       tag2 = read_memory_integer (p - 4, 4); */
+/* OBSOLETE       if (msize) */
+/* OBSOLETE 	*msize = tag2 * 2; */
+/* OBSOLETE     } */
+/* OBSOLETE   else */
+/* OBSOLETE     /* A one word tag */ */
+/* OBSOLETE     { */
+/* OBSOLETE       if (msize) */
+/* OBSOLETE 	*msize = tag1 & 0x7ff; */
+/* OBSOLETE     } */
+/* OBSOLETE   if (is_trans) */
+/* OBSOLETE     *is_trans = ((tag1 & (1 << 21)) ? 1 : 0); */
+/* OBSOLETE   /* Note that this includes the frame pointer and the return address */
+/* OBSOLETE      register, so the actual number of registers of arguments is two less. */
+/* OBSOLETE      argcount can be zero, however, sometimes, for strange assembler */
+/* OBSOLETE      routines.  */ */
+/* OBSOLETE   if (argcount) */
+/* OBSOLETE     *argcount = (tag1 >> 16) & 0x1f; */
+/* OBSOLETE   if (mfp_used) */
+/* OBSOLETE     *mfp_used = ((tag1 & (1 << 22)) ? 1 : 0); */
+/* OBSOLETE   return 1; */
+/* OBSOLETE } */
+/* OBSOLETE  */
+/* OBSOLETE /* Initialize the frame.  In addition to setting "extra" frame info, */
+/* OBSOLETE    we also set ->frame because we use it in a nonstandard way, and ->pc */
+/* OBSOLETE    because we need to know it to get the other stuff.  See the diagram */
+/* OBSOLETE    of stacks and the frame cache in tm-a29k.h for more detail.  */ */
+/* OBSOLETE  */
+/* OBSOLETE static void */
+/* OBSOLETE init_frame_info (int innermost_frame, struct frame_info *frame) */
+/* OBSOLETE { */
+/* OBSOLETE   CORE_ADDR p; */
+/* OBSOLETE   long insn; */
+/* OBSOLETE   unsigned rsize; */
+/* OBSOLETE   unsigned msize; */
+/* OBSOLETE   int mfp_used, trans; */
+/* OBSOLETE   struct symbol *func; */
+/* OBSOLETE  */
+/* OBSOLETE   p = frame->pc; */
+/* OBSOLETE  */
+/* OBSOLETE   if (innermost_frame) */
+/* OBSOLETE     frame->frame = read_register (GR1_REGNUM); */
+/* OBSOLETE   else */
+/* OBSOLETE     frame->frame = frame->next->frame + frame->next->rsize; */
+/* OBSOLETE  */
+/* OBSOLETE #if 0				/* CALL_DUMMY_LOCATION == ON_STACK */ */
+/* OBSOLETE   This wont work; */
+/* OBSOLETE #else */
+/* OBSOLETE   if (PC_IN_CALL_DUMMY (p, 0, 0)) */
+/* OBSOLETE #endif */
+/* OBSOLETE     { */
+/* OBSOLETE       frame->rsize = DUMMY_FRAME_RSIZE; */
+/* OBSOLETE       /* This doesn't matter since we never try to get locals or args */
+/* OBSOLETE          from a dummy frame.  */ */
+/* OBSOLETE       frame->msize = 0; */
+/* OBSOLETE       /* Dummy frames always use a memory frame pointer.  */ */
+/* OBSOLETE       frame->saved_msp = */
+/* OBSOLETE 	read_register_stack_integer (frame->frame + DUMMY_FRAME_RSIZE - 4, 4); */
+/* OBSOLETE       frame->flags |= (TRANSPARENT_FRAME | MFP_USED); */
+/* OBSOLETE       return; */
+/* OBSOLETE     } */
+/* OBSOLETE  */
+/* OBSOLETE   func = find_pc_function (p); */
+/* OBSOLETE   if (func != NULL) */
+/* OBSOLETE     p = BLOCK_START (SYMBOL_BLOCK_VALUE (func)); */
+/* OBSOLETE   else */
+/* OBSOLETE     { */
+/* OBSOLETE       /* Search backward to find the trace-back tag.  However, */
+/* OBSOLETE          do not trace back beyond the start of the text segment */
+/* OBSOLETE          (just as a sanity check to avoid going into never-never land).  */ */
+/* OBSOLETE #if 1 */
+/* OBSOLETE       while (p >= text_start */
+/* OBSOLETE 	  && ((insn = read_memory_integer (p, 4)) & TAGWORD_ZERO_MASK) != 0) */
+/* OBSOLETE 	p -= 4; */
+/* OBSOLETE #else /* 0 */ */
+/* OBSOLETE       char pat[4] = */
+/* OBSOLETE       {0, 0, 0, 0}; */
+/* OBSOLETE       char mask[4]; */
+/* OBSOLETE       char insn_raw[4]; */
+/* OBSOLETE       store_unsigned_integer (mask, 4, TAGWORD_ZERO_MASK); */
+/* OBSOLETE       /* Enable this once target_search is enabled and tested.  */ */
+/* OBSOLETE       target_search (4, pat, mask, p, -4, text_start, p + 1, &p, &insn_raw); */
+/* OBSOLETE       insn = extract_unsigned_integer (insn_raw, 4); */
+/* OBSOLETE #endif /* 0 */ */
+/* OBSOLETE  */
+/* OBSOLETE       if (p < text_start) */
+/* OBSOLETE 	{ */
+/* OBSOLETE 	  /* Couldn't find the trace-back tag. */
+/* OBSOLETE 	     Something strange is going on.  */ */
+/* OBSOLETE 	  frame->saved_msp = 0; */
+/* OBSOLETE 	  frame->rsize = 0; */
+/* OBSOLETE 	  frame->msize = 0; */
+/* OBSOLETE 	  frame->flags = TRANSPARENT_FRAME; */
+/* OBSOLETE 	  return; */
+/* OBSOLETE 	} */
+/* OBSOLETE       else */
+/* OBSOLETE 	/* Advance to the first word of the function, i.e. the word */
+/* OBSOLETE 	   after the trace-back tag.  */ */
+/* OBSOLETE 	p += 4; */
+/* OBSOLETE     } */
+/* OBSOLETE  */
+/* OBSOLETE   /* We've found the start of the function.   */
+/* OBSOLETE      Try looking for a tag word that indicates whether there is a */
+/* OBSOLETE      memory frame pointer and what the memory stack allocation is. */
+/* OBSOLETE      If one doesn't exist, try using a more exhaustive search of */
+/* OBSOLETE      the prologue.  */ */
+/* OBSOLETE  */
+/* OBSOLETE   if (examine_tag (p - 4, &trans, (int *) NULL, &msize, &mfp_used))	/* Found good tag */ */
+/* OBSOLETE     examine_prologue (p, &rsize, 0, 0); */
+/* OBSOLETE   else				/* No tag try prologue */ */
+/* OBSOLETE     examine_prologue (p, &rsize, &msize, &mfp_used); */
+/* OBSOLETE  */
+/* OBSOLETE   frame->rsize = rsize; */
+/* OBSOLETE   frame->msize = msize; */
+/* OBSOLETE   frame->flags = 0; */
+/* OBSOLETE   if (mfp_used) */
+/* OBSOLETE     frame->flags |= MFP_USED; */
+/* OBSOLETE   if (trans) */
+/* OBSOLETE     frame->flags |= TRANSPARENT_FRAME; */
+/* OBSOLETE   if (innermost_frame) */
+/* OBSOLETE     { */
+/* OBSOLETE       frame->saved_msp = read_register (MSP_REGNUM) + msize; */
+/* OBSOLETE     } */
+/* OBSOLETE   else */
+/* OBSOLETE     { */
+/* OBSOLETE       if (mfp_used) */
+/* OBSOLETE 	frame->saved_msp = */
+/* OBSOLETE 	  read_register_stack_integer (frame->frame + rsize - 4, 4); */
+/* OBSOLETE       else */
+/* OBSOLETE 	frame->saved_msp = frame->next->saved_msp + msize; */
+/* OBSOLETE     } */
+/* OBSOLETE } */
+/* OBSOLETE  */
+/* OBSOLETE void */
+/* OBSOLETE init_extra_frame_info (struct frame_info *frame) */
+/* OBSOLETE { */
+/* OBSOLETE   if (frame->next == 0) */
+/* OBSOLETE     /* Assume innermost frame.  May produce strange results for "info frame" */
+/* OBSOLETE        but there isn't any way to tell the difference.  */ */
+/* OBSOLETE     init_frame_info (1, frame); */
+/* OBSOLETE   else */
+/* OBSOLETE     { */
+/* OBSOLETE       /* We're in get_prev_frame. */
+/* OBSOLETE          Take care of everything in init_frame_pc.  */ */
+/* OBSOLETE       ; */
+/* OBSOLETE     } */
+/* OBSOLETE } */
+/* OBSOLETE  */
+/* OBSOLETE void */
+/* OBSOLETE init_frame_pc (int fromleaf, struct frame_info *frame) */
+/* OBSOLETE { */
+/* OBSOLETE   frame->pc = (fromleaf ? SAVED_PC_AFTER_CALL (frame->next) : */
+/* OBSOLETE 	       frame->next ? FRAME_SAVED_PC (frame->next) : read_pc ()); */
+/* OBSOLETE   init_frame_info (fromleaf, frame); */
+/* OBSOLETE } */
+/* OBSOLETE  */
+/* OBSOLETE /* Local variables (i.e. LOC_LOCAL) are on the memory stack, with their */
+/* OBSOLETE    offsets being relative to the memory stack pointer (high C) or */
+/* OBSOLETE    saved_msp (gcc).  */ */
+/* OBSOLETE  */
+/* OBSOLETE CORE_ADDR */
+/* OBSOLETE frame_locals_address (struct frame_info *fi) */
+/* OBSOLETE { */
+/* OBSOLETE   if (fi->flags & MFP_USED) */
+/* OBSOLETE     return fi->saved_msp; */
+/* OBSOLETE   else */
+/* OBSOLETE     return fi->saved_msp - fi->msize; */
+/* OBSOLETE } */
+/* OBSOLETE  */
+/* OBSOLETE /* Routines for reading the register stack.  The caller gets to treat */
+/* OBSOLETE    the register stack as a uniform stack in memory, from address $gr1 */
+/* OBSOLETE    straight through $rfb and beyond.  */ */
+/* OBSOLETE  */
+/* OBSOLETE /* Analogous to read_memory except the length is understood to be 4. */
+/* OBSOLETE    Also, myaddr can be NULL (meaning don't bother to read), and */
+/* OBSOLETE    if actual_mem_addr is non-NULL, store there the address that it */
+/* OBSOLETE    was fetched from (or if from a register the offset within */
+/* OBSOLETE    registers).  Set *LVAL to lval_memory or lval_register, depending */
+/* OBSOLETE    on where it came from.  The contents written into MYADDR are in */
+/* OBSOLETE    target format.  */ */
+/* OBSOLETE void */
+/* OBSOLETE read_register_stack (CORE_ADDR memaddr, char *myaddr, */
+/* OBSOLETE 		     CORE_ADDR *actual_mem_addr, enum lval_type *lval) */
+/* OBSOLETE { */
+/* OBSOLETE   long rfb = read_register (RFB_REGNUM); */
+/* OBSOLETE   long rsp = read_register (RSP_REGNUM); */
+/* OBSOLETE  */
+/* OBSOLETE   /* If we don't do this 'info register' stops in the middle. */ */
+/* OBSOLETE   if (memaddr >= rstack_high_address) */
+/* OBSOLETE     { */
+/* OBSOLETE       /* a bogus value */ */
+/* OBSOLETE       static char val[] = */
+/* OBSOLETE       {~0, ~0, ~0, ~0}; */
+/* OBSOLETE       /* It's in a local register, but off the end of the stack.  */ */
+/* OBSOLETE       int regnum = (memaddr - rsp) / 4 + LR0_REGNUM; */
+/* OBSOLETE       if (myaddr != NULL) */
+/* OBSOLETE 	{ */
+/* OBSOLETE 	  /* Provide bogusness */ */
+/* OBSOLETE 	  memcpy (myaddr, val, 4); */
+/* OBSOLETE 	} */
+/* OBSOLETE       supply_register (regnum, val);	/* More bogusness */ */
+/* OBSOLETE       if (lval != NULL) */
+/* OBSOLETE 	*lval = lval_register; */
+/* OBSOLETE       if (actual_mem_addr != NULL) */
+/* OBSOLETE 	*actual_mem_addr = REGISTER_BYTE (regnum); */
+/* OBSOLETE     } */
+/* OBSOLETE   /* If it's in the part of the register stack that's in real registers, */
+/* OBSOLETE      get the value from the registers.  If it's anywhere else in memory */
+/* OBSOLETE      (e.g. in another thread's saved stack), skip this part and get */
+/* OBSOLETE      it from real live memory.  */ */
+/* OBSOLETE   else if (memaddr < rfb && memaddr >= rsp) */
+/* OBSOLETE     { */
+/* OBSOLETE       /* It's in a register.  */ */
+/* OBSOLETE       int regnum = (memaddr - rsp) / 4 + LR0_REGNUM; */
+/* OBSOLETE       if (regnum > LR0_REGNUM + 127) */
+/* OBSOLETE 	error ("Attempt to read register stack out of range."); */
+/* OBSOLETE       if (myaddr != NULL) */
+/* OBSOLETE 	read_register_gen (regnum, myaddr); */
+/* OBSOLETE       if (lval != NULL) */
+/* OBSOLETE 	*lval = lval_register; */
+/* OBSOLETE       if (actual_mem_addr != NULL) */
+/* OBSOLETE 	*actual_mem_addr = REGISTER_BYTE (regnum); */
+/* OBSOLETE     } */
+/* OBSOLETE   else */
+/* OBSOLETE     { */
+/* OBSOLETE       /* It's in the memory portion of the register stack.  */ */
+/* OBSOLETE       if (myaddr != NULL) */
+/* OBSOLETE 	read_memory (memaddr, myaddr, 4); */
+/* OBSOLETE       if (lval != NULL) */
+/* OBSOLETE 	*lval = lval_memory; */
+/* OBSOLETE       if (actual_mem_addr != NULL) */
+/* OBSOLETE 	*actual_mem_addr = memaddr; */
+/* OBSOLETE     } */
+/* OBSOLETE } */
+/* OBSOLETE  */
+/* OBSOLETE /* Analogous to read_memory_integer */
+/* OBSOLETE    except the length is understood to be 4.  */ */
+/* OBSOLETE long */
+/* OBSOLETE read_register_stack_integer (CORE_ADDR memaddr, int len) */
+/* OBSOLETE { */
+/* OBSOLETE   char buf[4]; */
+/* OBSOLETE   read_register_stack (memaddr, buf, NULL, NULL); */
+/* OBSOLETE   return extract_signed_integer (buf, 4); */
+/* OBSOLETE } */
+/* OBSOLETE  */
+/* OBSOLETE /* Copy 4 bytes from GDB memory at MYADDR into inferior memory */
+/* OBSOLETE    at MEMADDR and put the actual address written into in */
+/* OBSOLETE    *ACTUAL_MEM_ADDR.  */ */
+/* OBSOLETE static void */
+/* OBSOLETE write_register_stack (CORE_ADDR memaddr, char *myaddr, */
+/* OBSOLETE 		      CORE_ADDR *actual_mem_addr) */
+/* OBSOLETE { */
+/* OBSOLETE   long rfb = read_register (RFB_REGNUM); */
+/* OBSOLETE   long rsp = read_register (RSP_REGNUM); */
+/* OBSOLETE   /* If we don't do this 'info register' stops in the middle. */ */
+/* OBSOLETE   if (memaddr >= rstack_high_address) */
+/* OBSOLETE     { */
+/* OBSOLETE       /* It's in a register, but off the end of the stack.  */ */
+/* OBSOLETE       if (actual_mem_addr != NULL) */
+/* OBSOLETE 	*actual_mem_addr = 0; */
+/* OBSOLETE     } */
+/* OBSOLETE   else if (memaddr < rfb) */
+/* OBSOLETE     { */
+/* OBSOLETE       /* It's in a register.  */ */
+/* OBSOLETE       int regnum = (memaddr - rsp) / 4 + LR0_REGNUM; */
+/* OBSOLETE       if (regnum < LR0_REGNUM || regnum > LR0_REGNUM + 127) */
+/* OBSOLETE 	error ("Attempt to read register stack out of range."); */
+/* OBSOLETE       if (myaddr != NULL) */
+/* OBSOLETE 	write_register (regnum, *(long *) myaddr); */
+/* OBSOLETE       if (actual_mem_addr != NULL) */
+/* OBSOLETE 	*actual_mem_addr = 0; */
+/* OBSOLETE     } */
+/* OBSOLETE   else */
+/* OBSOLETE     { */
+/* OBSOLETE       /* It's in the memory portion of the register stack.  */ */
+/* OBSOLETE       if (myaddr != NULL) */
+/* OBSOLETE 	write_memory (memaddr, myaddr, 4); */
+/* OBSOLETE       if (actual_mem_addr != NULL) */
+/* OBSOLETE 	*actual_mem_addr = memaddr; */
+/* OBSOLETE     } */
+/* OBSOLETE } */
+/* OBSOLETE  */
+/* OBSOLETE /* Find register number REGNUM relative to FRAME and put its */
+/* OBSOLETE    (raw) contents in *RAW_BUFFER.  Set *OPTIMIZED if the variable */
+/* OBSOLETE    was optimized out (and thus can't be fetched).  If the variable */
+/* OBSOLETE    was fetched from memory, set *ADDRP to where it was fetched from, */
+/* OBSOLETE    otherwise it was fetched from a register. */
+/* OBSOLETE  */
+/* OBSOLETE    The argument RAW_BUFFER must point to aligned memory.  */ */
+/* OBSOLETE  */
+/* OBSOLETE void */
+/* OBSOLETE a29k_get_saved_register (char *raw_buffer, int *optimized, CORE_ADDR *addrp, */
+/* OBSOLETE 			 struct frame_info *frame, int regnum, */
+/* OBSOLETE 			 enum lval_type *lvalp) */
+/* OBSOLETE { */
+/* OBSOLETE   struct frame_info *fi; */
+/* OBSOLETE   CORE_ADDR addr; */
+/* OBSOLETE   enum lval_type lval; */
+/* OBSOLETE  */
+/* OBSOLETE   if (!target_has_registers) */
+/* OBSOLETE     error ("No registers."); */
+/* OBSOLETE  */
+/* OBSOLETE   /* Probably now redundant with the target_has_registers check.  */ */
+/* OBSOLETE   if (frame == 0) */
+/* OBSOLETE     return; */
+/* OBSOLETE  */
+/* OBSOLETE   /* Once something has a register number, it doesn't get optimized out.  */ */
+/* OBSOLETE   if (optimized != NULL) */
+/* OBSOLETE     *optimized = 0; */
+/* OBSOLETE   if (regnum == RSP_REGNUM) */
+/* OBSOLETE     { */
+/* OBSOLETE       if (raw_buffer != NULL) */
+/* OBSOLETE 	{ */
+/* OBSOLETE 	  store_address (raw_buffer, REGISTER_RAW_SIZE (regnum), frame->frame); */
+/* OBSOLETE 	} */
+/* OBSOLETE       if (lvalp != NULL) */
+/* OBSOLETE 	*lvalp = not_lval; */
+/* OBSOLETE       return; */
+/* OBSOLETE     } */
+/* OBSOLETE   else if (regnum == PC_REGNUM && frame->next != NULL) */
+/* OBSOLETE     { */
+/* OBSOLETE       if (raw_buffer != NULL) */
+/* OBSOLETE 	{ */
+/* OBSOLETE 	  store_address (raw_buffer, REGISTER_RAW_SIZE (regnum), frame->pc); */
+/* OBSOLETE 	} */
+/* OBSOLETE  */
+/* OBSOLETE       /* Not sure we have to do this.  */ */
+/* OBSOLETE       if (lvalp != NULL) */
+/* OBSOLETE 	*lvalp = not_lval; */
+/* OBSOLETE  */
+/* OBSOLETE       return; */
+/* OBSOLETE     } */
+/* OBSOLETE   else if (regnum == MSP_REGNUM) */
+/* OBSOLETE     { */
+/* OBSOLETE       if (raw_buffer != NULL) */
+/* OBSOLETE 	{ */
+/* OBSOLETE 	  if (frame->next != NULL) */
+/* OBSOLETE 	    { */
+/* OBSOLETE 	      store_address (raw_buffer, REGISTER_RAW_SIZE (regnum), */
+/* OBSOLETE 			     frame->next->saved_msp); */
+/* OBSOLETE 	    } */
+/* OBSOLETE 	  else */
+/* OBSOLETE 	    read_register_gen (MSP_REGNUM, raw_buffer); */
+/* OBSOLETE 	} */
+/* OBSOLETE       /* The value may have been computed, not fetched.  */ */
+/* OBSOLETE       if (lvalp != NULL) */
+/* OBSOLETE 	*lvalp = not_lval; */
+/* OBSOLETE       return; */
+/* OBSOLETE     } */
+/* OBSOLETE   else if (regnum < LR0_REGNUM || regnum >= LR0_REGNUM + 128) */
+/* OBSOLETE     { */
+/* OBSOLETE       /* These registers are not saved over procedure calls, */
+/* OBSOLETE          so just print out the current values.  */ */
+/* OBSOLETE       if (raw_buffer != NULL) */
+/* OBSOLETE 	read_register_gen (regnum, raw_buffer); */
+/* OBSOLETE       if (lvalp != NULL) */
+/* OBSOLETE 	*lvalp = lval_register; */
+/* OBSOLETE       if (addrp != NULL) */
+/* OBSOLETE 	*addrp = REGISTER_BYTE (regnum); */
+/* OBSOLETE       return; */
+/* OBSOLETE     } */
+/* OBSOLETE  */
+/* OBSOLETE   addr = frame->frame + (regnum - LR0_REGNUM) * 4; */
+/* OBSOLETE   if (raw_buffer != NULL) */
+/* OBSOLETE     read_register_stack (addr, raw_buffer, &addr, &lval); */
+/* OBSOLETE   if (lvalp != NULL) */
+/* OBSOLETE     *lvalp = lval; */
+/* OBSOLETE   if (addrp != NULL) */
+/* OBSOLETE     *addrp = addr; */
+/* OBSOLETE } */
+/* OBSOLETE  */
+/* OBSOLETE  */
+/* OBSOLETE /* Discard from the stack the innermost frame, */
+/* OBSOLETE    restoring all saved registers.  */ */
+/* OBSOLETE  */
+/* OBSOLETE void */
+/* OBSOLETE pop_frame (void) */
+/* OBSOLETE { */
+/* OBSOLETE   struct frame_info *frame = get_current_frame (); */
+/* OBSOLETE   CORE_ADDR rfb = read_register (RFB_REGNUM); */
+/* OBSOLETE   CORE_ADDR gr1 = frame->frame + frame->rsize; */
+/* OBSOLETE   CORE_ADDR lr1; */
+/* OBSOLETE   CORE_ADDR original_lr0; */
+/* OBSOLETE   int must_fix_lr0 = 0; */
+/* OBSOLETE   int i; */
+/* OBSOLETE  */
+/* OBSOLETE   /* If popping a dummy frame, need to restore registers.  */ */
+/* OBSOLETE   if (PC_IN_CALL_DUMMY (read_register (PC_REGNUM), */
+/* OBSOLETE 			read_register (SP_REGNUM), */
+/* OBSOLETE 			FRAME_FP (frame))) */
+/* OBSOLETE     { */
+/* OBSOLETE       int lrnum = LR0_REGNUM + DUMMY_ARG / 4; */
+/* OBSOLETE       for (i = 0; i < DUMMY_SAVE_SR128; ++i) */
+/* OBSOLETE 	write_register (SR_REGNUM (i + 128), read_register (lrnum++)); */
+/* OBSOLETE       for (i = 0; i < DUMMY_SAVE_SR160; ++i) */
+/* OBSOLETE 	write_register (SR_REGNUM (i + 160), read_register (lrnum++)); */
+/* OBSOLETE       for (i = 0; i < DUMMY_SAVE_GREGS; ++i) */
+/* OBSOLETE 	write_register (RETURN_REGNUM + i, read_register (lrnum++)); */
+/* OBSOLETE       /* Restore the PCs and prepare to restore LR0.  */ */
+/* OBSOLETE       write_register (PC_REGNUM, read_register (lrnum++)); */
+/* OBSOLETE       write_register (NPC_REGNUM, read_register (lrnum++)); */
+/* OBSOLETE       write_register (PC2_REGNUM, read_register (lrnum++)); */
+/* OBSOLETE       original_lr0 = read_register (lrnum++); */
+/* OBSOLETE       must_fix_lr0 = 1; */
+/* OBSOLETE     } */
+/* OBSOLETE  */
+/* OBSOLETE   /* Restore the memory stack pointer.  */ */
+/* OBSOLETE   write_register (MSP_REGNUM, frame->saved_msp); */
+/* OBSOLETE   /* Restore the register stack pointer.  */ */
+/* OBSOLETE   write_register (GR1_REGNUM, gr1); */
+/* OBSOLETE  */
+/* OBSOLETE   /* If we popped a dummy frame, restore lr0 now that gr1 has been restored. */ */
+/* OBSOLETE   if (must_fix_lr0) */
+/* OBSOLETE     write_register (LR0_REGNUM, original_lr0); */
+/* OBSOLETE  */
+/* OBSOLETE   /* Check whether we need to fill registers.  */ */
+/* OBSOLETE   lr1 = read_register (LR0_REGNUM + 1); */
+/* OBSOLETE   if (lr1 > rfb) */
+/* OBSOLETE     { */
+/* OBSOLETE       /* Fill.  */ */
+/* OBSOLETE       int num_bytes = lr1 - rfb; */
+/* OBSOLETE       int i; */
+/* OBSOLETE       long word; */
+/* OBSOLETE  */
+/* OBSOLETE       write_register (RAB_REGNUM, read_register (RAB_REGNUM) + num_bytes); */
+/* OBSOLETE       write_register (RFB_REGNUM, lr1); */
+/* OBSOLETE       for (i = 0; i < num_bytes; i += 4) */
+/* OBSOLETE 	{ */
+/* OBSOLETE 	  /* Note: word is in host byte order.  */ */
+/* OBSOLETE 	  word = read_memory_integer (rfb + i, 4); */
+/* OBSOLETE 	  write_register (LR0_REGNUM + ((rfb - gr1) % 0x80) + i / 4, word); */
+/* OBSOLETE 	} */
+/* OBSOLETE     } */
+/* OBSOLETE   flush_cached_frames (); */
+/* OBSOLETE } */
+/* OBSOLETE  */
+/* OBSOLETE /* Push an empty stack frame, to record the current PC, etc.  */ */
+/* OBSOLETE  */
+/* OBSOLETE void */
+/* OBSOLETE push_dummy_frame (void) */
+/* OBSOLETE { */
+/* OBSOLETE   long w; */
+/* OBSOLETE   CORE_ADDR rab, gr1; */
+/* OBSOLETE   CORE_ADDR msp = read_register (MSP_REGNUM); */
+/* OBSOLETE   int lrnum, i; */
+/* OBSOLETE   CORE_ADDR original_lr0; */
+/* OBSOLETE  */
+/* OBSOLETE   /* Read original lr0 before changing gr1.  This order isn't really needed */
+/* OBSOLETE      since GDB happens to have a snapshot of all the regs and doesn't toss */
+/* OBSOLETE      it when gr1 is changed.  But it's The Right Thing To Do.  */ */
+/* OBSOLETE   original_lr0 = read_register (LR0_REGNUM); */
+/* OBSOLETE  */
+/* OBSOLETE   /* Allocate the new frame. */ */
+/* OBSOLETE   gr1 = read_register (GR1_REGNUM) - DUMMY_FRAME_RSIZE; */
+/* OBSOLETE   write_register (GR1_REGNUM, gr1); */
+/* OBSOLETE  */
+/* OBSOLETE #ifdef VXWORKS_TARGET */
+/* OBSOLETE   /* We force re-reading all registers to get the new local registers set */
+/* OBSOLETE      after gr1 has been modified. This fix is due to the lack of single */
+/* OBSOLETE      register read/write operation in the RPC interface between VxGDB and */
+/* OBSOLETE      VxWorks. This really must be changed ! */ */
+/* OBSOLETE  */
+/* OBSOLETE   vx_read_register (-1); */
+/* OBSOLETE  */
+/* OBSOLETE #endif /* VXWORK_TARGET */ */
+/* OBSOLETE  */
+/* OBSOLETE   rab = read_register (RAB_REGNUM); */
+/* OBSOLETE   if (gr1 < rab) */
+/* OBSOLETE     { */
+/* OBSOLETE       /* We need to spill registers.  */ */
+/* OBSOLETE       int num_bytes = rab - gr1; */
+/* OBSOLETE       CORE_ADDR rfb = read_register (RFB_REGNUM); */
+/* OBSOLETE       int i; */
+/* OBSOLETE       long word; */
+/* OBSOLETE  */
+/* OBSOLETE       write_register (RFB_REGNUM, rfb - num_bytes); */
+/* OBSOLETE       write_register (RAB_REGNUM, gr1); */
+/* OBSOLETE       for (i = 0; i < num_bytes; i += 4) */
+/* OBSOLETE 	{ */
+/* OBSOLETE 	  /* Note:  word is in target byte order.  */ */
+/* OBSOLETE 	  read_register_gen (LR0_REGNUM + i / 4, (char *) &word); */
+/* OBSOLETE 	  write_memory (rfb - num_bytes + i, (char *) &word, 4); */
+/* OBSOLETE 	} */
+/* OBSOLETE     } */
+/* OBSOLETE  */
+/* OBSOLETE   /* There are no arguments in to the dummy frame, so we don't need */
+/* OBSOLETE      more than rsize plus the return address and lr1.  */ */
+/* OBSOLETE   write_register (LR0_REGNUM + 1, gr1 + DUMMY_FRAME_RSIZE + 2 * 4); */
+/* OBSOLETE  */
+/* OBSOLETE   /* Set the memory frame pointer.  */ */
+/* OBSOLETE   write_register (LR0_REGNUM + DUMMY_FRAME_RSIZE / 4 - 1, msp); */
+/* OBSOLETE  */
+/* OBSOLETE   /* Allocate arg_slop.  */ */
+/* OBSOLETE   write_register (MSP_REGNUM, msp - 16 * 4); */
+/* OBSOLETE  */
+/* OBSOLETE   /* Save registers.  */ */
+/* OBSOLETE   lrnum = LR0_REGNUM + DUMMY_ARG / 4; */
+/* OBSOLETE   for (i = 0; i < DUMMY_SAVE_SR128; ++i) */
+/* OBSOLETE     write_register (lrnum++, read_register (SR_REGNUM (i + 128))); */
+/* OBSOLETE   for (i = 0; i < DUMMY_SAVE_SR160; ++i) */
+/* OBSOLETE     write_register (lrnum++, read_register (SR_REGNUM (i + 160))); */
+/* OBSOLETE   for (i = 0; i < DUMMY_SAVE_GREGS; ++i) */
+/* OBSOLETE     write_register (lrnum++, read_register (RETURN_REGNUM + i)); */
+/* OBSOLETE   /* Save the PCs and LR0.  */ */
+/* OBSOLETE   write_register (lrnum++, read_register (PC_REGNUM)); */
+/* OBSOLETE   write_register (lrnum++, read_register (NPC_REGNUM)); */
+/* OBSOLETE   write_register (lrnum++, read_register (PC2_REGNUM)); */
+/* OBSOLETE  */
+/* OBSOLETE   /* Why are we saving LR0?  What would clobber it? (the dummy frame should */
+/* OBSOLETE      be below it on the register stack, no?).  */ */
+/* OBSOLETE   write_register (lrnum++, original_lr0); */
+/* OBSOLETE } */
+/* OBSOLETE  */
+/* OBSOLETE  */
+/* OBSOLETE  */
+/* OBSOLETE /* */
+/* OBSOLETE    This routine takes three arguments and makes the cached frames look */
+/* OBSOLETE    as if these arguments defined a frame on the cache.  This allows the */
+/* OBSOLETE    rest of `info frame' to extract the important arguments without much */
+/* OBSOLETE    difficulty.  Since an individual frame on the 29K is determined by */
+/* OBSOLETE    three values (FP, PC, and MSP), we really need all three to do a */
+/* OBSOLETE    good job.  */ */
+/* OBSOLETE  */
+/* OBSOLETE struct frame_info * */
+/* OBSOLETE setup_arbitrary_frame (int argc, CORE_ADDR *argv) */
+/* OBSOLETE { */
+/* OBSOLETE   struct frame_info *frame; */
+/* OBSOLETE  */
+/* OBSOLETE   if (argc != 3) */
+/* OBSOLETE     error ("AMD 29k frame specifications require three arguments: rsp pc msp"); */
+/* OBSOLETE  */
+/* OBSOLETE   frame = create_new_frame (argv[0], argv[1]); */
+/* OBSOLETE  */
+/* OBSOLETE   if (!frame) */
+/* OBSOLETE     internal_error (__FILE__, __LINE__, */
+/* OBSOLETE 		    "create_new_frame returned invalid frame id"); */
+/* OBSOLETE  */
+/* OBSOLETE   /* Creating a new frame munges the `frame' value from the current */
+/* OBSOLETE      GR1, so we restore it again here.  FIXME, untangle all this */
+/* OBSOLETE      29K frame stuff...  */ */
+/* OBSOLETE   frame->frame = argv[0]; */
+/* OBSOLETE  */
+/* OBSOLETE   /* Our MSP is in argv[2].  It'd be intelligent if we could just */
+/* OBSOLETE      save this value in the FRAME.  But the way it's set up (FIXME), */
+/* OBSOLETE      we must save our caller's MSP.  We compute that by adding our */
+/* OBSOLETE      memory stack frame size to our MSP.  */ */
+/* OBSOLETE   frame->saved_msp = argv[2] + frame->msize; */
+/* OBSOLETE  */
+/* OBSOLETE   return frame; */
+/* OBSOLETE } */
+/* OBSOLETE  */
+/* OBSOLETE int */
+/* OBSOLETE gdb_print_insn_a29k (bfd_vma memaddr, disassemble_info *info) */
+/* OBSOLETE { */
+/* OBSOLETE   if (TARGET_BYTE_ORDER == BFD_ENDIAN_BIG) */
+/* OBSOLETE     return print_insn_big_a29k (memaddr, info); */
+/* OBSOLETE   else */
+/* OBSOLETE     return print_insn_little_a29k (memaddr, info); */
+/* OBSOLETE } */
+/* OBSOLETE  */
+/* OBSOLETE enum a29k_processor_types processor_type = a29k_unknown; */
+/* OBSOLETE  */
+/* OBSOLETE void */
+/* OBSOLETE a29k_get_processor_type (void) */
+/* OBSOLETE { */
+/* OBSOLETE   unsigned int cfg_reg = (unsigned int) read_register (CFG_REGNUM); */
+/* OBSOLETE  */
+/* OBSOLETE   /* Most of these don't have freeze mode.  */ */
+/* OBSOLETE   processor_type = a29k_no_freeze_mode; */
+/* OBSOLETE  */
+/* OBSOLETE   switch ((cfg_reg >> 28) & 0xf) */
+/* OBSOLETE     { */
+/* OBSOLETE     case 0: */
+/* OBSOLETE       fprintf_filtered (gdb_stderr, "Remote debugging an Am29000"); */
+/* OBSOLETE       break; */
+/* OBSOLETE     case 1: */
+/* OBSOLETE       fprintf_filtered (gdb_stderr, "Remote debugging an Am29005"); */
+/* OBSOLETE       break; */
+/* OBSOLETE     case 2: */
+/* OBSOLETE       fprintf_filtered (gdb_stderr, "Remote debugging an Am29050"); */
+/* OBSOLETE       processor_type = a29k_freeze_mode; */
+/* OBSOLETE       break; */
+/* OBSOLETE     case 3: */
+/* OBSOLETE       fprintf_filtered (gdb_stderr, "Remote debugging an Am29035"); */
+/* OBSOLETE       break; */
+/* OBSOLETE     case 4: */
+/* OBSOLETE       fprintf_filtered (gdb_stderr, "Remote debugging an Am29030"); */
+/* OBSOLETE       break; */
+/* OBSOLETE     case 5: */
+/* OBSOLETE       fprintf_filtered (gdb_stderr, "Remote debugging an Am2920*"); */
+/* OBSOLETE       break; */
+/* OBSOLETE     case 6: */
+/* OBSOLETE       fprintf_filtered (gdb_stderr, "Remote debugging an Am2924*"); */
+/* OBSOLETE       break; */
+/* OBSOLETE     case 7: */
+/* OBSOLETE       fprintf_filtered (gdb_stderr, "Remote debugging an Am29040"); */
+/* OBSOLETE       break; */
+/* OBSOLETE     default: */
+/* OBSOLETE       fprintf_filtered (gdb_stderr, "Remote debugging an unknown Am29k\n"); */
+/* OBSOLETE       /* Don't bother to print the revision.  */ */
+/* OBSOLETE       return; */
+/* OBSOLETE     } */
+/* OBSOLETE   fprintf_filtered (gdb_stderr, " revision %c\n", 'A' + ((cfg_reg >> 24) & 0x0f)); */
+/* OBSOLETE } */
+/* OBSOLETE  */
+/* OBSOLETE #ifdef GET_LONGJMP_TARGET */
+/* OBSOLETE /* Figure out where the longjmp will land.  We expect that we have just entered */
+/* OBSOLETE    longjmp and haven't yet setup the stack frame, so the args are still in the */
+/* OBSOLETE    output regs.  lr2 (LR2_REGNUM) points at the jmp_buf structure from which we */
+/* OBSOLETE    extract the pc (JB_PC) that we will land at.  The pc is copied into ADDR. */
+/* OBSOLETE    This routine returns true on success */ */
+/* OBSOLETE  */
+/* OBSOLETE int */
+/* OBSOLETE get_longjmp_target (CORE_ADDR *pc) */
+/* OBSOLETE { */
+/* OBSOLETE   CORE_ADDR jb_addr; */
+/* OBSOLETE   char buf[sizeof (CORE_ADDR)]; */
+/* OBSOLETE  */
+/* OBSOLETE   jb_addr = read_register (LR2_REGNUM); */
+/* OBSOLETE  */
+/* OBSOLETE   if (target_read_memory (jb_addr + JB_PC * JB_ELEMENT_SIZE, (char *) buf, */
+/* OBSOLETE 			  sizeof (CORE_ADDR))) */
+/* OBSOLETE     return 0; */
+/* OBSOLETE  */
+/* OBSOLETE   *pc = extract_address ((PTR) buf, sizeof (CORE_ADDR)); */
+/* OBSOLETE   return 1; */
+/* OBSOLETE } */
+/* OBSOLETE #endif /* GET_LONGJMP_TARGET */ */
+/* OBSOLETE  */
+/* OBSOLETE void */
+/* OBSOLETE _initialize_a29k_tdep (void) */
+/* OBSOLETE { */
+/* OBSOLETE   extern CORE_ADDR text_end; */
+/* OBSOLETE  */
+/* OBSOLETE   tm_print_insn = gdb_print_insn_a29k; */
+/* OBSOLETE  */
+/* OBSOLETE   /* FIXME, there should be a way to make a CORE_ADDR variable settable. */ */
+/* OBSOLETE   add_show_from_set */
+/* OBSOLETE     (add_set_cmd ("rstack_high_address", class_support, var_uinteger, */
+/* OBSOLETE 		  (char *) &rstack_high_address, */
+/* OBSOLETE 		  "Set top address in memory of the register stack.\n\ */
+/* OBSOLETE Attempts to access registers saved above this address will be ignored\n\ */
+/* OBSOLETE or will produce the value -1.", &setlist), */
+/* OBSOLETE      &showlist); */
+/* OBSOLETE  */
+/* OBSOLETE   /* FIXME, there should be a way to make a CORE_ADDR variable settable. */ */
+/* OBSOLETE   add_show_from_set */
+/* OBSOLETE     (add_set_cmd ("call_scratch_address", class_support, var_uinteger, */
+/* OBSOLETE 		  (char *) &text_end, */
+/* OBSOLETE 		  "Set address in memory where small amounts of RAM can be used\n\ */
+/* OBSOLETE when making function calls into the inferior.", &setlist), */
+/* OBSOLETE      &showlist); */
+/* OBSOLETE } */