1 /* Target-dependent code for the Matsushita MN10200 for GDB, the GNU debugger.
2 Copyright 1997 Free Software Foundation, Inc.
4 This file is part of GDB.
6 This program is free software; you can redistribute it and/or modify
7 it under the terms of the GNU General Public License as published by
8 the Free Software Foundation; either version 2 of the License, or
9 (at your option) any later version.
11 This program is distributed in the hope that it will be useful,
12 but WITHOUT ANY WARRANTY; without even the implied warranty of
13 MERCHANTABILITY or FITNESS FOR A PARTICULAR PURPOSE. See the
14 GNU General Public License for more details.
16 You should have received a copy of the GNU General Public License
17 along with this program; if not, write to the Free Software
18 Foundation, Inc., 59 Temple Place - Suite 330, Boston, MA 02111-1307, USA. */
27 #include "gdb_string.h"
31 /* The main purpose of this file is dealing with prologues to extract
32 information about stack frames and saved registers.
34 For reference here's how prologues look on the mn10200:
40 Register saves for d2, d3, a1, a2 as needed. Saves start
41 at fp - <size> + <outgoing_args_size> and work towards higher
42 addresses. Note that the saves are actually done off the stack
43 pointer in the prologue! This makes for smaller code and easier
44 prologue scanning as the displacement fields will unlikely
47 Without frame pointer:
49 Register saves for d2, d3, a1, a2 as needed. Saves start
50 at sp + <outgoing_args_size> and work towards higher addresses.
53 add <local size>,sp -- optional
55 add <outgoing_size>,sp -- optional
57 The stack pointer remains constant throughout the life of most
58 functions. As a result the compiler will usually omit the
59 frame pointer, so we must handle frame pointerless functions. */
61 /* Analyze the prologue to determine where registers are saved,
62 the end of the prologue, etc etc. Return the end of the prologue
65 We store into FI (if non-null) several tidbits of information:
67 * stack_size -- size of this stack frame. Note that if we stop in
68 certain parts of the prologue/epilogue we may claim the size of the
69 current frame is zero. This happens when the current frame has
70 not been allocated yet or has already been deallocated.
72 * fsr -- Addresses of registers saved in the stack by this frame.
74 * status -- A (relatively) generic status indicator. It's a bitmask
75 with the following bits:
77 MY_FRAME_IN_SP: The base of the current frame is actually in
78 the stack pointer. This can happen for frame pointerless
79 functions, or cases where we're stopped in the prologue/epilogue
80 itself. For these cases mn10200_analyze_prologue will need up
81 update fi->frame before returning or analyzing the register
84 MY_FRAME_IN_FP: The base of the current frame is in the
85 frame pointer register ($a2).
87 CALLER_A2_IN_A0: $a2 from the caller's frame is temporarily
88 in $a0. This can happen if we're stopped in the prologue.
90 NO_MORE_FRAMES: Set this if the current frame is "start" or
91 if the first instruction looks like mov <imm>,sp. This tells
92 frame chain to not bother trying to unwind past this frame. */
94 #define MY_FRAME_IN_SP 0x1
95 #define MY_FRAME_IN_FP 0x2
96 #define CALLER_A2_IN_A0 0x4
97 #define NO_MORE_FRAMES 0x8
100 mn10200_analyze_prologue (fi
, pc
)
101 struct frame_info
*fi
;
104 CORE_ADDR func_addr
, func_end
, addr
, stop
;
105 CORE_ADDR stack_size
;
106 unsigned char buf
[4];
109 int out_of_line_prologue
= 0;
111 /* Use the PC in the frame if it's provided to look up the
112 start of this function. */
113 pc
= (fi
? fi
->pc
: pc
);
115 /* Find the start of this function. */
116 status
= find_pc_partial_function (pc
, &name
, &func_addr
, &func_end
);
118 /* Do nothing if we couldn't find the start of this function or if we're
119 stopped at the first instruction in the prologue. */
123 /* If we're in start, then give up. */
124 if (strcmp (name
, "start") == 0)
126 fi
->status
= NO_MORE_FRAMES
;
130 /* At the start of a function our frame is in the stack pointer. */
132 fi
->status
= MY_FRAME_IN_SP
;
134 /* If we're physically on an RTS instruction, then our frame has already
137 fi->frame is bogus, we need to fix it. */
138 if (fi
&& fi
->pc
+ 1 == func_end
)
140 status
= target_read_memory (fi
->pc
, buf
, 1);
143 if (fi
->next
== NULL
)
144 fi
->frame
= read_sp ();
150 if (fi
->next
== NULL
)
151 fi
->frame
= read_sp ();
156 /* Similarly if we're stopped on the first insn of a prologue as our
157 frame hasn't been allocated yet. */
158 if (fi
&& fi
->pc
== func_addr
)
160 if (fi
->next
== NULL
)
161 fi
->frame
= read_sp ();
165 /* Figure out where to stop scanning. */
166 stop
= fi
? fi
->pc
: func_end
;
168 /* Don't walk off the end of the function. */
169 stop
= stop
> func_end
? func_end
: stop
;
171 /* Start scanning on the first instruction of this function. */
174 status
= target_read_memory (addr
, buf
, 2);
177 if (fi
&& fi
->next
== NULL
&& fi
->status
& MY_FRAME_IN_SP
)
178 fi
->frame
= read_sp ();
182 /* First see if this insn sets the stack pointer; if so, it's something
183 we won't understand, so quit now. */
185 || (buf
[0] == 0xf4 && buf
[1] == 0x77))
188 fi
->status
= NO_MORE_FRAMES
;
192 /* Now see if we have a frame pointer.
194 Search for mov a2,a0 (0xf278)
195 then mov a3,a2 (0xf27e). */
197 if (buf
[0] == 0xf2 && buf
[1] == 0x78)
199 /* Our caller's $a2 will be found in $a0 now. Note it for
202 fi
->status
|= CALLER_A2_IN_A0
;
206 /* We still haven't allocated our local stack. Handle this
207 as if we stopped on the first or last insn of a function. */
208 if (fi
&& fi
->next
== NULL
)
209 fi
->frame
= read_sp ();
213 status
= target_read_memory (addr
, buf
, 2);
216 if (fi
&& fi
->next
== NULL
)
217 fi
->frame
= read_sp ();
220 if (buf
[0] == 0xf2 && buf
[1] == 0x7e)
224 /* Our frame pointer is valid now. */
227 fi
->status
|= MY_FRAME_IN_FP
;
228 fi
->status
&= ~MY_FRAME_IN_SP
;
235 if (fi
&& fi
->next
== NULL
)
236 fi
->frame
= read_sp ();
241 /* Next we should allocate the local frame.
243 Search for add imm8,a3 (0xd3XX)
244 or add imm16,a3 (0xf70bXXXX)
245 or add imm24,a3 (0xf467XXXXXX).
247 If none of the above was found, then this prologue has
248 no stack, and therefore can't have any register saves,
250 status
= target_read_memory (addr
, buf
, 2);
253 if (fi
&& fi
->next
== NULL
&& (fi
->status
& MY_FRAME_IN_SP
))
254 fi
->frame
= read_sp ();
259 stack_size
= extract_signed_integer (&buf
[1], 1);
261 fi
->stack_size
= stack_size
;
265 if (fi
&& fi
->next
== NULL
&& (fi
->status
& MY_FRAME_IN_SP
))
266 fi
->frame
= read_sp () - stack_size
;
270 else if (buf
[0] == 0xf7 && buf
[1] == 0x0b)
272 status
= target_read_memory (addr
+ 2, buf
, 2);
275 if (fi
&& fi
->next
== NULL
&& (fi
->status
& MY_FRAME_IN_SP
))
276 fi
->frame
= read_sp ();
279 stack_size
= extract_signed_integer (buf
, 2);
281 fi
->stack_size
= stack_size
;
285 if (fi
&& fi
->next
== NULL
&& (fi
->status
& MY_FRAME_IN_SP
))
286 fi
->frame
= read_sp () - stack_size
;
290 else if (buf
[0] == 0xf4 && buf
[1] == 0x67)
292 status
= target_read_memory (addr
+ 2, buf
, 3);
295 if (fi
&& fi
->next
== NULL
&& (fi
->status
& MY_FRAME_IN_SP
))
296 fi
->frame
= read_sp ();
299 stack_size
= extract_signed_integer (buf
, 3);
301 fi
->stack_size
= stack_size
;
305 if (fi
&& fi
->next
== NULL
&& (fi
->status
& MY_FRAME_IN_SP
))
306 fi
->frame
= read_sp () - stack_size
;
311 /* Now see if we have a call to __prologue for an out of line
313 status
= target_read_memory (addr
, buf
, 2);
317 /* First check for 16bit pc-relative call to __prologue. */
321 status
= target_read_memory (addr
+ 1, buf
, 2);
324 if (fi
&& fi
->next
== NULL
&& (fi
->status
& MY_FRAME_IN_SP
))
325 fi
->frame
= read_sp ();
329 /* Get the PC this instruction will branch to. */
330 temp
= (extract_signed_integer (buf
, 2) + addr
) & 0xffffff;
332 /* Get the name of the function at the target address. */
333 status
= find_pc_partial_function (temp
, &name
, NULL
, NULL
);
336 if (fi
&& fi
->next
== NULL
&& (fi
->status
& MY_FRAME_IN_SP
))
337 fi
->frame
= read_sp ();
341 /* Note if it is an out of line prologue. */
342 out_of_line_prologue
= (strcmp (name
, "__prologue") == 0);
344 /* This sucks up 3 bytes of instruction space. */
345 if (out_of_line_prologue
)
350 if (fi
&& fi
->next
== NULL
)
352 fi
->stack_size
-= 16;
353 fi
->frame
= read_sp () - fi
->stack_size
;
358 /* Now check for the 24bit pc-relative call to __prologue. */
359 else if (buf
[0] == 0xf4 && buf
[1] == 0xe1)
362 status
= target_read_memory (addr
+ 2, buf
, 3);
365 if (fi
&& fi
->next
== NULL
&& (fi
->status
& MY_FRAME_IN_SP
))
366 fi
->frame
= read_sp ();
370 /* Get the PC this instruction will branch to. */
371 temp
= (extract_signed_integer (buf
, 3) + addr
) & 0xffffff;
373 /* Get the name of the function at the target address. */
374 status
= find_pc_partial_function (temp
, &name
, NULL
, NULL
);
377 if (fi
&& fi
->next
== NULL
&& (fi
->status
& MY_FRAME_IN_SP
))
378 fi
->frame
= read_sp ();
382 /* Note if it is an out of line prologue. */
383 out_of_line_prologue
= (strcmp (name
, "__prologue") == 0);
385 /* This sucks up 5 bytes of instruction space. */
386 if (out_of_line_prologue
)
391 if (fi
&& fi
->next
== NULL
&& (fi
->status
& MY_FRAME_IN_SP
))
393 fi
->stack_size
-= 16;
394 fi
->frame
= read_sp () - fi
->stack_size
;
400 /* Now actually handle the out of line prologue. */
401 if (out_of_line_prologue
)
403 int outgoing_args_size
= 0;
405 /* First adjust the stack size for this function. The out of
406 line prologue saves 4 registers (16bytes of data). */
408 fi
->stack_size
-= 16;
410 /* Update fi->frame if necessary. */
411 if (fi
&& fi
->next
== NULL
)
412 fi
->frame
= read_sp () - fi
->stack_size
;
414 /* After the out of line prologue, there may be another
415 stack adjustment for the outgoing arguments.
417 Search for add imm8,a3 (0xd3XX)
418 or add imm16,a3 (0xf70bXXXX)
419 or add imm24,a3 (0xf467XXXXXX). */
421 status
= target_read_memory (addr
, buf
, 2);
426 fi
->fsr
.regs
[2] = fi
->frame
+ fi
->stack_size
+ 4;
427 fi
->fsr
.regs
[3] = fi
->frame
+ fi
->stack_size
+ 8;
428 fi
->fsr
.regs
[5] = fi
->frame
+ fi
->stack_size
+ 12;
429 fi
->fsr
.regs
[6] = fi
->frame
+ fi
->stack_size
+ 16;
436 outgoing_args_size
= extract_signed_integer (&buf
[1], 1);
439 else if (buf
[0] == 0xf7 && buf
[1] == 0x0b)
441 status
= target_read_memory (addr
+ 2, buf
, 2);
446 fi
->fsr
.regs
[2] = fi
->frame
+ fi
->stack_size
+ 4;
447 fi
->fsr
.regs
[3] = fi
->frame
+ fi
->stack_size
+ 8;
448 fi
->fsr
.regs
[5] = fi
->frame
+ fi
->stack_size
+ 12;
449 fi
->fsr
.regs
[6] = fi
->frame
+ fi
->stack_size
+ 16;
453 outgoing_args_size
= extract_signed_integer (buf
, 2);
456 else if (buf
[0] == 0xf4 && buf
[1] == 0x67)
458 status
= target_read_memory (addr
+ 2, buf
, 3);
461 if (fi
&& fi
->next
== NULL
)
463 fi
->fsr
.regs
[2] = fi
->frame
+ fi
->stack_size
+ 4;
464 fi
->fsr
.regs
[3] = fi
->frame
+ fi
->stack_size
+ 8;
465 fi
->fsr
.regs
[5] = fi
->frame
+ fi
->stack_size
+ 12;
466 fi
->fsr
.regs
[6] = fi
->frame
+ fi
->stack_size
+ 16;
470 outgoing_args_size
= extract_signed_integer (buf
, 3);
474 outgoing_args_size
= 0;
476 /* Now that we know the size of the outgoing arguments, fix
477 fi->frame again if this is the innermost frame. */
478 if (fi
&& fi
->next
== NULL
)
479 fi
->frame
-= outgoing_args_size
;
481 /* Note the register save information and update the stack
482 size for this frame too. */
485 fi
->fsr
.regs
[2] = fi
->frame
+ fi
->stack_size
+ 4;
486 fi
->fsr
.regs
[3] = fi
->frame
+ fi
->stack_size
+ 8;
487 fi
->fsr
.regs
[5] = fi
->frame
+ fi
->stack_size
+ 12;
488 fi
->fsr
.regs
[6] = fi
->frame
+ fi
->stack_size
+ 16;
489 fi
->stack_size
+= outgoing_args_size
;
491 /* There can be no more prologue insns, so return now. */
495 /* At this point fi->frame needs to be correct.
497 If MY_FRAME_IN_SP is set and we're the innermost frame, then we
498 need to fix fi->frame so that backtracing, find_frame_saved_regs,
499 etc work correctly. */
500 if (fi
&& fi
->next
== NULL
&& (fi
->status
& MY_FRAME_IN_SP
) != 0)
501 fi
->frame
= read_sp () - fi
->stack_size
;
503 /* And last we have the register saves. These are relatively
504 simple because they're physically done off the stack pointer,
505 and thus the number of different instructions we need to
506 check is greatly reduced because we know the displacements
509 Search for movx d2,(X,a3) (0xf55eXX)
510 then movx d3,(X,a3) (0xf55fXX)
511 then mov a1,(X,a3) (0x5dXX) No frame pointer case
512 then mov a2,(X,a3) (0x5eXX) No frame pointer case
513 or mov a0,(X,a3) (0x5cXX) Frame pointer case. */
515 status
= target_read_memory (addr
, buf
, 2);
518 if (buf
[0] == 0xf5 && buf
[1] == 0x5e)
522 status
= target_read_memory (addr
+ 2, buf
, 1);
525 fi
->fsr
.regs
[2] = (fi
->frame
+ stack_size
526 + extract_signed_integer (buf
, 1));
531 status
= target_read_memory (addr
, buf
, 2);
535 if (buf
[0] == 0xf5 && buf
[1] == 0x5f)
539 status
= target_read_memory (addr
+ 2, buf
, 1);
542 fi
->fsr
.regs
[3] = (fi
->frame
+ stack_size
543 + extract_signed_integer (buf
, 1));
548 status
= target_read_memory (addr
, buf
, 2);
556 status
= target_read_memory (addr
+ 1, buf
, 1);
559 fi
->fsr
.regs
[5] = (fi
->frame
+ stack_size
560 + extract_signed_integer (buf
, 1));
565 status
= target_read_memory (addr
, buf
, 2);
569 if (buf
[0] == 0x5e || buf
[0] == 0x5c)
573 status
= target_read_memory (addr
+ 1, buf
, 1);
576 fi
->fsr
.regs
[6] = (fi
->frame
+ stack_size
577 + extract_signed_integer (buf
, 1));
578 fi
->status
&= ~CALLER_A2_IN_A0
;
588 /* Function: frame_chain
589 Figure out and return the caller's frame pointer given current
592 We don't handle dummy frames yet but we would probably just return the
593 stack pointer that was in use at the time the function call was made? */
596 mn10200_frame_chain (fi
)
597 struct frame_info
*fi
;
599 struct frame_info dummy_frame
;
601 /* Walk through the prologue to determine the stack size,
602 location of saved registers, end of the prologue, etc. */
604 mn10200_analyze_prologue (fi
, (CORE_ADDR
)0);
606 /* Quit now if mn10200_analyze_prologue set NO_MORE_FRAMES. */
607 if (fi
->status
& NO_MORE_FRAMES
)
610 /* Now that we've analyzed our prologue, determine the frame
611 pointer for our caller.
613 If our caller has a frame pointer, then we need to
614 find the entry value of $a2 to our function.
616 If CALLER_A2_IN_A0, then the chain is in $a0.
618 If fsr.regs[6] is nonzero, then it's at the memory
619 location pointed to by fsr.regs[6].
621 Else it's still in $a2.
623 If our caller does not have a frame pointer, then his
624 frame base is fi->frame + -caller's stack size + 4. */
626 /* The easiest way to get that info is to analyze our caller's frame.
628 So we set up a dummy frame and call mn10200_analyze_prologue to
629 find stuff for us. */
630 dummy_frame
.pc
= FRAME_SAVED_PC (fi
);
631 dummy_frame
.frame
= fi
->frame
;
632 memset (dummy_frame
.fsr
.regs
, '\000', sizeof dummy_frame
.fsr
.regs
);
633 dummy_frame
.status
= 0;
634 dummy_frame
.stack_size
= 0;
635 mn10200_analyze_prologue (&dummy_frame
);
637 if (dummy_frame
.status
& MY_FRAME_IN_FP
)
639 /* Our caller has a frame pointer. So find the frame in $a2, $a0,
642 return (read_memory_integer (fi
->fsr
.regs
[FP_REGNUM
], REGISTER_SIZE
)
644 else if (fi
->status
& CALLER_A2_IN_A0
)
645 return read_register (4);
647 return read_register (FP_REGNUM
);
651 /* Our caller does not have a frame pointer. So his frame starts
652 at the base of our frame (fi->frame) + <his size> + 4 (saved pc). */
653 return fi
->frame
+ -dummy_frame
.stack_size
+ 4;
657 /* Function: skip_prologue
658 Return the address of the first inst past the prologue of the function. */
661 mn10200_skip_prologue (pc
)
664 /* We used to check the debug symbols, but that can lose if
665 we have a null prologue. */
666 return mn10200_analyze_prologue (NULL
, pc
);
669 /* Function: pop_frame
670 This routine gets called when either the user uses the `return'
671 command, or the call dummy breakpoint gets hit. */
674 mn10200_pop_frame (frame
)
675 struct frame_info
*frame
;
679 if (PC_IN_CALL_DUMMY(frame
->pc
, frame
->frame
, frame
->frame
))
680 generic_pop_dummy_frame ();
683 write_register (PC_REGNUM
, FRAME_SAVED_PC (frame
));
685 /* Restore any saved registers. */
686 for (regnum
= 0; regnum
< NUM_REGS
; regnum
++)
687 if (frame
->fsr
.regs
[regnum
] != 0)
691 value
= read_memory_unsigned_integer (frame
->fsr
.regs
[regnum
],
692 REGISTER_RAW_SIZE (regnum
));
693 write_register (regnum
, value
);
696 /* Actually cut back the stack. */
697 write_register (SP_REGNUM
, FRAME_FP (frame
));
699 /* Don't we need to set the PC?!? XXX FIXME. */
702 /* Throw away any cached frame information. */
703 flush_cached_frames ();
706 /* Function: push_arguments
707 Setup arguments for a call to the target. Arguments go in
708 order on the stack. */
711 mn10200_push_arguments (nargs
, args
, sp
, struct_return
, struct_addr
)
715 unsigned char struct_return
;
716 CORE_ADDR struct_addr
;
720 int stack_offset
= 0;
721 int regsused
= struct_return
? 1 : 0;
723 /* This should be a nop, but align the stack just in case something
724 went wrong. Stacks are two byte aligned on the mn10200. */
727 /* Now make space on the stack for the args.
729 XXX This doesn't appear to handle pass-by-invisible reference
731 for (argnum
= 0; argnum
< nargs
; argnum
++)
733 int arg_length
= (TYPE_LENGTH (VALUE_TYPE (args
[argnum
])) + 1) & ~1;
735 /* If we've used all argument registers, then this argument is
737 if (regsused
>= 2 || arg_length
> 4)
742 /* We know we've got some arg register space left. If this argument
743 will fit entirely in regs, then put it there. */
744 else if (arg_length
<= 2
745 || TYPE_CODE (VALUE_TYPE (args
[argnum
])) == TYPE_CODE_PTR
)
749 else if (regsused
== 0)
760 /* Allocate stack space. */
763 regsused
= struct_return
? 1 : 0;
764 /* Push all arguments onto the stack. */
765 for (argnum
= 0; argnum
< nargs
; argnum
++)
770 /* XXX Check this. What about UNIONS? */
771 if (TYPE_CODE (VALUE_TYPE (*args
)) == TYPE_CODE_STRUCT
772 && TYPE_LENGTH (VALUE_TYPE (*args
)) > 8)
774 /* XXX Wrong, we want a pointer to this argument. */
775 len
= TYPE_LENGTH (VALUE_TYPE (*args
));
776 val
= (char *)VALUE_CONTENTS (*args
);
780 len
= TYPE_LENGTH (VALUE_TYPE (*args
));
781 val
= (char *)VALUE_CONTENTS (*args
);
786 || TYPE_CODE (VALUE_TYPE (*args
)) == TYPE_CODE_PTR
))
788 write_register (regsused
, extract_unsigned_integer (val
, 4));
791 else if (regsused
== 0 && len
== 4)
793 write_register (regsused
, extract_unsigned_integer (val
, 2));
794 write_register (regsused
+ 1, extract_unsigned_integer (val
+ 2, 2));
802 write_memory (sp
+ stack_offset
, val
, 2);
815 /* Function: push_return_address (pc)
816 Set up the return address for the inferior function call.
817 Needed for targets where we don't actually execute a JSR/BSR instruction */
820 mn10200_push_return_address (pc
, sp
)
824 unsigned char buf
[4];
826 store_unsigned_integer (buf
, 4, CALL_DUMMY_ADDRESS ());
827 write_memory (sp
- 4, buf
, 4);
831 /* Function: store_struct_return (addr,sp)
832 Store the structure value return address for an inferior function
836 mn10200_store_struct_return (addr
, sp
)
840 /* The structure return address is passed as the first argument. */
841 write_register (0, addr
);
845 /* Function: frame_saved_pc
846 Find the caller of this frame. We do this by seeing if RP_REGNUM
847 is saved in the stack anywhere, otherwise we get it from the
848 registers. If the inner frame is a dummy frame, return its PC
849 instead of RP, because that's where "caller" of the dummy-frame
853 mn10200_frame_saved_pc (fi
)
854 struct frame_info
*fi
;
856 /* The saved PC will always be at the base of the current frame. */
857 return (read_memory_integer (fi
->frame
, REGISTER_SIZE
) & 0xffffff);
861 get_saved_register (raw_buffer
, optimized
, addrp
, frame
, regnum
, lval
)
865 struct frame_info
*frame
;
867 enum lval_type
*lval
;
869 generic_get_saved_register (raw_buffer
, optimized
, addrp
,
870 frame
, regnum
, lval
);
873 /* Function: init_extra_frame_info
874 Setup the frame's frame pointer, pc, and frame addresses for saved
875 registers. Most of the work is done in mn10200_analyze_prologue().
877 Note that when we are called for the last frame (currently active frame),
878 that fi->pc and fi->frame will already be setup. However, fi->frame will
879 be valid only if this routine uses FP. For previous frames, fi-frame will
880 always be correct. mn10200_analyze_prologue will fix fi->frame if
883 We can be called with the PC in the call dummy under two circumstances.
884 First, during normal backtracing, second, while figuring out the frame
885 pointer just prior to calling the target function (see run_stack_dummy). */
888 mn10200_init_extra_frame_info (fi
)
889 struct frame_info
*fi
;
892 fi
->pc
= FRAME_SAVED_PC (fi
->next
);
894 memset (fi
->fsr
.regs
, '\000', sizeof fi
->fsr
.regs
);
898 mn10200_analyze_prologue (fi
, 0);
902 _initialize_mn10200_tdep ()
904 tm_print_insn
= print_insn_mn10200
;
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