Add the target_ops needed for software breakpoints in GDBServer.
[deliverable/binutils-gdb.git] / gdb / gdbserver / target.h
1 /* Target operations for the remote server for GDB.
2 Copyright (C) 2002-2015 Free Software Foundation, Inc.
3
4 Contributed by MontaVista Software.
5
6 This file is part of GDB.
7
8 This program is free software; you can redistribute it and/or modify
9 it under the terms of the GNU General Public License as published by
10 the Free Software Foundation; either version 3 of the License, or
11 (at your option) any later version.
12
13 This program is distributed in the hope that it will be useful,
14 but WITHOUT ANY WARRANTY; without even the implied warranty of
15 MERCHANTABILITY or FITNESS FOR A PARTICULAR PURPOSE. See the
16 GNU General Public License for more details.
17
18 You should have received a copy of the GNU General Public License
19 along with this program. If not, see <http://www.gnu.org/licenses/>. */
20
21 #ifndef TARGET_H
22 #define TARGET_H
23
24 #include "target/target.h"
25 #include "target/resume.h"
26 #include "target/wait.h"
27 #include "target/waitstatus.h"
28 #include "mem-break.h"
29 #include "btrace-common.h"
30
31 struct emit_ops;
32 struct buffer;
33 struct process_info;
34
35 /* This structure describes how to resume a particular thread (or all
36 threads) based on the client's request. If thread is -1, then this
37 entry applies to all threads. These are passed around as an
38 array. */
39
40 struct thread_resume
41 {
42 ptid_t thread;
43
44 /* How to "resume". */
45 enum resume_kind kind;
46
47 /* If non-zero, send this signal when we resume, or to stop the
48 thread. If stopping a thread, and this is 0, the target should
49 stop the thread however it best decides to (e.g., SIGSTOP on
50 linux; SuspendThread on win32). This is a host signal value (not
51 enum gdb_signal). */
52 int sig;
53
54 /* Range to single step within. Valid only iff KIND is resume_step.
55
56 Single-step once, and then continuing stepping as long as the
57 thread stops in this range. (If the range is empty
58 [STEP_RANGE_START == STEP_RANGE_END], then this is a single-step
59 request.) */
60 CORE_ADDR step_range_start; /* Inclusive */
61 CORE_ADDR step_range_end; /* Exclusive */
62 };
63
64 struct target_ops
65 {
66 /* Start a new process.
67
68 PROGRAM is a path to the program to execute.
69 ARGS is a standard NULL-terminated array of arguments,
70 to be passed to the inferior as ``argv''.
71
72 Returns the new PID on success, -1 on failure. Registers the new
73 process with the process list. */
74
75 int (*create_inferior) (char *program, char **args);
76
77 /* Architecture-specific setup. */
78 void (*arch_setup) (void);
79
80 /* Attach to a running process.
81
82 PID is the process ID to attach to, specified by the user
83 or a higher layer.
84
85 Returns -1 if attaching is unsupported, 0 on success, and calls
86 error() otherwise. */
87
88 int (*attach) (unsigned long pid);
89
90 /* Kill inferior PID. Return -1 on failure, and 0 on success. */
91
92 int (*kill) (int pid);
93
94 /* Detach from inferior PID. Return -1 on failure, and 0 on
95 success. */
96
97 int (*detach) (int pid);
98
99 /* The inferior process has died. Do what is right. */
100
101 void (*mourn) (struct process_info *proc);
102
103 /* Wait for inferior PID to exit. */
104 void (*join) (int pid);
105
106 /* Return 1 iff the thread with process ID PID is alive. */
107
108 int (*thread_alive) (ptid_t pid);
109
110 /* Resume the inferior process. */
111
112 void (*resume) (struct thread_resume *resume_info, size_t n);
113
114 /* Wait for the inferior process or thread to change state. Store
115 status through argument pointer STATUS.
116
117 PTID = -1 to wait for any pid to do something, PTID(pid,0,0) to
118 wait for any thread of process pid to do something. Return ptid
119 of child, or -1 in case of error; store status through argument
120 pointer STATUS. OPTIONS is a bit set of options defined as
121 TARGET_W* above. If options contains TARGET_WNOHANG and there's
122 no child stop to report, return is
123 null_ptid/TARGET_WAITKIND_IGNORE. */
124
125 ptid_t (*wait) (ptid_t ptid, struct target_waitstatus *status, int options);
126
127 /* Fetch registers from the inferior process.
128
129 If REGNO is -1, fetch all registers; otherwise, fetch at least REGNO. */
130
131 void (*fetch_registers) (struct regcache *regcache, int regno);
132
133 /* Store registers to the inferior process.
134
135 If REGNO is -1, store all registers; otherwise, store at least REGNO. */
136
137 void (*store_registers) (struct regcache *regcache, int regno);
138
139 /* Prepare to read or write memory from the inferior process.
140 Targets use this to do what is necessary to get the state of the
141 inferior such that it is possible to access memory.
142
143 This should generally only be called from client facing routines,
144 such as gdb_read_memory/gdb_write_memory, or the GDB breakpoint
145 insertion routine.
146
147 Like `read_memory' and `write_memory' below, returns 0 on success
148 and errno on failure. */
149
150 int (*prepare_to_access_memory) (void);
151
152 /* Undo the effects of prepare_to_access_memory. */
153
154 void (*done_accessing_memory) (void);
155
156 /* Read memory from the inferior process. This should generally be
157 called through read_inferior_memory, which handles breakpoint shadowing.
158
159 Read LEN bytes at MEMADDR into a buffer at MYADDR.
160
161 Returns 0 on success and errno on failure. */
162
163 int (*read_memory) (CORE_ADDR memaddr, unsigned char *myaddr, int len);
164
165 /* Write memory to the inferior process. This should generally be
166 called through write_inferior_memory, which handles breakpoint shadowing.
167
168 Write LEN bytes from the buffer at MYADDR to MEMADDR.
169
170 Returns 0 on success and errno on failure. */
171
172 int (*write_memory) (CORE_ADDR memaddr, const unsigned char *myaddr,
173 int len);
174
175 /* Query GDB for the values of any symbols we're interested in.
176 This function is called whenever we receive a "qSymbols::"
177 query, which corresponds to every time more symbols (might)
178 become available. NULL if we aren't interested in any
179 symbols. */
180
181 void (*look_up_symbols) (void);
182
183 /* Send an interrupt request to the inferior process,
184 however is appropriate. */
185
186 void (*request_interrupt) (void);
187
188 /* Read auxiliary vector data from the inferior process.
189
190 Read LEN bytes at OFFSET into a buffer at MYADDR. */
191
192 int (*read_auxv) (CORE_ADDR offset, unsigned char *myaddr,
193 unsigned int len);
194
195 /* Returns true if GDB Z breakpoint type TYPE is supported, false
196 otherwise. The type is coded as follows:
197 '0' - software-breakpoint
198 '1' - hardware-breakpoint
199 '2' - write watchpoint
200 '3' - read watchpoint
201 '4' - access watchpoint
202 */
203 int (*supports_z_point_type) (char z_type);
204
205 /* Insert and remove a break or watchpoint.
206 Returns 0 on success, -1 on failure and 1 on unsupported. */
207
208 int (*insert_point) (enum raw_bkpt_type type, CORE_ADDR addr,
209 int size, struct raw_breakpoint *bp);
210 int (*remove_point) (enum raw_bkpt_type type, CORE_ADDR addr,
211 int size, struct raw_breakpoint *bp);
212
213 /* Returns 1 if the target stopped because it executed a software
214 breakpoint instruction, 0 otherwise. */
215 int (*stopped_by_sw_breakpoint) (void);
216
217 /* Returns true if the target knows whether a trap was caused by a
218 SW breakpoint triggering. */
219 int (*supports_stopped_by_sw_breakpoint) (void);
220
221 /* Returns 1 if the target stopped for a hardware breakpoint. */
222 int (*stopped_by_hw_breakpoint) (void);
223
224 /* Returns true if the target knows whether a trap was caused by a
225 HW breakpoint triggering. */
226 int (*supports_stopped_by_hw_breakpoint) (void);
227
228 /* Returns true if the target can do hardware single step. */
229 int (*supports_hardware_single_step) (void);
230
231 /* Returns 1 if target was stopped due to a watchpoint hit, 0 otherwise. */
232
233 int (*stopped_by_watchpoint) (void);
234
235 /* Returns the address associated with the watchpoint that hit, if any;
236 returns 0 otherwise. */
237
238 CORE_ADDR (*stopped_data_address) (void);
239
240 /* Reports the text, data offsets of the executable. This is
241 needed for uclinux where the executable is relocated during load
242 time. */
243
244 int (*read_offsets) (CORE_ADDR *text, CORE_ADDR *data);
245
246 /* Fetch the address associated with a specific thread local storage
247 area, determined by the specified THREAD, OFFSET, and LOAD_MODULE.
248 Stores it in *ADDRESS and returns zero on success; otherwise returns
249 an error code. A return value of -1 means this system does not
250 support the operation. */
251
252 int (*get_tls_address) (struct thread_info *thread, CORE_ADDR offset,
253 CORE_ADDR load_module, CORE_ADDR *address);
254
255 /* Read/Write from/to spufs using qXfer packets. */
256 int (*qxfer_spu) (const char *annex, unsigned char *readbuf,
257 unsigned const char *writebuf, CORE_ADDR offset, int len);
258
259 /* Fill BUF with an hostio error packet representing the last hostio
260 error. */
261 void (*hostio_last_error) (char *buf);
262
263 /* Read/Write OS data using qXfer packets. */
264 int (*qxfer_osdata) (const char *annex, unsigned char *readbuf,
265 unsigned const char *writebuf, CORE_ADDR offset,
266 int len);
267
268 /* Read/Write extra signal info. */
269 int (*qxfer_siginfo) (const char *annex, unsigned char *readbuf,
270 unsigned const char *writebuf,
271 CORE_ADDR offset, int len);
272
273 int (*supports_non_stop) (void);
274
275 /* Enables async target events. Returns the previous enable
276 state. */
277 int (*async) (int enable);
278
279 /* Switch to non-stop (1) or all-stop (0) mode. Return 0 on
280 success, -1 otherwise. */
281 int (*start_non_stop) (int);
282
283 /* Returns true if the target supports multi-process debugging. */
284 int (*supports_multi_process) (void);
285
286 /* Returns true if fork events are supported. */
287 int (*supports_fork_events) (void);
288
289 /* Returns true if vfork events are supported. */
290 int (*supports_vfork_events) (void);
291
292 /* Returns true if exec events are supported. */
293 int (*supports_exec_events) (void);
294
295 /* Allows target to re-initialize connection-specific settings. */
296 void (*handle_new_gdb_connection) (void);
297
298 /* If not NULL, target-specific routine to process monitor command.
299 Returns 1 if handled, or 0 to perform default processing. */
300 int (*handle_monitor_command) (char *);
301
302 /* Returns the core given a thread, or -1 if not known. */
303 int (*core_of_thread) (ptid_t);
304
305 /* Read loadmaps. Read LEN bytes at OFFSET into a buffer at MYADDR. */
306 int (*read_loadmap) (const char *annex, CORE_ADDR offset,
307 unsigned char *myaddr, unsigned int len);
308
309 /* Target specific qSupported support. */
310 void (*process_qsupported) (const char *);
311
312 /* Return 1 if the target supports tracepoints, 0 (or leave the
313 callback NULL) otherwise. */
314 int (*supports_tracepoints) (void);
315
316 /* Read PC from REGCACHE. */
317 CORE_ADDR (*read_pc) (struct regcache *regcache);
318
319 /* Write PC to REGCACHE. */
320 void (*write_pc) (struct regcache *regcache, CORE_ADDR pc);
321
322 /* Return true if THREAD is known to be stopped now. */
323 int (*thread_stopped) (struct thread_info *thread);
324
325 /* Read Thread Information Block address. */
326 int (*get_tib_address) (ptid_t ptid, CORE_ADDR *address);
327
328 /* Pause all threads. If FREEZE, arrange for any resume attempt to
329 be ignored until an unpause_all call unfreezes threads again.
330 There can be nested calls to pause_all, so a freeze counter
331 should be maintained. */
332 void (*pause_all) (int freeze);
333
334 /* Unpause all threads. Threads that hadn't been resumed by the
335 client should be left stopped. Basically a pause/unpause call
336 pair should not end up resuming threads that were stopped before
337 the pause call. */
338 void (*unpause_all) (int unfreeze);
339
340 /* Stabilize all threads. That is, force them out of jump pads. */
341 void (*stabilize_threads) (void);
342
343 /* Install a fast tracepoint jump pad. TPOINT is the address of the
344 tracepoint internal object as used by the IPA agent. TPADDR is
345 the address of tracepoint. COLLECTOR is address of the function
346 the jump pad redirects to. LOCKADDR is the address of the jump
347 pad lock object. ORIG_SIZE is the size in bytes of the
348 instruction at TPADDR. JUMP_ENTRY points to the address of the
349 jump pad entry, and on return holds the address past the end of
350 the created jump pad. If a trampoline is created by the function,
351 then TRAMPOLINE and TRAMPOLINE_SIZE return the address and size of
352 the trampoline, else they remain unchanged. JJUMP_PAD_INSN is a
353 buffer containing a copy of the instruction at TPADDR.
354 ADJUST_INSN_ADDR and ADJUST_INSN_ADDR_END are output parameters that
355 return the address range where the instruction at TPADDR was relocated
356 to. If an error occurs, the ERR may be used to pass on an error
357 message. */
358 int (*install_fast_tracepoint_jump_pad) (CORE_ADDR tpoint, CORE_ADDR tpaddr,
359 CORE_ADDR collector,
360 CORE_ADDR lockaddr,
361 ULONGEST orig_size,
362 CORE_ADDR *jump_entry,
363 CORE_ADDR *trampoline,
364 ULONGEST *trampoline_size,
365 unsigned char *jjump_pad_insn,
366 ULONGEST *jjump_pad_insn_size,
367 CORE_ADDR *adjusted_insn_addr,
368 CORE_ADDR *adjusted_insn_addr_end,
369 char *err);
370
371 /* Return the bytecode operations vector for the current inferior.
372 Returns NULL if bytecode compilation is not supported. */
373 struct emit_ops *(*emit_ops) (void);
374
375 /* Returns true if the target supports disabling randomization. */
376 int (*supports_disable_randomization) (void);
377
378 /* Return the minimum length of an instruction that can be safely overwritten
379 for use as a fast tracepoint. */
380 int (*get_min_fast_tracepoint_insn_len) (void);
381
382 /* Read solib info on SVR4 platforms. */
383 int (*qxfer_libraries_svr4) (const char *annex, unsigned char *readbuf,
384 unsigned const char *writebuf,
385 CORE_ADDR offset, int len);
386
387 /* Return true if target supports debugging agent. */
388 int (*supports_agent) (void);
389
390 /* Check whether the target supports branch tracing. */
391 int (*supports_btrace) (struct target_ops *, enum btrace_format);
392
393 /* Enable branch tracing for PTID based on CONF and allocate a branch trace
394 target information struct for reading and for disabling branch trace. */
395 struct btrace_target_info *(*enable_btrace)
396 (ptid_t ptid, const struct btrace_config *conf);
397
398 /* Disable branch tracing.
399 Returns zero on success, non-zero otherwise. */
400 int (*disable_btrace) (struct btrace_target_info *tinfo);
401
402 /* Read branch trace data into buffer. We use an int to specify the type
403 to break a cyclic dependency.
404 Return 0 on success; print an error message into BUFFER and return -1,
405 otherwise. */
406 int (*read_btrace) (struct btrace_target_info *, struct buffer *, int type);
407
408 /* Read the branch trace configuration into BUFFER.
409 Return 0 on success; print an error message into BUFFER and return -1
410 otherwise. */
411 int (*read_btrace_conf) (const struct btrace_target_info *, struct buffer *);
412
413 /* Return true if target supports range stepping. */
414 int (*supports_range_stepping) (void);
415
416 /* Return the full absolute name of the executable file that was
417 run to create the process PID. If the executable file cannot
418 be determined, NULL is returned. Otherwise, a pointer to a
419 character string containing the pathname is returned. This
420 string should be copied into a buffer by the client if the string
421 will not be immediately used, or if it must persist. */
422 char *(*pid_to_exec_file) (int pid);
423
424 /* Multiple-filesystem-aware open. Like open(2), but operating in
425 the filesystem as it appears to process PID. Systems where all
426 processes share a common filesystem should set this to NULL.
427 If NULL, the caller should fall back to open(2). */
428 int (*multifs_open) (int pid, const char *filename,
429 int flags, mode_t mode);
430
431 /* Multiple-filesystem-aware unlink. Like unlink(2), but operates
432 in the filesystem as it appears to process PID. Systems where
433 all processes share a common filesystem should set this to NULL.
434 If NULL, the caller should fall back to unlink(2). */
435 int (*multifs_unlink) (int pid, const char *filename);
436
437 /* Multiple-filesystem-aware readlink. Like readlink(2), but
438 operating in the filesystem as it appears to process PID.
439 Systems where all processes share a common filesystem should
440 set this to NULL. If NULL, the caller should fall back to
441 readlink(2). */
442 ssize_t (*multifs_readlink) (int pid, const char *filename,
443 char *buf, size_t bufsiz);
444
445 /* Return the breakpoint kind for this target based on PC. The PCPTR is
446 adjusted to the real memory location in case a flag (e.g., the Thumb bit on
447 ARM) was present in the PC. */
448 int (*breakpoint_kind_from_pc) (CORE_ADDR *pcptr);
449
450 /* Return the software breakpoint from KIND. KIND can have target
451 specific meaning like the Z0 kind parameter.
452 SIZE is set to the software breakpoint's length in memory. */
453 const gdb_byte *(*sw_breakpoint_from_kind) (int kind, int *size);
454 };
455
456 extern struct target_ops *the_target;
457
458 void set_target_ops (struct target_ops *);
459
460 #define create_inferior(program, args) \
461 (*the_target->create_inferior) (program, args)
462
463 #define target_arch_setup() \
464 do \
465 { \
466 if (the_target->arch_setup != NULL) \
467 (*the_target->arch_setup) (); \
468 } while (0)
469
470 #define myattach(pid) \
471 (*the_target->attach) (pid)
472
473 int kill_inferior (int);
474
475 #define target_supports_fork_events() \
476 (the_target->supports_fork_events ? \
477 (*the_target->supports_fork_events) () : 0)
478
479 #define target_supports_vfork_events() \
480 (the_target->supports_vfork_events ? \
481 (*the_target->supports_vfork_events) () : 0)
482
483 #define target_supports_exec_events() \
484 (the_target->supports_exec_events ? \
485 (*the_target->supports_exec_events) () : 0)
486
487 #define target_handle_new_gdb_connection() \
488 do \
489 { \
490 if (the_target->handle_new_gdb_connection != NULL) \
491 (*the_target->handle_new_gdb_connection) (); \
492 } while (0)
493
494 #define detach_inferior(pid) \
495 (*the_target->detach) (pid)
496
497 #define mourn_inferior(PROC) \
498 (*the_target->mourn) (PROC)
499
500 #define mythread_alive(pid) \
501 (*the_target->thread_alive) (pid)
502
503 #define fetch_inferior_registers(regcache, regno) \
504 (*the_target->fetch_registers) (regcache, regno)
505
506 #define store_inferior_registers(regcache, regno) \
507 (*the_target->store_registers) (regcache, regno)
508
509 #define join_inferior(pid) \
510 (*the_target->join) (pid)
511
512 #define target_supports_non_stop() \
513 (the_target->supports_non_stop ? (*the_target->supports_non_stop ) () : 0)
514
515 #define target_async(enable) \
516 (the_target->async ? (*the_target->async) (enable) : 0)
517
518 #define target_supports_multi_process() \
519 (the_target->supports_multi_process ? \
520 (*the_target->supports_multi_process) () : 0)
521
522 #define target_process_qsupported(query) \
523 do \
524 { \
525 if (the_target->process_qsupported) \
526 the_target->process_qsupported (query); \
527 } while (0)
528
529 #define target_supports_tracepoints() \
530 (the_target->supports_tracepoints \
531 ? (*the_target->supports_tracepoints) () : 0)
532
533 #define target_supports_fast_tracepoints() \
534 (the_target->install_fast_tracepoint_jump_pad != NULL)
535
536 #define target_get_min_fast_tracepoint_insn_len() \
537 (the_target->get_min_fast_tracepoint_insn_len \
538 ? (*the_target->get_min_fast_tracepoint_insn_len) () : 0)
539
540 #define thread_stopped(thread) \
541 (*the_target->thread_stopped) (thread)
542
543 #define pause_all(freeze) \
544 do \
545 { \
546 if (the_target->pause_all) \
547 (*the_target->pause_all) (freeze); \
548 } while (0)
549
550 #define unpause_all(unfreeze) \
551 do \
552 { \
553 if (the_target->unpause_all) \
554 (*the_target->unpause_all) (unfreeze); \
555 } while (0)
556
557 #define stabilize_threads() \
558 do \
559 { \
560 if (the_target->stabilize_threads) \
561 (*the_target->stabilize_threads) (); \
562 } while (0)
563
564 #define install_fast_tracepoint_jump_pad(tpoint, tpaddr, \
565 collector, lockaddr, \
566 orig_size, \
567 jump_entry, \
568 trampoline, trampoline_size, \
569 jjump_pad_insn, \
570 jjump_pad_insn_size, \
571 adjusted_insn_addr, \
572 adjusted_insn_addr_end, \
573 err) \
574 (*the_target->install_fast_tracepoint_jump_pad) (tpoint, tpaddr, \
575 collector,lockaddr, \
576 orig_size, jump_entry, \
577 trampoline, \
578 trampoline_size, \
579 jjump_pad_insn, \
580 jjump_pad_insn_size, \
581 adjusted_insn_addr, \
582 adjusted_insn_addr_end, \
583 err)
584
585 #define target_emit_ops() \
586 (the_target->emit_ops ? (*the_target->emit_ops) () : NULL)
587
588 #define target_supports_disable_randomization() \
589 (the_target->supports_disable_randomization ? \
590 (*the_target->supports_disable_randomization) () : 0)
591
592 #define target_supports_agent() \
593 (the_target->supports_agent ? \
594 (*the_target->supports_agent) () : 0)
595
596 #define target_supports_btrace(format) \
597 (the_target->supports_btrace \
598 ? (*the_target->supports_btrace) (the_target, format) : 0)
599
600 #define target_enable_btrace(ptid, conf) \
601 (*the_target->enable_btrace) (ptid, conf)
602
603 #define target_disable_btrace(tinfo) \
604 (*the_target->disable_btrace) (tinfo)
605
606 #define target_read_btrace(tinfo, buffer, type) \
607 (*the_target->read_btrace) (tinfo, buffer, type)
608
609 #define target_read_btrace_conf(tinfo, buffer) \
610 (*the_target->read_btrace_conf) (tinfo, buffer)
611
612 #define target_supports_range_stepping() \
613 (the_target->supports_range_stepping ? \
614 (*the_target->supports_range_stepping) () : 0)
615
616 #define target_supports_stopped_by_sw_breakpoint() \
617 (the_target->supports_stopped_by_sw_breakpoint ? \
618 (*the_target->supports_stopped_by_sw_breakpoint) () : 0)
619
620 #define target_stopped_by_sw_breakpoint() \
621 (the_target->stopped_by_sw_breakpoint ? \
622 (*the_target->stopped_by_sw_breakpoint) () : 0)
623
624 #define target_supports_stopped_by_hw_breakpoint() \
625 (the_target->supports_stopped_by_hw_breakpoint ? \
626 (*the_target->supports_stopped_by_hw_breakpoint) () : 0)
627
628 #define target_supports_hardware_single_step() \
629 (the_target->supports_hardware_single_step ? \
630 (*the_target->supports_hardware_single_step) () : 0)
631
632 #define target_stopped_by_hw_breakpoint() \
633 (the_target->stopped_by_hw_breakpoint ? \
634 (*the_target->stopped_by_hw_breakpoint) () : 0)
635
636 /* Start non-stop mode, returns 0 on success, -1 on failure. */
637
638 int start_non_stop (int nonstop);
639
640 ptid_t mywait (ptid_t ptid, struct target_waitstatus *ourstatus, int options,
641 int connected_wait);
642
643 #define prepare_to_access_memory() \
644 (the_target->prepare_to_access_memory \
645 ? (*the_target->prepare_to_access_memory) () \
646 : 0)
647
648 #define done_accessing_memory() \
649 do \
650 { \
651 if (the_target->done_accessing_memory) \
652 (*the_target->done_accessing_memory) (); \
653 } while (0)
654
655 #define target_core_of_thread(ptid) \
656 (the_target->core_of_thread ? (*the_target->core_of_thread) (ptid) \
657 : -1)
658
659 int read_inferior_memory (CORE_ADDR memaddr, unsigned char *myaddr, int len);
660
661 int write_inferior_memory (CORE_ADDR memaddr, const unsigned char *myaddr,
662 int len);
663
664 int set_desired_thread (int id);
665
666 const char *target_pid_to_str (ptid_t);
667
668 int target_can_do_hardware_single_step (void);
669
670 #endif /* TARGET_H */
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