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/* Data structures associated with breakpoints in GDB.

   Copyright (C) 1992, 93, 94, 95, 96, 98, 1999 Free Software Foundation, Inc.

   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.  */

#if !defined (BREAKPOINT_H)

#define BREAKPOINT_H 1

#include "frame.h"

#include "value.h"

#include "gdb-events.h"

/* This is the maximum number of bytes a breakpoint instruction can take.

   Feel free to increase it.  It's just used in a few places to size

   arrays that should be independent of the target architecture.  */

#define BREAKPOINT_MAX  16

/* Type of breakpoint. */

/* FIXME In the future, we should fold all other breakpoint-like things into

   here.  This includes:

   * single-step (for machines where we have to simulate single stepping)

   (probably, though perhaps it is better for it to look as much as

   possible like a single-step to wait_for_inferior).  */

enum bptype

  {

    bp_none = 0,         /* Eventpoint has been deleted. */

    bp_breakpoint,              /* Normal breakpoint */

    bp_hardware_breakpoint,     /* Hardware assisted breakpoint */

    bp_until,                   /* used by until command */

    bp_finish,                  /* used by finish command */

    bp_watchpoint,              /* Watchpoint */

    bp_hardware_watchpoint,     /* Hardware assisted watchpoint */

    bp_read_watchpoint,         /* read watchpoint, (hardware assisted) */

    bp_access_watchpoint,       /* access watchpoint, (hardware assisted) */

    bp_longjmp,                 /* secret breakpoint to find longjmp() */

    bp_longjmp_resume,          /* secret breakpoint to escape longjmp() */

    /* Used by wait_for_inferior for stepping over subroutine calls, for

       stepping over signal handlers, and for skipping prologues.  */

    bp_step_resume,

    /* Used by wait_for_inferior for stepping over signal handlers.  */

    bp_through_sigtramp,

    /* Used to detect when a watchpoint expression has gone out of

       scope.  These breakpoints are usually not visible to the user.

       This breakpoint has some interesting properties:

       1) There's always a 1:1 mapping between watchpoints

       on local variables and watchpoint_scope breakpoints.

       2) It automatically deletes itself and the watchpoint it's

       associated with when hit.

       3) It can never be disabled.  */

    bp_watchpoint_scope,

    /* The breakpoint at the end of a call dummy.  */

    /* FIXME: What if the function we are calling longjmp()s out of the

       call, or the user gets out with the "return" command?  We currently

       have no way of cleaning up the breakpoint in these (obscure) situations.

       (Probably can solve this by noticing longjmp, "return", etc., it's

       similar to noticing when a watchpoint on a local variable goes out

       of scope (with hardware support for watchpoints)).  */

    bp_call_dummy,

    /* Some dynamic linkers (HP, maybe Solaris) can arrange for special

       code in the inferior to run when significant events occur in the

       dynamic linker (for example a library is loaded or unloaded).

       By placing a breakpoint in this magic code GDB will get control

       when these significant events occur.  GDB can then re-examine

       the dynamic linker's data structures to discover any newly loaded

       dynamic libraries.  */

    bp_shlib_event,

    /* Some multi-threaded systems can arrange for a location in the

       inferior to be executed when certain thread-related events occur

       (such as thread creation or thread death).

       By placing a breakpoint at one of these locations, GDB will get

       control when these events occur.  GDB can then update its thread

       lists etc.  */

    bp_thread_event,

    /* These breakpoints are used to implement the "catch load" command

       on platforms whose dynamic linkers support such functionality.  */

    bp_catch_load,

    /* These breakpoints are used to implement the "catch unload" command

       on platforms whose dynamic linkers support such functionality.  */

    bp_catch_unload,

    /* These are not really breakpoints, but are catchpoints that

       implement the "catch fork", "catch vfork" and "catch exec" commands

       on platforms whose kernel support such functionality.  (I.e.,

       kernels which can raise an event when a fork or exec occurs, as

       opposed to the debugger setting breakpoints on functions named

       "fork" or "exec".) */

    bp_catch_fork,

    bp_catch_vfork,

    bp_catch_exec,

    /* These are catchpoints to implement "catch catch" and "catch throw"

       commands for C++ exception handling. */

    bp_catch_catch,

    bp_catch_throw

  };

/* States of enablement of breakpoint. */

enum enable

  {

    disabled,           /* The eventpoint is inactive, and cannot trigger. */

    enabled,            /* The eventpoint is active, and can trigger. */

    shlib_disabled,     /* The eventpoint's address is in an unloaded solib.

                           The eventpoint will be automatically enabled

                           and reset when that solib is loaded. */

    call_disabled,      /* The eventpoint has been disabled while a call

                           into the inferior is "in flight", because some

                           eventpoints interfere with the implementation of

                           a call on some targets.  The eventpoint will be

                           automatically enabled and reset when the call

                           "lands" (either completes, or stops at another

                           eventpoint). */

    permanent           /* There is a breakpoint instruction hard-wired into

                           the target's code.  Don't try to write another

                           breakpoint instruction on top of it, or restore

                           its value.  Step over it using the architecture's

                           SKIP_INSN macro.  */

  };

/* Disposition of breakpoint.  Ie: what to do after hitting it. */

enum bpdisp

  {

    del,                        /* Delete it */

    del_at_next_stop,           /* Delete at next stop, whether hit or not */

    disable,                    /* Disable it */

    donttouch                   /* Leave it alone */

  };

enum target_hw_bp_type

  {

    hw_write   = 0,              /* Common  HW watchpoint */

    hw_read    = 1,             /* Read    HW watchpoint */

    hw_access  = 2,             /* Access  HW watchpoint */

    hw_execute = 3              /* Execute HW breakpoint */

  };

/* Note that the ->silent field is not currently used by any commands

   (though the code is in there if it was to be, and set_raw_breakpoint

   does set it to 0).  I implemented it because I thought it would be

   useful for a hack I had to put in; I'm going to leave it in because

   I can see how there might be times when it would indeed be useful */

/* This is for a breakpoint or a watchpoint.  */

struct breakpoint

  {

    struct breakpoint *next;

    /* Type of breakpoint. */

    enum bptype type;

    /* Zero means disabled; remember the info but don't break here.  */

    enum enable enable;

    /* What to do with this breakpoint after we hit it. */

    enum bpdisp disposition;

    /* Number assigned to distinguish breakpoints.  */

    int number;

    /* Address to break at, or NULL if not a breakpoint.  */

    CORE_ADDR address;

    /* Line number of this address.  Only matters if address is

       non-NULL.  */

    int line_number;

    /* Source file name of this address.  Only matters if address is

       non-NULL.  */

    char *source_file;

    /* Non-zero means a silent breakpoint (don't print frame info

       if we stop here). */

    unsigned char silent;

    /* Number of stops at this breakpoint that should

       be continued automatically before really stopping.  */

    int ignore_count;

    /* "Real" contents of byte where breakpoint has been inserted.

       Valid only when breakpoints are in the program.  Under the complete

       control of the target insert_breakpoint and remove_breakpoint routines.

       No other code should assume anything about the value(s) here.  */

    char shadow_contents[BREAKPOINT_MAX];

    /* Nonzero if this breakpoint is now inserted.  Only matters if address

       is non-NULL.  */

    char inserted;

    /* Nonzero if this is not the first breakpoint in the list

       for the given address.  Only matters if address is non-NULL.  */

    char duplicate;

    /* Chain of command lines to execute when this breakpoint is hit.  */

    struct command_line *commands;

    /* Stack depth (address of frame).  If nonzero, break only if fp

       equals this.  */

    CORE_ADDR frame;

    /* Conditional.  Break only if this expression's value is nonzero.  */

    struct expression *cond;

    /* String we used to set the breakpoint (malloc'd).  Only matters if

       address is non-NULL.  */

    char *addr_string;

    /* Language we used to set the breakpoint.  */

    enum language language;

    /* Input radix we used to set the breakpoint.  */

    int input_radix;

    /* String form of the breakpoint condition (malloc'd), or NULL if there

       is no condition.  */

    char *cond_string;

    /* String form of exp (malloc'd), or NULL if none.  */

    char *exp_string;

    /* The expression we are watching, or NULL if not a watchpoint.  */

    struct expression *exp;

    /* The largest block within which it is valid, or NULL if it is

       valid anywhere (e.g. consists just of global symbols).  */

    struct block *exp_valid_block;

    /* Value of the watchpoint the last time we checked it.  */

    value_ptr val;

    /* Holds the value chain for a hardware watchpoint expression.  */

    value_ptr val_chain;

    /* Holds the address of the related watchpoint_scope breakpoint

       when using watchpoints on local variables (might the concept

       of a related breakpoint be useful elsewhere, if not just call

       it the watchpoint_scope breakpoint or something like that. FIXME).  */

    struct breakpoint *related_breakpoint;

    /* Holds the frame address which identifies the frame this watchpoint

       should be evaluated in, or NULL if the watchpoint should be evaluated

       on the outermost frame.  */

    CORE_ADDR watchpoint_frame;

    /* Thread number for thread-specific breakpoint, or -1 if don't care */

    int thread;

    /* Count of the number of times this breakpoint was taken, dumped

       with the info, but not used for anything else.  Useful for

       seeing how many times you hit a break prior to the program

       aborting, so you can back up to just before the abort.  */

    int hit_count;

    /* Filename of a dynamically-linked library (dll), used for

       bp_catch_load and bp_catch_unload (malloc'd), or NULL if any

       library is significant.  */

    char *dll_pathname;

    /* Filename of a dll whose state change (e.g., load or unload)

       triggered this catchpoint.  This field is only vaid immediately

       after this catchpoint has triggered.  */

    char *triggered_dll_pathname;

    /* Process id of a child process whose forking triggered this

       catchpoint.  This field is only vaid immediately after this

       catchpoint has triggered.  */

    int forked_inferior_pid;

    /* Filename of a program whose exec triggered this catchpoint.

       This field is only vaid immediately after this catchpoint has

       triggered.  */

    char *exec_pathname;

    asection *section;

  };

/* The following stuff is an abstract data type "bpstat" ("breakpoint

   status").  This provides the ability to determine whether we have

   stopped at a breakpoint, and what we should do about it.  */

typedef struct bpstats *bpstat;

/* Interface:  */

/* Clear a bpstat so that it says we are not at any breakpoint.

   Also free any storage that is part of a bpstat.  */

extern void bpstat_clear PARAMS ((bpstat *));

/* Return a copy of a bpstat.  Like "bs1 = bs2" but all storage that

   is part of the bpstat is copied as well.  */

extern bpstat bpstat_copy PARAMS ((bpstat));

extern bpstat bpstat_stop_status PARAMS ((CORE_ADDR *, int));

/* This bpstat_what stuff tells wait_for_inferior what to do with a

   breakpoint (a challenging task).  */

enum bpstat_what_main_action

  {

    /* Perform various other tests; that is, this bpstat does not

       say to perform any action (e.g. failed watchpoint and nothing

       else).  */

    BPSTAT_WHAT_KEEP_CHECKING,

    /* Rather than distinguish between noisy and silent stops here, it

       might be cleaner to have bpstat_print make that decision (also

       taking into account stop_print_frame and source_only).  But the

       implications are a bit scary (interaction with auto-displays, etc.),

       so I won't try it.  */

    /* Stop silently.  */

    BPSTAT_WHAT_STOP_SILENT,

    /* Stop and print.  */

    BPSTAT_WHAT_STOP_NOISY,

    /* Remove breakpoints, single step once, then put them back in and

       go back to what we were doing.  It's possible that this should be

       removed from the main_action and put into a separate field, to more

       cleanly handle BPSTAT_WHAT_CLEAR_LONGJMP_RESUME_SINGLE.  */

    BPSTAT_WHAT_SINGLE,

    /* Set longjmp_resume breakpoint, remove all other breakpoints,

       and continue.  The "remove all other breakpoints" part is required

       if we are also stepping over another breakpoint as well as doing

       the longjmp handling.  */

    BPSTAT_WHAT_SET_LONGJMP_RESUME,

    /* Clear longjmp_resume breakpoint, then handle as

       BPSTAT_WHAT_KEEP_CHECKING.  */

    BPSTAT_WHAT_CLEAR_LONGJMP_RESUME,

    /* Clear longjmp_resume breakpoint, then handle as BPSTAT_WHAT_SINGLE.  */

    BPSTAT_WHAT_CLEAR_LONGJMP_RESUME_SINGLE,

    /* Clear step resume breakpoint, and keep checking.  */

    BPSTAT_WHAT_STEP_RESUME,

    /* Clear through_sigtramp breakpoint, muck with trap_expected, and keep

       checking.  */

    BPSTAT_WHAT_THROUGH_SIGTRAMP,

    /* Check the dynamic linker's data structures for new libraries, then

       keep checking.  */

    BPSTAT_WHAT_CHECK_SHLIBS,

    /* Check the dynamic linker's data structures for new libraries, then

       resume out of the dynamic linker's callback, stop and print.  */

    BPSTAT_WHAT_CHECK_SHLIBS_RESUME_FROM_HOOK,

    /* This is just used to keep track of how many enums there are.  */

    BPSTAT_WHAT_LAST

  };

struct bpstat_what

  {

    enum bpstat_what_main_action main_action;

    /* Did we hit a call dummy breakpoint?  This only goes with a main_action

       of BPSTAT_WHAT_STOP_SILENT or BPSTAT_WHAT_STOP_NOISY (the concept of

       continuing from a call dummy without popping the frame is not a

       useful one).  */

    int call_dummy;

  };

/* The possible return values for print_bpstat, print_it_normal,

   print_it_done, print_it_noop. */

enum print_stop_action

  {

    PRINT_UNKNOWN = -1,

    PRINT_SRC_AND_LOC,

    PRINT_SRC_ONLY,

    PRINT_NOTHING

  };

/* Tell what to do about this bpstat.  */

struct bpstat_what bpstat_what PARAMS ((bpstat));

/* Find the bpstat associated with a breakpoint.  NULL otherwise. */

bpstat bpstat_find_breakpoint PARAMS ((bpstat, struct breakpoint *));

/* Find a step_resume breakpoint associated with this bpstat.

   (If there are multiple step_resume bp's on the list, this function

   will arbitrarily pick one.)

   It is an error to use this function if BPSTAT doesn't contain a

   step_resume breakpoint.

   See wait_for_inferior's use of this function.

 */

extern struct breakpoint *

  bpstat_find_step_resume_breakpoint PARAMS ((bpstat));

/* Nonzero if a signal that we got in wait() was due to circumstances

   explained by the BS.  */

/* Currently that is true if we have hit a breakpoint, or if there is

   a watchpoint enabled.  */

#define bpstat_explains_signal(bs) ((bs) != NULL)

/* Nonzero if we should step constantly (e.g. watchpoints on machines

   without hardware support).  This isn't related to a specific bpstat,

   just to things like whether watchpoints are set.  */

extern int bpstat_should_step PARAMS ((void));

/* Nonzero if there are enabled hardware watchpoints. */

extern int bpstat_have_active_hw_watchpoints PARAMS ((void));

/* Print a message indicating what happened.  Returns nonzero to

   say that only the source line should be printed after this (zero

   return means print the frame as well as the source line).  */

extern enum print_stop_action bpstat_print PARAMS ((bpstat));

/* Return the breakpoint number of the first breakpoint we are stopped

   at.  *BSP upon return is a bpstat which points to the remaining

   breakpoints stopped at (but which is not guaranteed to be good for

   anything but further calls to bpstat_num).

   Return 0 if passed a bpstat which does not indicate any breakpoints.  */

extern int bpstat_num PARAMS ((bpstat *));

/* Perform actions associated with having stopped at *BSP.  Actually, we just

   use this for breakpoint commands.  Perhaps other actions will go here

   later, but this is executed at a late time (from the command loop).  */

extern void bpstat_do_actions PARAMS ((bpstat *));

/* Modify BS so that the actions will not be performed.  */

extern void bpstat_clear_actions PARAMS ((bpstat));

/* Given a bpstat that records zero or more triggered eventpoints, this

   function returns another bpstat which contains only the catchpoints

   on that first list, if any.

 */

extern void bpstat_get_triggered_catchpoints PARAMS ((bpstat, bpstat *));

/* Implementation:  */

/* Values used to tell the printing routine how to behave for this bpstat. */

enum bp_print_how

  {

    /* This is used when we want to do a normal printing of the reason

       for stopping. The output will depend on the type of eventpoint

       we are dealing with. This is the default value, most commonly

       used. */

    print_it_normal,

    /* This is used when nothing should be printed for this bpstat entry.  */

    print_it_noop,

    /* This is used when everything which needs to be printed has

       already been printed.  But we still want to print the frame.  */

    print_it_done

  };

struct bpstats

  {

    /* Linked list because there can be two breakpoints at the same

       place, and a bpstat reflects the fact that both have been hit.  */

    bpstat next;

    /* Breakpoint that we are at.  */

    struct breakpoint *breakpoint_at;

    /* Commands left to be done.  */

    struct command_line *commands;

    /* Old value associated with a watchpoint.  */

    value_ptr old_val;

    /* Nonzero if this breakpoint tells us to print the frame.  */

    char print;

    /* Nonzero if this breakpoint tells us to stop.  */

    char stop;

    /* Tell bpstat_print and print_bp_stop_message how to print stuff

       associated with this element of the bpstat chain.  */

    enum bp_print_how print_it;

  };

enum inf_context

  {

    inf_starting,

    inf_running,

    inf_exited

  };

/* The possible return values for breakpoint_here_p.

   We guarantee that zero always means "no breakpoint here".  */

enum breakpoint_here

  {

    no_breakpoint_here = 0,

    ordinary_breakpoint_here,

    permanent_breakpoint_here

  };

/* Prototypes for breakpoint-related functions.  */

/* Forward declarations for prototypes */

struct frame_info;

extern enum breakpoint_here breakpoint_here_p PARAMS ((CORE_ADDR));

extern int breakpoint_inserted_here_p PARAMS ((CORE_ADDR));

extern int frame_in_dummy PARAMS ((struct frame_info *));

extern int breakpoint_thread_match PARAMS ((CORE_ADDR, int));

extern void until_break_command PARAMS ((char *, int));

extern void breakpoint_re_set PARAMS ((void));

extern void breakpoint_re_set_thread PARAMS ((struct breakpoint *));

extern int ep_is_exception_catchpoint PARAMS ((struct breakpoint *));

extern struct breakpoint *set_momentary_breakpoint

  PARAMS ((struct symtab_and_line, struct frame_info *, enum bptype));

extern void set_ignore_count PARAMS ((int, int, int));

extern void set_default_breakpoint PARAMS ((int, CORE_ADDR,

                                            struct symtab *, int));

extern void mark_breakpoints_out PARAMS ((void));

extern void breakpoint_init_inferior PARAMS ((enum inf_context));

extern void delete_breakpoint PARAMS ((struct breakpoint *));

extern void breakpoint_auto_delete PARAMS ((bpstat));

extern void breakpoint_clear_ignore_counts PARAMS ((void));

extern void break_command PARAMS ((char *, int));

extern void hbreak_command_wrapper PARAMS ((char *, int));

extern void thbreak_command_wrapper PARAMS ((char *, int));

extern void rbreak_command_wrapper PARAMS ((char *, int));

extern void watch_command_wrapper PARAMS ((char *, int));

extern void awatch_command_wrapper PARAMS ((char *, int));

extern void rwatch_command_wrapper PARAMS ((char *, int));

extern void tbreak_command PARAMS ((char *, int));

extern int insert_breakpoints PARAMS ((void));

extern int remove_breakpoints PARAMS ((void));

/* This function can be used to physically insert eventpoints from the

   specified traced inferior process, without modifying the breakpoint

   package's state.  This can be useful for those targets which support

   following the processes of a fork() or vfork() system call, when both

   of the resulting two processes are to be followed.  */

extern int reattach_breakpoints PARAMS ((int));

/* This function can be used to update the breakpoint package's state

   after an exec() system call has been executed.

   This function causes the following:

   - All eventpoints are marked "not inserted".

   - All eventpoints with a symbolic address are reset such that

   the symbolic address must be reevaluated before the eventpoints

   can be reinserted.

   - The solib breakpoints are explicitly removed from the breakpoint

   list.

   - A step-resume breakpoint, if any, is explicitly removed from the

   breakpoint list.

   - All eventpoints without a symbolic address are removed from the

   breakpoint list. */

extern void update_breakpoints_after_exec PARAMS ((void));

/* This function can be used to physically remove hardware breakpoints

   and watchpoints from the specified traced inferior process, without

   modifying the breakpoint package's state.  This can be useful for

   those targets which support following the processes of a fork() or

   vfork() system call, when one of the resulting two processes is to

   be detached and allowed to run free.

   It is an error to use this function on the process whose id is

   inferior_pid.  */

extern int detach_breakpoints PARAMS ((int));

extern void enable_longjmp_breakpoint PARAMS ((void));

extern void disable_longjmp_breakpoint PARAMS ((void));

extern void set_longjmp_resume_breakpoint PARAMS ((CORE_ADDR,

                                                   struct frame_info *));

/* These functions respectively disable or reenable all currently

   enabled watchpoints.  When disabled, the watchpoints are marked

   call_disabled.  When reenabled, they are marked enabled.

   The intended client of these functions is infcmd.c\run_stack_dummy.

   The inferior must be stopped, and all breakpoints removed, when

   these functions are used.

   The need for these functions is that on some targets (e.g., HP-UX),

   gdb is unable to unwind through the dummy frame that is pushed as

   part of the implementation of a call command.  Watchpoints can

   cause the inferior to stop in places where this frame is visible,

   and that can cause execution control to become very confused.

   Note that if a user sets breakpoints in an interactively call

   function, the call_disabled watchpoints will have been reenabled

   when the first such breakpoint is reached.  However, on targets

   that are unable to unwind through the call dummy frame, watches

   of stack-based storage may then be deleted, because gdb will

   believe that their watched storage is out of scope.  (Sigh.) */

extern void

disable_watchpoints_before_interactive_call_start PARAMS ((void));

extern void

enable_watchpoints_after_interactive_call_stop PARAMS ((void));

extern void clear_breakpoint_hit_counts PARAMS ((void));

extern int get_number PARAMS ((char **));

extern int get_number_or_range PARAMS ((char **));

/* The following are for displays, which aren't really breakpoints, but

   here is as good a place as any for them.  */

extern void disable_current_display PARAMS ((void));

extern void do_displays PARAMS ((void));

extern void disable_display PARAMS ((int));

extern void clear_displays PARAMS ((void));

extern void disable_breakpoint PARAMS ((struct breakpoint *));

extern void enable_breakpoint PARAMS ((struct breakpoint *));

extern void make_breakpoint_permanent PARAMS ((struct breakpoint *));

extern struct breakpoint *create_solib_event_breakpoint PARAMS ((CORE_ADDR));

extern struct breakpoint *create_thread_event_breakpoint PARAMS ((CORE_ADDR));

extern void remove_solib_event_breakpoints PARAMS ((void));

extern void remove_thread_event_breakpoints PARAMS ((void));

extern void disable_breakpoints_in_shlibs PARAMS ((int silent));

extern void re_enable_breakpoints_in_shlibs PARAMS ((void));

extern void create_solib_load_event_breakpoint PARAMS ((char *, int,

                                                        char *, char *));

extern void create_solib_unload_event_breakpoint PARAMS ((char *, int,

                                                          char *, char *));

extern void create_fork_event_catchpoint PARAMS ((int, char *));

extern void create_vfork_event_catchpoint PARAMS ((int, char *));

extern void create_exec_event_catchpoint PARAMS ((int, char *));

/* This function returns TRUE if ep is a catchpoint. */

extern int ep_is_catchpoint PARAMS ((struct breakpoint *));

/* This function returns TRUE if ep is a catchpoint of a

   shared library (aka dynamically-linked library) event,

   such as a library load or unload. */

extern int ep_is_shlib_catchpoint PARAMS ((struct breakpoint *));

extern struct breakpoint *set_breakpoint_sal PARAMS ((struct symtab_and_line));

/* Enable breakpoints and delete when hit.  Called with ARG == NULL

   deletes all breakpoints. */

extern void delete_command (char *arg, int from_tty);

/* Pull all H/W watchpoints from the target. Return non-zero if the

   remove fails. */

extern int remove_hw_watchpoints (void);

#endif /* !defined (BREAKPOINT_H) */