static char *target_buf;
static long target_buf_size;
+/* Per-program-space data key. */
+static const struct program_space_data *remote_pspace_data;
+
+/* The variable registered as the control variable used by the
+ remote exec-file commands. While the remote exec-file setting is
+ per-program-space, the set/show machinery uses this as the
+ location of the remote exec-file value. */
+static char *remote_exec_file_var;
+
/* The size to align memory write packets, when practical. The protocol
does not guarantee any alignment, and gdb will generate short
writes and unaligned writes, but even as a best-effort attempt this
/* vCont;r */
int r;
+
+ /* vCont;s */
+ int s;
+
+ /* vCont;S */
+ int S;
};
/* Controls whether GDB is willing to use range stepping. */
/* The default buffer size is unimportant; it will be expanded
whenever a larger buffer is needed. */
result->buf_size = 400;
- result->buf = xmalloc (result->buf_size);
+ result->buf = (char *) xmalloc (result->buf_size);
result->remote_traceframe_number = -1;
result->last_sent_signal = GDB_SIGNAL_0;
result->fs_pid = -1;
get_remote_arch_state (void)
{
gdb_assert (target_gdbarch () != NULL);
- return gdbarch_data (target_gdbarch (), remote_gdbarch_data_handle);
+ return ((struct remote_arch_state *)
+ gdbarch_data (target_gdbarch (), remote_gdbarch_data_handle));
}
/* Fetch the global remote target state. */
return get_remote_state_raw ();
}
+/* Cleanup routine for the remote module's pspace data. */
+
+static void
+remote_pspace_data_cleanup (struct program_space *pspace, void *arg)
+{
+ char *remote_exec_file = (char *) arg;
+
+ xfree (remote_exec_file);
+}
+
+/* Fetch the remote exec-file from the current program space. */
+
+static const char *
+get_remote_exec_file (void)
+{
+ char *remote_exec_file;
+
+ remote_exec_file
+ = (char *) program_space_data (current_program_space,
+ remote_pspace_data);
+ if (remote_exec_file == NULL)
+ return "";
+
+ return remote_exec_file;
+}
+
+/* Set the remote exec file for PSPACE. */
+
+static void
+set_pspace_remote_exec_file (struct program_space *pspace,
+ char *remote_exec_file)
+{
+ char *old_file = (char *) program_space_data (pspace, remote_pspace_data);
+
+ xfree (old_file);
+ set_program_space_data (pspace, remote_pspace_data,
+ xstrdup (remote_exec_file));
+}
+
+/* The "set/show remote exec-file" set command hook. */
+
+static void
+set_remote_exec_file (char *ignored, int from_tty,
+ struct cmd_list_element *c)
+{
+ gdb_assert (remote_exec_file_var != NULL);
+ set_pspace_remote_exec_file (current_program_space, remote_exec_file_var);
+}
+
+/* The "set/show remote exec-file" show command hook. */
+
+static void
+show_remote_exec_file (struct ui_file *file, int from_tty,
+ struct cmd_list_element *cmd, const char *value)
+{
+ fprintf_filtered (file, "%s\n", remote_exec_file_var);
+}
+
static int
compare_pnums (const void *lhs_, const void *rhs_)
{
- const struct packet_reg * const *lhs = lhs_;
- const struct packet_reg * const *rhs = rhs_;
+ const struct packet_reg * const *lhs
+ = (const struct packet_reg * const *) lhs_;
+ const struct packet_reg * const *rhs
+ = (const struct packet_reg * const *) rhs_;
if ((*lhs)->pnum < (*rhs)->pnum)
return -1;
with a remote protocol number, in order of ascending protocol
number. */
- remote_regs = alloca (gdbarch_num_regs (gdbarch)
- * sizeof (struct packet_reg *));
+ remote_regs = XALLOCAVEC (struct packet_reg *, gdbarch_num_regs (gdbarch));
for (num_remote_regs = 0, regnum = 0;
regnum < gdbarch_num_regs (gdbarch);
regnum++)
gdb_assert (regnum < gdbarch_num_regs (gdbarch));
- regs = xcalloc (gdbarch_num_regs (gdbarch), sizeof (struct packet_reg));
+ regs = XCNEWVEC (struct packet_reg, gdbarch_num_regs (gdbarch));
old_chain = make_cleanup (xfree, regs);
sizeof_g_packet = map_regcache_remote_table (gdbarch, regs);
if (rs->buf_size < rsa->remote_packet_size)
{
rs->buf_size = 2 * rsa->remote_packet_size;
- rs->buf = xrealloc (rs->buf, rs->buf_size);
+ rs->buf = (char *) xrealloc (rs->buf, rs->buf_size);
}
return rsa;
static int remote_async_terminal_ours_p;
-/* The executable file to use for "run" on the remote side. */
-
-static char *remote_exec_file = "";
-
\f
/* User configurable variables for the number of characters in a
memory read/write packet. MIN (rsa->remote_packet_size,
if (rs->buf_size < what_they_get + 1)
{
rs->buf_size = 2 * what_they_get;
- rs->buf = xrealloc (rs->buf, 2 * what_they_get);
+ rs->buf = (char *) xrealloc (rs->buf, 2 * what_they_get);
}
return what_they_get;
/* Support for the Qbtrace-conf:pt:size packet. */
PACKET_Qbtrace_conf_pt_size,
+ /* Support for exec events. */
+ PACKET_exec_event_feature,
+
+ /* Support for query supported vCont actions. */
+ PACKET_vContSupported,
+
PACKET_MAX
};
return packet_support (PACKET_vfork_event_feature) == PACKET_ENABLE;
}
+/* Returns true if exec events are supported. */
+
+static int
+remote_exec_event_p (struct remote_state *rs)
+{
+ return packet_support (PACKET_exec_event_feature) == PACKET_ENABLE;
+}
+
/* Insert fork catchpoint target routine. If fork events are enabled
then return success, nothing more to do. */
return 0;
}
+/* Insert exec catchpoint target routine. If exec events are
+ enabled, just return success. */
+
+static int
+remote_insert_exec_catchpoint (struct target_ops *ops, int pid)
+{
+ struct remote_state *rs = get_remote_state ();
+
+ return !remote_exec_event_p (rs);
+}
+
+/* Remove exec catchpoint target routine. Nothing to do, just
+ return success. */
+
+static int
+remote_remove_exec_catchpoint (struct target_ops *ops, int pid)
+{
+ return 0;
+}
+
/* Tokens for use by the asynchronous signal handlers for SIGINT. */
static struct async_signal_handler *async_sigint_remote_twice_token;
static struct async_signal_handler *async_sigint_remote_token;
if (pass_signals[i])
count++;
}
- pass_packet = xmalloc (count * 3 + strlen ("QPassSignals:") + 1);
+ pass_packet = (char *) xmalloc (count * 3 + strlen ("QPassSignals:") + 1);
strcpy (pass_packet, "QPassSignals:");
p = pass_packet + strlen (pass_packet);
for (i = 0; i < numsigs; i++)
if (signals[i])
count++;
}
- packet = xmalloc (count * 3 + strlen ("QProgramSignals:") + 1);
+ packet = (char *) xmalloc (count * 3 + strlen ("QProgramSignals:") + 1);
strcpy (packet, "QProgramSignals:");
p = packet + strlen (packet);
for (i = 0; i < numsigs; i++)
static void
clear_threads_listing_context (void *p)
{
- struct threads_listing_context *context = p;
+ struct threads_listing_context *context
+ = (struct threads_listing_context *) p;
int i;
struct thread_item *item;
static int
remote_newthread_step (threadref *ref, void *data)
{
- struct threads_listing_context *context = data;
+ struct threads_listing_context *context
+ = (struct threads_listing_context *) data;
struct thread_item item;
int pid = ptid_get_pid (inferior_ptid);
const struct gdb_xml_element *element,
void *user_data, VEC(gdb_xml_value_s) *attributes)
{
- struct threads_listing_context *data = user_data;
+ struct threads_listing_context *data
+ = (struct threads_listing_context *) user_data;
struct thread_item item;
char *id;
struct gdb_xml_value *attr;
- id = xml_find_attribute (attributes, "id")->value;
+ id = (char *) xml_find_attribute (attributes, "id")->value;
item.ptid = read_ptid (id, NULL);
attr = xml_find_attribute (attributes, "core");
const struct gdb_xml_element *element,
void *user_data, const char *body_text)
{
- struct threads_listing_context *data = user_data;
+ struct threads_listing_context *data
+ = (struct threads_listing_context *) user_data;
if (body_text && *body_text)
VEC_last (thread_item_t, data->items)->extra = xstrdup (body_text);
observer_notify_signal_received (sig);
}
- print_stop_event (&ws);
+ print_stack_frame (get_selected_frame (NULL), 1, SRC_AND_LOC, 1);
observer_notify_normal_stop (NULL, 1);
}
}
else
{
/* Save the reply for later. */
- wait_status = alloca (strlen (rs->buf) + 1);
+ wait_status = (char *) alloca (strlen (rs->buf) + 1);
strcpy (wait_status, rs->buf);
}
/* Allocate a message buffer. We can't reuse the input buffer in RS,
because we need both at the same time. */
- msg = xmalloc (get_remote_packet_size ());
+ msg = (char *) xmalloc (get_remote_packet_size ());
old_chain = make_cleanup (xfree, msg);
/* Invite target to request symbol lookups. */
PACKET_fork_event_feature },
{ "vfork-events", PACKET_DISABLE, remote_supported_packet,
PACKET_vfork_event_feature },
+ { "exec-events", PACKET_DISABLE, remote_supported_packet,
+ PACKET_exec_event_feature },
{ "Qbtrace-conf:pt:size", PACKET_DISABLE, remote_supported_packet,
- PACKET_Qbtrace_conf_pt_size }
+ PACKET_Qbtrace_conf_pt_size },
+ { "vContSupported", PACKET_DISABLE, remote_supported_packet, PACKET_vContSupported }
};
static char *remote_support_xml;
if (packet_set_cmd_state (PACKET_vfork_event_feature)
!= AUTO_BOOLEAN_FALSE)
q = remote_query_supported_append (q, "vfork-events+");
+ if (packet_set_cmd_state (PACKET_exec_event_feature)
+ != AUTO_BOOLEAN_FALSE)
+ q = remote_query_supported_append (q, "exec-events+");
}
+ if (packet_set_cmd_state (PACKET_vContSupported) != AUTO_BOOLEAN_FALSE)
+ q = remote_query_supported_append (q, "vContSupported+");
+
q = reconcat (q, "qSupported:", q, (char *) NULL);
putpkt (q);
if (rs->buf_size < rs->explicit_packet_size)
{
rs->buf_size = rs->explicit_packet_size;
- rs->buf = xrealloc (rs->buf, rs->buf_size);
+ rs->buf = (char *) xrealloc (rs->buf, rs->buf_size);
}
/* Handle the defaults for unmentioned features. */
return 0;
}
+/* Target follow-exec function for remote targets. Save EXECD_PATHNAME
+ in the program space of the new inferior. On entry and at return the
+ current inferior is the exec'ing inferior. INF is the new exec'd
+ inferior, which may be the same as the exec'ing inferior unless
+ follow-exec-mode is "new". */
+
+static void
+remote_follow_exec (struct target_ops *ops,
+ struct inferior *inf, char *execd_pathname)
+{
+ /* We know that this is a target file name, so if it has the "target:"
+ prefix we strip it off before saving it in the program space. */
+ if (is_target_filename (execd_pathname))
+ execd_pathname += strlen (TARGET_SYSROOT_PREFIX);
+
+ set_pspace_remote_exec_file (inf->pspace, execd_pathname);
+}
+
/* Same as remote_detach, but don't send the "D" packet; just disconnect. */
static void
if (!non_stop)
{
/* Save the reply for later. */
- wait_status = alloca (strlen (rs->buf) + 1);
+ wait_status = (char *) alloca (strlen (rs->buf) + 1);
strcpy (wait_status, rs->buf);
}
else if (strcmp (rs->buf, "OK") != 0)
if (startswith (buf, "vCont"))
{
char *p = &buf[5];
- int support_s, support_S, support_c, support_C;
+ int support_c, support_C;
- support_s = 0;
- support_S = 0;
+ rs->supports_vCont.s = 0;
+ rs->supports_vCont.S = 0;
support_c = 0;
support_C = 0;
rs->supports_vCont.t = 0;
{
p++;
if (*p == 's' && (*(p + 1) == ';' || *(p + 1) == 0))
- support_s = 1;
+ rs->supports_vCont.s = 1;
else if (*p == 'S' && (*(p + 1) == ';' || *(p + 1) == 0))
- support_S = 1;
+ rs->supports_vCont.S = 1;
else if (*p == 'c' && (*(p + 1) == ';' || *(p + 1) == 0))
support_c = 1;
else if (*p == 'C' && (*(p + 1) == ';' || *(p + 1) == 0))
p = strchr (p, ';');
}
- /* If s, S, c, and C are not all supported, we can't use vCont. Clearing
- BUF will make packet_ok disable the packet. */
- if (!support_s || !support_S || !support_c || !support_C)
+ /* If c, and C are not all supported, we can't use vCont. Clearing
+ BUF will make packet_ok disable the packet. */
+ if (!support_c || !support_C)
buf[0] = 0;
}
stop_reply_p event,
void *data)
{
- struct queue_iter_param *param = data;
- struct threads_listing_context *context = param->input;
+ struct queue_iter_param *param = (struct queue_iter_param *) data;
+ struct threads_listing_context *context
+ = (struct threads_listing_context *) param->input;
if (event->ws.kind == TARGET_WAITKIND_FORKED
|| event->ws.kind == TARGET_WAITKIND_VFORKED)
stop_reply_p event,
void *data)
{
- struct queue_iter_param *param = data;
- struct inferior *inf = param->input;
+ struct queue_iter_param *param = (struct queue_iter_param *) data;
+ struct inferior *inf = (struct inferior *) param->input;
if (ptid_get_pid (event->ptid) == inf->pid)
{
stop_reply_p event,
void *data)
{
- struct queue_iter_param *param = data;
- struct remote_state *rs = param->input;
+ struct queue_iter_param *param = (struct queue_iter_param *) data;
+ struct remote_state *rs = (struct remote_state *) param->input;
if (event->rs == rs)
{
stop_reply_p event,
void *data)
{
- struct queue_iter_param *param = data;
- ptid_t *ptid = param->input;
+ struct queue_iter_param *param = (struct queue_iter_param *) data;
+ ptid_t *ptid = (ptid_t *) param->input;
if (ptid_match (event->ptid, *ptid))
{
struct stop_reply *event,
void *data)
{
- ptid_t *ptid = data;
+ ptid_t *ptid = (ptid_t *) data;
return !(ptid_equal (*ptid, event->ptid)
&& event->ws.kind == TARGET_WAITKIND_STOPPED);
struct remote_arch_state *rsa = get_remote_arch_state ();
ULONGEST addr;
char *p;
+ int skipregs = 0;
event->ptid = null_ptid;
event->rs = get_remote_state ();
event->ws.kind = TARGET_WAITKIND_VFORK_DONE;
p = skip_to_semicolon (p1 + 1);
}
+ else if (strncmp (p, "exec", p1 - p) == 0)
+ {
+ ULONGEST ignored;
+ char pathname[PATH_MAX];
+ int pathlen;
+
+ /* Determine the length of the execd pathname. */
+ p = unpack_varlen_hex (++p1, &ignored);
+ pathlen = (p - p1) / 2;
+
+ /* Save the pathname for event reporting and for
+ the next run command. */
+ hex2bin (p1, (gdb_byte *) pathname, pathlen);
+ pathname[pathlen] = '\0';
+
+ /* This is freed during event handling. */
+ event->ws.value.execd_pathname = xstrdup (pathname);
+ event->ws.kind = TARGET_WAITKIND_EXECD;
+
+ /* Skip the registers included in this packet, since
+ they may be for an architecture different from the
+ one used by the original program. */
+ skipregs = 1;
+ }
else
{
ULONGEST pnum;
char *p_temp;
+ if (skipregs)
+ {
+ p = skip_to_semicolon (p1 + 1);
+ p++;
+ continue;
+ }
+
/* Maybe a real ``P'' register number. */
p_temp = unpack_varlen_hex (p, &pnum);
/* If the first invalid character is the colon, we got a
}
}
- regs = alloca (rsa->sizeof_g_packet);
+ regs = (char *) alloca (rsa->sizeof_g_packet);
/* Unimplemented registers read as all bits zero. */
memset (regs, 0, rsa->sizeof_g_packet);
{
int i;
- regs = alloca (rsa->sizeof_g_packet);
+ regs = (gdb_byte *) alloca (rsa->sizeof_g_packet);
memset (regs, 0, rsa->sizeof_g_packet);
for (i = 0; i < gdbarch_num_regs (get_regcache_arch (regcache)); i++)
{
struct remote_state *rs = get_remote_state ();
int i;
unsigned char csum = 0;
- char *buf2 = xmalloc (cnt + 6);
+ char *buf2 = (char *) xmalloc (cnt + 6);
struct cleanup *old_chain = make_cleanup (xfree, buf2);
int ch;
{
/* Make some more room in the buffer. */
*sizeof_buf += repeat;
- *buf_p = xrealloc (*buf_p, *sizeof_buf);
+ *buf_p = (char *) xrealloc (*buf_p, *sizeof_buf);
buf = *buf_p;
}
{
/* Make some more room in the buffer. */
*sizeof_buf *= 2;
- *buf_p = xrealloc (*buf_p, *sizeof_buf);
+ *buf_p = (char *) xrealloc (*buf_p, *sizeof_buf);
buf = *buf_p;
}
stop_reply_p event,
void *data)
{
- struct queue_iter_param *param = data;
+ struct queue_iter_param *param = (struct queue_iter_param *) data;
int parent_pid = *(int *) param->input;
if (is_pending_fork_parent (&event->ws, parent_pid, event->ptid))
{
struct remote_state *rs = get_remote_state ();
int len;
+ const char *remote_exec_file = get_remote_exec_file ();
/* If the user has disabled vRun support, or we have detected that
support is not available, do not try it. */
int run_worked;
char *stop_reply;
struct remote_state *rs = get_remote_state ();
+ const char *remote_exec_file = get_remote_exec_file ();
/* If running asynchronously, register the target file descriptor
with the event loop. */
matched = 1; /* Do this section. */
lma = s->lma;
- sectdata = xmalloc (size);
+ sectdata = (gdb_byte *) xmalloc (size);
old_chain = make_cleanup (xfree, sectdata);
bfd_get_section_contents (exec_bfd, s, sectdata, 0, size);
const struct target_desc *tdesc)
{
struct remote_g_packet_data *data
- = gdbarch_data (gdbarch, remote_g_packet_data_handle);
+ = ((struct remote_g_packet_data *)
+ gdbarch_data (gdbarch, remote_g_packet_data_handle));
struct remote_g_packet_guess new_guess, *guess;
int ix;
remote_read_description_p (struct target_ops *target)
{
struct remote_g_packet_data *data
- = gdbarch_data (target_gdbarch (), remote_g_packet_data_handle);
+ = ((struct remote_g_packet_data *)
+ gdbarch_data (target_gdbarch (), remote_g_packet_data_handle));
if (!VEC_empty (remote_g_packet_guess_s, data->guesses))
return 1;
remote_read_description (struct target_ops *target)
{
struct remote_g_packet_data *data
- = gdbarch_data (target_gdbarch (), remote_g_packet_data_handle);
+ = ((struct remote_g_packet_data *)
+ gdbarch_data (target_gdbarch (), remote_g_packet_data_handle));
/* Do not try this during initial connection, when we do not know
whether there is a running but stopped thread. */
cache->fd = fd;
cache->offset = offset;
cache->bufsize = get_remote_packet_size ();
- cache->buf = xrealloc (cache->buf, cache->bufsize);
+ cache->buf = (gdb_byte *) xrealloc (cache->buf, cache->bufsize);
ret = remote_hostio_pread_vFile (self, cache->fd, cache->buf, cache->bufsize,
cache->offset, remote_errno);
if (len < 0)
return NULL;
- ret = xmalloc (len + 1);
+ ret = (char *) xmalloc (len + 1);
read_len = remote_unescape_input ((gdb_byte *) attachment, attachment_len,
(gdb_byte *) ret, len);
/* Send up to this many bytes at once. They won't all fit in the
remote packet limit, so we'll transfer slightly fewer. */
io_size = get_remote_packet_size ();
- buffer = xmalloc (io_size);
+ buffer = (gdb_byte *) xmalloc (io_size);
make_cleanup (xfree, buffer);
close_cleanup = make_cleanup (remote_hostio_close_cleanup, &fd);
/* Send up to this many bytes at once. They won't all fit in the
remote packet limit, so we'll transfer slightly fewer. */
io_size = get_remote_packet_size ();
- buffer = xmalloc (io_size);
+ buffer = (gdb_byte *) xmalloc (io_size);
make_cleanup (xfree, buffer);
close_cleanup = make_cleanup (remote_hostio_close_cleanup, &fd);
static void
free_actions_list_cleanup_wrapper (void *al)
{
- free_actions_list (al);
+ free_actions_list ((char **) al);
}
static void
{
const int annex_size = 9;
- annex = alloca (annex_size);
+ annex = (char *) alloca (annex_size);
xsnprintf (annex, annex_size, "%x", pid);
}
return filename;
}
+/* Implement the to_can_do_single_step target_ops method. */
+
+static int
+remote_can_do_single_step (struct target_ops *ops)
+{
+ /* We can only tell whether target supports single step or not by
+ supported s and S vCont actions if the stub supports vContSupported
+ feature. If the stub doesn't support vContSupported feature,
+ we have conservatively to think target doesn't supports single
+ step. */
+ if (packet_support (PACKET_vContSupported) == PACKET_ENABLE)
+ {
+ struct remote_state *rs = get_remote_state ();
+
+ if (packet_support (PACKET_vCont) == PACKET_SUPPORT_UNKNOWN)
+ remote_vcont_probe (rs);
+
+ return rs->supports_vCont.s && rs->supports_vCont.S;
+ }
+ else
+ return 0;
+}
+
static void
init_remote_ops (void)
{
remote_ops.to_can_async_p = remote_can_async_p;
remote_ops.to_is_async_p = remote_is_async_p;
remote_ops.to_async = remote_async;
+ remote_ops.to_can_do_single_step = remote_can_do_single_step;
remote_ops.to_terminal_inferior = remote_terminal_inferior;
remote_ops.to_terminal_ours = remote_terminal_ours;
remote_ops.to_supports_non_stop = remote_supports_non_stop;
extended_remote_ops.to_supports_disable_randomization
= extended_remote_supports_disable_randomization;
extended_remote_ops.to_follow_fork = remote_follow_fork;
+ extended_remote_ops.to_follow_exec = remote_follow_exec;
extended_remote_ops.to_insert_fork_catchpoint
= remote_insert_fork_catchpoint;
extended_remote_ops.to_remove_fork_catchpoint
= remote_insert_vfork_catchpoint;
extended_remote_ops.to_remove_vfork_catchpoint
= remote_remove_vfork_catchpoint;
+ extended_remote_ops.to_insert_exec_catchpoint
+ = remote_insert_exec_catchpoint;
+ extended_remote_ops.to_remove_exec_catchpoint
+ = remote_remove_exec_catchpoint;
}
static int
static void
remote_async_serial_handler (struct serial *scb, void *context)
{
- struct remote_state *rs = context;
+ struct remote_state *rs = (struct remote_state *) context;
/* Don't propogate error information up to the client. Instead let
the client find out about the error by querying the target. */
remote_g_packet_data_handle =
gdbarch_data_register_pre_init (remote_g_packet_data_init);
+ remote_pspace_data
+ = register_program_space_data_with_cleanup (NULL,
+ remote_pspace_data_cleanup);
+
/* Initialize the per-target state. At the moment there is only one
of these, not one per target. Only one target is active at a
time. */
add_packet_config_cmd (&remote_protocol_packets[PACKET_Qbtrace_conf_pt_size],
"Qbtrace-conf:pt:size", "btrace-conf-pt-size", 0);
+ add_packet_config_cmd (&remote_protocol_packets[PACKET_vContSupported],
+ "vContSupported", "verbose-resume-supported", 0);
+
+ add_packet_config_cmd (&remote_protocol_packets[PACKET_exec_event_feature],
+ "exec-event-feature", "exec-event-feature", 0);
+
/* Assert that we've registered "set remote foo-packet" commands
for all packet configs. */
{
_("Delete a remote file."),
&remote_cmdlist);
- remote_exec_file = xstrdup ("");
add_setshow_string_noescape_cmd ("exec-file", class_files,
- &remote_exec_file, _("\
+ &remote_exec_file_var, _("\
Set the remote pathname for \"run\""), _("\
-Show the remote pathname for \"run\""), NULL, NULL, NULL,
- &remote_set_cmdlist, &remote_show_cmdlist);
+Show the remote pathname for \"run\""), NULL,
+ set_remote_exec_file,
+ show_remote_exec_file,
+ &remote_set_cmdlist,
+ &remote_show_cmdlist);
add_setshow_boolean_cmd ("range-stepping", class_run,
&use_range_stepping, _("\
any_thread_ptid = ptid_build (42000, 0, 1);
target_buf_size = 2048;
- target_buf = xmalloc (target_buf_size);
+ target_buf = (char *) xmalloc (target_buf_size);
}