#include <config.h>
-#define BLOCKINPUT_INLINE EXTERN_INLINE
-#define KEYBOARD_INLINE EXTERN_INLINE
-
#include "sysstdio.h"
#include "lisp.h"
static void recursive_edit_unwind (Lisp_Object buffer);
static Lisp_Object command_loop (void);
static Lisp_Object Qcommand_execute;
-EMACS_TIME timer_check (void);
+struct timespec timer_check (void);
static void echo_now (void);
static ptrdiff_t echo_length (void);
/* Incremented whenever a timer is run. */
unsigned timers_run;
-/* Address (if not 0) of EMACS_TIME to zero out if a SIGIO interrupt
+/* Address (if not 0) of struct timespec to zero out if a SIGIO interrupt
happens. */
-EMACS_TIME *input_available_clear_time;
+struct timespec *input_available_clear_time;
/* True means use SIGIO interrupts; false means use CBREAK mode.
Default is true if INTERRUPT_INPUT is defined. */
/* The time when Emacs started being idle. */
-static EMACS_TIME timer_idleness_start_time;
+static struct timespec timer_idleness_start_time;
/* After Emacs stops being idle, this saves the last value
of timer_idleness_start_time from when it was idle. */
-static EMACS_TIME timer_last_idleness_start_time;
+static struct timespec timer_last_idleness_start_time;
\f
/* Global variable declarations. */
Lisp_Object *, ptrdiff_t);
static Lisp_Object make_lispy_switch_frame (Lisp_Object);
static Lisp_Object make_lispy_focus_in (Lisp_Object);
+#ifdef HAVE_WINDOW_SYSTEM
static Lisp_Object make_lispy_focus_out (Lisp_Object);
+#endif /* HAVE_WINDOW_SYSTEM */
static bool help_char_p (Lisp_Object);
static void save_getcjmp (sys_jmp_buf);
static void restore_getcjmp (sys_jmp_buf);
/* If poll timer doesn't exist, are we need one with
a different interval, start a new one. */
if (poll_timer == NULL
- || EMACS_SECS (poll_timer->interval) != polling_period)
+ || poll_timer->interval.tv_sec != polling_period)
{
time_t period = max (1, min (polling_period, TYPE_MAXIMUM (time_t)));
- EMACS_TIME interval = make_emacs_time (period, 0);
+ struct timespec interval = make_timespec (period, 0);
if (poll_timer)
cancel_atimer (poll_timer);
/* Input of single characters from keyboard */
static Lisp_Object kbd_buffer_get_event (KBOARD **kbp, bool *used_mouse_menu,
- EMACS_TIME *end_time);
+ struct timespec *end_time);
static void record_char (Lisp_Object c);
static Lisp_Object help_form_saved_window_configs;
polling_stopped_here = 0; } while (0)
static Lisp_Object
-read_event_from_main_queue (EMACS_TIME *end_time,
+read_event_from_main_queue (struct timespec *end_time,
sys_jmp_buf local_getcjmp,
bool *used_mouse_menu)
{
/* Read from the main queue, and if that gives us something we can't use yet,
we put it on the appropriate side queue and try again. */
- if (end_time && EMACS_TIME_LE (*end_time, current_emacs_time ()))
+ if (end_time && timespec_cmp (*end_time, current_timespec ()) <= 0)
return c;
/* Actually read a character, waiting if necessary. */
/* Like `read_event_from_main_queue' but applies keyboard-coding-system
to tty input. */
static Lisp_Object
-read_decoded_event_from_main_queue (EMACS_TIME *end_time,
+read_decoded_event_from_main_queue (struct timespec *end_time,
sys_jmp_buf local_getcjmp,
Lisp_Object prev_event,
bool *used_mouse_menu)
Value is -2 when we find input on another keyboard. A second call
to read_char will read it.
- If END_TIME is non-null, it is a pointer to an EMACS_TIME
+ If END_TIME is non-null, it is a pointer to a struct timespec
specifying the maximum time to wait until. If no input arrives by
that time, stop waiting and return nil.
Lisp_Object
read_char (int commandflag, Lisp_Object map,
Lisp_Object prev_event,
- bool *used_mouse_menu, EMACS_TIME *end_time)
+ bool *used_mouse_menu, struct timespec *end_time)
{
Lisp_Object c;
ptrdiff_t jmpcount;
if (/* There currently is something in the echo area. */
!NILP (echo_area_buffer[0])
- && (/* And it's either not from echoing. */
- !EQ (echo_area_buffer[0], echo_message_buffer)
- /* Or it's an echo from a different kboard. */
- || echo_kboard != current_kboard
+ && (/* It's an echo from a different kboard. */
+ echo_kboard != current_kboard
/* Or we explicitly allow overwriting whatever there is. */
|| ok_to_echo_at_next_pause == NULL))
cancel_echoing ();
{
c = read_decoded_event_from_main_queue (end_time, local_getcjmp,
prev_event, used_mouse_menu);
- if (end_time && EMACS_TIME_LE (*end_time, current_emacs_time ()))
+ if (end_time && timespec_cmp (*end_time, current_timespec ()) <= 0)
goto exit;
if (EQ (c, make_number (-2)))
{
RETURN_UNGCPRO (c);
}
+#ifdef HAVE_MENUS
+
/* Record a key that came from a mouse menu.
Record it for echoing, for this-command-keys, and so on. */
num_input_events++;
}
+#endif /* HAVE_MENUS */
+
/* Return true if should recognize C as "the help character". */
static bool
static Lisp_Object
kbd_buffer_get_event (KBOARD **kbp,
bool *used_mouse_menu,
- EMACS_TIME *end_time)
+ struct timespec *end_time)
{
Lisp_Object obj;
break;
if (end_time)
{
- EMACS_TIME now = current_emacs_time ();
- if (EMACS_TIME_LE (*end_time, now))
+ struct timespec now = current_timespec ();
+ if (timespec_cmp (*end_time, now) <= 0)
return Qnil; /* Finished waiting. */
else
{
- EMACS_TIME duration = sub_emacs_time (*end_time, now);
- wait_reading_process_output (min (EMACS_SECS (duration),
+ struct timespec duration = timespec_sub (*end_time, now);
+ wait_reading_process_output (min (duration.tv_sec,
WAIT_READING_MAX),
- EMACS_NSECS (duration),
+ duration.tv_nsec,
-1, 1, Qnil, NULL, 0);
}
}
timer_start_idle (void)
{
/* If we are already in the idle state, do nothing. */
- if (EMACS_TIME_VALID_P (timer_idleness_start_time))
+ if (timespec_valid_p (timer_idleness_start_time))
return;
- timer_idleness_start_time = current_emacs_time ();
+ timer_idleness_start_time = current_timespec ();
timer_last_idleness_start_time = timer_idleness_start_time;
/* Mark all idle-time timers as once again candidates for running. */
static void
timer_stop_idle (void)
{
- timer_idleness_start_time = invalid_emacs_time ();
+ timer_idleness_start_time = invalid_timespec ();
}
/* Resume idle timer from last idle start time. */
static void
timer_resume_idle (void)
{
- if (EMACS_TIME_VALID_P (timer_idleness_start_time))
+ if (timespec_valid_p (timer_idleness_start_time))
return;
timer_idleness_start_time = timer_last_idleness_start_time;
/* Return true if TIMER is a valid timer, placing its value into *RESULT. */
static bool
-decode_timer (Lisp_Object timer, EMACS_TIME *result)
+decode_timer (Lisp_Object timer, struct timespec *result)
{
Lisp_Object *vector;
if (! (VECTORP (timer) && ASIZE (timer) == 9))
return 0;
- vector = XVECTOR (timer)->contents;
+ vector = XVECTOR (timer)->u.contents;
if (! NILP (vector[0]))
return 0;
In that case we return 0 to indicate that a new timer_check_2 call
should be done. */
-static EMACS_TIME
+static struct timespec
timer_check_2 (Lisp_Object timers, Lisp_Object idle_timers)
{
- EMACS_TIME nexttime;
- EMACS_TIME now;
- EMACS_TIME idleness_now;
+ struct timespec nexttime;
+ struct timespec now;
+ struct timespec idleness_now;
Lisp_Object chosen_timer;
struct gcpro gcpro1;
- nexttime = invalid_emacs_time ();
+ nexttime = invalid_timespec ();
chosen_timer = Qnil;
GCPRO1 (chosen_timer);
if (CONSP (timers) || CONSP (idle_timers))
{
- now = current_emacs_time ();
- idleness_now = (EMACS_TIME_VALID_P (timer_idleness_start_time)
- ? sub_emacs_time (now, timer_idleness_start_time)
- : make_emacs_time (0, 0));
+ now = current_timespec ();
+ idleness_now = (timespec_valid_p (timer_idleness_start_time)
+ ? timespec_sub (now, timer_idleness_start_time)
+ : make_timespec (0, 0));
}
while (CONSP (timers) || CONSP (idle_timers))
{
Lisp_Object timer = Qnil, idle_timer = Qnil;
- EMACS_TIME timer_time, idle_timer_time;
- EMACS_TIME difference;
- EMACS_TIME timer_difference = invalid_emacs_time ();
- EMACS_TIME idle_timer_difference = invalid_emacs_time ();
+ struct timespec timer_time, idle_timer_time;
+ struct timespec difference;
+ struct timespec timer_difference = invalid_timespec ();
+ struct timespec idle_timer_difference = invalid_timespec ();
bool ripe, timer_ripe = 0, idle_timer_ripe = 0;
/* Set TIMER and TIMER_DIFFERENCE
continue;
}
- timer_ripe = EMACS_TIME_LE (timer_time, now);
+ timer_ripe = timespec_cmp (timer_time, now) <= 0;
timer_difference = (timer_ripe
- ? sub_emacs_time (now, timer_time)
- : sub_emacs_time (timer_time, now));
+ ? timespec_sub (now, timer_time)
+ : timespec_sub (timer_time, now));
}
/* Likewise for IDLE_TIMER and IDLE_TIMER_DIFFERENCE
continue;
}
- idle_timer_ripe = EMACS_TIME_LE (idle_timer_time, idleness_now);
+ idle_timer_ripe = timespec_cmp (idle_timer_time, idleness_now) <= 0;
idle_timer_difference
= (idle_timer_ripe
- ? sub_emacs_time (idleness_now, idle_timer_time)
- : sub_emacs_time (idle_timer_time, idleness_now));
+ ? timespec_sub (idleness_now, idle_timer_time)
+ : timespec_sub (idle_timer_time, idleness_now));
}
/* Decide which timer is the next timer,
and set CHOSEN_TIMER, DIFFERENCE, and RIPE accordingly.
Also step down the list where we found that timer. */
- if (EMACS_TIME_VALID_P (timer_difference)
- && (! EMACS_TIME_VALID_P (idle_timer_difference)
+ if (timespec_valid_p (timer_difference)
+ && (! timespec_valid_p (idle_timer_difference)
|| idle_timer_ripe < timer_ripe
|| (idle_timer_ripe == timer_ripe
- && (timer_ripe
- ? EMACS_TIME_LT (idle_timer_difference,
+ && ((timer_ripe
+ ? timespec_cmp (idle_timer_difference,
timer_difference)
- : EMACS_TIME_LT (timer_difference,
- idle_timer_difference)))))
+ : timespec_cmp (timer_difference,
+ idle_timer_difference))
+ < 0))))
{
chosen_timer = timer;
timers = XCDR (timers);
return 0 to indicate that. */
}
- nexttime = make_emacs_time (0, 0);
+ nexttime = make_timespec (0, 0);
break;
}
else
As long as any timer is ripe, we run it. */
-EMACS_TIME
+struct timespec
timer_check (void)
{
- EMACS_TIME nexttime;
+ struct timespec nexttime;
Lisp_Object timers, idle_timers;
struct gcpro gcpro1, gcpro2;
/* Always consider the ordinary timers. */
timers = Fcopy_sequence (Vtimer_list);
/* Consider the idle timers only if Emacs is idle. */
- if (EMACS_TIME_VALID_P (timer_idleness_start_time))
+ if (timespec_valid_p (timer_idleness_start_time))
idle_timers = Fcopy_sequence (Vtimer_idle_list);
else
idle_timers = Qnil;
{
nexttime = timer_check_2 (timers, idle_timers);
}
- while (EMACS_SECS (nexttime) == 0 && EMACS_NSECS (nexttime) == 0);
+ while (nexttime.tv_sec == 0 && nexttime.tv_nsec == 0);
UNGCPRO;
return nexttime;
PSEC is a multiple of the system clock resolution. */)
(void)
{
- if (EMACS_TIME_VALID_P (timer_idleness_start_time))
- return make_lisp_time (sub_emacs_time (current_emacs_time (),
- timer_idleness_start_time));
+ if (timespec_valid_p (timer_idleness_start_time))
+ return make_lisp_time (timespec_sub (current_timespec (),
+ timer_idleness_start_time));
return Qnil;
}
{
return list2 (Qfocus_in, frame);
}
+
+#ifdef HAVE_WINDOW_SYSTEM
+
static Lisp_Object
make_lispy_focus_out (Lisp_Object frame)
{
return list2 (Qfocus_out, frame);
}
-\f
+
+#endif /* HAVE_WINDOW_SYSTEM */
+
/* Manipulating modifiers. */
/* Parse the name of SYMBOL, and return the set of modifiers it contains.
pending_signals = 1;
if (input_available_clear_time)
- *input_available_clear_time = make_emacs_time (0, 0);
+ *input_available_clear_time = make_timespec (0, 0);
}
static void
/* Tell wait_reading_process_output that it needs to wake
up and look around. */
if (input_available_clear_time)
- *input_available_clear_time = make_emacs_time (0, 0);
+ *input_available_clear_time = make_timespec (0, 0);
}
break;
}
discard any previously made item. */
for (i = 0; i < ntool_bar_items; i += TOOL_BAR_ITEM_NSLOTS)
{
- Lisp_Object *v = XVECTOR (tool_bar_items_vector)->contents + i;
+ Lisp_Object *v = XVECTOR (tool_bar_items_vector)->u.contents + i;
if (EQ (key, v[TOOL_BAR_ITEM_KEY]))
{
/* Append entries from tool_bar_item_properties to the end of
tool_bar_items_vector. */
vcopy (tool_bar_items_vector, ntool_bar_items,
- XVECTOR (tool_bar_item_properties)->contents, TOOL_BAR_ITEM_NSLOTS);
+ XVECTOR (tool_bar_item_properties)->u.contents, TOOL_BAR_ITEM_NSLOTS);
ntool_bar_items += TOOL_BAR_ITEM_NSLOTS;
}
return Qnil;
#define PUSH_C_STR(str, listvar) \
- listvar = Fcons (make_unibyte_string (str, strlen (str)), listvar)
+ listvar = Fcons (build_unibyte_string (str), listvar)
/* Prompt string always starts with map's prompt, and a space. */
prompt_strings = Fcons (name, prompt_strings);
return t;
}
-DEFUN ("read-key-sequence", Fread_key_sequence, Sread_key_sequence, 1, 5, 0,
- doc: /* Read a sequence of keystrokes and return as a string or vector.
-The sequence is sufficient to specify a non-prefix command in the
-current local and global maps.
-
-First arg PROMPT is a prompt string. If nil, do not prompt specially.
-Second (optional) arg CONTINUE-ECHO, if non-nil, means this key echos
-as a continuation of the previous key.
-
-The third (optional) arg DONT-DOWNCASE-LAST, if non-nil, means do not
-convert the last event to lower case. (Normally any upper case event
-is converted to lower case if the original event is undefined and the lower
-case equivalent is defined.) A non-nil value is appropriate for reading
-a key sequence to be defined.
-
-A C-g typed while in this function is treated like any other character,
-and `quit-flag' is not set.
-
-If the key sequence starts with a mouse click, then the sequence is read
-using the keymaps of the buffer of the window clicked in, not the buffer
-of the selected window as normal.
-
-`read-key-sequence' drops unbound button-down events, since you normally
-only care about the click or drag events which follow them. If a drag
-or multi-click event is unbound, but the corresponding click event would
-be bound, `read-key-sequence' turns the event into a click event at the
-drag's starting position. This means that you don't have to distinguish
-between click and drag, double, or triple events unless you want to.
-
-`read-key-sequence' prefixes mouse events on mode lines, the vertical
-lines separating windows, and scroll bars with imaginary keys
-`mode-line', `vertical-line', and `vertical-scroll-bar'.
-
-Optional fourth argument CAN-RETURN-SWITCH-FRAME non-nil means that this
-function will process a switch-frame event if the user switches frames
-before typing anything. If the user switches frames in the middle of a
-key sequence, or at the start of the sequence but CAN-RETURN-SWITCH-FRAME
-is nil, then the event will be put off until after the current key sequence.
-
-`read-key-sequence' checks `function-key-map' for function key
-sequences, where they wouldn't conflict with ordinary bindings. See
-`function-key-map' for more details.
-
-The optional fifth argument CMD-LOOP, if non-nil, means
-that this key sequence is being read by something that will
-read commands one after another. It should be nil if the caller
-will read just one key sequence. */)
- (Lisp_Object prompt, Lisp_Object continue_echo, Lisp_Object dont_downcase_last, Lisp_Object can_return_switch_frame, Lisp_Object cmd_loop)
+static Lisp_Object
+read_key_sequence_vs (Lisp_Object prompt, Lisp_Object continue_echo,
+ Lisp_Object dont_downcase_last,
+ Lisp_Object can_return_switch_frame,
+ Lisp_Object cmd_loop, bool allow_string)
{
Lisp_Object keybuf[30];
register int i;
QUIT;
}
UNGCPRO;
- return unbind_to (count, make_event_array (i, keybuf));
+ return unbind_to (count,
+ ((allow_string ? make_event_array : Fvector)
+ (i, keybuf)));
}
-DEFUN ("read-key-sequence-vector", Fread_key_sequence_vector,
- Sread_key_sequence_vector, 1, 5, 0,
- doc: /* Like `read-key-sequence' but always return a vector. */)
- (Lisp_Object prompt, Lisp_Object continue_echo, Lisp_Object dont_downcase_last, Lisp_Object can_return_switch_frame, Lisp_Object cmd_loop)
-{
- Lisp_Object keybuf[30];
- register int i;
- struct gcpro gcpro1;
- ptrdiff_t count = SPECPDL_INDEX ();
+DEFUN ("read-key-sequence", Fread_key_sequence, Sread_key_sequence, 1, 5, 0,
+ doc: /* Read a sequence of keystrokes and return as a string or vector.
+The sequence is sufficient to specify a non-prefix command in the
+current local and global maps.
- if (!NILP (prompt))
- CHECK_STRING (prompt);
- QUIT;
+First arg PROMPT is a prompt string. If nil, do not prompt specially.
+Second (optional) arg CONTINUE-ECHO, if non-nil, means this key echos
+as a continuation of the previous key.
- specbind (Qinput_method_exit_on_first_char,
- (NILP (cmd_loop) ? Qt : Qnil));
- specbind (Qinput_method_use_echo_area,
- (NILP (cmd_loop) ? Qt : Qnil));
+The third (optional) arg DONT-DOWNCASE-LAST, if non-nil, means do not
+convert the last event to lower case. (Normally any upper case event
+is converted to lower case if the original event is undefined and the lower
+case equivalent is defined.) A non-nil value is appropriate for reading
+a key sequence to be defined.
- memset (keybuf, 0, sizeof keybuf);
- GCPRO1 (keybuf[0]);
- gcpro1.nvars = (sizeof keybuf / sizeof (keybuf[0]));
+A C-g typed while in this function is treated like any other character,
+and `quit-flag' is not set.
- if (NILP (continue_echo))
- {
- this_command_key_count = 0;
- this_command_key_count_reset = 0;
- this_single_command_key_start = 0;
- }
+If the key sequence starts with a mouse click, then the sequence is read
+using the keymaps of the buffer of the window clicked in, not the buffer
+of the selected window as normal.
-#ifdef HAVE_WINDOW_SYSTEM
- if (display_hourglass_p)
- cancel_hourglass ();
-#endif
+`read-key-sequence' drops unbound button-down events, since you normally
+only care about the click or drag events which follow them. If a drag
+or multi-click event is unbound, but the corresponding click event would
+be bound, `read-key-sequence' turns the event into a click event at the
+drag's starting position. This means that you don't have to distinguish
+between click and drag, double, or triple events unless you want to.
- i = read_key_sequence (keybuf, (sizeof keybuf / sizeof (keybuf[0])),
- prompt, ! NILP (dont_downcase_last),
- ! NILP (can_return_switch_frame), 0);
+`read-key-sequence' prefixes mouse events on mode lines, the vertical
+lines separating windows, and scroll bars with imaginary keys
+`mode-line', `vertical-line', and `vertical-scroll-bar'.
-#ifdef HAVE_WINDOW_SYSTEM
- if (display_hourglass_p)
- start_hourglass ();
-#endif
+Optional fourth argument CAN-RETURN-SWITCH-FRAME non-nil means that this
+function will process a switch-frame event if the user switches frames
+before typing anything. If the user switches frames in the middle of a
+key sequence, or at the start of the sequence but CAN-RETURN-SWITCH-FRAME
+is nil, then the event will be put off until after the current key sequence.
- if (i == -1)
- {
- Vquit_flag = Qt;
- QUIT;
- }
- UNGCPRO;
- return unbind_to (count, Fvector (i, keybuf));
+`read-key-sequence' checks `function-key-map' for function key
+sequences, where they wouldn't conflict with ordinary bindings. See
+`function-key-map' for more details.
+
+The optional fifth argument CMD-LOOP, if non-nil, means
+that this key sequence is being read by something that will
+read commands one after another. It should be nil if the caller
+will read just one key sequence. */)
+ (Lisp_Object prompt, Lisp_Object continue_echo, Lisp_Object dont_downcase_last, Lisp_Object can_return_switch_frame, Lisp_Object cmd_loop)
+{
+ return read_key_sequence_vs (prompt, continue_echo, dont_downcase_last,
+ can_return_switch_frame, cmd_loop, true);
+}
+
+DEFUN ("read-key-sequence-vector", Fread_key_sequence_vector,
+ Sread_key_sequence_vector, 1, 5, 0,
+ doc: /* Like `read-key-sequence' but always return a vector. */)
+ (Lisp_Object prompt, Lisp_Object continue_echo, Lisp_Object dont_downcase_last, Lisp_Object can_return_switch_frame, Lisp_Object cmd_loop)
+{
+ return read_key_sequence_vs (prompt, continue_echo, dont_downcase_last,
+ can_return_switch_frame, cmd_loop, false);
}
\f
/* Return true if input events are pending. */
get_input_pending (READABLE_EVENTS_DO_TIMERS_NOW);
if (old_timers_run != timers_run && do_display)
- {
- redisplay_preserve_echo_area (8);
- /* The following fixes a bug when using lazy-lock with
- lazy-lock-defer-on-the-fly set to t, i.e. when fontifying
- from an idle timer function. The symptom of the bug is that
- the cursor sometimes doesn't become visible until the next X
- event is processed. --gerd. */
- {
- Lisp_Object tail, frame;
- FOR_EACH_FRAME (tail, frame)
- if (FRAME_RIF (XFRAME (frame)))
- FRAME_RIF (XFRAME (frame))->flush_display (XFRAME (frame));
- }
- }
+ redisplay_preserve_echo_area (8);
return input_pending;
}
doc: /* Return vector of last 300 events, not counting those from keyboard macros. */)
(void)
{
- Lisp_Object *keys = XVECTOR (recent_keys)->contents;
+ Lisp_Object *keys = XVECTOR (recent_keys)->u.contents;
Lisp_Object val;
if (total_keys < NUM_RECENT_KEYS)
(void)
{
return make_event_array (this_command_key_count,
- XVECTOR (this_command_keys)->contents);
+ XVECTOR (this_command_keys)->u.contents);
}
DEFUN ("this-command-keys-vector", Fthis_command_keys_vector, Sthis_command_keys_vector, 0, 0, 0,
(void)
{
return Fvector (this_command_key_count,
- XVECTOR (this_command_keys)->contents);
+ XVECTOR (this_command_keys)->u.contents);
}
DEFUN ("this-single-command-keys", Fthis_single_command_keys,
{
return Fvector (this_command_key_count
- this_single_command_key_start,
- (XVECTOR (this_command_keys)->contents
+ (XVECTOR (this_command_keys)->u.contents
+ this_single_command_key_start));
}
The value is always a vector. */)
(void)
{
- return Fvector (raw_keybuf_count,
- (XVECTOR (raw_keybuf)->contents));
+ return Fvector (raw_keybuf_count, XVECTOR (raw_keybuf)->u.contents);
}
DEFUN ("reset-this-command-lengths", Freset_this_command_lengths,
end_kbd_macro ();
}
- update_mode_lines++;
-
Vunread_command_events = Qnil;
discard_tty_input ();
}
\f
void
-set_waiting_for_input (EMACS_TIME *time_to_clear)
+set_waiting_for_input (struct timespec *time_to_clear)
{
input_available_clear_time = time_to_clear;
immediate_quit = 0;
quit_char = Ctl ('g');
Vunread_command_events = Qnil;
- timer_idleness_start_time = invalid_emacs_time ();
+ timer_idleness_start_time = invalid_timespec ();
total_keys = 0;
recent_keys_index = 0;
kbd_fetch_ptr = kbd_buffer;