static void click_handler(ClickRecognizerRef recognizer, Window *window) {
int screen_count = s_active_item_count + 1;
int next_item = current_item;
switch (click_recognizer_get_button_id(recognizer)) {
case BUTTON_ID_UP:
if (screen_count <= 1)
break;
next_item = current_item - 1;
show_event(next_item);
break;
case BUTTON_ID_DOWN:
if (screen_count <= 1)
break;
next_item = current_item + 1;
show_event(next_item);
break;
default:
case BUTTON_ID_SELECT:
select_current_item();
break;
}
}
static int
cmd_event(char *arg)
{
int num;
if (arg == NULL) {
if (selected_event == NULL) {
g_message("No event currently selected.");
} else {
g_message("Currently selected is event %d, track %d.", selected_event->event_number, selected_track->track_number);
show_event(selected_event);
}
} else {
num = parse_event_number(arg);
if (num < 0)
return (-1);
selected_event = smf_track_get_event_by_number(selected_track, num);
if (selected_event == NULL) {
g_critical("smf_get_event_by_number() failed, event not selected.");
return (-2);
}
g_message("Event number %d selected.", selected_event->event_number);
show_event(selected_event);
}
return (0);
}
static int
cmd_events(char *notused)
{
smf_event_t *event;
if (selected_track == NULL) {
g_critical("No track selected - please use 'track <number>' command first.");
return (-1);
}
if (selected_track->number_of_events == 0) {
g_message("Selected track is empty.");
return (0);
}
g_message("List of events in track %d follows:", selected_track->track_number);
smf_rewind(smf);
while ((event = smf_track_get_next_event(selected_track)) != NULL)
show_event(event);
smf_rewind(smf);
return (0);
}
/*
* Decide which event to show. Works in a cycle. Clears the display if there is a calendar event outstanding. The phone could
* have been offline for some while and hence what is being displayed could be inaccurate.
*/
void show_next_event() {
// Else get processing
if (g_max_entries == 0) {
clear_event();
} else {
g_entry_no++;
if (g_entry_no > g_max_entries || g_entry_no > ROT_MAX)
g_entry_no = 1;
show_event(g_entry_no);
}
}
void scroll_down() {
slot* new_event = selected_event;
while(new_event->next) {
new_event = new_event->next;
if(new_event->location == get_location(selected_location_id)) {
selected_event=new_event;
show_event();
return;
}
}
}
static int
msg_cb (void *dummy_arg, rfc822parse_event_t event, rfc822parse_t msg)
{
show_event (event);
if (event == RFC822PARSE_T2BODY)
{
rfc822parse_field_t ctx;
void *ectx;
const char *line;
for (ectx=NULL; (line = rfc822parse_enum_header_lines (msg, &ectx)); )
{
printf ("*** HDR: %s\n", line);
}
rfc822parse_enum_header_lines (NULL, &ectx); /* Close enumerator. */
ctx = rfc822parse_parse_field (msg, "Content-Type", -1);
if (ctx)
{
const char *s1, *s2;
s1 = rfc822parse_query_media_type (ctx, &s2);
if (s1)
printf ("*** media: `%s/%s'\n", s1, s2);
else
printf ("*** media: [not found]\n");
show_param (ctx, "boundary");
show_param (ctx, "protocol");
rfc822parse_release_field (ctx);
}
else
printf ("*** media: text/plain [assumed]\n");
ctx = rfc822parse_parse_field (msg, "Content-Disposition", -1);
if (ctx)
{
const char *s1;
TOKEN t;
s1 = rfc822parse_query_parameter (ctx, NULL, 1);
if (s1)
printf ("*** disp: type=`%s'\n", s1);
s1 = rfc822parse_query_parameter (ctx, "filename", 0);
if (s1)
printf ("*** disp: fname=`%s'\n", s1);
rfc822parse_release_field (ctx);
}
}
return 0;
}
void scroll_up() {
slot* new_event = selected_event;
while(new_event->previous) {
//APP_LOG(APP_LOG_LEVEL_INFO, "searching up for event at location %d..",selected_location_id);
new_event = new_event->previous;
if(new_event->location == get_location(selected_location_id)) {
selected_event=new_event;
//APP_LOG(APP_LOG_LEVEL_INFO, "found event %s..",selected_event->description);
show_event();
return;
}
}
}
/*
* Decide which event to show. Works in a cycle. Clears the display if there is a calendar event outstanding. The phone could
* have been offline for some while and hence what is being displayed could be inaccurate.
*/
void show_next_event() {
// Don't mess up an alert that is underway
if (g_showing_alert)
return;
// Else get processing
if (g_max_entries == 0) {
clear_event();
} else {
g_entry_no++;
if (g_entry_no > g_max_entries || g_entry_no > ROT_MAX)
g_entry_no = 1;
show_event(g_entry_no);
}
}
int
main( int argc, char *argv[] )
{
DFBResult err;
DFBSurfaceDescription sdsc;
DFBFontDescription fdsc;
const char *fontfile = FONTDIR"/decker.ttf";
int n;
DeviceInfo *devices = NULL;
DFBCHECK(DirectFBInit( &argc, &argv ));
DirectFBSetOption ("bg-none", NULL);
/* create the super interface */
DFBCHECK(DirectFBCreate( &dfb ));
/* create a list of input devices */
dfb->EnumInputDevices( dfb, enum_input_device, &devices );
/* create an event buffer for all devices */
DFBCHECK(dfb->CreateInputEventBuffer( dfb, DICAPS_ALL,
DFB_FALSE, &events ));
/* set our cooperative level to DFSCL_FULLSCREEN
for exclusive access to the primary layer */
dfb->SetCooperativeLevel( dfb, DFSCL_FULLSCREEN );
/* get the primary surface, i.e. the surface of the
primary layer we have exclusive access to */
sdsc.flags = DSDESC_CAPS;
sdsc.caps = DSCAPS_PRIMARY | DSCAPS_DOUBLE;
DFBCHECK(dfb->CreateSurface( dfb, &sdsc, &primary ));
primary->GetSize( primary, &screen_width, &screen_height );
mouse_x = screen_width / 2;
mouse_y = screen_height / 2;
fdsc.flags = DFDESC_HEIGHT;
fdsc.height = screen_width / 30;
DFBCHECK(dfb->CreateFont( dfb, fontfile, &fdsc, &font_small ));
fdsc.height = screen_width / 20;
DFBCHECK(dfb->CreateFont( dfb, fontfile, &fdsc, &font_normal ));
fdsc.height = screen_width / 10;
DFBCHECK(dfb->CreateFont( dfb, fontfile, &fdsc, &font_large ));
primary->Clear( primary, 0, 0, 0, 0 );
primary->SetFont( primary, font_normal );
primary->SetColor( primary, 0x60, 0x60, 0x60, 0xFF );
primary->DrawString( primary, "Press any key to continue.", -1,
screen_width/2, screen_height/2, DSTF_CENTER );
primary->Flip( primary, NULL, 0 );
keys_image = load_image( IMGDIR "/gnu-keys.png" );
mouse_image = load_image( IMGDIR "/gnome-mouse.png" );
if (events->WaitForEventWithTimeout( events, 10, 0 ) == DFB_TIMEOUT) {
primary->Clear( primary, 0, 0, 0, 0 );
primary->DrawString( primary, "Timed out.", -1,
screen_width/2, screen_height/2, DSTF_CENTER );
primary->Flip( primary, NULL, 0 );
primary->Clear( primary, 0, 0, 0, 0 );
sleep( 1 );
}
else {
DFBInputDeviceKeySymbol last_symbol = DIKS_NULL;
while (1) {
DFBInputEvent evt;
while (events->GetEvent( events, DFB_EVENT(&evt) ) == DFB_OK) {
const char *device_name;
DFBInputDeviceTypeFlags device_type;
primary->Clear( primary, 0, 0, 0, 0 );
device_name = get_device_name( devices, evt.device_id );
device_type = get_device_type( devices, evt.device_id );
show_event( device_name, device_type, &evt );
primary->Flip( primary, NULL, 0 );
}
if (evt.type == DIET_KEYRELEASE) {
if ((last_symbol == DIKS_ESCAPE || last_symbol == DIKS_EXIT) &&
(evt.key_symbol == DIKS_ESCAPE || evt.key_symbol == DIKS_EXIT))
break;
last_symbol = evt.key_symbol;
}
events->WaitForEvent( events );
}
}
while (devices) {
DeviceInfo *next = devices->next;
free( devices );
devices = next;
}
/* release our interfaces to shutdown DirectFB */
if (keys_image)
keys_image->Release( keys_image );
if (mouse_image)
mouse_image->Release( mouse_image );
font_small->Release( font_small );
font_normal->Release( font_normal );
font_large->Release( font_large );
primary->Release( primary );
events->Release( events );
dfb->Release( dfb );
return 0;
}
int find_events( int sat_no, double t1, double t2, int viewpoint, EVENT *e)
{
double t, lon_j, lat_j, rad_j, lon_e, lat_e, rad_e;
double loc[9], tloc[18], *tptr, step, delta_lat, prev_delta_lat;
double tc, lon_s, lat_s, rad_s, prev_delta = 0., delta;
int i, rval = 0;
t = t1;
step = 10. / speeds[sat_no - 1];
while( t < t2)
{
tc = (t - 2451545.) / 36525.; /* re-cvt to julian centuries */
lon_j = calc_vsop_loc( vsop_data, 5, 0, tc, 0.);
lat_j = calc_vsop_loc( vsop_data, 5, 1, tc, 0.);
rad_j = calc_vsop_loc( vsop_data, 5, 2, tc, 0.);
lon_e = calc_vsop_loc( vsop_data, 3, 0, tc, 0.);
lat_e = calc_vsop_loc( vsop_data, 3, 1, tc, 0.);
rad_e = calc_vsop_loc( vsop_data, 3, 2, tc, 0.);
loc[0] = rad_j * cos( lat_j) * cos( lon_j);
loc[1] = rad_j * cos( lat_j) * sin( lon_j);
loc[2] = rad_j * sin( lat_j);
loc[6] = rad_e * cos( lat_e) * cos( lon_e);
loc[7] = rad_e * cos( lat_e) * sin( lon_e);
loc[8] = rad_e * sin( lat_e);
calc_jsat_loc( t, tloc, 1 << (sat_no - 1), 0L);
tptr = tloc + (sat_no - 1) * 3;
loc[3] = loc[0] + tptr[0] * AU_PER_JRAD;
loc[4] = loc[1] + tptr[1] * AU_PER_JRAD;
loc[5] = loc[2] + tptr[2] * AU_PER_JRAD;
if( viewpoint)
{
for( i = 0; i < 9; i++)
loc[i] -= loc[6 + i % 3];
lon_j = atan2( loc[1], loc[0]);
lat_j = atan( loc[2] / sqrt( loc[0] * loc[0] + loc[1] * loc[1]));
}
rad_s = sqrt( loc[3] * loc[3] + loc[4] * loc[4] + loc[5] * loc[5]);
lon_s = atan2( loc[4], loc[3]);
while( lon_s - lon_j > PI)
lon_s -= PI + PI;
while( lon_s - lon_j <-PI)
lon_s += PI + PI;
lat_s = asin( loc[5] / rad_s);
delta = (lon_s - lon_j) * rad_s / AU_PER_JRAD;
delta_lat = (lat_s - lat_j) * rad_s / AU_PER_JRAD;
delta_lat *= 1.071374; /* stretch for jup's oblateness */
if( delta * prev_delta < 0.) /* zero crossed */
{
double t_crossing, diff, a, b, c, dx, dy, dist = 0.;
dx = prev_delta - delta;
dy = prev_delta_lat - delta_lat;
a = dx * dx + dy * dy; /* quadratic for intercept */
b = 2. * (dx * delta + dy * delta_lat);
c = delta_lat * delta_lat + delta * delta - 1.;
diff = b * b - 4. * a * c;
t_crossing = t + b * step / (2. * a);
t = t_crossing + (180. / speeds[sat_no - 1]) * .9;
if( diff > 0.) /* if real solution, ie, sat doesn't miss */
{
diff = sqrt( diff) * step / (2. * a);
diff = fabs( diff);
for( i = 0; i < 3; i++)
dist += (loc[i + 6] - loc[i]) * (loc[i + 6] - loc[i]);
t_crossing += sqrt( dist) / AU_PER_DAY;
e[0].t = t_crossing - diff;
e[0].sat = sat_no;
e[0].event_type = (prev_delta > 0.);
if( !viewpoint)
e[0].event_type |= FROM_SUN;
e[1].t = t_crossing + diff;
e[1].sat = sat_no;
e[1].event_type = e[0].event_type;
e[0].event_type |= EVENT_START;
if( !quiet)
{
show_event( stdout, e);
show_event( stdout, e + 1);
}
e += 2;
rval += 2;
}
delta = 0.;
}
prev_delta = delta;
prev_delta_lat = delta_lat;
t += step;
}
return( rval);
}
int main( int argc, char **argv)
{
int i, j, k, julian = 0, sat_no = 15, n_days = 30, gap;
int n_events = 0, n_sun, n_earth;
double t1, t2;
long jd;
EVENT *e;
FILE *ofile = NULL, *data_file = NULL;
FILE *vsop_file;
char *vsop_tbuff;
vsop_file = fopen( "vsop.bin", "rb");
if( !vsop_file)
{
printf( "Couldn't open vsop.bin");
return( -3);
}
vsop_tbuff = (char *)malloc( VSOP_CHUNK);
vsop_data = (char FAR *)FMALLOC( VSOP_CHUNK * 22U);
for( i = 0; i < 22; i++)
{
fread( vsop_tbuff, VSOP_CHUNK, 1, vsop_file);
memcpy( vsop_data + (unsigned)i * VSOP_CHUNK, vsop_tbuff, VSOP_CHUNK);
}
fclose( vsop_file);
free( vsop_tbuff);
if( argc < 4)
{
printf( "JEVENT calculates Jovian satellite events (transits, eclipses,\n");
printf( "shadows, occultations) as seen from Earth. It requires, as a\n");
printf( "minimum, a day, month, and year. Given, say, the command\n");
printf( "\nJEVENT 18 4 1993\n\n");
printf( "JEVENT will calculate all events from 18 Apr 1993 for the next\n");
printf( "thirty days. You can add on the following parameters:\n\n");
printf( " -j Use Julian calendar\n");
printf( " -d(#) Calculate for (#) days instead of 30\n");
printf( " -f(name) Put results in ASCII file (name) as well as on screen\n");
return( -2);
}
for( i = 0; i < argc; i++)
if( argv[i][0] == '-')
switch( argv[i][1])
{
case 'j': case 'J':
julian = 1;
break;
case 'q': case 'Q':
quiet = 1;
break;
case 's': case 'S':
sat_no = atoi( argv[i] + 2);
break;
case 'd': case 'D':
n_days = atoi( argv[i] + 2);
break;
case 'f': case 'F':
ofile = fopen( argv[i] + 2, "wb");
break;
case 'r': case 'R':
data_file = fopen( argv[i] + 2, "ab");
printf( "Appending data to %s\n", argv[i] + 2);
break;
default:
break;
}
e = (EVENT *)calloc( MAX_EVENTS, sizeof( EVENT));
if( !e)
return( -1);
jd = dmy_to_day( 0, atoi( argv[2]), atol( argv[3]), julian);
t1 = (double)jd - .5 + atof( argv[1]);
t2 = t1 + (double)n_days;
printf( "JD %lf to %lf\n", t1, t2);
for( i = 0; i < 4; i++)
if( sat_no & (1 << i))
{
printf( "Sat %d from sun\n", i + 1);
n_sun = find_events( i + 1, t1 - 1., t2 + 1., 0, e + n_events);
printf( "Sat %d from earth\n", i + 1);
n_earth = find_events( i + 1, t1 - 1., t2 + 1., 1, e + n_events + n_sun);
printf( "Finding hidden events\n");
k = n_events + n_sun;
for( j = n_events; j < n_events + n_sun; j++)
while( k < n_events + n_sun + n_earth && e[k].t < e[j].t)
{
if( e[k + 1].t > e[j].t)
if( !(e[j].event_type & IN_FRONT))
e[j].event_type |= EVENT_UNSEEN;
k += 2;
}
k = n_events;
for( j = n_events + n_sun; j < n_events + n_sun + n_earth; j++)
while( k < n_events + n_sun && e[k].t < e[j].t)
{
if( e[k + 1].t > e[j].t)
if( !(e[j].event_type & IN_FRONT))
e[j].event_type |= EVENT_UNSEEN;
k += 2;
}
n_events += n_earth + n_sun;
}
printf( "Sorting %d events\n", n_events);
for( gap = 1; gap < n_events / 3; gap = gap * 3 + 1)
;
while( gap)
{
for( i = 0; i < gap; i++)
for( j = i; j + gap < n_events; j += gap)
if( e[j].t > e[j + gap].t)
{
EVENT temp;
memcpy( &temp, e + j + gap, sizeof( EVENT));
memcpy( e + j + gap, e + j, sizeof( EVENT));
memcpy( e + j, &temp, sizeof( EVENT));
if( j >= gap)
j -= gap + gap;
}
gap /= 3;
}
if( !quiet)
{
printf( "Final results:\n");
for( i = 0; i < n_events; i++)
if( e[i].t > t1 && e[i].t < t2)
show_event( stdout, e + i);
}
if( ofile)
{
for( i = 0; i < n_events; i++)
if( e[i].t > t1 && e[i].t < t2)
show_event( ofile, e + i);
fclose( ofile);
}
if( data_file)
{
for( i = 0; i < n_events; i++)
if( e[i].t > t1 && e[i].t < t2)
if( !( e[i].event_type & EVENT_UNSEEN))
{
char buff[5];
/* store minutes from 2000.0 */
*(long *)buff = (long)( (e[i].t - 2451545.0) * 1440.);
buff[4] = (char)( (e[i].event_type & 7) | (e[i].sat << 3));
fwrite( buff, 1, 5, data_file);
}
fclose( data_file);
}
return( 0);
}
int main(int argc, char* argv[])
{
int i = 0;
int fd;
struct pollfd* mfds = (struct pollfd*)calloc(1, sizeof(struct pollfd));
int mfd_count = 0;
int nr;
struct input_event event;
int store_fd;
char** dev_name;
if(argc < 2)
{
fprintf(stderr, "error input\n");
usage(argv[0]);
exit(-1);
}
if(strcmp(argv[1], "a1") == 0)
{
dev_name = dev_name_a1;
}
else if (strcmp(argv[1], "a310") == 0)
{
dev_name = dev_name_a310;
}
else if (strcmp(argv[1], "a810") == 0)
{
dev_name = dev_name_a810;
}
else
{
fprintf(stderr, "error input argv[1]: %s\n", argv[1]);
usage(argv[0]);
exit(-1);
}
i = 0;
while(dev_name[i] != NULL)
{
printf("open %s\n", dev_name[i]);
fd = open_dev(dev_name[i]);
if(fd > 0)
{
struct pollfd* new_mfds = (struct pollfd*)realloc(mfds, sizeof(struct pollfd)*(mfd_count + 1));
if(new_mfds == NULL)
{
fprintf(stderr, "realloc out of memeory\n");
return -1;
}
mfds = new_mfds;
mfds[i].fd = fd;
mfds[i].events = POLLIN;
mfd_count++;
}
i++;
}
//open store file
store_fd = open(gen_filename(), O_RDWR|O_CREAT);
if(store_fd < 0)
{
fprintf(stderr, "fail to open record file\n");
exit(-1);
}
while(1)
{
nr = poll(mfds, mfd_count, 0);
if(nr <= 0)
continue;
for(i = 0; i < mfd_count; i++)
{
if(mfds[i].revents == POLLIN)
{
int ret = read(mfds[i].fd, &event, sizeof(event));
if(ret == sizeof(event))
{
show_event(&event);
store_event(store_fd, &event);
}
}
}
}
return 0;
}
/* This function is called by the parser to communicate events. This
callback communicates with the main program using a structure
passed in OPAQUE. Should retrun 0 or set errno and return -1. */
static int
message_cb (void *opaque, rfc822parse_event_t event, rfc822parse_t msg)
{
struct parse_info_s *info = opaque;
if (debug)
show_event (event);
if (event == RFC822PARSE_T2BODY)
{
rfc822parse_field_t ctx;
size_t off;
char *p;
info->mime_type = MT_NONE;
info->transfer_encoding = TE_NONE;
info->test_base64 = 0;
info->got_probe = 0;
info->no_mime = 0;
ctx = rfc822parse_parse_field (msg, "Content-Type", -1);
if (ctx)
{
const char *s1, *s2;
s1 = rfc822parse_query_media_type (ctx, &s2);
if (!s1)
;
else if (!strcmp (s1, "application")
&& !strcmp (s2, "octet-stream"))
info->mime_type = MT_OCTET_STREAM;
else if (!strcmp (s1, "text")
&& !strcmp (s2, "html"))
info->mime_type = MT_TEXT_HTML;
else if (!strcmp (s1, "audio"))
info->mime_type = MT_AUDIO;
else if (!strcmp (s1, "image"))
info->mime_type = MT_IMAGE;
if (verbose)
{
printf ("# Content-Type: %s/%s", s1?s1:"", s2?s2:"");
s1 = rfc822parse_query_parameter (ctx, "charset", 0);
if (s1)
printf ("; charset=%s", s1);
putchar ('\n');
}
rfc822parse_release_field (ctx);
}
else
{
p = rfc822parse_get_field (msg, "MIME-Version", -1, NULL);
if (p)
free (p);
else
info->no_mime = 1;
}
if (verbose)
{
const char *s1;
p = rfc822parse_get_field (msg, "Content-Disposition", -1, NULL);
if (p)
{
printf ("# %s\n", p);
free (p);
}
ctx = rfc822parse_parse_field (msg, "Content-Disposition", -1);
if (ctx)
{
s1 = rfc822parse_query_parameter (ctx, "filename", 0);
if (s1)
printf ("# Content-Disposition has filename=`%s'\n", s1);
rfc822parse_release_field (ctx);
}
}
p = rfc822parse_get_field (msg, "Content-Transfer-Encoding", -1, &off);
if (p)
{
lowercase_string (p+off);
if (!strcmp (p+off, "base64"))
info->transfer_encoding = TE_BASE64;
free (p);
}
if (!info->top_seen)
{
info->top_seen = 1;
p = rfc822parse_get_field (msg, "To", -1, NULL);
if (p)
{
if ( strstr (p, "Werner Koch") )
{
if (verbose)
fputs ("# Found known name in To\n", stdout);
info->wk_seen = 1;
}
free (p);
}
if (!info->wk_seen)
{
p = rfc822parse_get_field (msg, "Cc", -1, NULL);
if (p)
{
if ( strstr (p, "Werner Koch") )
{
if (verbose)
fputs ("# Found known name in Cc\n", stdout);
info->wk_seen = 1;
}
free (p);
}
}
}
if ((info->mime_type == MT_OCTET_STREAM
|| info->mime_type == MT_AUDIO
|| info->mime_type == MT_IMAGE)
&& info->transfer_encoding == TE_BASE64)
info->test_base64 = 1;
else if (info->mime_type == MT_TEXT_HTML)
{
if (!quiet)
fputs ("HTML\n", stdout);
if (opt_match_html && !info->wk_seen)
exit (0);
}
}
else if (event == RFC822PARSE_PREAMBLE)
;
else if (event == RFC822PARSE_BOUNDARY || event == RFC822PARSE_LAST_BOUNDARY)
{
if (info->test_base64)
info->got_probe = 1;
info->test_base64 = 0;
}
else if (event == RFC822PARSE_BEGIN_HEADER)
{
}
return 0;
}
static int show_scope(ivl_scope_t net, void*x)
{
unsigned idx;
const char *is_auto;
fprintf(out, "scope: %s (%u parameters, %u signals, %u logic)",
ivl_scope_name(net), ivl_scope_params(net),
ivl_scope_sigs(net), ivl_scope_logs(net));
is_auto = ivl_scope_is_auto(net) ? "automatic " : "";
switch (ivl_scope_type(net)) {
case IVL_SCT_MODULE:
fprintf(out, " module %s%s", ivl_scope_tname(net),
ivl_scope_is_cell(net) ? " (cell)" : "");
break;
case IVL_SCT_FUNCTION:
fprintf(out, " function %s%s", is_auto, ivl_scope_tname(net));
break;
case IVL_SCT_BEGIN:
fprintf(out, " begin : %s", ivl_scope_tname(net));
break;
case IVL_SCT_FORK:
fprintf(out, " fork : %s", ivl_scope_tname(net));
break;
case IVL_SCT_TASK:
fprintf(out, " task %s%s", is_auto, ivl_scope_tname(net));
break;
default:
fprintf(out, " type(%u) %s", ivl_scope_type(net),
ivl_scope_tname(net));
break;
}
fprintf(out, " time units = 1e%d\n", ivl_scope_time_units(net));
fprintf(out, " time precision = 1e%d\n", ivl_scope_time_precision(net));
for (idx = 0 ; idx < ivl_scope_attr_cnt(net) ; idx += 1) {
ivl_attribute_t attr = ivl_scope_attr_val(net, idx);
switch (attr->type) {
case IVL_ATT_VOID:
fprintf(out, " (* %s *)\n", attr->key);
break;
case IVL_ATT_STR:
fprintf(out, " (* %s = \"%s\" *)\n", attr->key,
attr->val.str);
break;
case IVL_ATT_NUM:
fprintf(out, " (* %s = %ld *)\n", attr->key,
attr->val.num);
break;
}
}
for (idx = 0 ; idx < ivl_scope_params(net) ; idx += 1)
show_parameter(ivl_scope_param(net, idx));
for (idx = 0 ; idx < ivl_scope_enumerates(net) ; idx += 1)
show_enumerate(ivl_scope_enumerate(net, idx));
for (idx = 0 ; idx < ivl_scope_sigs(net) ; idx += 1)
show_signal(ivl_scope_sig(net, idx));
for (idx = 0 ; idx < ivl_scope_events(net) ; idx += 1)
show_event(ivl_scope_event(net, idx));
for (idx = 0 ; idx < ivl_scope_logs(net) ; idx += 1)
show_logic(ivl_scope_log(net, idx));
for (idx = 0 ; idx < ivl_scope_lpms(net) ; idx += 1)
show_lpm(ivl_scope_lpm(net, idx));
for (idx = 0 ; idx < ivl_scope_switches(net) ; idx += 1)
show_switch(ivl_scope_switch(net, idx));
switch (ivl_scope_type(net)) {
case IVL_SCT_FUNCTION:
case IVL_SCT_TASK:
fprintf(out, " scope function/task definition\n");
if (ivl_scope_def(net) == 0) {
fprintf(out, " ERROR: scope missing required task definition\n");
stub_errors += 1;
} else {
show_statement(ivl_scope_def(net), 6);
}
break;
default:
if (ivl_scope_def(net)) {
fprintf(out, " ERROR: scope has an attached task definition:\n");
show_statement(ivl_scope_def(net), 6);
stub_errors += 1;
}
break;
}
fprintf(out, "end scope %s\n", ivl_scope_name(net));
return ivl_scope_children(net, show_scope, 0);
}