void keyboard::update_mapping( void )
{
auto cookie = xcb_get_modifier_mapping_unchecked( _connection );
if ( _keysyms )
xcb_key_symbols_free( _keysyms );
_keysyms = xcb_key_symbols_alloc( _connection );
auto numlockcodes = core::wrap_cptr( xcb_key_symbols_get_keycode( _keysyms, XK_Num_Lock ) );
auto shiftlockcodes = core::wrap_cptr( xcb_key_symbols_get_keycode( _keysyms, XK_Shift_Lock ) );
auto capslockcodes = core::wrap_cptr( xcb_key_symbols_get_keycode( _keysyms, XK_Caps_Lock ) );
auto modeswitchcodes = core::wrap_cptr( xcb_key_symbols_get_keycode( _keysyms, XK_Mode_switch ) );
auto modmap_r = core::wrap_cptr( xcb_get_modifier_mapping_reply( _connection, cookie, nullptr ) );
xcb_keycode_t *modmap = xcb_get_modifier_mapping_keycodes( modmap_r.get() );
_numlock = 0;
_shiftlock = 0;
_capslock = 0;
_modeswitch = 0;
for( int i = 0; i < 8; i++ )
{
for( int j = 0; j < modmap_r->keycodes_per_modifier; j++ )
{
xcb_keycode_t kc = modmap[i * modmap_r->keycodes_per_modifier + j];
look_for( _numlock, numlockcodes, kc, i );
look_for( _shiftlock, shiftlockcodes, kc, i );
look_for( _capslock, capslockcodes, kc, i );
look_for( _modeswitch, modeswitchcodes, kc, i );
}
}
}
main()
{
char buf[1024];
int people;
int comps;
int i = 0;
int j = 0;
int a, b;
int ma, mb; // the mysterious ones
// setup the memoization table
memo_tab = malloc(100 * sizeof(char *));
for (i = 0; i < 100; ++i) {
memo_tab[i] = malloc(100);
for (j = 0; j < 100; ++j)
memo_tab[i][j] = 0;
}
fgets(buf, 1024, stdin);
sscanf(buf, "%d %d", &people, &comps);
lists = malloc((people+1) * sizeof(derp_t *));
if (!lists) {
printf("aw snap, malloc failed\n");
exit(1);
}
for (i = 0; i < people + 1; ++i)
lists[i] = new_derp(i);
// set up the list from known info
for (i = 0; i < comps; ++i) {
fgets(buf, 1024, stdin);
sscanf(buf, "%d %d", &a, &b);
//printf("k so %d is taller than %d kthxbye\n", a, b);
add_child(a, b);
}
// now solve the mystery lololol
fgets(buf, 1024, stdin);
sscanf(buf, "%d %d", &ma, &mb);
if (look_for(ma, mb))
printf("yes\n");
else if (look_for(mb, ma))
printf("no\n");
else
printf("unknown\n");
return 0;
}
static void step_predicate_parser(parser_context *context)
{
enter_state(context, ST_PREDICATE);
skip_ws(context);
if('[' == get_char(context))
{
consume_char(context);
if(!look_for(context, "]"))
{
context->result.code = ERR_UNBALANCED_PRED_DELIM;
return;
}
skip_ws(context);
if(']' == get_char(context))
{
context->result.code = ERR_EMPTY_PREDICATE;
return;
}
try_predicate_parser(wildcard_predicate);
try_predicate_parser(subscript_predicate);
try_predicate_parser(slice_predicate);
if(JSONPATH_SUCCESS != context->result.code && ERR_PARSER_OUT_OF_MEMORY != context->result.code)
{
context->result.code = ERR_UNSUPPORTED_PRED_TYPE;
}
}
else
{
unexpected_value(context, '[');
}
}
static void step_parser(parser_context *context)
{
if(look_for(context, "()"))
{
node_type_test(context);
if(JSONPATH_SUCCESS == context->result.code && has_more_input(context))
{
consume_char(context);
consume_char(context);
}
}
else
{
name_test(context);
}
if(JSONPATH_SUCCESS == context->result.code && has_more_input(context))
{
step_predicate_parser(context);
}
if(ERR_UNEXPECTED_VALUE == context->result.code && '[' == context->result.expected_char)
{
enter_state(context, ST_STEP);
context->result.code = JSONPATH_SUCCESS;
}
}
int look_for_raw(int r, int c)
{
int i;
if (check_child(r, c))
return 1;
for (i = 0; i < lists[r]->cnt; ++i)
if (look_for(lists[r]->tt[i], c))
return 1;
return 0;
}
void
rd_particle_specs(FILE *ifp, char *input)
{
PBC_t *PBC;
char err_msg[MAX_CHAR_ERR_MSG], s_tmp[SLEN], s_tmp_save[SLEN_2], *s_ptr1, *s_ptr2;
int i, j, iread;
iread = look_for_optional(ifp, "Particle Specifications", input, '=');
if(iread != 1)
{
Particle_Dynamics = 0;
Particle_Number_Sample_Types = 0;
Particle_Number_Samples_Existing = NULL;
Particle_Number_Samples = NULL;
Particle_Number_Output_Variables = NULL;
Particle_Output_Variables = NULL;
Particle_Filename_Template = NULL;
Particle_Number_PBCs = 0;
PBCs = NULL;
return;
}
printf("\n--- Particle specifications ---\n");
Particle_Dynamics = 1; /* turn on particle dynamics */
/* What kind of particle model do you want? This determines all
* kinds of things, such as FEM<->particle coupling, particle
* trajectory calculation, etc. */
look_for(ifp, "Particle model", input, '=');
if(!fgets(s_tmp, SLEN-1, ifp))
EH(-1, "Error reading Particle model card.");
strip(s_tmp); /* s_tmp still has '\n' at end */
if(s_tmp[strlen(s_tmp)-1] == '\n')
s_tmp[strlen(s_tmp)-1] = 0;
strcpy(s_tmp_save, s_tmp);
s_ptr1 = strpbrk(s_tmp_save, " \t\n");
if(s_ptr1 != NULL)
s_ptr1[0] = 0;
if(!strncmp("INERTIAL_TRACER_EXPLICIT", s_tmp, 24))
Particle_Model = INERTIAL_TRACER_EXPLICIT;
else if(!strncmp("INERTIAL_TRACER_IMPLICIT", s_tmp, 24))
Particle_Model = INERTIAL_TRACER_IMPLICIT;
else if(!strncmp("TRACER_EXPLICIT", s_tmp, 15))
Particle_Model = TRACER_EXPLICIT;
else if(!strncmp("TRACER_IMPLICIT", s_tmp, 15))
Particle_Model = TRACER_IMPLICIT;
else if(!strncmp("SWIMMER_EXPLICIT", s_tmp, 16))
Particle_Model = SWIMMER_EXPLICIT;
else if(!strncmp("SWIMMER_IMPLICIT", s_tmp, 16))
Particle_Model = SWIMMER_IMPLICIT;
else if(!strncmp("CHARGED_TRACER_EXPLICIT", s_tmp, 23))
Particle_Model = CHARGED_TRACER_EXPLICIT;
else if(!strncmp("CHARGED_TRACER_IMPLICIT", s_tmp, 23))
Particle_Model = CHARGED_TRACER_IMPLICIT;
else if(!strncmp("DIELECTROPHORETIC_TRACER_IMPLICIT", s_tmp, 33))
Particle_Model = DIELECTROPHORETIC_TRACER_IMPLICIT;
else
{
sprintf(s_tmp_save, "Unknown Particle model: %s\n", s_tmp);
EH(-1, s_tmp_save);
}
printf("Setting Particle_Model = %s\n", s_tmp_save);
switch(Particle_Model)
{
case INERTIAL_TRACER_IMPLICIT:
case INERTIAL_TRACER_EXPLICIT:
s_ptr1 = s_tmp + 24;
if(!(s_ptr2 = strtok(s_ptr1, " \t\n")))
{
sprintf(err_msg, "Error reading random walk coefficient for %s particle model.", s_tmp);
EH(-1, err_msg);
}
Particle_Model_Data[0] = atof(s_ptr2);
printf("Setting random walk coefficient = %g\n", Particle_Model_Data[0]);
if(!(s_ptr2 = strtok(NULL, " \t\n")))
{
sprintf(err_msg, "Error reading gravity coefficient for %s particle_model.", s_tmp);
EH(-1, err_msg);
}
Particle_Model_Data[1] = atof(s_ptr2);
printf("Setting gravity coefficient = %g\n", Particle_Model_Data[1]);
break;
case TRACER_EXPLICIT:
case TRACER_IMPLICIT:
s_ptr1 = s_tmp + 15;
if(!(s_ptr2 = strtok(s_ptr1, " \t\n")))
{
sprintf(err_msg, "Error reading random walk coefficient for %s particle model.", s_tmp);
EH(-1, err_msg);
}
Particle_Model_Data[0] = atof(s_ptr2);
printf("Setting random walk coefficient = %g\n", Particle_Model_Data[0]);
break;
case SWIMMER_EXPLICIT:
case SWIMMER_IMPLICIT:
s_ptr1 = s_tmp + 16;
if(!(s_ptr2 = strtok(s_ptr1, " \t\n")))
{
sprintf(err_msg, "Error reading random swimming speed coefficient for %s particle model.", s_tmp);
EH(-1, err_msg);
}
Particle_Model_Data[0] = atof(s_ptr2);
printf("Setting random swimming speed coefficient = %g\n", Particle_Model_Data[0]);
if(!(s_ptr2 = strtok(NULL, " \t\n")))
{
sprintf(err_msg, "Error reading random cell orientation coefficient for %s particle model.", s_tmp);
EH(-1, err_msg);
}
Particle_Model_Data[1] = atof(s_ptr2);
printf("Setting random cell orientation coefficient = %g\n", Particle_Model_Data[1]);
if(!(s_ptr2 = strtok(NULL, " \t\n")))
{
sprintf(err_msg, "Error reading upswimming speed for %s particle model.", s_tmp);
EH(-1, err_msg);
}
Particle_Model_Data[2] = atof(s_ptr2);
printf("Setting particle upswimming speed = %g\n", Particle_Model_Data[2]);
break;
case CHARGED_TRACER_EXPLICIT:
case CHARGED_TRACER_IMPLICIT:
s_ptr1 = s_tmp + 23;
if(!(s_ptr2 = strtok(s_ptr1, " \t\n")))
{
sprintf(err_msg, "Error reading random walk coefficient for %s particle model.", s_tmp);
EH(-1, err_msg);
}
Particle_Model_Data[0] = atof(s_ptr2);
printf("Setting random walk coefficient = %g\n", Particle_Model_Data[0]);
if(!(s_ptr2 = strtok(NULL, " \t\n")))
{
sprintf(err_msg, "Error reading charge coefficient for %s particle model.", s_tmp);
EH(-1, err_msg);
}
Particle_Model_Data[1] = atof(s_ptr2);
printf("Setting charge coefficient = %g\n", Particle_Model_Data[1]);
break;
case DIELECTROPHORETIC_TRACER_IMPLICIT:
s_ptr1 = s_tmp + 33;
if(!(s_ptr2 = strtok(s_ptr1, " \t\n")))
{
sprintf(err_msg, "Error reading random walk coefficient for %s particle model.", s_tmp);
EH(-1, err_msg);
}
Particle_Model_Data[0] = atof(s_ptr2);
printf("Setting random walk coefficient = %g\n", Particle_Model_Data[0]);
if(!(s_ptr2 = strtok(NULL, " \t\n")))
{
sprintf(err_msg, "Error reading particle permittivity for %s particle model.", s_tmp);
EH(-1, err_msg);
}
Particle_Model_Data[1] = atof(s_ptr2);
printf("Setting particle permittivity = %g\n", Particle_Model_Data[1]);
if(!(s_ptr2 = strtok(NULL, " \t\n")))
{
sprintf(err_msg, "Error reading medium (fluid) permittivity for %s particle model.", s_tmp);
EH(-1, err_msg);
}
Particle_Model_Data[2] = atof(s_ptr2);
printf("Setting medium (fluid) permittivity = %g\n", Particle_Model_Data[2]);
if(!(s_ptr2 = strtok(NULL, " \t\n")))
{
sprintf(err_msg, "Error reading particle conductivity for %s particle model.", s_tmp);
EH(-1, err_msg);
}
Particle_Model_Data[3] = atof(s_ptr2);
printf("Setting particle conductivity = %g\n", Particle_Model_Data[3]);
if(!(s_ptr2 = strtok(NULL, " \t\n")))
{
sprintf(err_msg, "Error reading medium (fluid) conductivity for %s particle model.", s_tmp);
EH(-1, err_msg);
}
Particle_Model_Data[4] = atof(s_ptr2);
printf("Setting medium (fluid) conductivity = %g\n", Particle_Model_Data[4]);
if(!(s_ptr2 = strtok(NULL, " \t\n")))
{
sprintf(err_msg, "Error reading AC angular frequency for %s particle model.", s_tmp);
EH(-1, err_msg);
}
Particle_Model_Data[5] = atof(s_ptr2);
printf("Setting AC angular frequency = %g\n", Particle_Model_Data[5]);
if(!(s_ptr2 = strtok(NULL, " \t\n")))
{
sprintf(err_msg, "Error reading Volt conversion factor for %s particle model.", s_tmp);
EH(-1, err_msg);
}
Particle_Model_Data[6] = atof(s_ptr2);
printf("Setting Volt conversion factor = %g\n", Particle_Model_Data[6]);
break;
default:
EH(-1, "How'd you get here?");
}
/* Get maximum number of particle time steps if we're running after
* a steady-state solution... */
if(TimeIntegration == STEADY)
{
if(look_for_optional(ifp, "Time steps", input, '=') == 1)
{
if(fscanf(ifp, "%d", &Particle_Max_Time_Steps) != 1)
EH(-1, "Error reading Time steps card for post-steady problem.");
printf("Setting Particle_Max_Time_Steps = %d\n", Particle_Max_Time_Steps);
}
else
Particle_Max_Time_Steps = 0;
}
else
if(look_for_optional(ifp, "Time steps", input, '=') == 1)
printf("CAUTION: ignoring Time steps card for transient problem.");
/* How many particles would you like? For now, they are always
* introduced unformly throughout the domain. */
look_for(ifp, "Number of particles", input, '=');
if(fscanf(ifp, "%d", &Particle_Number) != 1)
EH(-1, "Error reading Number of particles card.");
printf("Setting Particle_Number = %d\n", Particle_Number);
if(look_for_optional(ifp, "Restart file", input, '=') == 1)
{
char file_name_temp[MAX_PARTICLE_FILENAME_LENGTH];
if(!fgets(file_name_temp, MAX_PARTICLE_FILENAME_LENGTH, ifp))
EH(-1, "Error reading Restart file card.");
strip(file_name_temp);
strncpy(Particle_Restart_Filename, file_name_temp, MAX_PARTICLE_FILENAME_LENGTH);
printf("Restart file = %s\n", Particle_Restart_Filename);
}
else
sprintf(Particle_Restart_Filename, "<not active>");
/* When to output particle information. There are two ways to
* specify this, and they are incompatible (i.e., only one can be
* specified). Either you can output particles every so many Goma
* time steps, or you can have particles output every so often
* time-wise (e.g., every 0.1 seconds), whether within a Goma time
* step or containing many Goma time steps.*/
if(look_for_optional(ifp, "Output stride", input, '=') == 1)
{
if(fscanf(ifp, "%d", &Particle_Output_Stride) != 1)
EH(-1, "Error reading Output stride card.");
printf("Setting Particle_Output_Stride = %d\n", Particle_Output_Stride);
}
else
Particle_Output_Stride = -1;
if(look_for_optional(ifp, "Output time step", input, '=') == 1)
{
if(fscanf(ifp, "%lf", &Particle_Output_Time_Step) != 1)
EH(-1, "Error reading Output time step card.");
printf("Setting Particle_Output_Time_Step = %g\n", Particle_Output_Time_Step);
if(Particle_Output_Stride != -1)
EH(-1, "You cannot specify both Output stride and Output time step.");
}
else
Particle_Output_Time_Step = 0.0;
if(Particle_Output_Stride == -1 &&
Particle_Output_Time_Step == 0.0)
EH(-1, "One of the Output stride or Output time step cards must be present.");
if(look_for_optional(ifp, "Output format", input, '=') == 1)
{
if(!fgets(s_tmp, SLEN-1, ifp))
EH(-1, "Error reading Output format card.");
strip(s_tmp); /* s_tmp still has '\n' at end -- don't care. */
if(!strncmp("TECPLOT", s_tmp, 7))
Particle_Output_Format = TECPLOT;
else if(!strncmp("FLAT_TEXT", s_tmp, 9))
Particle_Output_Format = FLAT_TEXT;
else
{
sprintf(s_tmp_save, "Unknown Output format: %s\n", s_tmp);
EH(-1, s_tmp_save);
}
}
else
Particle_Output_Format = FLAT_TEXT;
if(look_for_optional(ifp, "Particle density", input, '=') == 1)
{
if(fscanf(ifp, "%lf", &Particle_Density) != 1)
EH(-1, "Error reading Particle density card.");
}
else
Particle_Density = 1.0;
printf("Setting Particle_Density = %g\n", Particle_Density);
if(look_for_optional(ifp, "Particle radius", input, '=') == 1)
{
if(fscanf(ifp, "%lf", &Particle_Radius) != 1)
EH(-1, "Error reading Particle radius card.");
}
else
Particle_Radius = 1.0;
printf("Setting Particle_Radius = %g\n", Particle_Radius);
if(Particle_Radius <= 0.0)
EH(-1, "Particle radius must be > 0.0. Non-inertial tracer particles will ignore this setting.");
if(look_for_optional(ifp, "Particle ratio", input, '=') == 1)
{
if(fscanf(ifp, "%lf", &Particle_Ratio) != 1)
EH(-1, "Error reading Particle ratio card.");
}
else
Particle_Ratio = 1.0;
printf("Setting Particle_Ratio = %g\n", Particle_Ratio);
Particle_Show_Debug_Info = 0;
if(look_for_optional(ifp, "Show particle debug info", input, '=') == 1)
{
if(fscanf(ifp, "%s", s_tmp) != 1)
EH(-1, "Need yes or no for Show particle debug info card.");
if(!strncmp(s_tmp, "YES", 3))
{
Particle_Show_Debug_Info = 1;
printf("Showing particle debug info\n");
}
}
if(!Particle_Show_Debug_Info)
printf("Not showing particle debug info\n");
/* Initialization for particle creation and move domains. */
for(i = 0; i < MAX_DOMAIN_REAL_VALUES; i++)
{
Particle_Creation_Domain_Reals[i] = 1.0e+10;
Particle_Move_Domain_Reals[i] = 1.0e+10;
}
Particle_Creation_Domain = UNRESTRICTED;
Particle_Move_Domain = UNRESTRICTED;
sprintf(Particle_Creation_Domain_Filename, "<not active>");
sprintf(Particle_Creation_Domain_Name, "<not active>");
sprintf(Particle_Move_Domain_Filename, "<not active>");
sprintf(Particle_Move_Domain_Name, "<not active>");
/* Set optional creation domain. */
if(look_for_optional(ifp, "Particle creation domain", input, '=') == 1)
{
if(fscanf(ifp, "%s", s_tmp) != 1)
EH(-1, "Error reading Particle creation domain card.");
if(!strncmp(s_tmp, "BRICK", 5))
{
Particle_Creation_Domain = BRICK;
if(fscanf(ifp, "%lf %lf %lf %lf %lf %lf\n", &Particle_Creation_Domain_Reals[0],
&Particle_Creation_Domain_Reals[1], &Particle_Creation_Domain_Reals[2],
&Particle_Creation_Domain_Reals[3], &Particle_Creation_Domain_Reals[4],
&Particle_Creation_Domain_Reals[5]) != 6)
EH(-1, "Error reading min/max values on Particle creation domain card.");
printf("Using BRICK creation domain with x in [%g,%g], y in [%g,%g], z in [%g,%g]\n",
Particle_Creation_Domain_Reals[0], Particle_Creation_Domain_Reals[1],
Particle_Creation_Domain_Reals[2], Particle_Creation_Domain_Reals[3],
Particle_Creation_Domain_Reals[4], Particle_Creation_Domain_Reals[5]);
}
else if(!strncmp(s_tmp, "ACIS", 4))
{
EH(-1, "CGM not supported, ACIS");
}
else
{
sprintf(err_msg, "Error reading Particle creation domain card, unknown domain type: %s.", s_tmp);
EH(-1, err_msg);
}
}
else
printf("Using unrestricted Particle_Creation_Domain\n");
/* Set optional move domain. */
if(look_for_optional(ifp, "Particle move domain", input, '=') == 1)
{
if(fscanf(ifp, "%s", s_tmp) != 1)
EH(-1, "Error reading Particle move domain card.");
if(!strncmp(s_tmp, "BRICK", 5))
{
Particle_Move_Domain = BRICK;
if(fscanf(ifp, "%lf %lf %lf %lf %lf %lf\n", &Particle_Move_Domain_Reals[0],
&Particle_Move_Domain_Reals[1], &Particle_Move_Domain_Reals[2],
&Particle_Move_Domain_Reals[3], &Particle_Move_Domain_Reals[4],
&Particle_Move_Domain_Reals[5]) != 6)
EH(-1, "Error reading min/max values on Particle move domain card.");
printf("Using BRICK move domain with x in [%g,%g], y in [%g,%g], z in [%g,%g]\n",
Particle_Move_Domain_Reals[0], Particle_Move_Domain_Reals[1],
Particle_Move_Domain_Reals[2], Particle_Move_Domain_Reals[3],
Particle_Move_Domain_Reals[4], Particle_Move_Domain_Reals[5]);
}
else if(!strncmp(s_tmp, "ACIS", 4))
{
EH(-1, "Need the CGM library to use ACIS for Particle creation domain card.");
}
else
{
sprintf(err_msg, "Error reading Particle move domain card, unknown domain type: %s.", s_tmp);
EH(-1, err_msg);
}
}
else
printf("Using unrestricted Particle_Move_Domain\n");
/* This is used for restarts, too, and ignores output file type. If
* we're a steady-state Goma calculation, then this applies to the
* particle timesteps taken afterwards. If this is a transient Goma
* calculation, then this is a multiple of Goma steps. In
* particular, if particles are output on a time strided basis, that
* will be ignored here. */
if(look_for_optional(ifp, "Full output stride", input, '=') == 1)
{
char file_name_temp[MAX_PARTICLE_FILENAME_LENGTH];
if(fscanf(ifp, "%d", &Particle_Full_Output_Stride) != 1)
EH(-1, "Problem reading Full output stride card.");
if(!fgets(file_name_temp, MAX_PARTICLE_FILENAME_LENGTH, ifp))
EH(-1, "Problem reading Full output stride card.");
strip(file_name_temp);
strncpy(Particle_Full_Output_Filename, file_name_temp, MAX_PARTICLE_FILENAME_LENGTH);
printf("Setting full output every %d steps to file %s\n", Particle_Full_Output_Stride, Particle_Full_Output_Filename);
}
else
{
Particle_Full_Output_Stride = 0;
sprintf(Particle_Full_Output_Filename, "<not active>");
}
/* General description for number of particles to track, and how
* many of them. Can specify multiple selections, and the particles
* will be separate samples. Subject to total number of particles,
* of course... */
look_for(ifp, "Number of sample types", input, '=');
if(fscanf(ifp, "%d", &Particle_Number_Sample_Types) != 1)
EH(-1, "Problem reading Number of sample types card.");
printf("Setting Particle_Number_Sample_Types = %d\n", Particle_Number_Sample_Types);
if(Particle_Number_Sample_Types)
{
Particle_Number_Samples_Existing = (int *)array_alloc(1, Particle_Number_Sample_Types, sizeof(int));
Particle_Number_Samples = (int *)array_alloc(1, Particle_Number_Sample_Types, sizeof(int));
Particle_Number_Output_Variables = (int *)array_alloc(1, Particle_Number_Sample_Types, sizeof(int));
Particle_Output_Variables = (particle_variable_s **)
array_alloc(1, Particle_Number_Sample_Types, sizeof(particle_variable_s *));
Particle_Filename_Template = (particle_filename_s *)array_alloc(1, Particle_Number_Sample_Types, sizeof(particle_filename_s));
}
else
{
Particle_Number_Samples_Existing = NULL;
Particle_Number_Samples = NULL;
Particle_Number_Output_Variables = NULL;
Particle_Output_Variables = NULL;
Particle_Filename_Template = NULL;
}
for(i = 0; i < Particle_Number_Sample_Types; i++)
{
look_for(ifp, "Sample", input, '=');
if(fscanf(ifp, "%d", &Particle_Number_Samples[i]) != 1)
EH(-1, "Error reading number of particle samples.");
if(Particle_Number_Samples[i] > 0)
printf("Sample %d contains %d particles", i, Particle_Number_Samples[i]);
else
EH(-1, "Number of particle samples must be > 0.");
if(!fgets(s_tmp, SLEN-1, ifp))
EH(-1, "Error reading sample variables and filename.");
strncpy(s_tmp_save, s_tmp, SLEN);
Particle_Number_Output_Variables[i] = 0;
s_ptr1 = strtok(s_tmp, " \t\n");
while((s_ptr1 = strtok(NULL, " \t\n")))
Particle_Number_Output_Variables[i]++;
s_ptr1 = strtok(s_tmp_save, " \t\n");
if(Particle_Number_Output_Variables[i] > 0)
{
printf(" tracking variable(s)");
Particle_Output_Variables[i] = (particle_variable_s *)calloc(Particle_Number_Output_Variables[i], sizeof(particle_variable_s));
/*
Particle_Output_Variables[i] = (char **)array_alloc(1, Particle_Number_Output_Variables[i], sizeof(char *));
*/
for(j = 0; j < Particle_Number_Output_Variables[i]; j++)
{
if(strlen(s_ptr1) + 1 > MAX_PARTICLE_OUTPUT_VARIABLE_LENGTH)
EH(-1, "Increase MAX_PARTICLE_OUTPUT_VARIABLE_LENGTH");
strncpy(Particle_Output_Variables[i][j], s_ptr1, strlen(s_ptr1) + 1);
printf(" %s", Particle_Output_Variables[i][j]);
s_ptr1 = strtok(NULL, " \t\n");
}
}
if(strlen(s_ptr1) + 1 > MAX_PARTICLE_FILENAME_LENGTH)
EH(-1, "Increase MAX_PARTICLE_FILENAME_LENGTH");
strncpy(Particle_Filename_Template[i], s_ptr1, strlen(s_ptr1) + 1);
Particle_Filename_Template[i][strlen(s_ptr1)] = 0;
printf(" to file %s.\n", Particle_Filename_Template[i]);
}
iread = look_for_optional(ifp, "START OF PBC", input, '=');
if(iread == 1)
{
Particle_Number_PBCs = count_list(ifp, "PBC", input, '=', "END OF PBC");
printf("Found %d PBC's\n", Particle_Number_PBCs);
PBCs = (PBC_t *)calloc(Particle_Number_PBCs, sizeof(PBC_t));
for(i = 0; i < Particle_Number_PBCs; i++)
{
PBC = &PBCs[i];
look_for(ifp, "PBC", input, '=');
if(fscanf(ifp, "%80s", input) != 1)
EH(-1, "Error reading PBC.");
stringup(input);
/* I know it is stupid to do this for an unnecssary token,
* but it makes the input look better... */
if(fscanf(ifp, "%s", s_tmp) != 1)
EH(-1, "Missing SS token on PBC card.");
if(strncmp(s_tmp, "SS", 2))
EH(-1, "Missing SS token on PBC card.");
if(fscanf(ifp, "%d", &(PBC->SS_id)) != 1)
EH(-1, "Error reading SS_id on PBC card.");
if(!strncmp(input, "OUTFLOW", 7))
{
PBC->type = PBC_OUTFLOW;
puts("Found an OUTFLOW PBC.");
}
else if(!strncmp(input, "SOURCE", 6))
{
PBC->type = PBC_SOURCE;
if(fscanf(ifp, "%lf", &(PBC->real_data[0])) != 1)
EH(-1, "Error reading SS specification and float on PBC = SOURCE card.");
printf("Found a SOURCE PBC with source = %g.\n",
PBC->real_data[0]);
}
else if(!strncmp(input, "TARGET", 6))
{
PBC->type = PBC_TARGET;
if(fscanf(ifp, "%s", s_tmp) != 1)
EH(-1, "Missing filename on PBC TARGET card.");
if(strlen(s_tmp) + 1 > MAX_PBC_STRING_DATA_LENGTH)
EH(-1, "Increase MAX_PBC_STRING_DATA_LENGTH");
strncpy(PBC->string_data, s_tmp, strlen(s_tmp) + 1);
printf("Found a TARGET PBC with filename = '%s'.\n",
PBC->string_data);
}
else if(!strncmp(input, "FREESTREAM_SOURCE", 17))
{
PBC->type = PBC_FREESTREAM_SOURCE;
if(fscanf(ifp, "%lf", &(PBC->real_data[0])) != 1)
EH(-1, "Error reading SS specification and float on PBC = FREESTREAM_SOURCE card.");
printf("Found a FREESTREAM_SOURCE PBC with source = %g.\n",
PBC->real_data[0]);
}
else if(!strncmp(input, "IMPERMEABLE", 11))
{
PBC->type = PBC_IMPERMEABLE;
if(fscanf(ifp, "%lf", &(PBC->real_data[0])) != 1)
EH(-1, "Error reading distance factor on PBC = IMPERMEABLE card.");
if(!fgets(s_tmp, SLEN-1, ifp))
EH(-1, "Error reading geometry entity name on PBC = IMPERMEABLE card.");
strip(s_tmp);
if(s_tmp[strlen(s_tmp)-1] == '\n')
s_tmp[strlen(s_tmp)-1] = 0;
if(strlen(s_tmp) + 1 > MAX_PBC_STRING_DATA_LENGTH)
EH(-1, "Increase MAX_PBC_STRING_DATA_LENGTH");
strncpy(PBC->string_data, s_tmp, strlen(s_tmp) + 1);
printf("Found an IMPERMEABLE PBC with distance factor = %g to entity '%s'.\n",
PBC->real_data[0], PBC->string_data);
}
else
EH(-1, "Error reading PBC type.");
}
}
else
{
Particle_Number_PBCs = 0;
PBCs = NULL;
}
}
// Perform a DNS query and parse the results. Follows CNAME records.
void SipSrvLookup::res_query_and_parse(const char* in_name,
int type,
res_response* in_response,
const char*& out_name,
res_response*& out_response
)
{
OsSysLog::add(FAC_SIP, PRI_DEBUG,
"SipSrvLookup::res_query_and_parse in_name = '%s', "
"type = %d (%s)",
in_name,type,
type == T_CNAME ? "CNAME" :
type == T_SRV ? "SRV" :
type == T_A ? "A" :
type == T_NAPTR ? "NAPTR" :
"unknown");
// The number of CNAMEs we have followed.
int cname_count = 0;
// The response currently being examined.
res_response* response = in_response;
// The name currently being examined.
const char* name = in_name;
// TRUE if 'response' was a lookup for 'name' and 'type'.
UtlBoolean response_for_this_name = FALSE;
// Buffer into which to read DNS replies.
char answer[DNS_RESPONSE_SIZE];
union u_rdata* p;
// Loop until we find a reason to exit. Each turn around the loop does
// another DNS lookup.
while (1)
{
// While response != NULL and there is a CNAME record for name
// in response.
while (response != NULL &&
(p = look_for(response, name, T_CNAME)) != NULL)
{
cname_count++;
if (cname_count > SipSrvLookup::getOption(SipSrvLookup::OptionCodeCNAMELimit))
{
break;
}
// If necessary, free the current 'name'.
if (name != in_name)
{
free((void*) name);
}
// Copy the canonical name from the CNAME record into 'name', so
// we can still use it after freeing 'response'.
name = strdup(p->string);
// Remember that we are now looking for a name that was not the one
// that we searched for to produce this response. Hence, if we don't
// find any RRs for it, that is not authoritative and we have to do
// another DNS query.
response_for_this_name = FALSE;
// Go back and check whether the result name of the CNAME is listed
// in this response.
}
// This response does not contain a CNAME for 'name'. So it is either
// a final response that gives us the RRs we are looking for, or
// we need to do a lookup on 'name'.
// Check whether the response was for this name, or contains records
// of the type we are looking for. If either, then any records we
// are looking for are in this response, so we can return.
if (response_for_this_name ||
(response != NULL && look_for(response, name, type) != NULL))
{
break;
}
// We must do another lookup.
// Start by freeing 'response' if we need to.
if (response != in_response)
{
res_free(response);
}
response = NULL;
// Now, 'response' will be from a query for 'name'.
response_for_this_name = TRUE;
// Debugging print.
if (SipSrvLookup::getOption(SipSrvLookup::OptionCodePrintAnswers))
{
printf("res_nquery(\"%s\", class = %d, type = %d)\n",
name, C_IN, type);
}
// Initialize the res state struct and set the timeout to
// 3 secs and retries to 2
struct __res_state res;
res_ninit(&res);
res.retrans = mTimeout;
res.retry = mRetries;
if (!mNameserverIP.isNull())
{
res.nscount = 1;
inet_aton(mNameserverIP.data(), &res.nsaddr_list[0].sin_addr);
if (mNameserverPort > 1)
{
res.nsaddr_list[0].sin_port = htons(mNameserverPort);
}
}
// Use res_nquery, not res_search or res_query, so defaulting rules are not
// applied to the domain, and so that the query is thread-safe.
int r = res_nquery(&res, name, C_IN, type,
(unsigned char*) answer, sizeof (answer));
// Done with res state struct, so cleanup.
// Must close once and only once per res_ninit, after res_nquery.
res_nclose(&res);
if (r == -1)
{
// res_query failed, return.
OsSysLog::add(FAC_SIP, PRI_WARNING,
"DNS query for name '%s', "
"type = %d (%s): returned error",
name, type,
type == T_CNAME ? "CNAME" :
type == T_SRV ? "SRV" :
type == T_A ? "A" :
type == T_NAPTR ? "NAPTR" :
"unknown");
break;
}
response = res_parse((char*) &answer);
if (response == NULL)
{
// res_parse failed, return.
OsSysLog::add(FAC_SIP, PRI_WARNING,
"DNS query for name '%s', "
"type = %d (%s): response could not be parsed",
name, type,
type == T_CNAME ? "CNAME" :
type == T_SRV ? "SRV" :
type == T_A ? "A" :
type == T_NAPTR ? "NAPTR" :
"unknown");
break;
}
// If requested for testing purposes, sort the query and print it.
// Sort first, so we see how sorting came out.
if (SipSrvLookup::getOption(SipSrvLookup::OptionCodeSortAnswers))
{
sort_answers(response);
}
if (SipSrvLookup::getOption(SipSrvLookup::OptionCodePrintAnswers))
{
res_print(response);
}
// Now that we have a fresh DNS query to analyze, go back and check it
// for a CNAME for 'name' and then for records of the requested type.
}
// Final processing: Copy the working name and response to the output
// variables.
out_name = name;
out_response = response;
OsSysLog::add(FAC_SIP, PRI_DEBUG,
"SipSrvLookup::res_query_and_parse out_name = '%s', out_response = %p",
out_name, out_response);
}
static void slice_predicate(parser_context *context)
{
enter_state(context, ST_SLICE_PREDICATE);
int_fast32_t from = INT_FAST32_MIN;
int_fast32_t to = INT_FAST32_MAX;
int_fast32_t extent = 1;
predicate *pred = add_predicate(context, SLICE);
if(!look_for(context, ":"))
{
parser_trace("slice: uh oh! no ':' found, aborting...");
context->result.code = ERR_UNSUPPORTED_PRED_TYPE;
return;
}
skip_ws(context);
if(isdigit(get_char(context)) || '-' == get_char(context) || '+' == get_char(context))
{
parser_trace("slice: parsing from value...");
from = signed_integer(context);
if(JSONPATH_SUCCESS != context->result.code)
{
parser_trace("slice: uh oh! couldn't parse from value, aborting...");
return;
}
parser_trace("slice: found from value: %d", to);
pred->slice.specified |= SLICE_FROM;
}
else
{
parser_trace("slice: no from value specified");
}
skip_ws(context);
if(':' != get_char(context))
{
parser_trace("slice: uh oh! missing ':' between from and to, aborting...");
unexpected_value(context, ':');
return;
}
consume_char(context);
skip_ws(context);
if(isdigit(get_char(context)) || '-' == get_char(context) || '+' == get_char(context))
{
parser_trace("slice: parsing to value...");
to = signed_integer(context);
if(JSONPATH_SUCCESS != context->result.code)
{
parser_trace("slice: uh oh! couldn't parse to value, aborting...");
return;
}
parser_trace("slice: found to value: %d", to);
pred->slice.specified |= SLICE_TO;
}
else
{
parser_trace("slice: no to value specified");
}
skip_ws(context);
if(':' == get_char(context))
{
consume_char(context);
skip_ws(context);
if(isdigit(get_char(context)) || '-' == get_char(context) || '+' == get_char(context))
{
parser_trace("slice: parsing step value...");
extent = signed_integer(context);
if(JSONPATH_SUCCESS != context->result.code)
{
parser_trace("slice: uh oh! couldn't parse step value, aborting...");
return;
}
if(0 == extent)
{
parser_trace("slice: uh oh! couldn't parse step value, aborting...");
context->result.code = ERR_STEP_CANNOT_BE_ZERO;
return;
}
parser_trace("slice: found step value: %d", extent);
pred->slice.specified |= SLICE_STEP;
}
else
{
parser_trace("slice: no step value specified");
}
}
context->result.code = JSONPATH_SUCCESS;
pred->slice.from = from;
pred->slice.to = to;
pred->slice.step = extent;
}
void main(){
FILE *infile;
SYMTAB_ENTRY **symtab=create_symbol_table_array(100);
int eof;
TOKEN *token,t;
NODE *node;
COND *cond;
COND **cond_array=create_cond_array();
int g2_001_LHS_A;
int g3_001_KEYWORDS_A;
int g4_001_RHS_A;
int g5_001_GROUP_SUBTREE_A;
/**************************************************************************/
/**************************************************************************/
/******************* DRIVING PROCEDURE B:\CONDSBLD ********************/
/**************************************************************************/
PROCEDURE_DIVISION:
/**/
/** take the output from the condition*/
/** tokeniser, it consists of an iteration*/
/** of condition number, left hand side,*/
/** a relational operator ie NOT >, or >*/
/** then the right hand side*/
/**/
C1_001_CONDS_BUILD:
goto C1_002_CONDS_START;
C1_002_CONDS_START_EX:
goto C1_003_CONDS_BODY;
C1_003_CONDS_BODY_EX:
goto C1_009_CONDS_END;
C1_009_CONDS_END_EX:
goto veryend;
/**/
C1_002_CONDS_START:
/*001*/ infile=open_input("b:cndout.dat");
/*007*/ load_symtab(symtab,"b:symtable.out");
cross_reference(symtab,100);
/*005*/ token=&t;
/*006*/ eof=get_token(infile,token);
goto C1_002_CONDS_START_EX;
/**/
C1_003_CONDS_BODY:
C1_004_COND_EX:
if(!(
/*C01*/ (eof==1)
))
goto C1_004_COND;
goto C1_003_CONDS_BODY_EX;
/**/
C1_004_COND:
goto C1_005_COND_NUM;
C1_005_COND_NUM_EX:
goto C1_006_LHS;
C1_006_LHS_EX:
goto C1_007_KEYWORDS;
C1_007_KEYWORDS_EX:
goto C1_008_RHS;
C1_008_RHS_EX:
goto C1_004_COND_EX;
/**/
C1_005_COND_NUM:
/*010*/ cond=create_cond();
/*011*/ cond_array[token->value.keyword_number]=cond;
/*006*/ eof=get_token(infile,token);
goto C1_005_COND_NUM_EX;
/**/
C1_006_LHS:
g2_001_LHS_A=0;
goto C2_001_LHS;
C2_001_EXIT01:
goto C1_006_LHS_EX;
/**/
C1_007_KEYWORDS:
g3_001_KEYWORDS_A=0;
goto C3_001_KEYWORDS;
C3_001_EXIT01:
goto C1_007_KEYWORDS_EX;
/**/
C1_008_RHS:
g4_001_RHS_A=0;
goto C4_001_RHS;
C4_001_EXIT01:
goto C1_008_RHS_EX;
/**/
C1_009_CONDS_END:
/*002*/ close_file(infile);
/*004*/ save_cond_array("b:cndout2.dat",cond_array);
goto C1_009_CONDS_END_EX;
/**/
C5_001_GROUP_SUBTREE:
if((
/*C08*/ (token->token_type==RELATIONAL_OP)
))
goto C5_002_RELATIONAL;
if((
/*C09*/ (token->token_type==KEYWORD)
))
goto C5_008_VERB;
C5_002_RELATIONAL_EX:
C5_008_VERB_EX:
C5_001_GROUP_SUBTREE_A:
switch(g5_001_GROUP_SUBTREE_A){
case 0 : goto C5_001_EXIT02;break;
case 1 : goto C5_001_EXIT03;break;
}
/**/
C5_002_RELATIONAL:
goto C5_003_RELATIONAL_BODY;
C5_003_RELATIONAL_BODY_EX:
goto C5_007_RELATIONAL_END;
C5_007_RELATIONAL_END_EX:
goto C5_002_RELATIONAL_EX;
/**/
C5_003_RELATIONAL_BODY:
if((
/*C10*/ (token->value.keyword_number==GREATER_THAN)
))
goto C5_004_GREATER_SYMBOL;
if((
/*C11*/ (token->value.keyword_number==LESS_THAN)
))
goto C5_005_LESS_SYMBOL;
if((
/*C12*/ (token->value.keyword_number==EQUAL_TO)
))
goto C5_006_EQUAL_SYMBOL;
C5_004_GREATER_SYMBOL_EX:
C5_005_LESS_SYMBOL_EX:
C5_006_EQUAL_SYMBOL_EX:
goto C5_003_RELATIONAL_BODY_EX;
/**/
C5_004_GREATER_SYMBOL:
/*014*/ cond->relation.relation=GREATER_THAN;
goto C5_004_GREATER_SYMBOL_EX;
/**/
C5_005_LESS_SYMBOL:
/*015*/ cond->relation.relation=LESS_THAN;
goto C5_005_LESS_SYMBOL_EX;
/**/
C5_006_EQUAL_SYMBOL:
/*016*/ cond->relation.relation=EQUAL_TO;
goto C5_006_EQUAL_SYMBOL_EX;
/**/
C5_007_RELATIONAL_END:
/*006*/ eof=get_token(infile,token);
goto C5_007_RELATIONAL_END_EX;
/**/
C5_008_VERB:
goto C5_009_VERB_BODY;
C5_009_VERB_BODY_EX:
goto C5_019_VERB_END;
C5_019_VERB_END_EX:
goto C5_008_VERB_EX;
/**/
C5_009_VERB_BODY:
if((
/*C13*/ (token->value.keyword_number==GREATER)
))
goto C5_010_GREATER;
if((
/*C14*/ (token->value.keyword_number==LESS)
))
goto C5_013_LESS;
if((
/*C15*/ (token->value.keyword_number==EQUAL)
))
goto C5_016_EQUAL;
C5_010_GREATER_EX:
C5_013_LESS_EX:
C5_016_EQUAL_EX:
goto C5_009_VERB_BODY_EX;
/**/
C5_010_GREATER:
goto C5_011_GREATER;
C5_011_GREATER_EX:
goto C5_012_THAN;
C5_012_THAN_EX:
goto C5_010_GREATER_EX;
/**/
C5_011_GREATER:
/*006*/ eof=get_token(infile,token);
goto C5_011_GREATER_EX;
/**/
C5_012_THAN:
/*014*/ cond->relation.relation=GREATER_THAN;
goto C5_012_THAN_EX;
/**/
C5_013_LESS:
goto C5_014_LESS;
C5_014_LESS_EX:
goto C5_015_THAN;
C5_015_THAN_EX:
goto C5_013_LESS_EX;
/**/
C5_014_LESS:
/*006*/ eof=get_token(infile,token);
goto C5_014_LESS_EX;
/**/
C5_015_THAN:
/*015*/ cond->relation.relation=LESS_THAN;
goto C5_015_THAN_EX;
/**/
C5_016_EQUAL:
goto C5_017_EQUAL;
C5_017_EQUAL_EX:
goto C5_018_TO;
C5_018_TO_EX:
goto C5_016_EQUAL_EX;
/**/
C5_017_EQUAL:
/*006*/ eof=get_token(infile,token);
goto C5_017_EQUAL_EX;
/**/
C5_018_TO:
/*016*/ cond->relation.relation=EQUAL_TO;
goto C5_018_TO_EX;
/**/
C5_019_VERB_END:
/*006*/ eof=get_token(infile,token);
goto C5_019_VERB_END_EX;
/**/
/** skip the IS, take the NOT and the*/
/** relational and build a relational part o*/
/** f the condition*/
/**/
C3_001_KEYWORDS:
goto C3_002_KSTART;
C3_002_KSTART_EX:
goto C3_003_POSS_IS;
C3_003_POSS_IS_EX:
goto C3_005_KEYWORD_GROUP;
C3_005_KEYWORD_GROUP_EX:
C3_001_KEYWORDS_A:
switch(g3_001_KEYWORDS_A){
case 0 : goto C3_001_EXIT01;break;
}
/**/
C3_002_KSTART:
/*023*/ printf("relation bit\n");
goto C3_002_KSTART_EX;
/**/
C3_003_POSS_IS:
if((
/*C05*/ (token->token_type==KEYWORD &&
token->value.keyword_number==IS)
))
goto C3_004_IS;
C3_004_IS_EX:
goto C3_003_POSS_IS_EX;
/**/
C3_004_IS:
/*006*/ eof=get_token(infile,token);
goto C3_004_IS_EX;
/**/
C3_005_KEYWORD_GROUP:
if((
/*C06*/ (token->token_type==KEYWORD &&
token->value.keyword_number==NOT)
))
goto C3_006_NOT_GROUP;
if((
/*C07*/ (token->token_type==KEYWORD ||
token->token_type==RELATIONAL_OP)
))
goto C3_010_NOT_NOT_GROUP;
C3_006_NOT_GROUP_EX:
C3_010_NOT_NOT_GROUP_EX:
goto C3_005_KEYWORD_GROUP_EX;
/**/
C3_006_NOT_GROUP:
goto C3_007_NOT;
C3_007_NOT_EX:
goto C3_008_GROUP;
C3_008_GROUP_EX:
goto C3_006_NOT_GROUP_EX;
/**/
C3_007_NOT:
/*006*/ eof=get_token(infile,token);
/*017*/ cond->relation.not=YES_STATUS;
goto C3_007_NOT_EX;
/**/
C3_008_GROUP:
goto C3_009_GROUP_SUBTREE;
C3_009_GROUP_SUBTREE_EX:
goto C3_008_GROUP_EX;
/**/
C3_009_GROUP_SUBTREE:
g5_001_GROUP_SUBTREE_A=0;
goto C5_001_GROUP_SUBTREE;
C5_001_EXIT02:
goto C3_009_GROUP_SUBTREE_EX;
/**/
C3_010_NOT_NOT_GROUP:
goto C3_011_GROUP;
C3_011_GROUP_EX:
goto C3_010_NOT_NOT_GROUP_EX;
/**/
C3_011_GROUP:
goto C3_012_GROUP_SUBTREE;
C3_012_GROUP_SUBTREE_EX:
goto C3_011_GROUP_EX;
/**/
C3_012_GROUP_SUBTREE:
g5_001_GROUP_SUBTREE_A=1;
goto C5_001_GROUP_SUBTREE;
C5_001_EXIT03:
goto C3_012_GROUP_SUBTREE_EX;
/**/
C4_001_RHS:
goto C4_002_RHS_START;
C4_002_RHS_START_EX:
goto C4_003_RHS_BODY;
C4_003_RHS_BODY_EX:
goto C4_007_RHS_END;
C4_007_RHS_END_EX:
C4_001_RHS_A:
switch(g4_001_RHS_A){
case 0 : goto C4_001_EXIT01;break;
}
/**/
C4_002_RHS_START:
/*022*/ printf("right hand side\n");getchar();
/*021*/ cond->relation.not=NO_STATUS;
goto C4_002_RHS_START_EX;
/**/
C4_003_RHS_BODY:
if((
/*C02*/ (token->token_type==NUMERIC)
))
goto C4_004_INTEGER;
if((
/*C03*/ (token->token_type==VARIABLE_NAME)
))
goto C4_005_VARIABLE;
if((
/*C04*/ (token->token_type==NON_NUMERIC_LITERAL)
))
goto C4_006_STRING;
C4_004_INTEGER_EX:
C4_005_VARIABLE_EX:
C4_006_STRING_EX:
goto C4_003_RHS_BODY_EX;
/**/
C4_004_INTEGER:
/*018*/ cond->rhs.type=SIDE_LITERAL;
cond->rhs.contents.numeric_literal=token->value.keyword_number;
/*025*/ printf("numeric value \n");
goto C4_004_INTEGER_EX;
/**/
C4_005_VARIABLE:
/*009*/ node=look_for(token->value.var_values.unique,
token->value.var_values.hash,
symtab);
/*020*/ cond->rhs.type=SIDE_VAR;
cond->rhs.contents.variable=node;
/*026*/ printf("variable\n");
goto C4_005_VARIABLE_EX;
/**/
C4_006_STRING:
/*019*/ cond->rhs.type=SIDE_NON_LITERAL;
cond->rhs.contents.non_numeric_literal=token->value.string;
/*028*/ printf("string2\n");
goto C4_006_STRING_EX;
/**/
C4_007_RHS_END:
/*006*/ eof=get_token(infile,token);
goto C4_007_RHS_END_EX;
/**/
C2_001_LHS:
goto C2_002_LHS_START;
C2_002_LHS_START_EX:
goto C2_003_LHS_BODY;
C2_003_LHS_BODY_EX:
goto C2_007_LHS_END;
C2_007_LHS_END_EX:
C2_001_LHS_A:
switch(g2_001_LHS_A){
case 0 : goto C2_001_EXIT01;break;
}
/**/
C2_002_LHS_START:
/*024*/ printf("lefthand side\n");
goto C2_002_LHS_START_EX;
/**/
C2_003_LHS_BODY:
if((
/*C02*/ (token->token_type==NUMERIC)
))
goto C2_004_INTEGER;
if((
/*C03*/ (token->token_type==VARIABLE_NAME)
))
goto C2_005_VARIABLE;
if((
/*C04*/ (token->token_type==NON_NUMERIC_LITERAL)
))
goto C2_006_STRING;
C2_004_INTEGER_EX:
C2_005_VARIABLE_EX:
C2_006_STRING_EX:
goto C2_003_LHS_BODY_EX;
/**/
C2_004_INTEGER:
/*003*/ cond->lhs.type=SIDE_LITERAL;
/*008*/ cond->lhs.contents.numeric_literal=token->value.keyword_number;
/*025*/ printf("numeric value \n");
goto C2_004_INTEGER_EX;
/**/
C2_005_VARIABLE:
/*009*/ node=look_for(token->value.var_values.unique,
token->value.var_values.hash,
symtab);
/*013*/ cond->lhs.contents.variable=node;
cond->lhs.type=SIDE_VAR;
/*026*/ printf("variable\n");
goto C2_005_VARIABLE_EX;
/**/
C2_006_STRING:
/*012*/ cond->lhs.type=SIDE_NON_LITERAL;
cond->lhs.contents.non_numeric_literal=token->value.string;
/*027*/ printf("string\n");
goto C2_006_STRING_EX;
/**/
C2_007_LHS_END:
/*006*/ eof=get_token(infile,token);
goto C2_007_LHS_END_EX;
/**/
/* Data Analysis Map*/
/**/
/* ------------- Data Analysis By -------------*/
/**/
/* BOX TYPE OPERATION ALLOCATION*/
/* Tree name: CONDS-BUILD*/
/**/
/* Leaf : 3 Operations: 9*/
/* Quits : 0*/
/* Selections: 0*/
/* Sequences : 2*/
/* Iterations: 1*/
/* Backtracks: 0*/
/* Subtrees : 3 --> LHS*/
/* KEYWORDS*/
/* RHS*/
/**/
/* Tree name: GROUP-SUBTREE*/
/**/
/* Leaf : 11 Operations: 11*/
/* Quits : 0*/
/* Selections: 3*/
/* Sequences : 5*/
/* Iterations: 0*/
/* Backtracks: 0*/
/* Subtrees : 0*/
/**/
/* Tree name: KEYWORDS*/
/**/
/* Leaf : 3 Operations: 4*/
/* Quits : 0*/
/* Selections: 2*/
/* Sequences : 5*/
/* Iterations: 0*/
/* Backtracks: 0*/
/* Subtrees : 2 --> GROUP-SUBTREE*/
/* GROUP-SUBTREE*/
/**/
/* Tree name: RHS*/
/**/
/* Leaf : 5 Operations: 10*/
/* Quits : 0*/
/* Selections: 1*/
/* Sequences : 1*/
/* Iterations: 0*/
/* Backtracks: 0*/
/* Subtrees : 0*/
/**/
/* Tree name: LHS*/
/**/
/* Leaf : 5 Operations: 10*/
/* Quits : 0*/
/* Selections: 1*/
/* Sequences : 1*/
/* Iterations: 0*/
/* Backtracks: 0*/
/* Subtrees : 0*/
/**/
/**/
/**/
veryend: ;
}
void do_editmode(struct block * sb) {
if (sb->value == 'h' || sb->value == OKEY_LEFT) { // LEFT
inputline_pos = back_char();
} else if (sb->value == 'l' || sb->value == OKEY_RIGHT) { // RIGHT
inputline_pos = for_char();
} else if (sb->value == 'x') { // x
del_back_char();
} else if (sb->value == 'X') { // X
del_for_char();
} else if (sb->value == ' ' && ( strlen(inputline) < (COLS - 14) ) ) { // SPACE
add_char(inputline, ' ', inputline_pos);
} else if (sb->value == 'r') { // r
curs_set(1);
int c = get_key();
if (c != -1) inputline[inputline_pos] = c;
curs_set(2);
} else if (sb->value == 'R') { // R
curs_set(1);
int c = get_key();
while (c != OKEY_ENTER && c != -1) {
if (isprint(c)) {
inputline[inputline_pos] = c;
++inputline_pos;
mvwprintw(input_win, 0, 1 + rescol, "%s", inputline);
wmove(input_win, 0, inputline_pos + 1 + rescol);
wrefresh(input_win);
}
c = get_key();
}
curs_set(2);
} else if (sb->value == 'f') { // f
int c = get_key();
if (c != -1) inputline_pos = look_for(c);
} else if (sb->value == 'd' || sb->value == 'c') { // d or c
int c, d;
if ( (c = get_key()) != -1 ) {
switch (c) {
case 'e': // de or ce
del_range_chars(inputline, inputline_pos, for_word(1, 0, 0));
break;
case 'E': // dE or cE
del_range_chars(inputline, inputline_pos, for_word(1, 0, 1));
break;
case 'w': // dw or cw
del_range_chars(inputline, inputline_pos, for_word(0, 1, 0) - 1);
if (inputline_pos == strlen(inputline) && inputline_pos) inputline_pos--;
break;
case 'W': // dW or cW
del_range_chars(inputline, inputline_pos, for_word(0, 1, 1) - 1);
if (inputline_pos == strlen(inputline) && inputline_pos) inputline_pos--;
break;
case 'b': // db or cb
d = back_word(0);
del_range_chars(inputline, d, inputline_pos-1);
inputline_pos = d;
break;
case 'B': // dB or cB
d = back_word(1);
del_range_chars(inputline, d, inputline_pos-1);
inputline_pos = d;
break;
case 'l': // dl or cl
case OKEY_RIGHT:
del_back_char();
break;
case 'h': // dh or ch
case OKEY_LEFT:
del_for_char();
break;
case 'a':
if ( (d = get_key()) == 'W' ) { // daW or caW
c = ( inputline_pos && inputline[inputline_pos-1] == ' ' ) ? inputline_pos : back_word(1);
del_range_chars(inputline, c, for_word(0, 1, 1) - 1);
inputline_pos = (strlen(inputline) > inputline_pos) ? c : strlen(inputline)-2;
} else if ( d == 'w' ) { // daw or caw
d = ( inputline_pos && ! istext( inputline[inputline_pos-1]) ) ? inputline_pos : back_word(0);
del_range_chars(inputline, d, for_word(0, 1, 0) - 1);
inputline_pos = (strlen(inputline) > inputline_pos) ? d : strlen(inputline)-2;
}
break;
}
if (sb->value == 'c') chg_mode(insert_edit_submode);
}
} else if (find_val(sb, OKEY_ENTER)) { // ENTER
insert_or_edit_cell();
return;
} else if (sb->value == '$') { // $
inputline_pos = strlen(inputline) - 1;
} else if (sb->value == 'w') { // w
inputline_pos = for_word(0, 0, 0);
} else if (sb->value == 'W') { // W
inputline_pos = for_word(0, 0, 1);
} else if (sb->value == 'e') { // e
inputline_pos = for_word(1, 0, 0);
} else if (sb->value == 'E') { // E
inputline_pos = for_word(1, 0, 1);
} else if (sb->value == 'b') { // b
inputline_pos = back_word(0);
} else if (sb->value == 'B') { // B
inputline_pos = back_word(1);
} else if (sb->value == '0') { // 0
inputline_pos = 0;
} else if (sb->value == 'a') { // a
inputline_pos++;
chg_mode(insert_edit_submode);
} else if (sb->value == 'i' || sb->value == '=') { // i o =
chg_mode(insert_edit_submode);
} else if (sb->value == 's') { // s
if (inputline_pos <= strlen(inputline)) del_char(inputline, inputline_pos);
chg_mode(insert_edit_submode);
} else if (sb->value == 'A') { // A
inputline_pos = strlen(inputline);
chg_mode(insert_edit_submode);
} else if (sb->value == 'I') { // I
inputline_pos = 0;
chg_mode(insert_edit_submode);
} else if (sb->value == 'D') { // D
inputline_pos = 0;
inputline[0] = '\0';
chg_mode(insert_edit_submode);
}
show_header(input_win);
return;
}