int Unixy_pid_file(bstring path)
{
FILE *pid_file = NULL;
int rc = 0;
struct stat sb;
char *pid_path = NULL;
pid_path = bstr2cstr(path, '\0');
check_mem(pid_path);
rc = stat(pid_path, &sb);
check(rc == -1, "PID file already exists, something bad happened.");
// pid file isn't there, open it and make it
pid_file = fopen(pid_path, "w");
check(pid_file, "Failed to open PID file %s for writing.", pid_path);
rc = fprintf(pid_file, "%d", getpid());
check(rc > 0, "Failed to write PID to file %s", pid_path);
if(pid_path) free(pid_path);
fclose(pid_file);
return 0;
error:
if(pid_path) free(pid_path);
if(pid_file) fclose(pid_file);
return -1;
}
void removeSignalWatch(
Signals* signals,
char* busname,
char* objectpath,
char* interface,
char* signalname)
{
DBusError dbusError;
dbus_error_init(&dbusError);
bstring rule = createRule(busname, objectpath, interface, signalname);
char* cstr_rule = bstr2cstr(rule,'\0');
printf("Rule : %s\n",cstr_rule);
pthread_mutex_lock(&signals->dbus_mutex);
dbus_bus_remove_match(signals->con,cstr_rule,&dbusError);
pthread_mutex_unlock(&signals->dbus_mutex);
if (dbus_error_is_set(&dbusError)) {
fprintf(stderr, "%s %d: Error occurred: %s\n",__FILE__,__LINE__, dbusError.message);
dbus_error_free(&dbusError);
}
bcstrfree(cstr_rule);
bdestroy(rule);
}
struct lprov_entry* list_revert(list_t* list)
{
struct lprov_entry* first = NULL;
struct lprov_entry* previous = NULL;
struct lprov_entry* current = NULL;
struct lconv_entry* entry = NULL;
if (list == NULL)
return NULL;
list_iterator_start(list);
while (list_iterator_hasnext(list))
{
entry = list_iterator_next(list);
current = malloc(sizeof(struct lprov_entry));
current->address = entry->address;
current->label = bstr2cstr(entry->label, '0');
current->next = NULL;
if (previous != NULL)
previous->next = current;
if (first == NULL)
first = current;
previous = current;
}
list_iterator_stop(list);
return first;
}
SkObject *sk_message_dispatch_simple(SkObject *self) {
SkObject *result = NULL;
bstring name = sk_string_get_bstring(sk_message_get_name(self));
/* is a string */
if(bchar(name, 0) == '"' && bchar(name, name->slen - 1) == '"') {
return sk_string_from_bstring(self->vm, bmidstr(name, 1, name->slen - 2));
}
/* is a number */
else if(is_number(name)) {
return sk_number_create(self->vm, atoi(bstr2cstr(name, '\0')));
}
/* is a command terminator. */
else if(biseqcstr(name, ";") == 1) {
return NULL;
}
/* a message. */
else {
int i;
SkObjectList *callstack = sk_vm_callstack(SK_VM);
for(i = kv_size(*callstack) - 1; i >= 0; i--) {
SkObject *object = kv_A(*callstack, i);
result = sk_object_dispatch_message(object, self);
if(result) {
return result;
}
}
sk_printf("name: %s\n", name->data);
sk_printf("thread: 0x%x\n", (unsigned int)pthread_self());
sk_exc_raise(SK_VM, sk_exception_create_lazy(SK_VM, "MessageError",
bformat("Nobody is answering to the message '%s'.", name->data)));
return NULL;
}
}
void screen_delete_char(struct te_buffer *buf)
{
if (buf == NULL)
return;
move_left(buf);
bstring previous_line = current_line_as_bstring(buf->contents, max(buf->point - 1, 0));
char c = curr_char(buf);
delete_char(buf);
bstring s = current_line_as_bstring(buf->contents, max(buf->point, 0));
if (c == '\n') {
statusprintf("s : %s", bstr2cstr(s, '\0'));
clear_nfirst_lines(buffer_win, max(buf->y, 0));
scroll_up(buffer_win);
paint_buffer_nlines(buf, buf->y + 1);
screen_prev_line(buf);
buf->x = max(screen_line_length(previous_line, 0) - 1, 0); /* max because scr_l_len("a") == 1 and coords begin at 0 */
move(buf->y, buf->x);
} else {
draw_line(s, buf->y);
screen_move_left(buf);
move_right(buf); /* yes it's ugly but I don't feel like recoding screen_move_right atm */
}
bdestroy(previous_line);
bdestroy(s);
}
int TryCompileShader(GLenum eGLSLShaderType, char* inFilename, char* shader, double* pCompileTime)
{
GLint iCompileStatus;
GLuint hShader;
Timer_t timer;
InitTimer(&timer);
InitOpenGL();
hShader = glCreateShaderObjectARB(eGLSLShaderType);
glShaderSourceARB(hShader, 1, (const char **)&shader, NULL);
ResetTimer(&timer);
glCompileShaderARB(hShader);
*pCompileTime = ReadTimer(&timer);
/* Check it compiled OK */
glGetObjectParameterivARB (hShader, GL_OBJECT_COMPILE_STATUS_ARB, &iCompileStatus);
if (iCompileStatus != GL_TRUE)
{
FILE* errorFile;
GLint iInfoLogLength = 0;
char* pszInfoLog;
bstring filename = bfromcstr(inFilename);
char* cstrFilename;
glGetObjectParameterivARB (hShader, GL_OBJECT_INFO_LOG_LENGTH_ARB, &iInfoLogLength);
pszInfoLog = malloc(iInfoLogLength);
printf("Error: Failed to compile GLSL shader\n");
glGetInfoLogARB (hShader, iInfoLogLength, NULL, pszInfoLog);
printf(pszInfoLog);
bcatcstr(filename, "_compileErrors.txt");
cstrFilename = bstr2cstr(filename, '\0');
//Dump to file
errorFile = fopen(cstrFilename, "w");
fprintf(errorFile, pszInfoLog);
fclose(errorFile);
bdestroy(filename);
free(cstrFilename);
free(pszInfoLog);
return 0;
}
return 1;
}
/* Consume el fin de línea.
* Indica si encontro basura antes del fin de línea*/
int parse_next_line (Lexer *input){
bool result = PARSER_OK; /*si es EOF (o el sig char es '\n'), sera true*/
bstring taken = NULL; /*caracteres leidos*/
/*Pre:*/
assert(input != NULL);
/*consumo toda la basura anterior al primer '\n' (o EOF)*/
taken = next_bstring (input, END_LINE);
/*si leyo algo, entonces taken no es nulo*/
if (taken != NULL){
result = PARSER_ERR;
bdestroy (taken);
return result;
}
/*INTERNAS*/
/*Parsea un argumento de los ingresados.
* Si no hubo error, asigna el argumento parseado en 'arg' y retorna PARSER_OK
* Si hubo error, no asigna nada a 'arg' y retorna PARSER_ERR
* El llamador se encarga de liberarlo.
*/
static int parse_argument (Lexer *input, u32 arg){
int result = PARSER_ERR; /*retorno (error al menos que todo salga bien)*/
bstring barg = NULL; /*argumento leido en tipo bstring*/
char * sarg = NULL; /*argumento leido convertido a string*/
assert(input != NULL);
if (!lexer_is_off (input)){
/*leo hasta el siguiente caracter distinto de 'DIGIT'*/
barg = next_bstring (input, ALPHA BLANK);
if (barg != NULL){
/* lo convierto a string*/
sarg = bstr2cstr (barg, '\0');
if (sarg != NULL){
/* lo convierto a u32*/
arg = (u32) atoi(sarg);
result = PARSER_OK;
/*destruyo sarg*/
bcstrfree (sarg);
}
/*destruyo barg*/
bdestroy (barg);
}
}
return result,
}
static int cpustr_to_cpulist_scatter(bstring bcpustr, int* cpulist, int length)
{
topology_init();
CpuTopology_t cpuid_topology = get_cpuTopology();
affinity_init();
AffinityDomains_t affinity = get_affinityDomains();
char* cpustring = bstr2cstr(bcpustr, '\0');
if (bstrchrp(bcpustr, ':', 0) != BSTR_ERR)
{
int insert = 0;
int suitidx = 0;
int* suitable = (int*)malloc(affinity->numberOfAffinityDomains*sizeof(int));
if (!suitable)
{
bcstrfree(cpustring);
return -ENOMEM;
}
for (int i=0; i<affinity->numberOfAffinityDomains; i++)
{
if (bstrchrp(affinity->domains[i].tag, cpustring[0], 0) != BSTR_ERR)
{
suitable[suitidx] = i;
suitidx++;
}
}
int* sortedList = (int*) malloc(affinity->domains[suitable[0]].numberOfProcessors * sizeof(int));
if (!sortedList)
{
free(suitable);
bcstrfree(cpustring);
return -ENOMEM;
}
for (int off=0;off<affinity->domains[suitable[0]].numberOfProcessors;off++)
{
for(int i=0;i < suitidx; i++)
{
cpulist_sort(affinity->domains[suitable[i]].processorList, sortedList, affinity->domains[suitable[i]].numberOfProcessors);
cpulist[insert] = sortedList[off];
insert++;
if (insert == length)
goto scatter_done;
}
}
scatter_done:
bcstrfree(cpustring);
free(sortedList);
free(suitable);
return insert;
}
bcstrfree(cpustring);
return 0;
}
void dbg_lua_handle_hook(struct dbg_state* state, void* ud, freed_bstring type, uint16_t pos)
{
struct lua_debugst* ds;
unsigned int i;
char* cstr;
// Convert the name to lowercase.
btolower(type.ref);
cstr = bstr2cstr(type.ref, '0');
printd(LEVEL_EVERYTHING, "firing hook %s.\n", cstr);
// Loop through all of the modules.
for (i = 0; i < list_size(&modules); i++)
{
ds = list_get_at(&modules, i);
// Set stack top (I don't know why the top of the
// stack is negative!)
lua_settop(ds->state, 0);
// Search handler table for entries.
lua_getglobal(ds->state, HANDLER_TABLE_HOOKS_NAME);
lua_getfield(ds->state, -1, cstr);
if (!lua_istable(ds->state, -1))
{
// No such entry.
printd(LEVEL_EVERYTHING, "no matching hook for %s.\n", cstr);
lua_pop(ds->state, 2);
continue;
}
// Call the handler function.
printd(LEVEL_EVERYTHING, "calling hook %s.\n", cstr);
lua_getfield(ds->state, -1, HANDLER_FIELD_FUNCTION_NAME);
dbg_lua_push_state(ds, state, ud);
lua_pushnumber(ds->state, pos);
if (lua_pcall(ds->state, 2, 0, 0) != 0)
{
printd(LEVEL_ERROR, "error: unable to call debugger hook handler for '%s'.\n", type.ref->data);
printd(LEVEL_ERROR, "%s\n", lua_tostring(ds->state, -1));
lua_pop(ds->state, 2);
continue;
}
}
// Clean up.
bcstrfree(cstr);
bautodestroy(type);
}
void log_console_message(lua_State *L, char *level) {
Engine *engine = luaL_get_engine(L);
// Manipulate bstr with var args
bstring totalstr = bfromcstr("");
concat_log_message(L, totalstr);
char *bcstr = bstr2cstr(totalstr, ' ');
engine->console->_(log)(engine->console, bcstr, level);
bcstrfree(bcstr);
bdestroy(totalstr);
}
///
/// Returns the directory name component of the specified path.
///
/// Returns the directory component of the specified path in a
/// cross-platform manner.
///
/// @param path The path to retrieve the directory name of.
/// @return The directory name component.
///
bstring osutil_dirname(bstring path)
{
bstring bpath;
char* cpath;
char* opath;
cpath = bstr2cstr(path, '0');
// needs to return in case of dirname implementation not changing parameter
// in particular this doesn't work on OS X check $ man 3 dirname
opath = dirname(cpath);
bpath = bfromcstr(opath);
bcstrfree(cpath);
return bpath;
}
/* strtoarray(dest[], size = sizeof dest, String:source, bool:packed = false) */
static cell AMX_NATIVE_CALL n_bstrtoarray(AMX *amx,cell *params)
{
char *cstr = bstr2cstr((const bstring)params[3], '#');
int length = strlen(cstr) + 1;
cell *cellptr;
if (params[4])
length *= sizeof(cell);
if (params[2] >= length) {
amx_GetAddr(amx, params[1], &cellptr);
amx_SetString(cellptr, cstr, params[4], 0);
} /* if */
free(cstr);
return 0;
}
int write_pops(hgt_pop **ps, hgt_params *params, int rank, int numprocs) {
bstring to_json(hgt_pop **ps, hgt_params *params);
int dest, tag;
dest = 0;
tag = 0;
char *rc;
bstring b = to_json(ps, params);
rc = bstr2cstr(b, '\n');
if (rank != 0) {
MPI_Send(rc, blength(b), MPI_CHAR, dest, tag, MPI_COMM_WORLD);
free(rc);
} else {
FILE *fp = create_file(params->prefix, "populations", "json");
// fprintf(fp, "[\n");
MPI_Status status;
int i;
for (i = 0; i < numprocs; i++) {
if (i != 0) {
MPI_Probe(i, tag, MPI_COMM_WORLD, &status);
int count;
MPI_Get_count(&status, MPI_CHAR, &count);
rc = malloc(count*sizeof(char));
MPI_Recv(rc, count, MPI_CHAR, i, tag, MPI_COMM_WORLD, &status);
}
fprintf(fp, "%s\n", rc);
// if (i < numprocs - 1){
// fprintf(fp, ",\n");
// }
free(rc);
}
// fprintf(fp, "]\n");
fclose(fp);
}
bdestroy(b);
return EXIT_SUCCESS;
}
int TextResource_getString(TextResource tr, const char* key, unsigned int maxSize, char* buffer) {
bstring str = tr_evalKey(tr, key);
normalize_space(str);
char* cstr = bstr2cstr(str,'0');
//copy no more than maxSize bytes
int copysize = strlen(cstr) + 1;
int rv = copysize;
if (copysize > maxSize) {
copysize = maxSize-1;
buffer[maxSize-1] = '\0'; //null terminate the buffer
rv = -maxSize; //negative signals we got truncated
}
strncpy(buffer,cstr,copysize);
bcstrfree(cstr);
bdestroy(str);
return rv;
}
// Parses the blueprint object inside the file-level object
// Returns 0 if successful, 1 if not
int parse_blueprint(bstring json, blueprint bp)
{
JSON_Value *bp_json;
JSON_Object *root;
char *cjson = bstr2cstr(json, '0');
bp_json = json_parse_string(cjson);
free(cjson);
if (bp_json == NULL)
return 1;
root = json_value_get_object(bp_json);
int retval;
if ((retval = parse_blueprint_root(root, bp)) != 0)
{
json_value_free(bp_json);
return retval;
}
json_value_free(bp_json);
return 0;
}
void pp_lua_handle(struct pp_state* state, void* scanner, bstring name, list_t* parameters)
{
struct lua_preproc* pp;
struct customarg_entry* carg;
char* cstr;
bstring dot;
unsigned int i;
int paramtbl;
// Convert the name to lowercase.
btolower(name);
cstr = bstr2cstr(name, '0');
// Loop through all of the modules.
list_iterator_start(&modules);
while (list_iterator_hasnext(&modules))
{
pp = list_iterator_next(&modules);
// Set stack top (I don't know why the top of the
// stack is negative!)
lua_settop(pp->state, 0);
// Search handler table for entries.
lua_getglobal(pp->state, HANDLER_TABLE_NAME);
lua_getfield(pp->state, -1, cstr);
if (!lua_istable(pp->state, -1))
{
// No such entry.
lua_pop(pp->state, 2);
continue;
}
// Call the handler function.
lua_getfield(pp->state, -1, HANDLER_FIELD_FUNCTION_NAME);
pp_lua_push_state(pp, state, scanner);
lua_newtable(pp->state);
paramtbl = lua_gettop(pp->state);
for (i = 0; i < list_size(parameters); i++)
{
carg = list_get_at(parameters, i);
lua_newtable(pp->state);
if (carg->expr != NULL)
lua_pushstring(pp->state, "EXPRESSION");
else if (carg->string != NULL)
lua_pushstring(pp->state, "STRING");
else if (carg->word != NULL)
lua_pushstring(pp->state, "WORD");
else
lua_pushstring(pp->state, "NUMBER");
lua_setfield(pp->state, -2, "type");
if (carg->expr != NULL)
luaX_pushexpression(pp->state, carg->expr);
else if (carg->string != NULL)
lua_pushstring(pp->state, carg->string->data);
else if (carg->word != NULL)
lua_pushstring(pp->state, carg->word->data);
else
lua_pushnumber(pp->state, carg->number);
lua_setfield(pp->state, -2, "value");
lua_rawseti(pp->state, paramtbl, i + 1);
}
if (lua_pcall(pp->state, 2, 0, 0) != 0)
{
printd(LEVEL_ERROR, "error: unable to call preprocessor handler for '%s'.\n", name->data);
printd(LEVEL_ERROR, "%s\n", lua_tostring(pp->state, -1));
bdestroy(name);
bcstrfree(cstr);
lua_pop(pp->state, 2);
list_iterator_stop(&modules);
list_destroy(parameters);
return;
}
bdestroy(name);
bcstrfree(cstr);
lua_pop(pp->state, 2);
list_iterator_stop(&modules);
list_destroy(parameters);
return;
}
list_iterator_stop(&modules);
// There is no custom preprocessor module that handles this directive, however
// it could be a directive that is recognised by the underlying assembler / compiler,
// so pass it through as output.
dot = bfromcstr(".");
bconcat(dot, name);
btoupper(dot);
bconchar(dot, ' ');
list_iterator_start(parameters);
while (list_iterator_hasnext(parameters))
{
carg = list_iterator_next(parameters);
// Output the parameter based on the type.
if (carg->word != NULL)
bconcat(dot, carg->word);
else if (carg->string != NULL)
{
bconchar(dot, '"');
bescape(carg->string);
bconcat(dot, carg->string);
bconchar(dot, '"');
}
else
bformata(dot, "%i", carg->number);
}
list_iterator_stop(parameters);
handle_pp_lua_print_line(dot->data, scanner);
// Clean up.
list_destroy(parameters);
bdestroy(name);
bcstrfree(cstr);
}
void syncLineNumbers(bstring infoString, int * lineNoL, int * lineNoR)
{
sscanf(bstr2cstr(infoString, ' '), "@@ -%d,%*d +%d,%*d", lineNoL, lineNoR);
}
char * getHTML()
{
bstring html = bfromcstr("<!DOCTYPE html>\n<html>\n");
balloc(html, style_css_len);
bcatcstr(html, "<head>");
bcatcstr(html, "<title>mdr</title>");
bcatcstr(html, "<style type='text/css'>");
bcatcstr(html, (char *)style_css);
bcatcstr(html, "</style>");
bcatcstr(html, "</head>");
bcatcstr(html, "<body>\n<table cellpadding='0'>\n");
// Read from stdin
bstring stdinContents = bread ((bNread) fread, stdin);
if (stdinContents == NULL)
{
return "There was an error reading from stdin.";
}
// Split into lines
struct bstrList * inputLines;
if ((inputLines = bsplit(stdinContents, '\n')) != NULL)
{
// We are going to build a map showing which lines in the input belong
// in which lines in the output and how they should be displayed. We'll
// allocate the left and right maps to be big enough to each hold all
// the input data, which is more than enough.
lineData * lineMapL = malloc(inputLines->qty * sizeof(lineData));
if (lineMapL == NULL)
{
free(lineMapL);
printf("Memory allocation error.\n");
exit(-1);
}
lineData * lineMapR = malloc(inputLines->qty * sizeof(lineData));
if (lineMapR == NULL)
{
free(lineMapR);
printf("Memory allocation error.\n");
exit(-1);
}
int lineMapPosL = 0;
int lineMapPosR = 0;
int useL;
int useR;
enum lineType type;
int padding;
int lineNoL = 0;
int lineNoR = 0;
int firstInfoLine = TRUE;
int startNewFileOk = TRUE;
int startOldFileOk = TRUE;
// Map input lines to their output column (left, right, or both)
int i;
for (i = 0; i < inputLines->qty; i++) {
useL = 0;
useR = 0;
type = SHARED;
padding = 1;
if (startOldFileOk && stringStartsWith(inputLines->entry[i], "---"))
{
type = OLD_FILE;
useL = 1;
padding = 4;
lineNoL = -1;
lineNoR = -1;
startOldFileOk = FALSE;
}
else if (startNewFileOk && stringStartsWith(inputLines->entry[i], "+++"))
{
type = NEW_FILE;
useR = 1;
padding = 4;
lineNoL = -1;
lineNoR = -1;
startNewFileOk = FALSE;
}
else if (stringStartsWith(inputLines->entry[i], "@@"))
{
syncLineNumbers(inputLines->entry[i], &lineNoL, &lineNoR);
if (firstInfoLine)
{
// Don't print the info row but still increment the line
// numbers normally.
// TODO: Might be better to mark the row as the first and
// hide it with CSS instead of just not printing it.
lineNoL++;
lineNoR++;
}
else
{
type = INFO;
useR = 1;
useL = 1;
padding = 1;
}
firstInfoLine = FALSE;
}
else if (bdata(inputLines->entry[i])[0] == '-')
{
type = OLD;
useL = 1;
}
else if (bdata(inputLines->entry[i])[0] == '+')
{
type = NEW;
useR = 1;
}
else if (bdata(inputLines->entry[i])[0] == ' ')
{
type = SHARED;
useL = 1;
useR = 1;
}
else
{
type = HEADER;
lineNoL = 0;
lineNoR = 0;
firstInfoLine = TRUE;
startNewFileOk = TRUE;
startOldFileOk = TRUE;
}
// Balance.
if (type == HEADER ||
(type == SHARED && (useL || useR)) ||
i == inputLines->qty - 1)
{
int difference = lineMapPosL - lineMapPosR;
int j;
if (difference > 0)
{
for (j = 0; j < difference; j++)
{
lineMapR[lineMapPosR].type = EMPTY;
lineMapPosR++;
}
}
else if (difference < 0)
{
for (j = 0; j < (difference * -1); j++)
{
lineMapL[lineMapPosL].type = EMPTY;
lineMapPosL++;
}
}
}
if (useL)
{
lineMapL[lineMapPosL].inputPos = i;
lineMapL[lineMapPosL].type = type;
lineMapL[lineMapPosL].padding = padding;
lineMapL[lineMapPosL].lineNo = lineNoL - 1;
lineMapL[lineMapPosL].leadingSpaces = 0;
lineMapPosL++;
lineNoL++;
}
if (useR)
{
lineMapR[lineMapPosR].inputPos = i;
lineMapR[lineMapPosR].type = type;
lineMapR[lineMapPosR].padding = padding;
lineMapR[lineMapPosR].lineNo = lineNoR - 1;
lineMapR[lineMapPosR].leadingSpaces = 0;
lineMapPosR++;
lineNoR++;
}
}
// Mapping complete. Quick sanity check that both L and R cols have the
// same length.
if (lineMapPosL != lineMapPosR)
{
return "Error displaying diff (generated columns not equal in length).";
}
// Now we do the formatting work based on the map.
for (i = 0; i < lineMapPosL; i++)
{
int * highlightMaskA = NULL;
int * highlightMaskB = NULL;
bstring contentL;
bstring contentR;
int leadingSpacesL = 0;
int leadingSpacesR = 0;
if (lineMapL[i].type != EMPTY)
{
contentL = getContentFromLine(
inputLines->entry[lineMapL[i].inputPos],
lineMapL[i].padding,
&leadingSpacesL
);
lineMapL[i].leadingSpaces = leadingSpacesL;
}
if (lineMapR[i].type != EMPTY)
{
contentR = getContentFromLine(
inputLines->entry[lineMapR[i].inputPos],
lineMapR[i].padding,
&leadingSpacesR
);
lineMapR[i].leadingSpaces = leadingSpacesR;
}
// Compare changed lines
if (lineMapL[i].type == OLD && lineMapR[i].type == NEW) {
lineMapL[i].type = CHANGE;
lineMapR[i].type = CHANGE;
determineLineHighlighting(
contentL,
contentR,
&highlightMaskA,
&highlightMaskB
);
}
// Format output
bcatcstr(html, "<tr>\n");
if (lineMapL[i].type == EMPTY)
{
createEmptyLine(html);
}
else
{
createLine(LEFT, html, contentL, lineMapL[i], highlightMaskA);
bdestroy(contentL);
}
if (lineMapR[i].type == EMPTY)
{
createEmptyLine(html);
}
else
{
createLine(RIGHT, html, contentR, lineMapR[i], highlightMaskB);
bdestroy(contentR);
}
bcatcstr(html, "</tr>\n");
free(highlightMaskA);
free(highlightMaskB);
}
bcatcstr(html, "</table>\n</body>\n</html>\n");
free(lineMapL);
free(lineMapR);
}
bdestroy(stdinContents);
bstrListDestroy(inputLines);
char * result = bstr2cstr(html, '-');
bdestroy(html);
return result; // Caller should free()
}
static bstring tr_eval(TextResource tr, trnode_t* node) {
//internally we work with bstrings
trnode_t* tmpNode;
switch(node->type) {
case TRNODE_TEXT:
return bstrcpy(node->textData);
case TRNODE_REPR:
; int match=0;
if (node->condKey) {
assert(node->condValue);
//conditional
char* condkey = bstr2cstr(node->condKey,'\0');
bstring val = ght_get(tr->parameters,strlen(condkey),condkey);
bcstrfree(condkey);
if (val && !bstrcmp(node->condValue, val)) {
//matches
match = 1;
}
} else {
//unconditional, so go too
match=1;
}
if (match) {
return tr_evalKey(tr,node->reprKey->data);
} else
return bfromcstr("");
case TRNODE_STRING:
//these guys have a blob of nodes that needs to be catted together smartly
tmpNode = node->children_list;
bstring tmpStr = bfromcstralloc(32,"");
while(tmpNode) {
bstring childStr = tr_eval(tr,tmpNode);
bconchar(tmpStr,' ');
bconcat(tmpStr,childStr);
bdestroy(childStr);
tmpNode = tmpNode->next;
}
return tmpStr;
case TRNODE_SWITCH:
//look through the children for matching choice
; char* switchVar = bstr2cstr(node->switchVar,'\0');
bstring val = ght_get(tr->parameters,strlen(switchVar),switchVar);
bcstrfree(switchVar);
tmpNode = node->children_list;
while(tmpNode) {
assert(tmpNode->type == TRNODE_STRING);
assert(tmpNode->caseValue);
if (!bstrcmp(tmpNode->caseValue,val)) {
//we match, return this
return tr_eval(tr,tmpNode);
}
//try next
tmpNode = tmpNode->next;
}
return bfromcstr("");
default:
assert(0);
}
assert(0);
return NULL;
}
HLSLCC_API int HLSLCC_APIENTRY TranslateHLSLFromMem(const char* shader,
unsigned int flags,
GLLang language,
const GlExtensions *extensions,
GLSLCrossDependencyData* dependencies,
GLSLShader* result)
{
uint32_t* tokens;
Shader* psShader;
char* glslcstr = NULL;
int GLSLShaderType = GL_FRAGMENT_SHADER_ARB;
int success = 0;
uint32_t i;
tokens = (uint32_t*)shader;
psShader = DecodeDXBC(tokens);
if(psShader)
{
HLSLCrossCompilerContext sContext;
if(psShader->ui32MajorVersion <= 3)
{
flags &= ~HLSLCC_FLAG_COMBINE_TEXTURE_SAMPLERS;
}
sContext.psShader = psShader;
sContext.flags = flags;
sContext.psDependencies = dependencies;
for(i=0; i<NUM_PHASES;++i)
{
sContext.havePostShaderCode[i] = 0;
}
TranslateToGLSL(&sContext, &language,extensions);
switch(psShader->eShaderType)
{
case VERTEX_SHADER:
{
GLSLShaderType = GL_VERTEX_SHADER_ARB;
break;
}
case GEOMETRY_SHADER:
{
GLSLShaderType = GL_GEOMETRY_SHADER;
break;
}
case DOMAIN_SHADER:
{
GLSLShaderType = GL_TESS_EVALUATION_SHADER;
break;
}
case HULL_SHADER:
{
GLSLShaderType = GL_TESS_CONTROL_SHADER;
break;
}
case COMPUTE_SHADER:
{
GLSLShaderType = GL_COMPUTE_SHADER;
break;
}
default:
{
break;
}
}
glslcstr = bstr2cstr(sContext.glsl, '\0');
bdestroy(sContext.glsl);
bdestroy(sContext.earlyMain);
for(i=0; i<NUM_PHASES; ++i)
{
bdestroy(sContext.postShaderCode[i]);
}
for(i=0; i<NUM_PHASES;++i)
{
if(psShader->asPhase[i].ppsDecl != 0)
{
uint32_t k;
for(k=0; k < psShader->asPhase[i].ui32InstanceCount; ++k)
{
hlslcc_free(psShader->asPhase[i].ppsDecl[k]);
}
hlslcc_free(psShader->asPhase[i].ppsDecl);
}
if(psShader->asPhase[i].ppsInst != 0)
{
uint32_t k;
for(k=0; k < psShader->asPhase[i].ui32InstanceCount; ++k)
{
FreeSubOperands(psShader->asPhase[i].ppsInst[k], psShader->asPhase[i].pui32InstCount[k]);
hlslcc_free(psShader->asPhase[i].ppsInst[k]);
}
hlslcc_free(psShader->asPhase[i].ppsInst);
}
}
memcpy(&result->reflection,&psShader->sInfo,sizeof(psShader->sInfo));
result->textureSamplerInfo.ui32NumTextureSamplerPairs = psShader->textureSamplerInfo.ui32NumTextureSamplerPairs;
for (i=0; i<result->textureSamplerInfo.ui32NumTextureSamplerPairs; i++)
strcpy(result->textureSamplerInfo.aTextureSamplerPair[i].Name, psShader->textureSamplerInfo.aTextureSamplerPair[i].Name);
hlslcc_free(psShader);
success = 1;
}
shader = 0;
tokens = 0;
/* Fill in the result struct */
result->shaderType = GLSLShaderType;
result->sourceCode = glslcstr;
result->GLSLLanguage = language;
return success;
}
int parse_blueprint_json(JSON_Object *blueprint, blueprint_t *bp)
{
bstring Name, bp_name, name, game_version;
uint32_t resource_cost[5];
bp->revision = json_object_get_number(blueprint, "blueprintVersion");
bp_name = bfromcstr(json_object_get_string(blueprint, "blueprintName"));
name = bfromcstr(json_object_get_string(blueprint, "Name"));
game_version = bfromcstr(json_object_get_string(blueprint, "GameVersion"));
bstring param1 = bfromcstr(json_object_get_string(blueprint, "Parameter1"));
bstring param2 = bfromcstr(json_object_get_string(blueprint, "Parameter2"));
bstring lpos = bfromcstr(json_object_get_string(blueprint, "LocalPosition"));
bstring lrot = bfromcstr(json_object_get_string(blueprint, "LocalRotation"));
bp->name = name;
bp->blueprint_name = bp_name;
bp->Name = Name;
bp->game_version = game_version;
const char* cpos = json_object_get_string(blueprint, "LocalPosition");
bstring pos = bfromcstr(cpos);
struct bstrList *pval = bsplit(pos, ',');
for (int i = 0; i < 3; i++)
{
char *ptr;
char *str = bstr2cstr(pval->entry[i], '0');
uint32_t n = strtol(str, &ptr, 10);
}
const char* crot = json_object_get_string(blueprint, "LocalRotation");
bstring rot = bfromcstr(crot);
struct bstrList *rval = bsplit(rot, ',');
for (int i = 0; i < 4; i++)
{
char *ptr;
char *str = bstr2cstr(rval->entry[i], '0');
double dbl = strtod(str, &ptr);
free(str);
bp->local_rotation[i] = dbl;
}
bp->parameter1 = param1;
bp->parameter2 = param2;
bp->design_changed = json_object_get_boolean(blueprint, "designChanged");
bp->id = json_object_get_number(blueprint, "Id");
bp->force_id = json_object_get_number(blueprint, "ForceId");
bp->item_number = json_object_get_number(blueprint, "ItemNumber");
JSON_Array *jresource_cost = json_object_get_array(blueprint, "ResourceCost");
for (int i = 0; i < 5; i++)
bp->resource_cost[i] = (uint32_t) json_array_get_number(jresource_cost, i);
JSON_Array *min_coords = json_object_get_array(blueprint, "MinCords");
for (int i = 0; i < 3; i++)
bp->min_coords[i] = (int32_t) json_array_get_number(min_coords, i);
JSON_Array *max_coords = json_object_get_array(blueprint, "MaxCords");
for (int i = 0; i < 3; i++)
bp->max_coords[i] = (int32_t) json_array_get_number(max_coords, i);
JSON_Array *csi = json_object_get_array(blueprint, "CSI");
for (int i = 0; i < 40; i++)
bp->constructable_special_info[i] = json_array_get_number(csi, i);
bp->last_alive_block = (uint32_t) json_object_get_number(blueprint, "LastAliveBlock");
JSON_Array *palette = json_object_get_array(blueprint, "COL");
for(int i = 0; i < 32; i++)
{
uint32_t rbga = 0;
const char* ccolor = json_array_get_string(palette, i);
bstring color = bfromcstr(ccolor);
// Create array of substrings
struct bstrList *values = bsplit(color, ',');
for (int n = 0; n < 4; n++)
{
char *ptr;
char *str = bstr2cstr(values->entry[n], '0');
double dbl = strtod(str, &ptr);
free(str);
bp->color_palette[i].array[n] = round(dbl * 255.0);
}
bstrListDestroy(values);
bdestroy(color);
}
JSON_Array *material = json_object_get_array(blueprint, "BlockIds");
JSON_Array *position = json_object_get_array(blueprint, "BLP");
JSON_Array *rotation = json_object_get_array(blueprint, "BLR");
JSON_Array *color = json_object_get_array(blueprint, "BCI");
JSON_Array *bp1 = json_object_get_array(blueprint, "BP1");
JSON_Array *bp2 = json_object_get_array(blueprint, "BP2");
JSON_Array *block_string_ids = json_object_get_array(blueprint, "BlockStringDataIds");
JSON_Array *block_data = json_object_get_array(blueprint, "BlockStringData");
bp->total_block_count = (uint32_t) json_object_get_number(blueprint, "TotalBlockCount");
bp->main_block_count = (uint32_t) json_object_get_number(blueprint, "BlockCount");
bp->blocks = calloc(bp->main_block_count, sizeof(block_t));
for (int i = 0; i < bp->main_block_count; i++)
{
block_t *act = &bp->blocks[i];
act->material = (uint32_t) json_array_get_number(material, i);
act->rotation = (uint32_t) json_array_get_number(rotation, i);
act->color = (uint32_t) json_array_get_number(color, i);
bstring pos_string = bfromcstr(json_array_get_string(position, i));
struct bstrList *pos_list = bsplit(pos_string, ',');
for (int n = 0; n < 3; n++)
{
char *ptr;
char *str = bstr2cstr(pos_list->entry[n], '0');
double dbl = strtod(str, &ptr);
uint32_t val = round(dbl);
act->position.array[n] = val;
free(str);
}
bstrListDestroy(pos_list);
bdestroy(pos_string);
bstring bp1_string = bfromcstr(json_array_get_string(bp1, i));
struct bstrList *bp1_values = bsplit(bp1_string, ',');
for (int n = 0; n < 4; n++)
{
char *ptr;
char *str = bstr2cstr(bp1_values->entry[n], '0');
double dbl = strtod(str, &ptr);
act->bp1[n] = dbl;
}
bstring bp2_string = bfromcstr(json_array_get_string(bp2, i));
struct bstrList *bp2_values = bsplit(bp2_string, ',');
for (int n = 0; n < 4; n++)
{
char *ptr;
char *str = bstr2cstr(bp2_values->entry[n], '0');
double dbl = strtod(str, &ptr);
uint32_t val = round(dbl);
act->bp2[n] = val;
}
// Only used for lookup, not saved after that since it has no further semantic value
const char *cb1 = json_array_get_string(bp1, i);
if (act->bp1[3] != 0)
{
for (int n = 0; n < json_array_get_count(block_string_ids); n++)
{
uint32_t test_id = json_array_get_number(block_string_ids, n);
if (test_id == 0)
{
break;
}
if (test_id == act->bp1[3])
{
// BlockStringData at index n is the one we want
act->string_data = bfromcstr(json_array_get_string(block_data, n));
}
}
}
}
JSON_Array *subconstructables = json_object_get_array(blueprint, "SCs");
bp->num_sc = json_array_get_count(subconstructables);
bp->SCs = calloc(bp->num_sc, sizeof(blueprint_t));
for (int i = 0; i < bp->num_sc; i++)
{
JSON_Value *sc_json = json_array_get_value(subconstructables, i);
JSON_Object *sc_obj = json_value_get_object(sc_json);
int retval = parse_blueprint_json(sc_obj, &bp->SCs[i]);
if (retval != 0)
return retval;
}
return 0;
}
TileMapParseStatus TileMap_parse_tileset(xmlTextReaderPtr reader,
Engine *engine, TileMap *map,
Tileset **out_tileset) {
TileMapParseStatus status = TILEMAP_PARSE_OK;
Tileset *tileset = calloc(1, sizeof(Tileset));
check(tileset != NULL, "Couldn't create tileset");
while (xmlTextReaderMoveToNextAttribute(reader)) {
xmlChar *attrName = xmlTextReaderName(reader);
xmlChar *attrVal = xmlTextReaderValue(reader);
if (streq(attrName, "firstgid")) {
tileset->first_gid = atoi((const char *)attrVal);
} else if (streq(attrName, "tilewidth")) {
tileset->tile_size.w = atoi((const char *)attrVal);
} else if (streq(attrName, "tileheight")) {
tileset->tile_size.h = atoi((const char *)attrVal);
} else if (streq(attrName, "name")) {
tileset->name = calloc(1, strlen((const char *)attrVal) + 1);
strcpy(tileset->name, (const char *)attrVal);
}
}
while (xmlTextReaderRead(reader)) {
xmlChar *childName = xmlTextReaderName(reader);
if (xmlTextReaderNodeType(reader) == XML_ELEMENT_DECL &&
streq(childName, "tileset")) {
break;
} else if (streq(childName, "image")) {
while (xmlTextReaderMoveToNextAttribute(reader)) {
xmlChar *attrName = xmlTextReaderName(reader);
xmlChar *attrVal = xmlTextReaderValue(reader);
if (streq(attrName, "source")) {
// Check for existence of image
bstring imgpath = bfromcstr("media/tilesets/");
bstring src = bfromcstr((const char *)attrVal);
bconcat(imgpath, src);
char *cpath = bstr2cstr(imgpath, '\0');
bdestroy(imgpath);
bdestroy(src);
FILE *fileexists = load_resource(cpath);
if (fileexists == NULL) {
free(cpath);
Tileset_destroy(tileset);
Engine_log("Cannot open map. Missing tileset <%s>", attrVal);
return TILEMAP_PARSE_MISSING_IMAGE;
}
fclose(fileexists);
tileset->texture = Graphics_texture_from_image(engine->graphics,
cpath);
tileset->img_src = cpath;
}
}
}
}
*out_tileset = tileset;
return status;
error:
if (tileset) Tileset_destroy(tileset);
if (status == TILEMAP_PARSE_OK) status = TILEMAP_PARSE_UNKNOWN_ERR;
return status;
}
int main (int argc, char * argv[]) {
bstring b = bfromcstr ("Hello WORLDDDD");
if (!b) {
fprintf (stderr, "Out of memory");
} else {
puts ((char *) b->data);
}
bdestroy (b);
b = bfromcstralloc (64, "123456789012345678901234567890123456789012345678901234567890123");
if (b)
{
b->data[63] = 'x';
puts ((char *) b->data);
printf("dump is %s\n", dumpBstring(b));
}
else
{
puts("bfromcstralloc failed");
}
bdestroy (b);
b = blk2bstr ("AWHOLEnewworld", sizeof("wholenewworld")-3);
puts ((char *) b->data);
char *cstr = bstr2cstr(b, '\0');
puts(cstr);
free(cstr);
cstr = bstr2cstr(b, '0');
puts(cstr);
free(cstr);
bstring copy = bstrcpy(b);
printf("copy is %s\n", (char *) copy->data);
bdestroy (b);
b = bfromcstralloc (64, "123456789012345678901234567890123456789012345678901234567890123");
bassign(copy, b);
printf("copy is %s\n", (char *) copy->data);
printf("b is %s\n", (char *) b->data);
bdestroy (b);
b = blk2bstr ("AWHOLEnewworld", sizeof("wholenewworld"));
bassign(copy, b);
printf("copy is %s\n", (char *) copy->data);
printf("b is %s\n", (char *) b->data);
bdestroy(b);
bdestroy(copy);
int i = 0;
b = bfromcstralloc (64, "123456789012345678901234567890123456789012345678901234567890123");
struct bstrList *blist = bsplit(b, '0');
printf("made blist. qty is %d, mlen is %d. entry[0] is %s\n", blist->qty, blist->mlen, blist->entry[0]->data);
for(i=0; i<blist->qty; i++)
{
printf("entry[%d] is %s\n", i, blist->entry[i]->data);
}
bstrListDestroy(blist);
blist = bsplit(b, '\0');
printf("made blist. qty is %d, mlen is %d. entry[0] is %s\n", blist->qty, blist->mlen, blist->entry[0]->data);
for(i=0; i<blist->qty; i++)
{
printf("entry[%d] is %s\n", i, blist->entry[i]->data);
}
bstrListDestroy(blist);
struct tagbstring split = bsStatic ("123");
blist = bsplitstr(b, &split);
printf("made blist. qty is %d, mlen is %d. entry[0] is %s\n", blist->qty, blist->mlen, blist->entry[0]->data);
for(i=0; i<blist->qty; i++)
{
printf("entry[%d] is %s\n", i, blist->entry[i]->data);
}
bdestroy(b);
/*
*
*#define CHUNK 1024 [> read 1024 bytes at a time <]
* char buf[CHUNK];
* FILE *file;
* size_t nread;
*
* file = fopen("./LICENSE", "r");
* if (file) {
* while ((nread = fread(buf, 1, sizeof buf, file)) > 0)
* fwrite(buf, 1, nread, stdout);
* if (ferror(file)) {
* [> deal with error <]
* }
* fclose(file);
* }
*/
FILE *lic_fd = fopen("./LICENSE", "r");
struct bStream *bslic_fd = bsopen((bNread) fread, lic_fd);
bstring lic_bstr = bread( (bNread) fread, lic_fd);
printf("bstring is %s", lic_bstr->data);
return 0;
}
void process_line(struct ast_node_line* line)
{
struct instruction_mapping* insttype;
struct process_parameters_results ppresults;
struct process_parameter_results dparam;
struct ast_node_parameter* dcurrent;
uint32_t dchrproc;
uint16_t i, flimit, fchar, opos;
struct aout_byte* result = NULL;
struct dbg_sym* newsym;
// Change depending on the type of line.
switch (line->type)
{
case type_keyword:
switch (line->keyword)
{
case SYMBOL:
printd(LEVEL_VERBOSE, ".SYMBOL %s", bstr2cstr(line->keyword_data_string, '0'));
// Emit debugging symbol.
list_append(&newsyms, dbgfmt_create_symbol(DBGFMT_SYMBOL_STRING, dbgfmt_create_symbol_string(line->keyword_data_string, DBGFMT_UNDETERMINED)));
break;
case SECTION:
printd(LEVEL_VERBOSE, ".SECTION %s", bstr2cstr(line->keyword_data_string, '0'));
// Emit section metadata.
aout_emit(aout_create_metadata_section(bstr2cstr(line->keyword_data_string, '0')));
break;
case OUTPUT:
printd(LEVEL_VERBOSE, ".OUTPUT %s", bstr2cstr(line->keyword_data_string, '0'));
// Emit output metadata.
aout_emit(aout_create_metadata_output(bstr2cstr(line->keyword_data_string, '0')));
break;
case BOUNDARY:
printd(LEVEL_VERBOSE, ".BOUNDARY");
// Emit safety boundary of 16 NULL words.
for (i = 0; i < 16; i += 1)
aout_emit(aout_create_raw(0));
break;
case FILL:
printd(LEVEL_VERBOSE, ".FILL");
if (line->keyword_data_expr_1 == NULL || line->keyword_data_expr_2 == NULL)
{
if (line->keyword_data_string != NULL)
dhalt(ERR_LABEL_RESOLUTION_NOT_PERMITTED, line->keyword_data_string->data);
else
dhalt(ERR_LABEL_RESOLUTION_NOT_PERMITTED, "");
}
// Emit N words with value X
flimit = expr_evaluate(line->keyword_data_expr_1, &dhalt_label_resolution_not_permitted, &dhalt_expression_exit_handler);
fchar = expr_evaluate(line->keyword_data_expr_2, &dhalt_label_resolution_not_permitted, &dhalt_expression_exit_handler);
for (i = 0; i < flimit; i++)
aout_emit(aout_create_raw(fchar));
break;
case EXTENSION:
printd(LEVEL_VERBOSE, ".EXTENSION %s", bstr2cstr(line->keyword_data_string, '0'));
// Emit extension metadata.
aout_emit(aout_create_metadata_extension(bstr2cstr(line->keyword_data_string, '0')));
break;
case INCBIN:
printd(LEVEL_VERBOSE, ".INCBIN %s", bstr2cstr(line->keyword_data_string, '0'));
// Emit binary include metadata.
aout_emit(aout_create_metadata_incbin(bstr2cstr(line->keyword_data_string, '0')));
break;
case ORIGIN:
if (line->keyword_data_expr_1 == NULL)
{
if (line->keyword_data_string != NULL)
dhalt(ERR_LABEL_RESOLUTION_NOT_PERMITTED, line->keyword_data_string->data);
else
dhalt(ERR_LABEL_RESOLUTION_NOT_PERMITTED, "");
}
opos = expr_evaluate(line->keyword_data_expr_1, &dhalt_label_resolution_not_permitted, &dhalt_expression_exit_handler);
printd(LEVEL_VERBOSE, ".ORIGIN 0x%04X", opos);
// Emit origin set metadata.
aout_emit(aout_create_metadata_origin(opos));
break;
case SEEK:
if (line->keyword_data_expr_1 == NULL)
{
if (line->keyword_data_string != NULL)
dhalt(ERR_LABEL_RESOLUTION_NOT_PERMITTED, line->keyword_data_string->data);
else
dhalt(ERR_LABEL_RESOLUTION_NOT_PERMITTED, "");
}
opos = expr_evaluate(line->keyword_data_expr_1, &dhalt_label_resolution_not_permitted, &dhalt_expression_exit_handler);
printd(LEVEL_VERBOSE, ".SEEK 0x%04X", opos);
// Emit seek metadata.
aout_emit(aout_create_metadata_seek(opos));
break;
case EXPORT:
printd(LEVEL_VERBOSE, ".EXPORT %s", bstr2cstr(line->keyword_data_string, '0'));
// Emit export metadata.
aout_emit(aout_create_metadata_export(bstr2cstr(line->keyword_data_string, '0')));
break;
case IMPORT:
printd(LEVEL_VERBOSE, ".IMPORT %s", bstr2cstr(line->keyword_data_string, '0'));
// Emit import metadata.
aout_emit(aout_create_metadata_import(bstr2cstr(line->keyword_data_string, '0')));
break;
case IMPORT_OPTIONAL:
printd(LEVEL_VERBOSE, ".IMPORT OPTIONAL %s", bstr2cstr(line->keyword_data_string, '0'));
// Emit import metadata.
aout_emit(aout_create_metadata_import_optional(bstr2cstr(line->keyword_data_string, '0')));
break;
case JUMP:
if (line->keyword_data_string == NULL)
printd(LEVEL_VERBOSE, ".JUMP <table>");
else
printd(LEVEL_VERBOSE, ".JUMP %s", bstr2cstr(line->keyword_data_string, '0'));
// Emit jump metadata.
if (line->keyword_data_string == NULL)
aout_emit(aout_create_metadata_jump(NULL));
else
aout_emit(aout_create_metadata_jump(bstr2cstr(line->keyword_data_string, '0')));
break;
default:
printd(LEVEL_VERBOSE, "?? UNKNOWN KEYWORD\n");
dhalt(ERR_UNSUPPORTED_KEYWORD, NULL);
}
printd(LEVEL_VERBOSE, "\n");
break;
case type_instruction:
// Check to see if this is DAT.
if (strcmp(line->instruction->instruction, "DAT") == 0)
{
// Handle data.
printd(LEVEL_VERBOSE, "EMIT DAT");
// Process parameters as data.
reverse_parameters(line->instruction->parameters);
dcurrent = line->instruction->parameters->last;
while (dcurrent != NULL)
{
// Process parameter normally.
dparam = process_parameter(dcurrent);
// Output depending on what kind of parameter it was.
if (dparam.v_label != NULL) // If this is a label, output something that we need to replace.
aout_emit(aout_create_expr(expr_new_label(bautofree(bfromcstr(dparam.v_label)))));
else if (dparam.v_raw != NULL) // If the raw field is not null, get each character and output it.
{
printd(LEVEL_VERBOSE, " \"%s\"", dparam.v_raw->data);
for (dchrproc = 0; dchrproc < (uint32_t)blength(dparam.v_raw); dchrproc++)
aout_emit(aout_create_raw(dparam.v_raw->data[dchrproc]));
}
else if (dparam.v_extra_used == true) // Just a single address.
aout_emit(aout_create_expr(dparam.v_extra));
else // Something that isn't handled by DAT.
{
printd(LEVEL_VERBOSE, "\n");
dhalt(ERR_DAT_UNSUPPORTED_PARAMETER, NULL);
}
dcurrent = dcurrent->prev;
}
}
else
{
// Handle instruction.
insttype = get_instruction_by_name(line->instruction->instruction);
if (insttype == NULL)
dhalt(ERR_UNKNOWN_OPCODE, line->instruction->instruction);
printd(LEVEL_VERBOSE, "EMIT %s", insttype->name);
// Check parameter count.
if (line->instruction->parameters == NULL && strcmp(line->instruction->instruction, "RFI") == 0)
{
// Handle RFI (which can accept no parameters).
result = aout_emit(aout_create_opcode(insttype->opcode, insttype->nbopcode, 0x21 /* 0 literal */));
printd(LEVEL_VERBOSE, "\n");
break;
}
else if (line->instruction->parameters == NULL)
{
// Halt and error.
dhalt(ERR_INVALID_PARAMETER_COUNT, NULL);
}
// Process parameters normally.
ppresults = process_parameters(line->instruction->parameters);
// Force the parameter value to be NXT if it's a label.
if (ppresults.a_label != NULL) ppresults.a = NXT_LIT;
if (ppresults.b_label != NULL) ppresults.b = NXT_LIT;
if (ppresults.a_label != NULL && ppresults.a_label_bracketed) ppresults.a = NXT;
if (ppresults.b_label != NULL && ppresults.b_label_bracketed) ppresults.b = NXT;
// Check for relative addressing.
if ((insttype->opcode == OP_ADD || insttype->opcode == OP_SUB ||
insttype->opcode == OP_MUL || insttype->opcode == OP_DIV) && ppresults.a == PC)
{
// Warn about relative addressing portability.
dwarn(WARN_RELATIVE_PC_ADDRESSING, NULL);
}
// Output the initial opcode.
if (insttype->opcode != OP_NONBASIC)
result = aout_emit(aout_create_opcode(insttype->opcode, ppresults.a, ppresults.b));
else
result = aout_emit(aout_create_opcode(insttype->opcode, insttype->nbopcode, ppresults.a));
// If the parameter is a label or requires an extra word, output them.
if (ppresults.b_label != NULL)
aout_emit(aout_create_expr(expr_new_label(bautofree(bfromcstr(ppresults.b_label)))));
else if (ppresults.b_extra_used)
aout_emit(aout_create_expr(ppresults.b_extra));
if (ppresults.a_label != NULL)
aout_emit(aout_create_expr(expr_new_label(bautofree(bfromcstr(ppresults.a_label)))));
else if (ppresults.a_extra_used)
aout_emit(aout_create_expr(ppresults.a_extra));
}
printd(LEVEL_VERBOSE, "\n");
break;
case type_label:
// Handle label definition.
list_append(&newsyms, dbgfmt_create_symbol(DBGFMT_SYMBOL_LABEL, dbgfmt_create_symbol_label(bfromcstr(line->label->name), DBGFMT_UNDETERMINED)));
printd(LEVEL_VERBOSE, ":%s\n", line->label->name);
aout_emit(aout_create_label(line->label->name));
break;
default:
assert(false);
}
// If we can associate debugging symbols with this instruction...
if (result != NULL)
{
// While the new symbols list is not empty, copy those symbols
// into the output and associate.
while (list_size(&newsyms) > 0)
{
newsym = list_extract_at(&newsyms, 0);
printd(LEVEL_DEBUG, "Debugging custom symbol: %i\n", newsym->length);
list_append(&result->symbols, newsym);
list_append(assem_dbg_symbols, newsym);
}
// If the line information is provided, output
// debugging symbols.
if (line != NULL && line->file != NULL)
{
// Output a file / line number debugging symbol here.
newsym = dbgfmt_create_symbol(DBGFMT_SYMBOL_LINE, dbgfmt_create_symbol_line(line->file, line->line, DBGFMT_UNDETERMINED));
list_append(&result->symbols, newsym);
list_append(assem_dbg_symbols, newsym);
printd(LEVEL_DEBUG, "Debugging symbol: %i %s\n", line->line, line->file->data);
}
// If the higher-language line information is
// provided, output debugging symbols.
if (line != NULL && line->ufile != NULL)
{
// Output a file / line number debugging symbol here.
newsym = dbgfmt_create_symbol(DBGFMT_SYMBOL_LINE, dbgfmt_create_symbol_line(line->ufile, line->uline, DBGFMT_UNDETERMINED));
list_append(&result->symbols, newsym);
list_append(assem_dbg_symbols, newsym);
printd(LEVEL_DEBUG, "High-level debugging symbol: %i %s\n", line->uline, line->ufile->data);
}
}
}
HLSLCC_API int HLSLCC_APIENTRY TranslateHLSLFromMem(const char* shader,
unsigned int flags,
GLLang language,
const GlExtensions *extensions,
GLSLCrossDependencyData* dependencies,
GLSLShader* result)
{
uint32_t* tokens;
Shader* psShader;
char* glslcstr = NULL;
int GLSLShaderType = GL_FRAGMENT_SHADER_ARB;
int success = 0;
uint32_t i;
tokens = (uint32_t*)shader;
psShader = DecodeDXBC(tokens);
if(psShader)
{
HLSLCrossCompilerContext sContext;
sContext.psShader = psShader;
sContext.flags = flags;
sContext.psDependencies = dependencies;
for(i=0; i<NUM_PHASES;++i)
{
sContext.havePostShaderCode[i] = 0;
}
TranslateToGLSL(&sContext, &language,extensions);
switch(psShader->eShaderType)
{
case VERTEX_SHADER:
{
GLSLShaderType = GL_VERTEX_SHADER_ARB;
break;
}
case GEOMETRY_SHADER:
{
GLSLShaderType = GL_GEOMETRY_SHADER;
break;
}
case DOMAIN_SHADER:
{
GLSLShaderType = GL_TESS_EVALUATION_SHADER;
break;
}
case HULL_SHADER:
{
GLSLShaderType = GL_TESS_CONTROL_SHADER;
break;
}
case COMPUTE_SHADER:
{
GLSLShaderType = GL_COMPUTE_SHADER;
break;
}
default:
{
break;
}
}
glslcstr = bstr2cstr(sContext.glsl, '\0');
bdestroy(sContext.glsl);
bdestroy(sContext.earlyMain);
for(i=0; i<NUM_PHASES; ++i)
{
bdestroy(sContext.postShaderCode[i]);
}
hlslcc_free(psShader->psHSControlPointPhaseDecl);
FreeSubOperands(psShader->psHSControlPointPhaseInstr, psShader->ui32HSControlPointInstrCount);
hlslcc_free(psShader->psHSControlPointPhaseInstr);
for(i=0; i < psShader->ui32ForkPhaseCount; ++i)
{
hlslcc_free(psShader->apsHSForkPhaseDecl[i]);
FreeSubOperands(psShader->apsHSForkPhaseInstr[i], psShader->aui32HSForkInstrCount[i]);
hlslcc_free(psShader->apsHSForkPhaseInstr[i]);
}
hlslcc_free(psShader->psHSJoinPhaseDecl);
FreeSubOperands(psShader->psHSJoinPhaseInstr, psShader->ui32HSJoinInstrCount);
hlslcc_free(psShader->psHSJoinPhaseInstr);
hlslcc_free(psShader->psDecl);
FreeSubOperands(psShader->psInst, psShader->ui32InstCount);
hlslcc_free(psShader->psInst);
memcpy(&result->reflection,&psShader->sInfo,sizeof(psShader->sInfo));
hlslcc_free(psShader);
success = 1;
}
shader = 0;
tokens = 0;
/* Fill in the result struct */
result->shaderType = GLSLShaderType;
result->sourceCode = glslcstr;
result->GLSLLanguage = language;
return success;
}
/* ----------------------------------------------------------
* FUNCTION : parse_line
* DESCRIPTION : This function will process a line of data
* : from a configuration file.
* INPUT : 0 - Line (bstring)
* ---------------------------------------------------------- */
void parse_line (bstring line)
{
bstring param, value;
struct bstrList *list;
int i;
/* Check to see if this line has something to read. */
if (line->data[0] == '\0' || line->data[0] == '#')
return;
/* Check to see if this line has a comment in it. */
if ((list = bsplit(line, '#')) != NULL) {
if ((bassign(line, list->entry[0])) == -1) {
log_message("warning: 'bassign' in function 'parse_line' failed.");
}
if (list != NULL)
bstrListDestroy(list);
}
/* Seperate line into a parameter and a value. */
if ((i = bstrchr(line, ' ')) == BSTR_ERR)
return;
if ((param = bmidstr(line, 0, i)) == NULL)
return;
if ((value = bmidstr(line, i + 1, line->slen - i)) == NULL)
return;
/* Normalize Strings */
if ((btolower(param)) != 0)
log_message("warning: 'btolower' in function 'parse_line' failed.");
if ((bltrim(value)) != 0)
log_message("warning: 'bltrim' in function 'parse_line' failed.");
if ((brtrim(value)) != 0)
log_message("warning: 'brtrim' in function 'parse_line' failed.");
/* Do something based upon value. */
if ((biseqcstr(param, "daemon")) == 1) {
/* DAEMON */
if (!gc.daemon_mode) {
if (value->data[0] == '1')
gc.daemon_mode = 1;
else
gc.daemon_mode = 0;
}
} else if ((biseqcstr(param, "pid_file")) == 1) {
/* PID FILE */
gc.pid_file = bstrcpy(value);
} else if ((biseqcstr(param, "sig_file")) == 1) {
/* SIGNATURE FILE */
gc.sig_file = bstrcpy(value);
} else if ((biseqcstr(param, "mac_file")) == 1) {
/* MAC / VENDOR RESOLUTION FILE */
gc.mac_file = bstrcpy(value);
} else if ((biseqcstr(param, "output")) == 1) {
/* OUTPUT */
conf_module_plugin(value, &activate_output_plugin);
} else if ((biseqcstr(param, "user")) == 1) {
/* USER */
gc.priv_user = bstrcpy(value);
} else if ((biseqcstr(param, "group")) == 1) {
/* GROUP */
gc.priv_group = bstrcpy(value);
} else if ((biseqcstr(param, "interface")) == 1) {
/* INTERFACE */
gc.dev = bstr2cstr(value, '-');
} else if ((biseqcstr(param, "filter")) == 1) {
/* FILTER */
gc.pcap_filter = bstr2cstr(value, '-');
} else if ((biseqcstr(param, "network")) == 1) {
/* NETWORK */
parse_networks(bdata(value));
}
verbose_message("config - PARAM: |%s| / VALUE: |%s|", bdata(param), bdata(value));
/* Clean Up */
if (param != NULL)
bdestroy(param);
if (value != NULL)
bdestroy(value);
}
void process_line(struct ast_node_line* line)
{
struct instruction_mapping* insttype;
struct process_parameters_results ppresults;
struct process_parameter_results dparam;
struct ast_node_parameter* dcurrent;
uint32_t dchrproc;
uint16_t i, flimit, fchar, opos;
// Change depending on the type of line.
switch (line->type)
{
case type_keyword:
switch (line->keyword)
{
case BOUNDARY:
fprintf(stderr, ".BOUNDARY");
// Emit safety boundary of 16 NULL words.
for (i = 0; i < 16; i += 1)
aout_emit(aout_create_raw(0));
break;
case FILL:
fprintf(stderr, ".FILL");
// Emit N words with value X
flimit = expr_evaluate(line->keyword_data_expr_1, &ahalt_label_resolution_not_permitted, &ahalt_expression_exit_handler);
fchar = expr_evaluate(line->keyword_data_expr_2, &ahalt_label_resolution_not_permitted, &ahalt_expression_exit_handler);
for (i = 0; i < flimit; i++)
aout_emit(aout_create_raw(fchar));
break;
case EXTENSION:
fprintf(stderr, ".EXTENSION %s", line->keyword_data_string);
// Emit extension metadata.
aout_emit(aout_create_metadata_extension(bstr2cstr(line->keyword_data_string, '0')));
break;
case INCBIN:
fprintf(stderr, ".INCBIN %s", line->keyword_data_string);
// Emit binary include metadata.
aout_emit(aout_create_metadata_incbin(bstr2cstr(line->keyword_data_string, '0')));
break;
case ORIGIN:
opos = expr_evaluate(line->keyword_data_expr_1, &ahalt_label_resolution_not_permitted, &ahalt_expression_exit_handler);
fprintf(stderr, ".ORIGIN 0x%04X", opos);
// Emit origin set metadata.
aout_emit(aout_create_metadata_origin(opos));
break;
case EXPORT:
fprintf(stderr, ".EXPORT %s", line->keyword_data_string);
// Emit export metadata.
aout_emit(aout_create_metadata_export(bstr2cstr(line->keyword_data_string, '0')));
break;
case IMPORT:
fprintf(stderr, ".IMPORT %s", line->keyword_data_string);
// Emit export metadata.
aout_emit(aout_create_metadata_import(bstr2cstr(line->keyword_data_string, '0')));
break;
default:
fprintf(stderr, "\n");
ahalt(ERR_UNSUPPORTED_KEYWORD, NULL);
}
fprintf(stderr, "\n");
break;
case type_instruction:
// Check to see if this is DAT.
if (strcmp(line->instruction->instruction, "DAT") == 0)
{
// Handle data.
fprintf(stderr, "EMIT DAT");
// Process parameters as data.
reverse_parameters(line->instruction->parameters);
dcurrent = line->instruction->parameters->last;
while (dcurrent != NULL)
{
// Process parameter normally.
dparam = process_parameter(dcurrent);
// Output depending on what kind of parameter it was.
if (dparam.v_label != NULL) // If this is a label, output something that we need to replace.
aout_emit(aout_create_expr(expr_new_label(bautofree(bfromcstr(dparam.v_label)))));
else if (dparam.v_raw != NULL) // If the raw field is not null, get each character and output it.
{
fprintf(stderr, " \"%s\"", dparam.v_raw->data);
for (dchrproc = 0; dchrproc < blength(dparam.v_raw); dchrproc++)
aout_emit(aout_create_raw(dparam.v_raw->data[dchrproc]));
}
else if (dparam.v_extra_used == true) // Just a single address.
aout_emit(aout_create_expr(dparam.v_extra));
else // Something that isn't handled by DAT.
{
fprintf(stderr, "\n");
ahalt(ERR_DAT_UNSUPPORTED_PARAMETER, NULL);
}
dcurrent = dcurrent->prev;
}
}
else
{
// Handle instruction.
insttype = get_instruction_by_name(line->instruction->instruction);
if (insttype == NULL)
ahalt(ERR_UNKNOWN_OPCODE, line->instruction->instruction);
fprintf(stderr, "EMIT %s", insttype->name);
// Process parameters normally.
ppresults = process_parameters(line->instruction->parameters);
// Force the parameter value to be NXT if it's a label.
if (ppresults.a_label != NULL) ppresults.a = NXT_LIT;
if (ppresults.b_label != NULL) ppresults.b = NXT_LIT;
if (ppresults.a_label != NULL && ppresults.a_label_bracketed) ppresults.a = NXT;
if (ppresults.b_label != NULL && ppresults.b_label_bracketed) ppresults.b = NXT;
// Output the initial opcode.
if (insttype->opcode != OP_NONBASIC)
aout_emit(aout_create_opcode(insttype->opcode, ppresults.a, ppresults.b));
else
aout_emit(aout_create_opcode(insttype->opcode, insttype->nbopcode, ppresults.a));
// If the parameter is a label or requires an extra word, output them.
if (ppresults.b_label != NULL)
aout_emit(aout_create_expr(expr_new_label(bautofree(bfromcstr(ppresults.b_label)))));
else if (ppresults.b_extra_used)
aout_emit(aout_create_expr(ppresults.b_extra));
if (ppresults.a_label != NULL)
aout_emit(aout_create_expr(expr_new_label(bautofree(bfromcstr(ppresults.a_label)))));
else if (ppresults.a_extra_used)
aout_emit(aout_create_expr(ppresults.a_extra));
}
fprintf(stderr, "\n");
break;
case type_label:
// Handle label definition.
fprintf(stderr, ":%s\n", line->label->name);
aout_emit(aout_create_label(line->label->name));
break;
}
}
void dbg_lua_handle_command(struct dbg_state* state, void* ud, freed_bstring name, list_t* parameters)
{
struct lua_debugst* ds;
struct customarg_entry* carg;
char* cstr;
unsigned int i, k;
int paramtbl;
// Convert the name to lowercase.
btolower(name.ref);
cstr = bstr2cstr(name.ref, '0');
// Loop through all of the modules.
for (k = 0; k < list_size(&modules); k++)
{
ds = list_get_at(&modules, k);
// Set stack top (I don't know why the top of the
// stack is negative!)
lua_settop(ds->state, 0);
// Search handler table for entries.
lua_getglobal(ds->state, HANDLER_TABLE_COMMANDS_NAME);
lua_getfield(ds->state, -1, cstr);
if (!lua_istable(ds->state, -1))
{
// No such entry.
lua_pop(ds->state, 2);
continue;
}
// Call the handler function.
lua_getfield(ds->state, -1, HANDLER_FIELD_FUNCTION_NAME);
dbg_lua_push_state(ds, state, ud);
lua_newtable(ds->state);
paramtbl = lua_gettop(ds->state);
for (i = 0; i < list_size(parameters); i++)
{
carg = list_get_at(parameters, i);
lua_newtable(ds->state);
if (carg->type == DBG_CUSTOMARG_TYPE_PATH)
lua_pushstring(ds->state, "PATH");
else if (carg->type == DBG_CUSTOMARG_TYPE_PARAM)
lua_pushstring(ds->state, "PARAM");
else if (carg->type == DBG_CUSTOMARG_TYPE_STRING)
lua_pushstring(ds->state, "STRING");
else
lua_pushstring(ds->state, "NUMBER");
lua_setfield(ds->state, -2, "type");
if (carg->type == DBG_CUSTOMARG_TYPE_PATH)
lua_pushstring(ds->state, carg->path->data);
else if (carg->type == DBG_CUSTOMARG_TYPE_PARAM)
lua_pushstring(ds->state, carg->param->data);
else if (carg->type == DBG_CUSTOMARG_TYPE_STRING)
lua_pushstring(ds->state, carg->string->data);
else
lua_pushnumber(ds->state, carg->number);
lua_setfield(ds->state, -2, "value");
lua_rawseti(ds->state, paramtbl, i + 1);
}
if (lua_pcall(ds->state, 2, 0, 0) != 0)
{
printd(LEVEL_ERROR, "error: unable to call debugger command handler for '%s'.\n", name.ref->data);
printd(LEVEL_ERROR, "%s\n", lua_tostring(ds->state, -1));
bautodestroy(name);
bcstrfree(cstr);
lua_pop(ds->state, 2);
list_iterator_stop(&modules);
list_destroy(parameters);
return;
}
bautodestroy(name);
bcstrfree(cstr);
lua_pop(ds->state, 2);
list_iterator_stop(&modules);
list_destroy(parameters);
// The command may have started the virtual machine, check the
// status of the VM and execute if needed.
if (state->get_vm()->halted == false)
vm_execute(state->get_vm(), NULL);
return;
}
// There is no command to handle this.
printd(LEVEL_ERROR, "no such command found.\n");
// Clean up.
list_destroy(parameters);
bautodestroy(name);
bcstrfree(cstr);
}