/**
* interfaces in Obj-C look like:
*
* @interface Class1 [ : SuperClass | (CategoryName) ] [ <Protocols> ]
* [ {
* ...
* }
* ]
* methods
* @end
*/
static void interfaceHandler(const char *keyword) {
char *ident;
char *proto = NULL;
char *superclass = NULL;
char *inheritance;
int z;
z = skipToNonWhite();
ident = readToNonIdentifier(0);
if (ident && *ident) {
ident = eStrdup(ident);
} else {
return;
}
recordPosition();
z = skipToNonWhite();
if (z == '(') {
char *category;
char *newIdent;
category = readCategoryTag();
if (category) {
newIdent = eMalloc(strlen(category) + strlen(ident) + 1);
strcpy(newIdent, ident);
strcat(newIdent, category);
eFree(ident);
ident = newIdent;
}
} else if (z == ':') {
cppGetc();
skipToNonWhite();
superclass = readToNonIdentifier(0);
}
if (superclass && *superclass) {
superclass = eStrdup(superclass);
} else{
superclass = eStrdup("");
}
proto = readProtocolTag();
if (proto && *proto) {
proto = eStrdup(proto);
} else {
proto = eStrdup("<>");
}
inheritance = eMalloc(strlen(proto) + strlen(superclass) + 1);
strcpy(inheritance, superclass);
strcat(inheritance, proto);
emitObjCTag(ident, K_INTERFACE, 0, inheritance, TRUE);
readObjCMethods(K_INTMETHOD, ident, inheritance);
eFree(ident);
eFree(proto);
eFree(superclass);
eFree(inheritance);
}
/* createDynamicArray: create a dynamic array */
Array *createDynamicArray( Symbol *s )
{
int i, arraySize, stackPos;
Array *array;
/* paranoia */
eMemTest( "createDynamicArray: symbol", s );
/* allocate space for structure */
array = (Array *)eMalloc(sizeof(Array));
array->isDynamic = 1;
/* get the ranges */
arraySize = 32;
array->lower[0] = 0; /* count of used cells */
array->upper[0] = 32; /* count of free cells */
array->data.cell = (ArrayCell *)eMalloc(arraySize * sizeof(ArrayCell)) ;
/* initialize array */
for (i=0; i < arraySize; i++){
array->data.cell[i].key = NULL;
array->data.cell[i].data.datatype = DATA_UNDEFINED;
}
/* store pointer in variable */
stackPos = varStackPos( s );
stack[stackPos].datatype = DATA_ARRAY;
stack[stackPos].value.array = array;
return array;
}
static boolean createTagsForAmigaWildcard (const char *const pattern)
{
boolean resize = FALSE;
struct AnchorPath *const anchor =
(struct AnchorPath *) eMalloc ((size_t) ANCHOR_SIZE);
LONG result;
memset (anchor, 0, (size_t) ANCHOR_SIZE);
anchor->ap_Strlen = ANCHOR_BUF_SIZE;
/* Allow '.' for current directory */
#ifdef APF_DODOT
anchor->ap_Flags = APF_DODOT | APF_DOWILD;
#else
anchor->ap_Flags = APF_DoDot | APF_DoWild;
#endif
result = MatchFirst ((UBYTE *) pattern, anchor);
while (result == 0)
{
resize |= createTagsForEntry ((char *) anchor->ap_Buf);
result = MatchNext (anchor);
}
MatchEnd (anchor);
eFree (anchor);
return resize;
}
static bool isPodWord (const char *word)
{
bool result = false;
if (isalpha (*word))
{
const char *const pods [] = {
"head1", "head2", "head3", "head4", "over", "item", "back",
"pod", "begin", "end", "for"
};
const size_t count = ARRAY_SIZE (pods);
const char *white = strpbrk (word, " \t");
const size_t len = (white!=NULL) ? (size_t)(white-word) : strlen (word);
char *const id = (char*) eMalloc (len + 1);
size_t i;
strncpy (id, word, len);
id [len] = '\0';
for (i = 0 ; i < count && ! result ; ++i)
{
if (strcmp (id, pods [i]) == 0)
result = true;
}
eFree (id);
}
return result;
}
/* eCopyString: copy a string, report if error */
char *eCopyString(char *s)
{
char *t;
t = (char *)eMalloc(strlen(s)+1);
strcpy(t, s);
return t;
}
/* buildKey: build key from stack data */
char *buildKey( Array *array, Symbol *s )
{
int args, i, keylen;
char *index, *buffer;
/* FIX: should eventually just realloc when size is exceeded */
/* create a buffer */
buffer = (char *)eMalloc( 256 );
buffer[0] = '\0';
/* check arg count */
args = (int)popNumber();
/* there must be at least one index */
if (args == 0) {
ePrintf( Runtime, "Array %s[]x expects at least 1 index, not 0" );
}
/* build the key backwards, for speed */
keylen = 0;
for ( i = 1; i <= args; i++ ) {
/* get index */
index = popString();
/* make sure it fits in the buffer */
keylen += strlen( index );
if (keylen >= 256) {
ePrintf( Runtime, "Array key exceeds 256 characters" );
}
/* append to key */
strcat( buffer, index );
/*
ivanixcu: debug
need free allocated memory of index!
printf("ivanixdebug: freeing (index) (%d)\n", *index );
*/
if (*index != '\0' ){
eFree( index );
}
if (i < args) {
/* add delimiter */
keylen += 1;
if (keylen >= 256) {
ePrintf( Runtime, "Array key exceeds 256 characters" );
}
/* replace with ASCII 34 eventually */
strcat( buffer, "," );
}
}
/* resize the buffer */
return (char *)eRealloc( buffer, keylen+1 );
}
static boolean isPodWord (const char *word)
{
/* <<<<<<< HEAD */
#if 1
boolean result = FALSE;
if (isalpha (*word))
{
const char *const pods [] = {
"head1", "head2", "head3", "head4", "over", "item", "back",
"pod", "begin", "end", "for"
};
const size_t count = sizeof (pods) / sizeof (pods [0]);
const char *white = strpbrk (word, " \t");
const size_t len = (white!=NULL) ? (size_t)(white-word) : strlen (word);
char *const id = (char*) eMalloc (len + 1);
size_t i;
strncpy (id, word, len);
id [len] = '\0';
for (i = 0 ; i < count && ! result ; ++i)
{
if (strcmp (id, pods [i]) == 0)
result = TRUE;
}
eFree (id);
}
return result;
/* ======= */
#else
/* Perl POD words are three to five characters in size. We use this
* fact to find (or not find) the right side of the word and then
* perform comparisons, if necessary, of POD words of that size.
*/
size_t len;
for (len = 0; len < 6; ++len)
if ('\0' == word[len] || ' ' == word[len] || '\t' == word[len])
break;
switch (len) {
case 3:
return 0 == strncmp(word, "end", 3)
|| 0 == strncmp(word, "for", 3)
|| 0 == strncmp(word, "pod", 3);
case 4:
return 0 == strncmp(word, "back", 4)
|| 0 == strncmp(word, "item", 4)
|| 0 == strncmp(word, "over", 4);
case 5:
return 0 == strncmp(word, "begin", 5)
|| 0 == strncmp(word, "head1", 5)
|| 0 == strncmp(word, "head2", 5)
|| 0 == strncmp(word, "head3", 5)
|| 0 == strncmp(word, "head4", 5);
default:
return FALSE;
}
/* >>>>>>> f039977edb44f3d46aacd26cc486ce153b879b0e */
#endif
}
static void cxxParserParseNextTokenApplyReplacement(
const cppMacroInfo * pInfo,
CXXToken * pParameterChainToken
)
{
CXX_DEBUG_ENTER();
CXX_DEBUG_ASSERT(pInfo,"Info must be not null");
CXX_DEBUG_ASSERT(pInfo->replacements,"There should be a replacement");
if(!pInfo->hasParameterList)
{
CXX_DEBUG_ASSERT(!pParameterChainToken,"This shouldn't have been extracted");
}
CXXTokenChain * pParameters = NULL;
const char ** aParameters = NULL;
int iParameterCount = 0;
if(pInfo->hasParameterList && pParameterChainToken && (pParameterChainToken->pChain->iCount >= 3))
{
// kill parenthesis
cxxTokenChainDestroyFirst(pParameterChainToken->pChain);
cxxTokenChainDestroyLast(pParameterChainToken->pChain);
pParameters = cxxTokenChainSplitOnComma(
pParameterChainToken->pChain
);
aParameters = (const char **)eMalloc(sizeof(const char *) * pParameters->iCount);
CXXToken * pParam = cxxTokenChainFirst(pParameters);
while(pParam)
{
aParameters[iParameterCount] = vStringValue(pParam->pszWord);
iParameterCount++;
pParam = pParam->pNext;
}
CXX_DEBUG_ASSERT(iParameterCount == pParameters->iCount,"Bad number of parameters found");
}
vString * pReplacement = cppBuildMacroReplacement(pInfo,aParameters,iParameterCount);
if(pParameters)
{
cxxTokenChainDestroy(pParameters);
eFree(aParameters);
}
CXX_DEBUG_PRINT("Applying complex replacement '%s'",vStringValue(pReplacement));
cppUngetString(vStringValue(pReplacement),vStringLength(pReplacement));
vStringDelete(pReplacement);
CXX_DEBUG_LEAVE();
}
static void* createToken (void *createArg)
{
struct tokenInfoClass *klass = createArg;
tokenInfo *token;
token = eMalloc (sizeof (*token) + klass->extraSpace);
token->klass = klass;
token->string = vStringNew ();
return token;
}
Node *opNode( int op, Node *left, Node *right )
{
Node *node;
node = (Node *) eMalloc( sizeof( Node ) );
node->op = op;
node->left = left;
node->right = right;
node->next = NULL;
node->trace = -1;
return node;
}
/* create a new stack */
Stack *newStack( int size )
{
Stack *stack;
/* allocate stack */
stack = (Stack *)eMalloc( sizeof( Stack ) +
(sizeof(intptr_t) * (size)) );
stack->tos = -1;
stack->size = size;
return stack;
}
extern void *eRealloc (void *const ptr, const size_t size)
{
void *buffer;
if (ptr == NULL)
buffer = eMalloc (size);
else
{
buffer = realloc (ptr, size);
if (buffer == NULL)
error (FATAL, "out of memory");
}
return buffer;
}
extern void *eRealloc (void *const ptr, const size_t size)
{
void *buffer;
if (ptr == NULL)
buffer = eMalloc (size);
else
{
buffer = realloc (ptr, size);
if (buffer == NULL)
{
fprintf(stderr, "out of memory");
abort ();
}
}
return buffer;
}
static void parseKinds (
const char* const kinds, char* const kind, char** const kindName,
char **description)
{
*kind = '\0';
*kindName = NULL;
*description = NULL;
if (kinds == NULL || kinds [0] == '\0')
{
*kind = 'r';
*kindName = eStrdup ("regex");
}
else if (kinds [0] != '\0')
{
const char* k = kinds;
if (k [0] != ',' && (k [1] == ',' || k [1] == '\0'))
*kind = *k++;
else
*kind = 'r';
if (*k == ',')
++k;
if (k [0] == '\0')
*kindName = eStrdup ("regex");
else
{
const char *const comma = strchr (k, ',');
if (comma == NULL)
*kindName = eStrdup (k);
else
{
*kindName = (char*) eMalloc (comma - k + 1);
strncpy (*kindName, k, comma - k);
(*kindName) [comma - k] = '\0';
k = comma + 1;
if (k [0] != '\0')
*description = eStrdup (k);
}
}
}
}
/**
* implementations in Obj-C look like:
*
* @implementation Class1 [ (CategoryName) ]
* [ {
* ...
* }
* ]
* methods
* @end
*/
static void implementationHandler(const char *keyword) {
char *ident;
int z;
z = skipToNonWhite();
ident = readToNonIdentifier(0);
if (ident && *ident) {
ident = eStrdup(ident);
} else {
return;
}
recordPosition();
z = skipToNonWhite();
if (z == '(') {
char *category;
char *newIdent;
category = readCategoryTag();
if (category) {
newIdent = eMalloc(strlen(category) + strlen(ident) + 1);
strcpy(newIdent, ident);
strcat(newIdent, category);
eFree(ident);
ident = newIdent;
}
}
emitObjCTag(ident, K_IMPLEMENTATION, 0, 0, TRUE);
readObjCMethods(K_IMPMETHOD, ident, 0);
eFree(ident);
}
extern void initFieldDescs (void)
{
int i;
fieldDesc *fdesc;
Assert (fieldDescs == NULL);
fieldDescAllocated
= ARRAY_SIZE (fieldSpecsFixed)
+ ARRAY_SIZE (fieldSpecsExuberant)
+ ARRAY_SIZE (fieldSpecsUniversal);
fieldDescs = xMalloc (fieldDescAllocated, fieldDesc);
fieldDescUsed = 0;
for (i = 0; i < ARRAY_SIZE (fieldSpecsFixed); i++)
{
fdesc = fieldDescs + i + fieldDescUsed;
fdesc->spec = fieldSpecsFixed + i;
fdesc->fixed = 1;
fdesc->buffer = NULL;
fdesc->nameWithPrefix = fdesc->spec->name;
fdesc->language = LANG_IGNORE;
fdesc->sibling = FIELD_UNKNOWN;
}
fieldDescUsed += ARRAY_SIZE (fieldSpecsFixed);
for (i = 0; i < ARRAY_SIZE (fieldSpecsExuberant); i++)
{
fdesc = fieldDescs + i + fieldDescUsed;
fdesc->spec = fieldSpecsExuberant +i;
fdesc->fixed = 0;
fdesc->buffer = NULL;
fdesc->nameWithPrefix = fdesc->spec->name;
fdesc->language = LANG_IGNORE;
fdesc->sibling = FIELD_UNKNOWN;
}
fieldDescUsed += ARRAY_SIZE (fieldSpecsExuberant);
for (i = 0; i < ARRAY_SIZE (fieldSpecsUniversal); i++)
{
char *nameWithPrefix;
fdesc = fieldDescs + i + fieldDescUsed;
fdesc->spec = fieldSpecsUniversal + i;
fdesc->fixed = 0;
fdesc->buffer = NULL;
if (fdesc->spec->name)
{
nameWithPrefix = eMalloc (sizeof CTAGS_FIELD_PREFIX + strlen (fdesc->spec->name) + 1);
nameWithPrefix [0] = '\0';
strcat (nameWithPrefix, CTAGS_FIELD_PREFIX);
strcat (nameWithPrefix, fdesc->spec->name);
fdesc->nameWithPrefix = nameWithPrefix;
}
else
fdesc->nameWithPrefix = NULL;
fdesc->language = LANG_IGNORE;
fdesc->sibling = FIELD_UNKNOWN;
}
fieldDescUsed += ARRAY_SIZE (fieldSpecsUniversal);
Assert ( fieldDescAllocated == fieldDescUsed );
}
/* createStaticArray: create an array; indexes are on stack */
Array *createStaticArray( Symbol *s )
{
int indexes, i, arraySize, stackPos;
int indexSize[NINDEX], lower[NINDEX], upper[NINDEX];
Array *array;
/* stack holds:
index count (on top)
lower range of index 1
upper range of index 1
lower range of index 2
upper range of index 2
...
lower range of index n
upper range of index n
*/
/* paranoia */
eMemTest( "createStaticArray: symbol", s );
/* get the index */
indexes = (int)popNumber();
if (indexes > NINDEX) {
ePrintf( Runtime, "array %s has %d dimensions, maximum is %d",
s->name, indexes, NINDEX );
}
/* get the ranges */
arraySize = 1;
for (i=0; i < indexes; i++) {
lower[i] = (int)popNumber();
upper[i] = (int)popNumber();
if (lower[i] > upper[i]) {
ePrintf( Runtime, "index %d of array %s: lower index (%d) greater than upper(%d) index",
i+1, lower[i], upper[i] );
}
indexSize[i] = (upper[i]-lower[i])+1;
arraySize *= indexSize[i];
}
/* allocate space for structure */
array = (Array *)eMalloc(sizeof(Array));
array->isDynamic = 0;
array->data.item = (Variant *)eMalloc(arraySize * sizeof(Variant)) ;
/* initialize array */
for (i=0; i < arraySize; i++){
array->data.item[i].datatype = DATA_NUMBER;
array->data.item[i].value.number = 0;
}
/* store values in structure */
array->indexes = indexes;
array->elements = arraySize;
for (i=0; i<indexes; i++) {
array->lower[i] = lower[i];
array->upper[i] = upper[i];
arraySize = arraySize/indexSize[i];
array->offset[i] = arraySize;
}
/* store pointer in variable */
stackPos = varStackPos( s );
stack[stackPos].datatype = DATA_ARRAY;
stack[stackPos].value.array = array;
return array;
}