static void tagNameList (const vhdlKind kind, int c)
{
Assert (isIdentifierCharacter (c));
if (isIdentifierCharacter (c))
{
readIdentifier (TagName, c);
makeSimpleTag (TagName, VhdlKinds, kind);
}
}
static void findTag (vString *const name)
{
int c = '\0';
vhdlKind kind;
vStringCopyToLower (Keyword, name);
kind = (vhdlKind)lookupKeyword (vStringValue (Keyword), Lang_vhdl);
if (kind == K_UNDEFINED)
{
c = skipWhite (vGetc ());
vStringCopyS(Lastname,vStringValue(name));
if (c == ':')
{
c = skipWhite (vGetc ());
if (isIdentifierCharacter (c))
{
readIdentifier (name, c);
vStringCopyToLower (Keyword, name);
lookupKeyword (vStringValue (Keyword), Lang_vhdl);
kind = (vhdlKind)lookupKeyword (vStringValue (Keyword), Lang_vhdl);
if (kind == K_PROCESS || kind == K_BLOCK || kind == K_PORT)
{
makeSimpleTag (Lastname, VhdlKinds, kind);
}
}
} else {
vUngetc (c);
}
}
else
{
if (kind == K_SIGNAL) {
while (c!=':') {
c = skipWhite (vGetc ());
if (c==',')
c = vGetc ();
if (isIdentifierCharacter (c))
tagNameList (kind, c);
else
break;
c = vGetc ();
}
}
else if (kind == K_PROCESS || kind == K_BLOCK) {
vStringCopyS(TagName,"unnamed");
makeSimpleTag (TagName, VhdlKinds, kind);
} else {
c = skipWhite (vGetc ());
if (c=='\"')
c = vGetc ();
if (isIdentifierCharacter (c))
tagNameList (kind, c);
}
}
}
static bool readIdentifier (vString *const name, int c)
{
vStringClear (name);
if (isIdentifierCharacter (c))
{
while (isIdentifierCharacter (c))
{
vStringPut (name, c);
c = vGetc ();
}
vUngetc (c);
}
return (bool)(name->length > 0);
}
static bool readIdentifier (tokenInfo *const token, int c)
{
vStringClear (token->name);
if (isIdentifierCharacter (c))
{
while (isIdentifierCharacter (c))
{
vStringPut (token->name, c);
c = vGetc ();
}
vUngetc (c);
token->lineNumber = getInputLineNumber ();
token->filePosition = getInputFilePosition ();
}
return (bool)(vStringLength (token->name) > 0);
}
static void findTag (vString *const name)
{
const verilogKind kind = (verilogKind)
lookupKeyword (vStringValue (name), Lang_verilog);
if (kind != K_UNDEFINED)
{
int c = skipWhite (vGetc ());
/* Many keywords can have bit width.
* reg [3:0] net_name;
* inout [(`DBUSWIDTH-1):0] databus;
*/
if (c == '(')
c = skipPastMatch ("()");
c = skipWhite (c);
if (c == '[')
c = skipPastMatch ("[]");
c = skipWhite (c);
if (c == '#')
{
c = vGetc ();
if (c == '(')
c = skipPastMatch ("()");
}
c = skipWhite (c);
if (isIdentifierCharacter (c))
tagNameList (kind, c);
}
}
static void processTypedef (tokenInfo *const token)
{
/*Note: At the moment, only identifies typedef name and not its contents */
int c;
/* Get identifiers */
c = skipWhite (vGetc ());
while (isIdentifierCharacter (c))
{
readIdentifier (token, c);
c = skipWhite (vGetc ());
}
/* Skip bus width definition */
if (c == '[')
{
skipPastMatch ("[]");
c = skipWhite (vGetc ());
}
/* Skip typedef contents */
if (c == '{')
{
skipPastMatch ("{}");
c = skipWhite (vGetc ());
}
/* Skip past class parameter override */
if (c == '#')
{
c = skipWhite (vGetc ());
if (c == '(')
{
skipPastMatch ("()");
}
c = skipWhite (vGetc ());
}
/* Read new typedef identifier */
if (isIdentifierCharacter (c))
{
readIdentifier (token, c);
}
/* Use last identifier to create tag */
createTag (token);
}
static void tagNameList (const verilogKind kind, int c)
{
vString *name = vStringNew ();
bool repeat;
Assert (isIdentifierCharacter (c));
do
{
repeat = false;
if (isIdentifierCharacter (c))
{
readIdentifier (name, c);
makeSimpleTag (name, VerilogKinds, kind);
}
else
break;
c = skipWhite (vGetc ());
if (c == '[')
c = skipPastMatch ("[]");
c = skipWhite (c);
if (c == '=')
{
c = skipWhite (vGetc ());
if (c == '{')
skipPastMatch ("{}");
else
{
do
c = vGetc ();
while (c != ',' && c != ';');
}
}
if (c == ',')
{
c = skipWhite (vGetc ());
repeat = true;
}
else
repeat = false;
} while (repeat);
vStringDelete (name);
vUngetc (c);
}
static void findVerilogTags (void)
{
tokenInfo *const token = newToken ();
int c = '\0';
currentContext = newToken ();
while (c != EOF)
{
c = vGetc ();
c = skipWhite (c);
switch (c)
{
/* Store current block name whenever a : is found
* This is used later by any tag type that requires this information
* */
case ':':
vStringCopy (currentContext->blockName, token->name);
break;
/* Skip interface modport port declarations */
case '(':
if (currentContext && currentContext->lastKind == K_MODPORT)
{
skipPastMatch ("()");
}
break;
/* Drop context on prototypes because they don't have an end
* statement */
case ';':
if (currentContext->scope && currentContext->scope->prototype)
{
verbose ("Dropping context %s\n", vStringValue (currentContext->name));
currentContext = popToken (currentContext);
currentContext->prototype = FALSE;
}
/* Prototypes end at the end of statement */
if (currentContext->prototype)
{
currentContext->prototype = FALSE;
}
break;
default :
if (isIdentifierCharacter (c))
{
readIdentifier (token, c);
updateKind (token);
findTag (token);
}
}
}
deleteToken (token);
pruneTokens (currentContext);
currentContext = NULL;
}
static const unsigned char *parseIdentifier (
const unsigned char *cp, vString *const identifier)
{
vStringClear (identifier);
while (isIdentifierCharacter ((int) *cp))
{
vStringPut (identifier, (int) *cp);
++cp;
}
return cp;
}
/*****************************************************************************
Starting at ''cp'', parse an identifier into ''identifier''.
*****************************************************************************/
const char *Parser_Perl::parseIdentifier (const char *cp, QString *identifier) const
{
std::string str;
while (isIdentifierCharacter ((int)*cp))
{
str+=*cp;
++cp;
}
identifier->append(str.c_str());
return cp;
}
IDBKeyPathLexer::TokenType IDBKeyPathLexer::lexIdentifier(String& element)
{
StringView start = m_remainingText;
if (!m_remainingText.isEmpty() && isIdentifierStartCharacter(m_remainingText[0]))
m_remainingText = m_remainingText.substring(1);
else
return TokenError;
while (!m_remainingText.isEmpty() && isIdentifierCharacter(m_remainingText[0]))
m_remainingText = m_remainingText.substring(1);
element = start.substring(0, start.length() - m_remainingText.length()).toString();
return TokenIdentifier;
}
IDBKeyPathLexer::TokenType IDBKeyPathLexer::lexIdentifier(String& element)
{
unsigned start = m_index;
if (m_index < m_length && isIdentifierStartCharacter(m_string[m_index]))
++m_index;
else
return TokenError;
while (m_index < m_length && isIdentifierCharacter(m_string[m_index]))
++m_index;
element = m_string.substring(start, m_index - start);
return TokenIdentifier;
}
IDBKeyPathLexer::TokenType IDBKeyPathLexer::lexIdentifier(String& element)
{
const UChar* start = m_ptr;
if (m_ptr < m_end && isIdentifierStartCharacter(*m_ptr))
++m_ptr;
else
return TokenError;
while (m_ptr < m_end && isIdentifierCharacter(*m_ptr))
++m_ptr;
element = String(start, m_ptr - start);
return TokenIdentifier;
}
static void findTag (vString *const name)
{
const verilogKind kind = (verilogKind) lookupKeyword (vStringValue (name), Lang_verilog);
if (kind == K_CONSTANT && vStringItem (name, 0) == '`')
{
/* Bug #961001: Verilog compiler directives are line-based. */
int c = skipWhite (vGetc ());
readIdentifier (name, c);
makeSimpleTag (name, VerilogKinds, kind);
/* Skip the rest of the line. */
do {
c = vGetc();
} while (c != '\n');
vUngetc (c);
}
else if (kind != K_UNDEFINED)
{
int c = skipWhite (vGetc ());
/* Many keywords can have bit width.
* reg [3:0] net_name;
* inout [(`DBUSWIDTH-1):0] databus;
*/
if (c == '(')
c = skipPastMatch ("()");
c = skipWhite (c);
if (c == '[')
c = skipPastMatch ("[]");
c = skipWhite (c);
if (c == '#')
{
c = vGetc ();
if (c == '(')
c = skipPastMatch ("()");
}
c = skipWhite (c);
if (isIdentifierCharacter (c))
tagNameList (kind, c);
}
}
static int skipMacro (int c)
{
tokenInfo *token = newToken ();;
if (c == '`')
{
/* Skip keyword */
if (isIdentifierCharacter (c = vGetc ()))
{
readIdentifier (token, c);
c = vGetc ();
/* Skip next keyword if macro is `ifdef or `ifndef or `elsif*/
if (strcmp (vStringValue (token->name), "ifdef") == 0 ||
strcmp (vStringValue (token->name), "ifndef") == 0 ||
strcmp (vStringValue (token->name), "elsif") == 0)
{
verbose ("%c\n", c);
c = skipWhite (c);
readIdentifier (token, c);
c = vGetc ();
verbose ("Skipping conditional macro %s\n", vStringValue (token->name));
}
/* Skip macro functions */
else
{
c = skipWhite (c);
if (c == '(')
{
c = skipPastMatch ("()");
}
}
}
}
deleteToken (token);
return c;
}
void Parser_Perl::parse()
{
QString continuation;
QString *name=new QString();
QString parent;
PerlSymbol *parentSymbol=NULL;
const char *line;
int line_skip = 0;
char const *longStringLiteral = NULL;
while ((line = (const char *) fileReadLine ()) != NULL)
{
const char *cp = line;
char const *keyword;
//int indent;
cp = skipSpace (cp);
if (*cp == '\0') /* skip blank line */
continue;
/* Skip comment if we are not inside a multi-line string. */
if (*cp == '#' && !longStringLiteral)
continue;
/* Deal with line continuation. */
if (!line_skip) continuation="";
continuation+=QString(line);
//vStringStripTrailing(continuation);
cp = line = continuation.toLatin1().data();
cp = skipSpace (cp);
line_skip = 0;
/* Deal with def and class keywords. */
keyword = findDefinitionOrClass (cp);
//printf("LINE_:%s\n",line);
if (keyword)
{
bool found = false;
bool is_class = false;
if (!strncmp (keyword, "sub ", 4) && isspace(keyword[3]))
{
cp = skipSpace (keyword + 4);
found = true;
}
else if (!strncmp (keyword, "package", 7) && isspace(keyword[7]))
{
cp = skipSpace (keyword + 7);
found = true;
is_class = true;
}
if (found)
{
PerlSymbol *symbol = NULL;
if (is_class)
{
symbol = makeClass (cp, 0);
parentSymbol=symbol;
}
else
symbol = makeFunction(cp, name, parentSymbol);
}
}
/* Find global and class variables */
#ifdef SHOW_VARIABLES
//char const *variable = findVariable(line);
char const* variable;
if (variable)
{
const char *start = variable;
vStringClear (name);
while (isIdentifierCharacter ((int) *start))
{
vStringPut (name, (int) *start);
++start;
}
vStringTerminate (name);
PerlSymbol *symbol = NULL;
PerlSymbol *parentSymbol = getParent(indent);
symbol = new PerlSymbol(parentSymbol, vStringToQString(name));
symbol->setIndent(indent);
symbol->setLine(this->getSourceLineNumber());
symbol->setIconType(Symbol::IconVar);
}
#endif
/* Find and parse imports */
#ifdef SHOW_IMPORTS
parseImports(line);
#endif
}
/* Clean up all memory we allocated. */
if(name)delete name;
}
/*****************************************************************************
Skip an identifier.
*****************************************************************************/
const char *Parser_Perl::skipIdentifier (const char *cp)
{
while (isIdentifierCharacter ((int) *cp))
cp++;
return cp;
}
int Lexer::nextTokenKind()
{
int token = Parser::Token_INVALID;
if ( m_curpos >= m_contentSize )
{
return 0;
}
QChar* it = m_content.data();
it += m_curpos;
switch ( state() )
{
case VariableValueState:
it = ignoreWhitespaceAndComment( it );
m_tokenBegin = m_curpos;
if( m_curpos < m_contentSize )
{
if( it->unicode() == '\n' )
{
popState();
createNewline( m_curpos );
token = Parser::Token_NEWLINE;
}else if( it->unicode() == '\\' && isCont(it) )
{
pushState(ContState);
token = Parser::Token_CONT;
}else if( it->unicode() == '"')
{
it++;
m_curpos++;
QChar* lastit = it;
while( ( it->unicode() != '"' || lastit->unicode() == '\\' && it->unicode() == '"' ) && it->unicode() != '\n' && it->unicode() != '#' && !isCont( it ) && m_curpos < m_contentSize )
{
lastit = it;
it++;
m_curpos++;
}
if( it->unicode() != '"' && it->unicode() != '#' )
{
m_curpos--;
}
token = Parser::Token_VALUE;
if( it->unicode() == '#' )
{
m_tokenEnd = m_curpos - 1;
do
{
it++;
m_curpos++;
}while( it->unicode() != '\n' && m_curpos < m_contentSize );
if( it->unicode() == '\n')
{
m_curpos--;
}
return token;
}
}else if( it->unicode() == '(' )
{
unsigned int bracecount = 0;
while( ( it->unicode() != ';' || bracecount > 0 ) && it->unicode() != '\n' && !isCont( it ) && m_curpos < m_contentSize )
{
if( it->unicode() == '(' )
{
bracecount++;
}else if( it->unicode() == ')' && bracecount > 0 )
{
bracecount--;
}
++it;
++m_curpos;
}
if( it->unicode() != ';' )
{
m_curpos--;
}
token = Parser::Token_VALUE;
}else
{
while( !it->isSpace() && !isCont(it) && it->unicode() != '#' && m_curpos < m_contentSize )
{
it++;
m_curpos++;
}
m_curpos--;
token = Parser::Token_VALUE;
}
}
break;
case FunctionArgState:
m_tokenBegin = m_curpos;
if( it->unicode() == '\n' )
{
createNewline( m_curpos );
token = Parser::Token_NEWLINE;
}else if( it->unicode() == '\\' && isCont(it) )
{
pushState( ContState );
token = Parser::Token_CONT;
}else if( it->unicode() == ',' )
{
token = Parser::Token_COMMA;
}else if( it->unicode() == ')' )
{
popState();
token = Parser::Token_RPAREN;
}else
{
unsigned int parentCount = 0;
while( parentCount > 0 || ( it->unicode() != ')' && it->unicode() != ',' ) && m_curpos < m_contentSize )
{
if( it->unicode() == ')' )
{
parentCount--;
}else if( it->unicode() == '(' )
{
parentCount++;
}
++it;
++m_curpos;
}
m_curpos--;
token = Parser::Token_VALUE;
}
break;
case ContState:
it = ignoreWhitespaceAndComment( it );
m_tokenBegin = m_curpos;
if( m_curpos < m_contentSize )
{
if ( it->unicode() == '\n' )
{
createNewline( m_curpos );
token = Parser::Token_NEWLINE;
m_tokenEnd = m_curpos;
popState();
QChar* temp = it;
int newpos = m_curpos;
do
{
temp++;
newpos++;
if(temp->unicode() == '#' )
{
while( temp->unicode() != '\n' && newpos < m_contentSize )
{
temp++;
newpos++;
}
createNewline( m_curpos );
temp++;
m_curpos = newpos;
newpos++;
}
}while( temp->isSpace() && temp->unicode() != '\n' && m_curpos < m_contentSize );
m_curpos++;
return token;
}
}
break;
case DefaultState:
it = ignoreWhitespaceAndComment( it );
m_tokenBegin = m_curpos;
if( m_curpos < m_contentSize )
{
if ( isBeginIdentifierCharacter( it ) )
{
token = Parser::Token_IDENTIFIER;
while ( !it->isSpace() && isIdentifierCharacter( it ) && m_curpos < m_contentSize )
{
it++;
m_curpos++;
}
if( !isEndIdentifierCharacter( ( it-1 ) ) )
{
token = Parser::Token_INVALID;
}
m_curpos--;
}
else
{
//Now the stuff that will generate a proper token
QChar* c2 = m_curpos < m_contentSize ? it + 1 : 0 ;
switch ( it->unicode() )
{
case '|':
token = Parser::Token_OR;
break;
case '!':
token = Parser::Token_EXCLAM;
break;
case '(':
pushState( FunctionArgState );
token = Parser::Token_LPAREN;
break;
case '{':
token = Parser::Token_LBRACE;
break;
case '}':
token = Parser::Token_RBRACE;
break;
case ':':
token = Parser::Token_COLON;
break;
case '~':
if ( c2 && c2->unicode() == '=' )
{
pushState( VariableValueState );
m_curpos++;
token = Parser::Token_TILDEEQ;
}
break;
case '*':
if ( c2 && c2->unicode() == '=' )
{
pushState( VariableValueState );
m_curpos++;
token = Parser::Token_STAREQ;
}
break;
case '-':
if ( c2 && c2->unicode() == '=' )
{
pushState( VariableValueState );
m_curpos++;
token = Parser::Token_MINUSEQ;
}
break;
case '+':
if ( c2 && c2->unicode() == '=' )
{
pushState( VariableValueState );
m_curpos++;
token = Parser::Token_PLUSEQ;
}
break;
case '=':
pushState( VariableValueState );
token = Parser::Token_EQUAL;
break;
case '\n':
createNewline( m_curpos );
token = Parser::Token_NEWLINE;
break;
default:
break;
}
}
}
break;
default:
token = Parser::Token_INVALID;
break;
}
if ( m_curpos >= m_contentSize )
{
return 0;
}
m_tokenEnd = m_curpos;
m_curpos++;
return token;
}
static void processTypedef (tokenInfo *const token)
{
/*Note: At the moment, only identifies typedef name and not its contents */
int c;
/* Get typedef type */
c = skipWhite (vGetc ());
if (isIdentifierCharacter (c))
{
readIdentifier (token, c);
/* A typedef class is just a prototype */
if (strcmp (vStringValue (token->name), "class") == 0)
{
currentContext->prototype = TRUE;
}
}
/* Skip remaining identifiers */
c = skipWhite (vGetc ());
while (isIdentifierCharacter (c))
{
readIdentifier (token, c);
c = skipWhite (vGetc ());
}
/* Skip bus width definition */
if (c == '[')
{
skipPastMatch ("[]");
c = skipWhite (vGetc ());
}
/* Skip typedef contents */
if (c == '{')
{
skipPastMatch ("{}");
c = skipWhite (vGetc ());
}
/* Skip past class parameter override */
if (c == '#')
{
c = skipWhite (vGetc ());
if (c == '(')
{
skipPastMatch ("()");
c = skipWhite (vGetc ());
}
}
/* Read typedef name */
if (isIdentifierCharacter (c))
{
readIdentifier (token, c);
}
else
{
vUngetc (c);
}
/* Use last identifier to create tag */
createTag (token);
}
void Tokenizer::insert(char ch)
{
bool insert = true;
switch (mState)
{
case BufferState::ErrorState:
{
// If we are in an error token, switch to ready to
// dispense if we encounter a token that is valid to
// start an identifier
if (canStartToken(ch))
{
mReady = true;
}
}
break;
case BufferState::SpecialTokenState:
{
mReady = true;
}
break;
case BufferState::WhiteSpaceState:
{
// if we are in a white space token, only something
// besides a white space token will end our token
if (!isWhitespace(ch))
{
mReady = true;
}
}
break;
case BufferState::VariableOrKeywordState:
{
// If we are in an identifier, keyword, or condition,
// only something besides a valid identifier
// character will end the token
if (!isIdentifierCharacter(ch))
{
mReady = true;
}
}
break;
case BufferState::IntConstantState:
{
if (ch == '.')
{
mState = BufferState::FloatConstantState;
}
else if (!isDigit(ch))
{
mReady = true;
}
}
break;
case BufferState::FloatConstantState:
{
if (!isDigit(ch))
{
mReady = true;
}
}
break;
case BufferState::StringConstantState:
{
if (mEndOfString)
{
mReady = true;
mEndOfString = false;
}
else if (mEscapeNextChar)
{
switch (ch)
{
case 'n':
ch = '\n';
break;
case 't':
ch = '\t';
break;
case 'r':
ch = '\r';
break;
case 'v':
ch = '\v';
break;
case 'a':
ch = '\a';
break;
case 'b':
ch = '\b';
break;
case 'f':
ch = '\f';
break;
case '\'':
case '\"':
case '?':
case '\\':
// do nothing
break;
default:
abort();
break;
}
mEscapeNextChar = false;
}
else if (ch == '\"')
{
mEndOfString = true;
}
else if (ch == '\\')
{
mEscapeNextChar = true;
insert = false;
}
}
break;
case BufferState::CommentState:
{
// a comment continues until the new line character
if (ch == '\n')
{
mReady = true;
}
}
break;
case BufferState::OperatorState:
{
if (mBuffer.size() == 1 && mBuffer[0] == '-' && isDigit(ch))
{
// Negative number special case
mState = BufferState::IntConstantState;
break;
}
string s = string(mBuffer.begin(), mBuffer.end());
int before = isOperatorSubstring(s);
s.push_back(ch);
int after = isOperatorSubstring(s);
if (before && !after)
{
mReady = true;
}
}
break;
case BufferState::EmptyState:
{
// make the mBuffer mState appropriate for whatever we
// are adding.
mState = bufferType(ch);
}
break;
}
if (insert)
{
mBuffer.push_back(ch);
}
}
static void findTag (tokenInfo *const token)
{
if (currentContext->kind != K_UNDEFINED)
{
/* Drop context, but only if an end token is found */
dropContext (token);
}
if (token->kind == K_CONSTANT && vStringItem (token->name, 0) == '`')
{
/* Bug #961001: Verilog compiler directives are line-based. */
int c = skipWhite (vGetc ());
readIdentifier (token, c);
createTag (token);
/* Skip the rest of the line. */
do {
c = vGetc();
} while (c != EOF && c != '\n');
vUngetc (c);
}
else if (token->kind == K_BLOCK)
{
/* Process begin..end blocks */
processBlock (token);
}
else if (token->kind == K_FUNCTION || token->kind == K_TASK)
{
/* Functions are treated differently because they may also include the
* type of the return value.
* Tasks are treated in the same way, although not having a return
* value.*/
processFunction (token);
}
else if (token->kind == K_ASSERTION)
{
if (vStringLength (currentContext->blockName) > 0)
{
vStringCopy (token->name, currentContext->blockName);
createTag (token);
skipToSemiColon ();
}
}
else if (token->kind == K_TYPEDEF)
{
processTypedef (token);
}
else if (token->kind == K_CLASS)
{
processClass (token);
}
else if (token->kind == K_IGNORE && isSingleStatement (token))
{
currentContext->singleStat = TRUE;
}
else if (isVariable (token))
{
int c = skipWhite (vGetc ());
tagNameList (token, c);
}
else if (token->kind != K_UNDEFINED && token->kind != K_IGNORE)
{
int c = skipWhite (vGetc ());
if (isIdentifierCharacter (c))
{
readIdentifier (token, c);
while (getKind (token) == K_IGNORE)
{
c = skipWhite (vGetc ());
readIdentifier (token, c);
}
createTag (token);
/* Get port list if required */
c = skipWhite (vGetc ());
if (c == '(' && hasSimplePortList (token))
{
processPortList (c);
}
else
{
vUngetc (c);
}
}
}
}
static void tagNameList (tokenInfo* token, int c)
{
verilogKind localKind;
boolean repeat;
/* Many keywords can have bit width.
* reg [3:0] net_name;
* inout [(`DBUSWIDTH-1):0] databus;
*/
if (c == '(')
c = skipPastMatch ("()");
c = skipWhite (c);
if (c == '[')
c = skipPastMatch ("[]");
c = skipWhite (c);
if (c == '#')
{
c = vGetc ();
if (c == '(')
c = skipPastMatch ("()");
}
c = skipWhite (c);
do
{
repeat = FALSE;
while (c == '`' && c != EOF)
{
c = skipMacro (c);
}
if (isIdentifierCharacter (c))
{
readIdentifier (token, c);
localKind = getKind (token);
/* Create tag in case name is not a known kind ... */
if (localKind == K_UNDEFINED)
{
createTag (token);
}
/* ... or else continue searching for names */
else
{
/* Update kind unless it's a port or an ignored keyword */
if (token->kind != K_PORT && localKind != K_IGNORE)
{
token->kind = localKind;
}
repeat = TRUE;
}
}
else
break;
c = skipWhite (vGetc ());
if (c == '[')
c = skipPastMatch ("[]");
c = skipWhite (c);
if (c == '=')
{
c = skipWhite (vGetc ());
if (c == '{')
skipPastMatch ("{}");
else
{
/* Skip until end of current name, kind or parameter list definition */
do
c = vGetc ();
while (c != EOF && c != ',' && c != ';' && c != ')');
}
}
if (c == ',')
{
c = skipWhite (vGetc ());
repeat = TRUE;
}
} while (repeat);
vUngetc (c);
}
static void processClass (tokenInfo *const token)
{
/*Note: At the moment, only identifies typedef name and not its contents */
int c;
tokenInfo *extra;
tokenInfo *parameters = NULL;
/* Get identifiers */
c = skipWhite (vGetc ());
if (isIdentifierCharacter (c))
{
readIdentifier (token, c);
c = skipWhite (vGetc ());
}
/* Find class parameters list */
if (c == '#')
{
c = skipWhite (vGetc ());
if (c == '(')
{
parameters = newToken ();
do
{
c = skipWhite (vGetc ());
readIdentifier (parameters, c);
updateKind (parameters);
verbose ("Found class parameter %s\n", vStringValue (parameters->name));
if (parameters->kind == K_UNDEFINED)
{
parameters->kind = K_CONSTANT;
parameters = pushToken (parameters, newToken ());
c = vGetc();
while (c != ',' && c != ')' && c != EOF)
{
c = vGetc();
}
}
} while (c != ')' && c != EOF);
c = vGetc ();
parameters = popToken (parameters);
}
c = skipWhite (vGetc ());
}
/* Search for inheritance information */
if (isIdentifierCharacter (c))
{
extra = newToken ();
readIdentifier (extra, c);
c = skipWhite (vGetc ());
if (strcmp (vStringValue (extra->name), "extends") == 0)
{
readIdentifier (extra, c);
vStringCopy (token->inheritance, extra->name);
verbose ("Inheritance %s\n", vStringValue (token->inheritance));
}
deleteToken (extra);
}
/* Use last identifier to create tag */
createTag (token);
/* Add parameter list */
while (parameters)
{
createTag (parameters);
parameters = popToken (parameters);
}
}
static void processPortList (int c)
{
if ((c = skipWhite (c)) == '(')
{
tokenInfo *token = newToken ();
/* Get next non-whitespace character after ( */
c = skipWhite (vGetc ());
while (c != ';' && c != EOF)
{
if (c == '[')
{
c = skipPastMatch ("[]");
}
else if (c == '(')
{
c = skipPastMatch ("()");
}
else if (c == '{')
{
c = skipPastMatch ("{}");
}
else if (c == '`')
{
c = skipMacro (c);
}
else if (c == '=')
{
/* Search for next port or end of port declaration */
while (c != ',' && c != ')' && c != EOF)
{
c = skipWhite (vGetc ());
}
}
else if (isIdentifierCharacter (c))
{
readIdentifier (token, c);
updateKind (token);
if (token->kind == K_UNDEFINED)
{
/* Only add port name if it is the last keyword.
* First keyword can be a dynamic type, like a class name */
c = skipWhite (vGetc ());
if (! isIdentifierCharacter (c) || c == '`')
{
verbose ("Found port: %s\n", vStringValue (token->name));
token->kind = K_PORT;
createTag (token);
}
}
else
{
c = skipWhite (vGetc ());
}
}
else
{
c = skipWhite (vGetc ());
}
}
if (! isIdentifierCharacter (c)) vUngetc (c);
deleteToken (token);
}
}
