686 lines
20 KiB
C++
686 lines
20 KiB
C++
force_inline B32 token_is_assign(Token_Kind token){return token >= TK_FirstAssign && token <= TK_LastAssign;}
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force_inline B32 token_is_assign(Token *token){return token_is_assign(token->kind);}
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force_inline B32 token_is_compare(Token_Kind token){return token >= TK_FirstCompare && token <= TK_LastCompare;}
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force_inline B32 token_is_compare(Token *token){return token_is_compare(token->kind);}
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CORE_Static U8
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lexc(Lex_Stream *s){
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return s->stream.str[s->iter];
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}
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CORE_Static U8
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lexci(Lex_Stream *s, S32 i){
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return s->stream.str[s->iter+i];
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}
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CORE_Static U8 *
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lexcp(Lex_Stream *s){
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return s->stream.str + s->iter;
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}
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CORE_Static B32
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lex_is_whitespace(U8 c){
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B32 result = c == ' ' || c == '\r';
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return result;
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}
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CORE_Static B32
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lex_is_alphabetic(U8 c){
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B32 result = (c >= 'A' && c <= 'Z') || (c >= 'a' && c <= 'z');
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return result;
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}
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CORE_Static B32
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lex_is_numeric(U8 c){
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B32 result = c >= '0' && c <= '9';
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return result;
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}
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CORE_Static B32
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lex_is_numeric_base16(U8 c){
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B32 result = (c >= '0' && c <= '9') || (c >= 'A' && c <= 'F') ||
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(c >= 'a' && c <= 'f');
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return result;
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}
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CORE_Static B32
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lex_is_alphanumeric(U8 c){
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B32 result = lex_is_numeric(c) || lex_is_alphabetic(c);
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return result;
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}
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CORE_Static void
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lex_set_len(Lex_Stream *s, Token *token){
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assert(lexcp(s) >= token->str);
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token->len = lexcp(s) - token->str;
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}
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CORE_Static void
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lex_set_keywords(Parse_Ctx *lexer, Array<String> keywords){
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Intern_String keyword = {};
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For(keywords){
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keyword = intern_string(&lexer->interns, it);
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if(&it == keywords.begin())
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lexer->interns.first_keyword = keyword.str;
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}
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lexer->interns.last_keyword = keyword.str;
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}
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CORE_Static B32
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lex_is_keyword(Intern_Table *lexer, Intern_String keyword){
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B32 result = keyword.str >= lexer->first_keyword && keyword.str <= lexer->last_keyword;
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return result;
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}
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CORE_Static void
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token_error(Token *t, String error_val){
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t->kind = TK_Error;
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t->error_val = error_val;
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}
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CORE_Static void
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lex_parse_u64(Parse_Ctx *lexer, Token *t, S64 base){
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Scratch scratch;
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Set_BigInt_Arena(scratch);
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t->kind = TK_Integer;
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BigInt m = bigint_u64(1);
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BigInt base_mul = bigint_u64(base);
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BigInt result = bigint_u64(0);
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for(S64 i = t->len - 1; i >= 0; --i){
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U64 value = t->str[i];
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if(t->str[i] >= 'a') value = value - 'a' + 10;
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else if(t->str[i] >= 'A') value = value - 'A' + 10;
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else value -= '0';
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BigInt val = bigint_u64(value);
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BigInt new_val = bigint_mul(&val, &m);
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result = bigint_add(&result, &new_val);
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m = bigint_mul(&m, &base_mul);
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}
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t->int_val = bigint_copy(lexer->perm, &result);
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}
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CORE_Static void
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lex_parse_f64(Token *t){
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t->kind = TK_Float;
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char buffer[128];
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S64 len = clamp_top((int)t->len, 126);
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memory_copy(buffer, t->str, len);
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buffer[len] = 0;
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t->f64_val = strtod(buffer, 0);
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}
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CORE_Static void
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lex_advance(Lex_Stream *s){
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if(s->iter >= s->stream.len){
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return;
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}
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else if(lexc(s) == '\n'){
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s->iter++;
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s->line++;
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s->line_begin = lexcp(s);
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}
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else{
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s->iter++;
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}
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}
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CORE_Static void
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lex_parse_string(Lex_Stream *s, Token *t, U8 c){
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for(;;){
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if(lexc(s) == '\\') lex_advance(s);
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else if(lexc(s) == c) break;
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else if(lexc(s) == 0){
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token_error(t, "Unterminated string, reached end of file"_s);
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break;
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}
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lex_advance(s);
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}
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if(t->kind != TK_Error){
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lex_advance(s);
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lex_set_len(s,t);
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}
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}
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CORE_Static void
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lex_parse_ident(Intern_Table *table, Lex_Stream *s, Token *t){
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while(lex_is_alphanumeric(lexc(s)) || lexc(s) == '_')
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lex_advance(s);
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lex_set_len(s,t);
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}
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#define CASE2(op, OpName, Assign) \
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case op: \
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if (lexc(s) == '=') { \
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lex_advance(s); \
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t.kind = Assign; \
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} else { \
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t.kind = OpName; \
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} \
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break
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#define CASE3(op, OpName, Assign, Incr) \
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case op: \
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if (lexc(s) == '=') { \
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lex_advance(s); \
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t.kind = Assign; \
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} else if (lexc(s) == op) { \
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lex_advance(s); \
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t.kind = Incr; \
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} else { \
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t.kind = OpName; \
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} \
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break
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CORE_Static Token
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token_make(Parse_Ctx *lexer, U8 *str, Intern_String file, int line, U8 *line_begin){
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Token t = {};
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t.str = str;
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t.file = file;
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t.line = line;
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t.line_begin = line_begin;
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t.di = lexer->token_debug_ids++;
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return t;
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}
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CORE_Static Token
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token_make(Parse_Ctx *lexer){
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return token_make(lexer, lexcp(&lexer->stream), lexer->stream.file, lexer->stream.line, lexer->stream.line_begin);
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}
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CORE_Static Token *
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lex_last_indent_token(Lex_Stream *s){
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if(s->indent_stack.len > 0){
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return *s->indent_stack.last();
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}
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return &token_null;
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}
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CORE_Static B32
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lex_is_scope(Token *t){
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B32 result = t->kind == OPEN_SCOPE || t->kind == CLOSE_SCOPE || t->kind == SAME_SCOPE;
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return result;
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}
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CORE_Static void
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lex_unwind_indent_stack(Token *t, Lex_Stream *s, Array<Token> *array){
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for(S64 i = s->indent_stack.len-1; i >= 0; i-=1){
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auto it = s->indent_stack.data[i];
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assert(lex_is_scope(it));
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if(it->indent == t->indent){
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t->kind = SAME_SCOPE;
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array->add(*t);
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break;
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}
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else if(it->indent < t->indent){
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token_error(t, "Bad indentation"_s);
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array->add(*t);
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break;
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}
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else{
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s->indent_stack.pop();
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t->kind = CLOSE_SCOPE;
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array->add(*t);
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}
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}
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}
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CORE_Static void
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lex__stream(Parse_Ctx *lexer){
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Intern_Table *table = &lexer->interns;
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Array<Token> *array = &lexer->tokens;
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Lex_Stream *s = &lexer->stream;
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B32 beginning = true;
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for(;;){
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if(lexc(s) == 0 || s->iter >= s->stream.len){
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end_of_stream:
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Token t = token_make(lexer);
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lex_unwind_indent_stack(&t, s, array);
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break;
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}
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// @note: the lexer is going to be a 2 stage process
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// first we tokenize the indentation and then proceed to tokenize
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// the good stuff
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// for blocks of stmts we parse till we cant find another new line
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// of same scope.
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// parse_decl doesn't require preceding new line
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//
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// in that way new lines act as commas in CORE_Static params
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// seeing a comma means that there is a next thing to parse
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// and it's easy to parse stuff using a do while loop
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// @note: first handle indentation
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// mostly we want to merge multiple new lines
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// but for down scopes we want to emit 2 new lines
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// that will ease out parsing, one token to break out
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// from a block parsing, second to allow continuation of surrounding scope
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Token t = token_make(lexer);
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B32 should_emit = beginning;
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for(;;){
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switch(lexc(s)){
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case 0 : goto end_of_stream; break;
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case '\t': case ' ': lex_advance(s); t.indent++; break;
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case '\r': lex_advance(s); break;
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case '/': {
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if(lexci(s,1) == '/'){
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lex_advance(s); lex_advance(s);
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t.kind = TK_Comment;
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for(;;){
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if(lexc(s) == '\n' || lexc(s) == 0) break;
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lex_advance(s);
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}
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}
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else if(lexci(s,1) == '*'){
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lex_advance(s); lex_advance(s);
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t.kind = TK_Comment;
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for(;;){
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if(lexc(s) == '*' && lexci(s,1) == '/'){
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lex_advance(s); lex_advance(s);
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break;
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}
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else if(lexc(s) == 0){
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token_error(&t, "Unterminated block comment"_s);
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break;
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}
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lex_advance(s);
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}
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}
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else goto indent_loop_break;
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} break;
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// @todo: add [;;] operator which adds new scope
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// @todo: also need some way to detect indentation so that
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// first of all we can check for consistency and second of
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// all because we would know by how much to indent
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// @todo: after detecting indentation 2 spaces would become 1 indent value
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case ';' : {
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Token semi = token_make(lexer);
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Token *last = lex_last_indent_token(s);
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semi.indent = last->indent;
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lex_advance(s);
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if(lexc(s) == ';'){
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lex_advance(s);
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semi.kind = OPEN_SCOPE;
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semi.indent = last->indent + 2; // @todo: proper detection of indentation
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array->add(semi);
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s->indent_stack.add(array->last());
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} else{
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semi.kind = SAME_SCOPE;
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array->add(semi);
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}
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} break;
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case '\n':{
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lex_advance(s);
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should_emit = true;
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t = token_make(lexer);
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} break;
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default:{
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if(s->inside_brace_paren) should_emit = false;
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if(should_emit){
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Token *last = lex_last_indent_token(s);
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if(t.indent > last->indent){
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t.kind = OPEN_SCOPE;
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array->add(t);
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s->indent_stack.add(array->last());
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}
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else if(t.indent < last->indent){
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lex_unwind_indent_stack(&t, s, array);
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}
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else {
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t.kind = SAME_SCOPE;
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array->add(t);
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}
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}
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goto indent_loop_break;
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}
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}
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} indent_loop_break:
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beginning = false;
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// @note: handle the indented token
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t = token_make(lexer);
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lex_advance(s);
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switch(*t.str){
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case 0 : goto end_of_stream; break;
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case '@': t.kind = TK_At; break;
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case '(': s->inside_brace_paren++; t.kind = TK_OpenParen; break;
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case ')': s->inside_brace_paren--; t.kind = TK_CloseParen; break;
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case '{': s->inside_brace_paren++; t.kind = TK_OpenBrace; break;
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case '}': s->inside_brace_paren--; t.kind = TK_CloseBrace; break;
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case '[': s->inside_brace_paren++; t.kind = TK_OpenBracket; break;
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case ']': s->inside_brace_paren--; t.kind = TK_CloseBracket; break;
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case ',': t.kind = TK_Comma; break;
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case '~': t.kind = TK_Neg; break;
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case '?': t.kind = TK_Question; break;
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case '^': t.kind = TK_BitXor; break;
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CASE2('!', TK_Not, TK_NotEquals);
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CASE2('=', TK_Assign, TK_Equals);
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CASE2('*', TK_Mul, TK_MulAssign);
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CASE2('%', TK_Mod, TK_ModAssign);
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CASE3('+', TK_Add, TK_AddAssign, TK_Increment);
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CASE3('&', TK_BitAnd, TK_AndAssign, TK_And);
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CASE3('|', TK_BitOr, TK_OrAssign, TK_Or);
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case '#': {
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t.kind = TK_Pound;
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lex_parse_ident(table, s, &t);
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t.str += 1;
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t.len -= 1;
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t.intern_val = intern_string(table, t.string);
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if(t.len == 0) token_error(&t, "Macro token without content"_s);
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}break;
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case '.': {
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if(lexc(s) == '.'){
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lex_advance(s);
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if(lexci(s,1) == '.') {
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lex_advance(s);
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t.kind = TK_ThreeDots;
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}
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else t.kind = TK_TwoDots;
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}
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else t.kind = TK_Dot;
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} break;
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case '\'':{
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assert(s->stream.len >= s->iter);
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UTF32_Result decode = utf8_to_utf32(lexcp(s), s->stream.len - s->iter);
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if(!decode.error){
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for(S32 i = 0; i < decode.advance; i++) lex_advance(s);
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t.unicode = decode.out_str;
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t.kind = TK_UnicodeLit;
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if(lexc(s) == '\''){
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lex_advance(s);
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}
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else{
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token_error(&t, "Unclosed unicode literal"_s);
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}
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}
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else{
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token_error(&t, "Invalid UTF8 sequence in unicode literal"_s);
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}
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} break;
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case '<': {
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if (lexc(s) == '<') {
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lex_advance(s);
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if (lexc(s) == '=') {
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lex_advance(s);
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t.kind = TK_LeftShiftAssign;
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}
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else {
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t.kind = TK_LeftShift;
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}
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}
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else if (lexc(s) == '=') {
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lex_advance(s);
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t.kind = TK_LesserThenOrEqual;
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}
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else {
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t.kind = TK_LesserThen;
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}
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} break;
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case '>': {
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if (lexc(s) == '>') {
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lex_advance(s);
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if (lexc(s) == '=') {
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lex_advance(s);
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t.kind = TK_RightShiftAssign;
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}
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else {
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t.kind = TK_RightShift;
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}
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}
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else if (lexc(s) == '=') {
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lex_advance(s);
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t.kind = TK_GreaterThenOrEqual;
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}
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else {
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t.kind = TK_GreaterThen;
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}
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} break;
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case ':': {
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if (lexc(s) == ':') {
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lex_advance(s);
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t.kind = TK_DoubleColon;
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}
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else if(lexc(s) == '='){
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lex_advance(s);
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t.kind = TK_ColonAssign;
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}
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else {
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t.kind = TK_Colon;
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}
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} break;
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case '-':{
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if (lexc(s) == '=') {
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lex_advance(s);
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t.kind = TK_SubAssign;
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}
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else if (lexc(s) == '-') {
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lex_advance(s);
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t.kind = TK_Decrement;
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}
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else if (lexc(s) == '>') {
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lex_advance(s);
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t.kind = TK_Arrow;
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}
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else {
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t.kind = TK_Sub;
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}
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} break;
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case '"': {
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t.kind = TK_StringLit;
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lex_parse_string(s,&t,'"');
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if(t.kind != TK_Error){
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t.str += 1;
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t.len -= 2;
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}
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t.intern_val = intern_string(table, t.string);
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} break;
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case '/': {
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if(lexc(s) == '='){
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t.kind = TK_DivAssign;
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lex_advance(s);
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}
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else {
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t.kind = TK_Div;
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}
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} break;
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case '0':{
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if(lexc(s) == 'x'){
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lex_advance(s);
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while(lex_is_numeric_base16(lexc(s)))
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lex_advance(s);
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lex_set_len(s, &t);
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t.str += 2;
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t.len -= 2;
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if(t.len == 0)
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token_error(&t, "Hex constant doesn't have value"_s);
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else
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lex_parse_u64(lexer, &t, 16);
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break;
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}
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else if(lexc(s) == 'b'){
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lex_advance(s);
|
|
while(lexc(s) == '0' || lexc(s) == '1')
|
|
lex_advance(s);
|
|
lex_set_len(s, &t);
|
|
t.str += 2;
|
|
t.len -= 2;
|
|
if(t.len == 0)
|
|
token_error(&t, "Hex constant doesn't have value"_s);
|
|
else
|
|
lex_parse_u64(lexer, &t, 2);
|
|
break;
|
|
}
|
|
|
|
}
|
|
case '1':case '2':case '3':case '4':
|
|
case '5':case '6':case '7':case '8':case '9':{
|
|
B32 found_dot = false;
|
|
for(;;){
|
|
if(lex_is_numeric(lexc(s)))
|
|
;
|
|
else if(lexc(s) == '.'){
|
|
if(found_dot){
|
|
token_error(&t, "Multiple '.' in float literal"_s);
|
|
goto end_of_switch;
|
|
}
|
|
found_dot = true;
|
|
}
|
|
else break;
|
|
|
|
lex_advance(s);
|
|
}
|
|
lex_set_len(s, &t);
|
|
if(found_dot) lex_parse_f64(&t);
|
|
else lex_parse_u64(lexer, &t, 10);
|
|
|
|
} break;
|
|
|
|
case 'A':case 'a':case 'M':case 'm':case 'B':
|
|
case 'b':case 'N':case 'n':case 'C':case 'c':case 'O':
|
|
case 'o':case 'D':case 'd':case 'P':case 'p':case 'E':
|
|
case 'e':case 'Q':case 'q':case 'F':case 'f':case 'R':
|
|
case 'r':case 'G':case 'g':case 'S':case 's':case 'H':
|
|
case 'h':case 'T':case 't':case 'I':case 'i':case 'U':
|
|
case 'u':case 'J':case 'j':case 'V':case 'v':case 'K':
|
|
case 'k':case 'W':case 'w':case 'L':case 'X':case 'l':
|
|
case 'x':case 'Z':case 'z':case 'Y':case 'y':case '_': {
|
|
t.kind = TK_Identifier;
|
|
lex_parse_ident(table, s, &t);
|
|
t.intern_val = intern_string(table, t.string);
|
|
if(lex_is_keyword(table, t.intern_val)){
|
|
t.kind = TK_Keyword;
|
|
}
|
|
} break;
|
|
|
|
default: {
|
|
token_error(&t, "Unknown token"_s);
|
|
}
|
|
}end_of_switch:
|
|
|
|
if(t.len==0)
|
|
lex_set_len(s,&t);
|
|
|
|
array->add(t);
|
|
}
|
|
#undef CASE2
|
|
#undef CASE3
|
|
}
|
|
|
|
CORE_Static void
|
|
lex_restream(Parse_Ctx *lexer, String istream, String file){
|
|
lexer->stream = {};
|
|
lexer->stream.stream = istream;
|
|
lexer->stream.line_begin = istream.str;
|
|
lexer->stream.file = lexer->intern(file);
|
|
|
|
Scratch scratch;
|
|
lexer->stream.indent_stack.allocator = scratch;
|
|
lexer->stream.indent_stack.add(&token_null);
|
|
lex__stream(lexer);
|
|
}
|
|
|
|
//-----------------------------------------------------------------------------
|
|
// Token metadata
|
|
//-----------------------------------------------------------------------------
|
|
|
|
CORE_Static const char *
|
|
name(Token_Kind kind){
|
|
switch(kind){
|
|
case TK_End: return "End of stream";
|
|
/*#
|
|
import meta
|
|
for i in meta.token_kinds:
|
|
if i[1] != "SPECIAL":
|
|
print("case TK_" + i[0] + f": return \"{i[1]}\";")
|
|
*/
|
|
case TK_Mul: return "*";
|
|
case TK_Div: return "/";
|
|
case TK_Mod: return "%";
|
|
case TK_LeftShift: return "<<";
|
|
case TK_RightShift: return ">>";
|
|
case TK_Add: return "+";
|
|
case TK_Sub: return "-";
|
|
case TK_Equals: return "==";
|
|
case TK_LesserThenOrEqual: return "<=";
|
|
case TK_GreaterThenOrEqual: return ">=";
|
|
case TK_LesserThen: return "<";
|
|
case TK_GreaterThen: return ">";
|
|
case TK_NotEquals: return "!=";
|
|
case TK_BitAnd: return "&";
|
|
case TK_BitOr: return "|";
|
|
case TK_BitXor: return "^";
|
|
case TK_And: return "&&";
|
|
case TK_Or: return "||";
|
|
case TK_Neg: return "~";
|
|
case TK_Not: return "!";
|
|
case TK_Decrement: return "--";
|
|
case TK_Increment: return "++";
|
|
case TK_PostDecrement: return "--";
|
|
case TK_PostIncrement: return "++";
|
|
case TK_Assign: return "=";
|
|
case TK_ColonAssign: return ":=";
|
|
case TK_DivAssign: return "/=";
|
|
case TK_MulAssign: return "*=";
|
|
case TK_ModAssign: return "%=";
|
|
case TK_SubAssign: return "-=";
|
|
case TK_AddAssign: return "+=";
|
|
case TK_AndAssign: return "&=";
|
|
case TK_OrAssign: return "|=";
|
|
case TK_XorAssign: return "^=";
|
|
case TK_LeftShiftAssign: return "<<=";
|
|
case TK_RightShiftAssign: return ">>=";
|
|
case TK_OpenParen: return "(";
|
|
case TK_CloseParen: return ")";
|
|
case TK_OpenBrace: return "{";
|
|
case TK_CloseBrace: return "}";
|
|
case TK_OpenBracket: return "[";
|
|
case TK_CloseBracket: return "]";
|
|
case TK_Comma: return ",";
|
|
case TK_Pound: return "#";
|
|
case TK_Question: return "?";
|
|
case TK_ThreeDots: return "...";
|
|
case TK_Semicolon: return ";";
|
|
case TK_Dot: return ".";
|
|
case TK_TwoDots: return "..";
|
|
case TK_NewLine: return "[NewLine]";
|
|
case TK_Colon: return ":";
|
|
case TK_DoubleColon: return "::";
|
|
case TK_At: return "@";
|
|
case TK_Arrow: return "->";
|
|
case TK_ExprSizeof: return "[SizeOf]";
|
|
case TK_DocComment: return "[///]";
|
|
case TK_Comment: return "//";
|
|
case TK_Identifier: return "[Ident]";
|
|
case TK_UnicodeLit: return "[Unicode]";
|
|
case TK_StringLit: return "[String]";
|
|
case TK_Error: return "[Error]";
|
|
case TK_Float: return "[Float]";
|
|
case TK_Integer: return "[Int]";
|
|
case TK_Keyword: return "[Keyword]";
|
|
/*END*/
|
|
case CLOSE_SCOPE: return "Close_Scope";
|
|
case OPEN_SCOPE: return "Open_Scope";
|
|
case SAME_SCOPE: return "Same_Scope";
|
|
default: invalid_codepath; return "<Undefined>";
|
|
}
|
|
}
|