mirror of
https://github.com/ZDoom/gzdoom-gles.git
synced 2024-12-03 17:32:40 +00:00
Annote AST nodes with source information
This commit is contained in:
Randy Heit
parent
5e0e74a47d
commit
2823ea5de3
3 changed files with 196 additions and 164 deletions
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@ -1,11 +1,34 @@
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%include
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{
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// Allocates a new AST node off the parse state's arena.
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#define NEW_AST_NODE(type,name) \
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ZCC_##type *name = (ZCC_##type *)stat->SyntaxArena.Alloc(sizeof(ZCC_##type)); \
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name->SiblingNext = name; \
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name->SiblingPrev = name; \
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name->NodeType = AST_##type
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#define NEW_AST_NODE(type,name,tok) \
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ZCC_##type *name = static_cast<ZCC_##type *>(InitNode(sizeof(ZCC_##type), AST_##type, stat)); \
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SetNodeLine(name, tok)
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static ZCC_TreeNode *InitNode(size_t size, EZCCTreeNodeType type, ZCCParseState *stat)
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{
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ZCC_TreeNode *node = (ZCC_TreeNode *)stat->SyntaxArena.Alloc(size);
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node->SiblingNext = node;
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node->SiblingPrev = node;
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node->NodeType = type;
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node->SourceName = stat->Strings.Alloc(stat->sc.ScriptName);
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return node;
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}
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static void SetNodeLine(ZCC_TreeNode *name, ZCCToken &tok)
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{
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name->SourceLoc = tok.SourceLoc;
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}
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static void SetNodeLine(ZCC_TreeNode *name, ZCC_TreeNode *node)
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{
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name->SourceLoc = node->SourceLoc;
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}
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static void SetNodeLine(ZCC_TreeNode *name, int line)
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{
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name->SourceLoc = line;
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}
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// If a is non-null, appends b to a. Otherwise, sets a to b.
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#define SAFE_APPEND(a,b) \
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@ -115,9 +138,9 @@ class_definition(X) ::= class_head(A) class_body(B).
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X = A;
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}
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class_head(X) ::= CLASS dottable_id(A) class_ancestry(B) class_flags(C).
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class_head(X) ::= CLASS(T) dottable_id(A) class_ancestry(B) class_flags(C).
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{
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NEW_AST_NODE(Class,head);
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NEW_AST_NODE(Class,head,T);
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head->ClassName = A;
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head->ParentName = B;
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head->Flags = C.Flags;
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@ -148,13 +171,13 @@ class_flags(X) ::= class_flags(A) REPLACES dottable_id(B). { X.Flags = A.Flags;
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dottable_id(X) ::= IDENTIFIER(A).
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{
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NEW_AST_NODE(Identifier,id);
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NEW_AST_NODE(Identifier,id,A);
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id->Id = A.Name();
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X = id;
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}
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dottable_id(X) ::= dottable_id(A) DOT IDENTIFIER(B).
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{
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NEW_AST_NODE(Identifier,id2);
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NEW_AST_NODE(Identifier,id2,A);
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id2->Id = B.Name();
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A->AppendSibling(id2);
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X = A;
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@ -195,9 +218,9 @@ class_member(X) ::= const_def(A). { X = A; }
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%type struct_body{ZCC_TreeNode *}
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%type struct_member{ZCC_TreeNode *}
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struct_def(X) ::= STRUCT IDENTIFIER(A) LBRACE opt_struct_body(B) RBRACE opt_semicolon.
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struct_def(X) ::= STRUCT(T) IDENTIFIER(A) LBRACE opt_struct_body(B) RBRACE opt_semicolon.
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{
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NEW_AST_NODE(Struct,def);
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NEW_AST_NODE(Struct,def,T);
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def->StructName = A.Name();
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def->Body = B;
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X = def;
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@ -217,21 +240,20 @@ struct_member(X) ::= enum_def(A). { X = A; }
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/*----- Enum Definition -----*/
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/* Enumerators are lists of named integers. */
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%type enum_type {EZCCBuiltinType}
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%type enum_list {ZCC_EnumNode *}
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%type opt_enum_list {ZCC_EnumNode *}
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%type enumerator {ZCC_EnumNode *}
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enum_def(X) ::= ENUM IDENTIFIER(A) enum_type(B) LBRACE opt_enum_list(C) RBRACE opt_semicolon.
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enum_def(X) ::= ENUM(T) IDENTIFIER(A) enum_type(B) LBRACE opt_enum_list(C) RBRACE opt_semicolon.
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{
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NEW_AST_NODE(Enum,def);
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NEW_AST_NODE(Enum,def,T);
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def->EnumName = A.Name();
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def->EnumType = B;
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def->EnumType = (EZCCBuiltinType)B.Int;
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def->Elements = C;
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X = def;
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}
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enum_type(X) ::= . { X = ZCC_IntAuto; }
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enum_type(X) ::= . { X.Int = ZCC_IntAuto; X.SourceLoc = stat->sc.GetMessageLine(); }
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enum_type(X) ::= COLON int_type(A). { X = A; }
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enum_list(X) ::= error. { X = NULL; }
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@ -243,14 +265,14 @@ opt_enum_list(X) ::= enum_list(A) opt_comma. { X = A; }
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enumerator(X) ::= IDENTIFIER(A).
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{
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NEW_AST_NODE(EnumNode,node);
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NEW_AST_NODE(EnumNode,node,A);
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node->ElemName = A.Name();
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node->ElemValue = NULL;
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X = node;
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}
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enumerator(X) ::= IDENTIFIER(A) EQ expr(B). /* Expression must be constant. */
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{
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NEW_AST_NODE(EnumNode,node);
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NEW_AST_NODE(EnumNode,node,A);
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node->ElemName = A.Name();
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node->ElemValue = B;
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X = node;
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@ -276,9 +298,9 @@ enumerator(X) ::= IDENTIFIER(A) EQ expr(B). /* Expression must be constant. */
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}
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%type state_opts {StateOpts}
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states_def(X) ::= STATES scanner_mode LBRACE states_body(A) RBRACE.
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states_def(X) ::= STATES(T) scanner_mode LBRACE states_body(A) RBRACE.
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{
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NEW_AST_NODE(States,def);
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NEW_AST_NODE(States,def,T);
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def->Body = A;
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X = def;
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}
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@ -304,20 +326,20 @@ states_body(X) ::= states_body(A) state_flow(B). { SAFE_APPEND(A,B); X = A; }
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state_label(X) ::= NWS(A) COLON.
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{
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NEW_AST_NODE(StateLabel, label);
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NEW_AST_NODE(StateLabel, label, A);
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label->Label = A.Name();
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X = label;
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}
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state_flow(X) ::= state_flow_type(A) scanner_mode SEMICOLON. { X = A; }
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state_flow_type(X) ::= STOP. { NEW_AST_NODE(StateStop, flow); X = flow; }
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state_flow_type(X) ::= WAIT. { NEW_AST_NODE(StateWait, flow); X = flow; }
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state_flow_type(X) ::= FAIL. { NEW_AST_NODE(StateFail, flow); X = flow; }
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state_flow_type(X) ::= LOOP. { NEW_AST_NODE(StateLoop, flow); X = flow; }
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state_flow_type(X) ::= GOTO dottable_id(A) state_goto_offset(B).
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state_flow_type(X) ::= STOP(A). { NEW_AST_NODE(StateStop, flow, A); X = flow; }
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state_flow_type(X) ::= WAIT(A). { NEW_AST_NODE(StateWait, flow, A); X = flow; }
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state_flow_type(X) ::= FAIL(A). { NEW_AST_NODE(StateFail, flow, A); X = flow; }
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state_flow_type(X) ::= LOOP(A). { NEW_AST_NODE(StateLoop, flow, A); X = flow; }
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state_flow_type(X) ::= GOTO(T) dottable_id(A) state_goto_offset(B).
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{
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NEW_AST_NODE(StateGoto, flow);
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NEW_AST_NODE(StateGoto, flow, T);
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flow->Label = A;
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flow->Offset = B;
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X = flow;
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@ -328,7 +350,7 @@ state_goto_offset(X) ::= PLUS expr(A). { X = A; } /* Must evaluate to a non-nega
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state_line(X) ::= NWS(A) NWS(B) expr state_opts(C) state_action(D).
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{
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NEW_AST_NODE(StateLine, line);
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NEW_AST_NODE(StateLine, line, A);
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const char *sprite = FName(A.Name()).GetChars();
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if (strlen(sprite) != 4)
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{
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@ -361,8 +383,8 @@ state_action(X) ::= state_call(A) scanner_mode SEMICOLON. { X = A; }
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state_call(X) ::= . { X = NULL; }
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state_call(X) ::= IDENTIFIER(A) state_call_params(B).
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{
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NEW_AST_NODE(ExprFuncCall, expr);
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NEW_AST_NODE(ExprID, func);
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NEW_AST_NODE(ExprFuncCall, expr, A);
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NEW_AST_NODE(ExprID, func, A);
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func->Operation = PEX_ID;
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func->Identifier = A.Name();
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@ -380,37 +402,34 @@ state_call_params(X) ::= LPAREN func_expr_list(A) RPAREN. { X = A; }
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default_def(X) ::= DEFAULT compound_statement(A). { X = A; }
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/* Type names */
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%type int_type {EZCCBuiltinType}
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%type type_name {ZCC_BasicType *}
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%type type_name1 {EZCCBuiltinType}
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%type vector_size {EZCCBuiltinType}
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int_type(X) ::= SBYTE. { X = ZCC_SInt8; }
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int_type(X) ::= BYTE. { X = ZCC_UInt8; }
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int_type(X) ::= SHORT. { X = ZCC_SInt16; }
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int_type(X) ::= USHORT. { X = ZCC_UInt16; }
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int_type(X) ::= INT. { X = ZCC_SInt32; }
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int_type(X) ::= UINT. { X = ZCC_UInt32; }
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int_type(X) ::= SBYTE(T). { X.Int = ZCC_SInt8; X.SourceLoc = T.SourceLoc; }
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int_type(X) ::= BYTE(T). { X.Int = ZCC_UInt8; X.SourceLoc = T.SourceLoc; }
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int_type(X) ::= SHORT(T). { X.Int = ZCC_SInt16; X.SourceLoc = T.SourceLoc; }
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int_type(X) ::= USHORT(T). { X.Int = ZCC_UInt16; X.SourceLoc = T.SourceLoc; }
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int_type(X) ::= INT(T). { X.Int = ZCC_SInt32; X.SourceLoc = T.SourceLoc; }
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int_type(X) ::= UINT(T). { X.Int = ZCC_UInt32; X.SourceLoc = T.SourceLoc; }
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type_name1(X) ::= BOOL. { X = ZCC_Bool; }
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type_name1(X) ::= BOOL(T). { X.Int = ZCC_Bool; X.SourceLoc = T.SourceLoc; }
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type_name1(X) ::= int_type(A). { X = A; }
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type_name1(X) ::= FLOAT. { X = ZCC_FloatAuto; }
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type_name1(X) ::= DOUBLE. { X = ZCC_Float64; }
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type_name1(X) ::= STRING. { X = ZCC_String; }
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type_name1(X) ::= VECTOR vector_size(A). { X = A; }
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type_name1(X) ::= NAME. { X = ZCC_Name; }
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type_name1(X) ::= FLOAT(T). { X.Int = ZCC_FloatAuto; X.SourceLoc = T.SourceLoc; }
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type_name1(X) ::= DOUBLE(T). { X.Int = ZCC_Float64; X.SourceLoc = T.SourceLoc; }
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type_name1(X) ::= STRING(T). { X.Int = ZCC_String; X.SourceLoc = T.SourceLoc; }
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type_name1(X) ::= VECTOR(T) vector_size(A). { X.Int = A.Int; X.SourceLoc = T.SourceLoc; }
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type_name1(X) ::= NAME(T). { X.Int = ZCC_Name; X.SourceLoc = T.SourceLoc; }
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type_name(X) ::= type_name1(A).
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{
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NEW_AST_NODE(BasicType, type);
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type->Type = A;
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NEW_AST_NODE(BasicType, type, A);
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type->Type = (EZCCBuiltinType)A.Int;
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type->UserType = NULL;
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X = type;
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}
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type_name(X) ::= IDENTIFIER(A). /* User-defined type (struct, enum, or class) */
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{
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NEW_AST_NODE(BasicType, type);
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NEW_AST_NODE(Identifier, id);
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NEW_AST_NODE(BasicType, type, A);
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NEW_AST_NODE(Identifier, id, A);
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type->Type = ZCC_UserType;
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type->UserType = id;
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id->Id = A.Name();
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@ -418,7 +437,7 @@ type_name(X) ::= IDENTIFIER(A). /* User-defined type (struct, enum, or class)
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}
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type_name(X) ::= DOT dottable_id(A).
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{
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NEW_AST_NODE(BasicType, type);
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NEW_AST_NODE(BasicType, type, A);
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type->Type = ZCC_UserType;
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type->UserType = A;
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X = type;
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@ -428,18 +447,19 @@ type_name(X) ::= DOT dottable_id(A).
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* (Well, actually, I'm not sure if 4D ones are going to happen
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* straight away.)
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*/
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vector_size(X) ::= . { X = ZCC_Vector3; }
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vector_size(X) ::= . { X.Int = ZCC_Vector3; X.SourceLoc = stat->sc.GetMessageLine(); }
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vector_size(X) ::= LT INTCONST(A) GT.
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{
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if (A.Int >= 2 && A.Int <= 4)
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{
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X = EZCCBuiltinType(ZCC_Vector2 + A.Int - 2);
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X.Int = ZCC_Vector2 + A.Int - 2;
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}
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else
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{
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X = ZCC_Vector3;
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X.Int = ZCC_Vector3;
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stat->sc.ScriptMessage("Invalid vector size %d\n", A.Int);
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}
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X.SourceLoc = A.SourceLoc;
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}
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/* Type names can also be used as identifiers in contexts where type names
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@ -457,24 +477,24 @@ vector_size(X) ::= LT INTCONST(A) GT.
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%type array_size{ZCC_Expression *}
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%type array_size_expr{ZCC_Expression *}
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aggregate_type(X) ::= MAP LT type_or_array(A) COMMA type_or_array(B) GT. /* Hash table */
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aggregate_type(X) ::= MAP(T) LT type_or_array(A) COMMA type_or_array(B) GT. /* Hash table */
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{
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NEW_AST_NODE(MapType,map);
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NEW_AST_NODE(MapType,map,T);
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map->KeyType = A;
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map->ValueType = B;
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X = map;
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}
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aggregate_type(X) ::= ARRAY LT type_or_array(A) GT. /* TArray<type> */
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aggregate_type(X) ::= ARRAY(T) LT type_or_array(A) GT. /* TArray<type> */
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{
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NEW_AST_NODE(DynArrayType,arr);
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NEW_AST_NODE(DynArrayType,arr,T);
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arr->ElementType = A;
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X = arr;
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}
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aggregate_type(X) ::= CLASS class_restrictor(A). /* class<type> */
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aggregate_type(X) ::= CLASS(T) class_restrictor(A). /* class<type> */
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{
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NEW_AST_NODE(ClassType,cls);
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NEW_AST_NODE(ClassType,cls,T);
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cls->Restriction = A;
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X = cls;
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}
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@ -497,7 +517,7 @@ array_size_expr(X) ::= LBRACKET opt_expr(A) RBRACKET.
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{
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if (A == NULL)
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{
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NEW_AST_NODE(Expression,nil);
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NEW_AST_NODE(Expression,nil,A);
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nil->Operation = PEX_Nil;
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X = nil;
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}
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@ -525,6 +545,7 @@ array_size(X) ::= array_size(A) array_size_expr(B).
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ZCC_CompoundStmt *FuncBody;
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ENamedName FuncName;
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int FuncFlags;
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int SourceLoc;
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};
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}
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%type variables_or_function {VarOrFun}
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@ -538,20 +559,20 @@ declarator(X) ::= decl_flags(A) type_list_or_void(B) variables_or_function(C).
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}
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else if (C.FuncName != NAME_None)
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{ // A function
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NEW_AST_NODE(FuncDeclarator, decl);
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NEW_AST_NODE(FuncDeclarator, decl, A.SourceLoc);
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decl->Type = B;
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decl->Params = C.FuncParams;
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decl->Name = C.FuncName;
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decl->Flags = A | C.FuncFlags;
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decl->Flags = A.Int | C.FuncFlags;
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decl->Body = C.FuncBody;
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X = decl;
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}
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else if (B != NULL && B->SiblingNext == B)
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{ // A variable
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NEW_AST_NODE(VarDeclarator, decl);
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NEW_AST_NODE(VarDeclarator, decl, A.SourceLoc);
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decl->Type = B;
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decl->Names = C.VarNames;
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decl->Flags = A;
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decl->Flags = A.Int;
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X = decl;
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}
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else
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@ -569,10 +590,10 @@ declarator(X) ::= decl_flags(A) type_list_or_void(B) variables_or_function(C).
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}
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declarator_no_fun(X) ::= decl_flags(A) type(B) variable_list(C).
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{
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NEW_AST_NODE(VarDeclarator, decl);
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NEW_AST_NODE(VarDeclarator, decl, A.SourceLoc ? A.SourceLoc : B->SourceLoc);
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decl->Type = B;
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decl->Names = C;
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decl->Flags = A;
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decl->Flags = A.Int;
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X = decl;
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}
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@ -583,9 +604,10 @@ variables_or_function(X) ::= IDENTIFIER(A) LPAREN func_params(B) RPAREN func_con
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fun.VarNames = NULL;
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fun.FuncParams = B;
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fun.FuncFlags = C;
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fun.FuncFlags = C.Int;
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fun.FuncName = A.Name();
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fun.FuncBody = D;
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fun.SourceLoc = A.SourceLoc;
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X = fun;
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}
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variables_or_function(X) ::= variable_list(A) SEMICOLON.
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@ -597,9 +619,10 @@ variables_or_function(X) ::= variable_list(A) SEMICOLON.
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var.FuncFlags = 0;
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var.FuncName = NAME_None;
|
||||
var.FuncBody = NULL;
|
||||
var.SourceLoc = A->SourceLoc;
|
||||
X = var;
|
||||
}
|
||||
variables_or_function(X) ::= error SEMICOLON.
|
||||
variables_or_function(X) ::= error SEMICOLON(T).
|
||||
{
|
||||
VarOrFun bad;
|
||||
bad.VarNames = NULL;
|
||||
|
|
@ -607,6 +630,7 @@ variables_or_function(X) ::= error SEMICOLON.
|
|||
bad.FuncFlags = 0;
|
||||
bad.FuncName = NAME_None;
|
||||
bad.FuncBody = NULL;
|
||||
bad.SourceLoc = T.SourceLoc;
|
||||
X = bad;
|
||||
}
|
||||
|
||||
|
|
@ -614,19 +638,17 @@ variables_or_function(X) ::= error SEMICOLON.
|
|||
|
||||
%type variable_name{ZCC_VarName *}
|
||||
%type variable_list{ZCC_VarName *}
|
||||
%type decl_flags{int}
|
||||
%type func_const{int}
|
||||
|
||||
variable_name(X) ::= IDENTIFIER(A).
|
||||
{
|
||||
NEW_AST_NODE(VarName,var);
|
||||
NEW_AST_NODE(VarName,var,A);
|
||||
var->Name = ENamedName(A.Int);
|
||||
var->ArraySize = NULL;
|
||||
X = var;
|
||||
}
|
||||
variable_name(X) ::= IDENTIFIER(A) array_size(B).
|
||||
{
|
||||
NEW_AST_NODE(VarName,var);
|
||||
NEW_AST_NODE(VarName,var,A);
|
||||
var->Name = ENamedName(A.Int);
|
||||
var->ArraySize = B;
|
||||
X = var;
|
||||
|
|
@ -642,20 +664,20 @@ variable_list(X) ::= variable_list(A) COMMA variable_name(B).
|
|||
X = A;
|
||||
}
|
||||
|
||||
decl_flags(X) ::= . { X = 0; }
|
||||
decl_flags(X) ::= decl_flags(A) NATIVE. { X = A | ZCC_Native; }
|
||||
decl_flags(X) ::= decl_flags(A) STATIC. { X = A | ZCC_Static; }
|
||||
decl_flags(X) ::= decl_flags(A) PRIVATE. { X = A | ZCC_Private; }
|
||||
decl_flags(X) ::= decl_flags(A) PROTECTED. { X = A | ZCC_Protected; }
|
||||
decl_flags(X) ::= decl_flags(A) LATENT. { X = A | ZCC_Latent; }
|
||||
decl_flags(X) ::= decl_flags(A) FINAL. { X = A | ZCC_Final; }
|
||||
decl_flags(X) ::= decl_flags(A) META. { X = A | ZCC_Meta; }
|
||||
decl_flags(X) ::= decl_flags(A) ACTION. { X = A | ZCC_Action; }
|
||||
decl_flags(X) ::= decl_flags(A) READONLY. { X = A | ZCC_ReadOnly; }
|
||||
decl_flags(X) ::= decl_flags(A) DEPRECATED. { X = A | ZCC_Deprecated; }
|
||||
decl_flags(X) ::= . { X.Int = 0; X.SourceLoc = 0; }
|
||||
decl_flags(X) ::= decl_flags(A) NATIVE(T). { X.Int = A.Int | ZCC_Native; X.SourceLoc = A.SourceLoc ? A.SourceLoc : T.SourceLoc; }
|
||||
decl_flags(X) ::= decl_flags(A) STATIC(T). { X.Int = A.Int | ZCC_Static; X.SourceLoc = A.SourceLoc ? A.SourceLoc : T.SourceLoc; }
|
||||
decl_flags(X) ::= decl_flags(A) PRIVATE(T). { X.Int = A.Int | ZCC_Private; X.SourceLoc = A.SourceLoc ? A.SourceLoc : T.SourceLoc; }
|
||||
decl_flags(X) ::= decl_flags(A) PROTECTED(T). { X.Int = A.Int | ZCC_Protected; X.SourceLoc = A.SourceLoc ? A.SourceLoc : T.SourceLoc; }
|
||||
decl_flags(X) ::= decl_flags(A) LATENT(T). { X.Int = A.Int | ZCC_Latent; X.SourceLoc = A.SourceLoc ? A.SourceLoc : T.SourceLoc; }
|
||||
decl_flags(X) ::= decl_flags(A) FINAL(T). { X.Int = A.Int | ZCC_Final; X.SourceLoc = A.SourceLoc ? A.SourceLoc : T.SourceLoc; }
|
||||
decl_flags(X) ::= decl_flags(A) META(T). { X.Int = A.Int | ZCC_Meta; X.SourceLoc = A.SourceLoc ? A.SourceLoc : T.SourceLoc; }
|
||||
decl_flags(X) ::= decl_flags(A) ACTION(T). { X.Int = A.Int | ZCC_Action; X.SourceLoc = A.SourceLoc ? A.SourceLoc : T.SourceLoc; }
|
||||
decl_flags(X) ::= decl_flags(A) READONLY(T). { X.Int = A.Int | ZCC_ReadOnly; X.SourceLoc = A.SourceLoc ? A.SourceLoc : T.SourceLoc; }
|
||||
decl_flags(X) ::= decl_flags(A) DEPRECATED(T). { X.Int = A.Int | ZCC_Deprecated; X.SourceLoc = A.SourceLoc ? A.SourceLoc : T.SourceLoc; }
|
||||
|
||||
func_const(X) ::= . { X = 0; }
|
||||
func_const(X) ::= CONST. { X = ZCC_FuncConst; }
|
||||
func_const(X) ::= . { X.Int = 0; X.SourceLoc = stat->sc.GetMessageLine(); }
|
||||
func_const(X) ::= CONST(T). { X.Int = ZCC_FuncConst; X.SourceLoc = T.SourceLoc; }
|
||||
|
||||
opt_func_body(X) ::= SEMICOLON. { X = NULL; }
|
||||
opt_func_body(X) ::= function_body(A). { X = A; }
|
||||
|
|
@ -663,7 +685,6 @@ opt_func_body(X) ::= function_body(A). { X = A; }
|
|||
%type func_params {ZCC_FuncParamDecl *}
|
||||
%type func_param_list {ZCC_FuncParamDecl *}
|
||||
%type func_param {ZCC_FuncParamDecl *}
|
||||
%type func_param_flags {int}
|
||||
|
||||
func_params(X) ::= . /* empty */ { X = NULL; }
|
||||
func_params(X) ::= VOID. { X = NULL; }
|
||||
|
|
@ -674,22 +695,22 @@ func_param_list(X) ::= func_param_list(A) COMMA func_param(B). { X = A; A->Appen
|
|||
|
||||
func_param(X) ::= func_param_flags(A) type(B) IDENTIFIER(C).
|
||||
{
|
||||
NEW_AST_NODE(FuncParamDecl,parm);
|
||||
NEW_AST_NODE(FuncParamDecl,parm,A.SourceLoc ? A.SourceLoc : B->SourceLoc);
|
||||
parm->Type = B;
|
||||
parm->Name = C.Name();
|
||||
parm->Flags = A;
|
||||
parm->Flags = A.Int;
|
||||
X = parm;
|
||||
}
|
||||
|
||||
func_param_flags(X) ::= . { X = 0; }
|
||||
func_param_flags(X) ::= func_param_flags(A) IN. { X = A | ZCC_In; }
|
||||
func_param_flags(X) ::= func_param_flags(A) OUT. { X = A | ZCC_Out; }
|
||||
func_param_flags(X) ::= func_param_flags(A) OPTIONAL. { X = A | ZCC_Optional; }
|
||||
func_param_flags(X) ::= . { X.Int = 0; X.SourceLoc = 0; }
|
||||
func_param_flags(X) ::= func_param_flags(A) IN(T). { X.Int = A.Int | ZCC_In; X.SourceLoc = A.SourceLoc ? A.SourceLoc : T.SourceLoc; }
|
||||
func_param_flags(X) ::= func_param_flags(A) OUT(T). { X.Int = A.Int | ZCC_Out; X.SourceLoc = A.SourceLoc ? A.SourceLoc : T.SourceLoc; }
|
||||
func_param_flags(X) ::= func_param_flags(A) OPTIONAL(T). { X.Int = A.Int | ZCC_Optional; X.SourceLoc = A.SourceLoc ? A.SourceLoc : T.SourceLoc; }
|
||||
|
||||
/* Like UnrealScript, a constant's type is implied by its value's type. */
|
||||
const_def(X) ::= CONST IDENTIFIER(A) EQ expr(B) SEMICOLON.
|
||||
const_def(X) ::= CONST(T) IDENTIFIER(A) EQ expr(B) SEMICOLON.
|
||||
{
|
||||
NEW_AST_NODE(ConstantDef,def);
|
||||
NEW_AST_NODE(ConstantDef,def,T);
|
||||
def->Name = A.Name();
|
||||
def->Value = B;
|
||||
X = def;
|
||||
|
|
@ -707,22 +728,22 @@ const_def(X) ::= CONST IDENTIFIER(A) EQ expr(B) SEMICOLON.
|
|||
%type constant{ZCC_Expression *}
|
||||
|
||||
%include {
|
||||
#define UNARY_EXPR(X,T) NEW_AST_NODE(ExprUnary, expr); expr->Operation = T; expr->Operand = X
|
||||
#define BINARY_EXPR(X,Y,T) NEW_AST_NODE(ExprBinary, expr); expr->Operation = T; expr->Left = X; expr->Right = Y
|
||||
#define UNARY_EXPR(X,T) NEW_AST_NODE(ExprUnary, expr, X); expr->Operation = T; expr->Operand = X
|
||||
#define BINARY_EXPR(X,Y,T) NEW_AST_NODE(ExprBinary, expr, X); expr->Operation = T; expr->Left = X; expr->Right = Y
|
||||
}
|
||||
|
||||
/*----- Primary Expressions -----*/
|
||||
|
||||
primary(X) ::= IDENTIFIER(A).
|
||||
{
|
||||
NEW_AST_NODE(ExprID, expr);
|
||||
NEW_AST_NODE(ExprID, expr, A);
|
||||
expr->Operation = PEX_ID;
|
||||
expr->Identifier = A.Name();
|
||||
X = expr;
|
||||
}
|
||||
primary(X) ::= SUPER.
|
||||
primary(X) ::= SUPER(T).
|
||||
{
|
||||
NEW_AST_NODE(Expression, expr);
|
||||
NEW_AST_NODE(Expression, expr, T);
|
||||
expr->Operation = PEX_Super;
|
||||
X = expr;
|
||||
}
|
||||
|
|
@ -730,9 +751,9 @@ primary(X) ::= constant(A).
|
|||
{
|
||||
X = A;
|
||||
}
|
||||
primary(X) ::= SELF.
|
||||
primary(X) ::= SELF(T).
|
||||
{
|
||||
NEW_AST_NODE(Expression, expr);
|
||||
NEW_AST_NODE(Expression, expr, T);
|
||||
expr->Operation = PEX_Self;
|
||||
X = expr;
|
||||
}
|
||||
|
|
@ -743,7 +764,7 @@ primary(X) ::= LPAREN expr(A) RPAREN.
|
|||
primary ::= LPAREN error RPAREN.
|
||||
primary(X) ::= primary(A) LPAREN func_expr_list(B) RPAREN. [DOT] // Function call
|
||||
{
|
||||
NEW_AST_NODE(ExprFuncCall, expr);
|
||||
NEW_AST_NODE(ExprFuncCall, expr, A);
|
||||
expr->Operation = PEX_FuncCall;
|
||||
expr->Function = A;
|
||||
expr->Parameters = B;
|
||||
|
|
@ -751,7 +772,7 @@ primary(X) ::= primary(A) LPAREN func_expr_list(B) RPAREN. [DOT] // Function ca
|
|||
}
|
||||
primary(X) ::= primary(A) LBRACKET expr(B) RBRACKET. [DOT] // Array access
|
||||
{
|
||||
NEW_AST_NODE(ExprBinary, expr);
|
||||
NEW_AST_NODE(ExprBinary, expr, B);
|
||||
expr->Operation = PEX_ArrayAccess;
|
||||
expr->Left = A;
|
||||
expr->Right = B;
|
||||
|
|
@ -759,7 +780,7 @@ primary(X) ::= primary(A) LBRACKET expr(B) RBRACKET. [DOT] // Array access
|
|||
}
|
||||
primary(X) ::= primary(A) DOT IDENTIFIER(B). // Member access
|
||||
{
|
||||
NEW_AST_NODE(ExprMemberAccess, expr);
|
||||
NEW_AST_NODE(ExprMemberAccess, expr, B);
|
||||
expr->Operation = PEX_MemberAccess;
|
||||
expr->Left = A;
|
||||
expr->Right = ENamedName(B.Int);
|
||||
|
|
@ -979,7 +1000,7 @@ expr(X) ::= expr(A) SCOPE expr(B).
|
|||
|
||||
expr(X) ::= expr(A) QUESTION expr(B) COLON expr(C).
|
||||
{
|
||||
NEW_AST_NODE(ExprTrinary, expr);
|
||||
NEW_AST_NODE(ExprTrinary, expr, A);
|
||||
expr->Operation = PEX_Trinary;
|
||||
expr->Test = A;
|
||||
expr->Left = B;
|
||||
|
|
@ -1014,19 +1035,19 @@ func_expr_list(X) ::= func_expr_item(A).
|
|||
{
|
||||
X = A;
|
||||
}
|
||||
func_expr_list(X) ::= func_expr_list(A) COMMA func_expr_item(B).
|
||||
func_expr_list(X) ::= func_expr_list(A) COMMA(T) func_expr_item(B).
|
||||
{
|
||||
// Omitted parameters still need to appear as nodes in the list.
|
||||
if (A == NULL)
|
||||
{
|
||||
NEW_AST_NODE(FuncParm,nil_a);
|
||||
NEW_AST_NODE(FuncParm,nil_a,T);
|
||||
nil_a->Value = NULL;
|
||||
nil_a->Label = NAME_None;
|
||||
A = nil_a;
|
||||
}
|
||||
if (B == NULL)
|
||||
{
|
||||
NEW_AST_NODE(FuncParm,nil_b);
|
||||
NEW_AST_NODE(FuncParm,nil_b,T);
|
||||
nil_b->Value = NULL;
|
||||
nil_b->Label = NAME_None;
|
||||
B = nil_b;
|
||||
|
|
@ -1046,14 +1067,14 @@ func_expr_item(X) ::= named_expr(A).
|
|||
|
||||
named_expr(X) ::= IDENTIFIER(A) COLON expr(B).
|
||||
{
|
||||
NEW_AST_NODE(FuncParm, parm);
|
||||
NEW_AST_NODE(FuncParm, parm, A);
|
||||
parm->Value = B;
|
||||
parm->Label = ENamedName(A.Int);
|
||||
X = parm;
|
||||
}
|
||||
named_expr(X) ::= expr(B).
|
||||
{
|
||||
NEW_AST_NODE(FuncParm, parm);
|
||||
NEW_AST_NODE(FuncParm, parm, B);
|
||||
parm->Value = B;
|
||||
parm->Label = NAME_None;
|
||||
X = parm;
|
||||
|
|
@ -1066,14 +1087,14 @@ named_expr(X) ::= expr(B).
|
|||
|
||||
string_constant(X) ::= STRCONST(A).
|
||||
{
|
||||
NEW_AST_NODE(ExprString, strconst);
|
||||
NEW_AST_NODE(ExprString, strconst, A);
|
||||
strconst->Operation = PEX_StringConst;
|
||||
strconst->Value = A.String;
|
||||
X = strconst;
|
||||
}
|
||||
string_constant(X) ::= string_constant(A) STRCONST(B).
|
||||
{
|
||||
NEW_AST_NODE(ExprString, strconst);
|
||||
NEW_AST_NODE(ExprString, strconst, A);
|
||||
strconst->Operation = PEX_StringConst;
|
||||
strconst->Value = stat->Strings.Alloc(*(A->Value) + *(B.String));
|
||||
X = strconst;
|
||||
|
|
@ -1085,14 +1106,14 @@ constant(X) ::= string_constant(A).
|
|||
}
|
||||
constant(X) ::= INTCONST(A).
|
||||
{
|
||||
NEW_AST_NODE(ExprInt, intconst);
|
||||
NEW_AST_NODE(ExprInt, intconst, A);
|
||||
intconst->Operation = PEX_IntConst;
|
||||
intconst->Value = A.Int;
|
||||
X = intconst;
|
||||
}
|
||||
constant(X) ::= FLOATCONST(A).
|
||||
{
|
||||
NEW_AST_NODE(ExprFloat, floatconst);
|
||||
NEW_AST_NODE(ExprFloat, floatconst, A);
|
||||
floatconst->Operation = PEX_FloatConst;
|
||||
floatconst->Value = A.Float;
|
||||
X = floatconst;
|
||||
|
|
@ -1118,25 +1139,25 @@ statement(X) ::= error SEMICOLON. { X = NULL; }
|
|||
|
||||
%type jump_statement{ZCC_Statement *}
|
||||
|
||||
jump_statement(A) ::= CONTINUE SEMICOLON.
|
||||
jump_statement(A) ::= CONTINUE(T) SEMICOLON.
|
||||
{
|
||||
NEW_AST_NODE(ContinueStmt, stmt);
|
||||
NEW_AST_NODE(ContinueStmt, stmt, T);
|
||||
A = stmt;
|
||||
}
|
||||
jump_statement(A) ::= BREAK SEMICOLON.
|
||||
jump_statement(A) ::= BREAK(T) SEMICOLON.
|
||||
{
|
||||
NEW_AST_NODE(BreakStmt, stmt);
|
||||
NEW_AST_NODE(BreakStmt, stmt, T);
|
||||
A = stmt;
|
||||
}
|
||||
jump_statement(A) ::= RETURN SEMICOLON.
|
||||
jump_statement(A) ::= RETURN(T) SEMICOLON.
|
||||
{
|
||||
NEW_AST_NODE(ReturnStmt, stmt);
|
||||
NEW_AST_NODE(ReturnStmt, stmt, T);
|
||||
stmt->Values = NULL;
|
||||
A = stmt;
|
||||
}
|
||||
jump_statement(A) ::= RETURN expr_list(X) SEMICOLON.
|
||||
jump_statement(A) ::= RETURN(T) expr_list(X) SEMICOLON.
|
||||
{
|
||||
NEW_AST_NODE(ReturnStmt, stmt);
|
||||
NEW_AST_NODE(ReturnStmt, stmt, T);
|
||||
stmt->Values = X;
|
||||
A = stmt;
|
||||
}
|
||||
|
|
@ -1146,21 +1167,21 @@ jump_statement(A) ::= RETURN expr_list(X) SEMICOLON.
|
|||
%type compound_statement{ZCC_CompoundStmt *}
|
||||
%type statement_list{ZCC_Statement *}
|
||||
|
||||
compound_statement(X) ::= LBRACE RBRACE.
|
||||
compound_statement(X) ::= LBRACE(T) RBRACE.
|
||||
{
|
||||
NEW_AST_NODE(CompoundStmt,stmt);
|
||||
NEW_AST_NODE(CompoundStmt,stmt,T);
|
||||
stmt->Content = NULL;
|
||||
X = stmt;
|
||||
}
|
||||
compound_statement(X) ::= LBRACE statement_list(A) RBRACE.
|
||||
compound_statement(X) ::= LBRACE(T) statement_list(A) RBRACE.
|
||||
{
|
||||
NEW_AST_NODE(CompoundStmt,stmt);
|
||||
NEW_AST_NODE(CompoundStmt,stmt,T);
|
||||
stmt->Content = A;
|
||||
X = stmt;
|
||||
}
|
||||
compound_statement(X) ::= LBRACE error RBRACE.
|
||||
compound_statement(X) ::= LBRACE(T) error RBRACE.
|
||||
{
|
||||
NEW_AST_NODE(CompoundStmt,stmt);
|
||||
NEW_AST_NODE(CompoundStmt,stmt,T);
|
||||
stmt->Content = NULL;
|
||||
X = stmt;
|
||||
}
|
||||
|
|
@ -1181,7 +1202,7 @@ statement_list(X) ::= statement_list(A) statement(B).
|
|||
|
||||
expression_statement(X) ::= expr(A).
|
||||
{
|
||||
NEW_AST_NODE(ExpressionStmt, stmt);
|
||||
NEW_AST_NODE(ExpressionStmt, stmt, A);
|
||||
stmt->Expression = A;
|
||||
X = stmt;
|
||||
}
|
||||
|
|
@ -1193,7 +1214,7 @@ expression_statement(X) ::= expr(A).
|
|||
// while/until (expr) statement
|
||||
iteration_statement(X) ::= while_or_until(TY) LPAREN expr(EX) RPAREN statement(ST).
|
||||
{
|
||||
NEW_AST_NODE(IterationStmt, iter);
|
||||
NEW_AST_NODE(IterationStmt, iter, TY);
|
||||
if (TY.Int == ZCC_UNTIL)
|
||||
{ // Negate the loop condition
|
||||
UNARY_EXPR(EX,PEX_BoolNot);
|
||||
|
|
@ -1209,9 +1230,9 @@ iteration_statement(X) ::= while_or_until(TY) LPAREN expr(EX) RPAREN statement(S
|
|||
X = iter;
|
||||
}
|
||||
// do statement while/until (expr)
|
||||
iteration_statement(X) ::= DO statement(ST) while_or_until(TY) LPAREN expr(EX) RPAREN.
|
||||
iteration_statement(X) ::= DO(T) statement(ST) while_or_until(TY) LPAREN expr(EX) RPAREN.
|
||||
{
|
||||
NEW_AST_NODE(IterationStmt, iter);
|
||||
NEW_AST_NODE(IterationStmt, iter, T);
|
||||
if (TY.Int == ZCC_UNTIL)
|
||||
{ // Negate the loop condition
|
||||
UNARY_EXPR(EX,PEX_BoolNot);
|
||||
|
|
@ -1227,9 +1248,9 @@ iteration_statement(X) ::= DO statement(ST) while_or_until(TY) LPAREN expr(EX) R
|
|||
X = iter;
|
||||
}
|
||||
// for (init; cond; bump) statement
|
||||
iteration_statement(X) ::= FOR LPAREN for_init(IN) SEMICOLON opt_expr(EX) SEMICOLON for_bump(DO) RPAREN statement(ST).
|
||||
iteration_statement(X) ::= FOR(T) LPAREN for_init(IN) SEMICOLON opt_expr(EX) SEMICOLON for_bump(DO) RPAREN statement(ST).
|
||||
{
|
||||
NEW_AST_NODE(IterationStmt, iter);
|
||||
NEW_AST_NODE(IterationStmt, iter, T);
|
||||
iter->LoopCondition = EX;
|
||||
iter->LoopStatement = ST;
|
||||
iter->LoopBumper = DO;
|
||||
|
|
@ -1239,18 +1260,20 @@ iteration_statement(X) ::= FOR LPAREN for_init(IN) SEMICOLON opt_expr(EX) SEMICO
|
|||
SAFE_APPEND(IN, iter);
|
||||
// And the whole thing gets wrapped inside a compound statement in case the loop
|
||||
// initializer defined any variables.
|
||||
NEW_AST_NODE(CompoundStmt, wrap);
|
||||
NEW_AST_NODE(CompoundStmt, wrap, T);
|
||||
wrap->Content = IN;
|
||||
X = wrap;
|
||||
}
|
||||
|
||||
while_or_until(X) ::= WHILE.
|
||||
while_or_until(X) ::= WHILE(T).
|
||||
{
|
||||
X.Int = ZCC_WHILE;
|
||||
X.SourceLoc = T.SourceLoc;
|
||||
}
|
||||
while_or_until(X) ::= UNTIL.
|
||||
while_or_until(X) ::= UNTIL(T).
|
||||
{
|
||||
X.Int = ZCC_UNTIL;
|
||||
X.SourceLoc = T.SourceLoc;
|
||||
}
|
||||
|
||||
%type for_init{ZCC_Statement *}
|
||||
|
|
@ -1283,9 +1306,9 @@ selection_statement(X) ::= if_front(A) ELSE statement(B). [ELSE]
|
|||
X = A;
|
||||
}
|
||||
|
||||
if_front(X) ::= IF LPAREN expr(A) RPAREN statement(B).
|
||||
if_front(X) ::= IF(T) LPAREN expr(A) RPAREN statement(B).
|
||||
{
|
||||
NEW_AST_NODE(IfStmt,stmt);
|
||||
NEW_AST_NODE(IfStmt,stmt,T);
|
||||
stmt->Condition = A;
|
||||
stmt->TruePath = B;
|
||||
stmt->FalsePath = NULL;
|
||||
|
|
@ -1294,9 +1317,9 @@ if_front(X) ::= IF LPAREN expr(A) RPAREN statement(B).
|
|||
|
||||
/*----- Switch Statements -----*/
|
||||
|
||||
selection_statement(X) ::= SWITCH LPAREN expr(A) RPAREN statement(B).
|
||||
selection_statement(X) ::= SWITCH(T) LPAREN expr(A) RPAREN statement(B).
|
||||
{
|
||||
NEW_AST_NODE(SwitchStmt,stmt);
|
||||
NEW_AST_NODE(SwitchStmt,stmt,T);
|
||||
stmt->Condition = A;
|
||||
stmt->Content = B;
|
||||
X = stmt;
|
||||
|
|
@ -1306,15 +1329,15 @@ selection_statement(X) ::= SWITCH LPAREN expr(A) RPAREN statement(B).
|
|||
|
||||
%type labeled_statement{ZCC_CaseStmt *}
|
||||
|
||||
labeled_statement(X) ::= CASE expr(A) COLON.
|
||||
labeled_statement(X) ::= CASE(T) expr(A) COLON.
|
||||
{
|
||||
NEW_AST_NODE(CaseStmt,stmt);
|
||||
NEW_AST_NODE(CaseStmt,stmt,T);
|
||||
stmt->Condition = A;
|
||||
X = stmt;
|
||||
}
|
||||
labeled_statement(X) ::= DEFAULT COLON.
|
||||
labeled_statement(X) ::= DEFAULT(T) COLON.
|
||||
{
|
||||
NEW_AST_NODE(CaseStmt,stmt);
|
||||
NEW_AST_NODE(CaseStmt,stmt,T);
|
||||
stmt->Condition = NULL;
|
||||
X = stmt;
|
||||
}
|
||||
|
|
@ -1322,28 +1345,27 @@ labeled_statement(X) ::= DEFAULT COLON.
|
|||
/*----- Assignment Statements -----*/
|
||||
|
||||
%type assign_statement{ZCC_AssignStmt *}
|
||||
%type assign_op{int}
|
||||
|
||||
assign_statement(X) ::= expr_list(A) assign_op(OP) expr_list(B). [EQ]
|
||||
{
|
||||
NEW_AST_NODE(AssignStmt,stmt);
|
||||
stmt->AssignOp = OP;
|
||||
NEW_AST_NODE(AssignStmt,stmt,OP);
|
||||
stmt->AssignOp = OP.Int;
|
||||
stmt->Dests = A;
|
||||
stmt->Sources = B;
|
||||
X = stmt;
|
||||
}
|
||||
|
||||
assign_op(X) ::= EQ. { X = ZCC_EQ; }
|
||||
assign_op(X) ::= MULEQ. { X = ZCC_MULEQ; }
|
||||
assign_op(X) ::= DIVEQ. { X = ZCC_DIVEQ; }
|
||||
assign_op(X) ::= MODEQ. { X = ZCC_MODEQ; }
|
||||
assign_op(X) ::= ADDEQ. { X = ZCC_ADDEQ; }
|
||||
assign_op(X) ::= SUBEQ. { X = ZCC_SUBEQ; }
|
||||
assign_op(X) ::= LSHEQ. { X = ZCC_LSHEQ; }
|
||||
assign_op(X) ::= RSHEQ. { X = ZCC_RSHEQ; }
|
||||
assign_op(X) ::= ANDEQ. { X = ZCC_ANDEQ; }
|
||||
assign_op(X) ::= OREQ. { X = ZCC_OREQ; }
|
||||
assign_op(X) ::= XOREQ. { X = ZCC_XOREQ; }
|
||||
assign_op(X) ::= EQ(T). { X.Int = ZCC_EQ; X.SourceLoc = T.SourceLoc; }
|
||||
assign_op(X) ::= MULEQ(T). { X.Int = ZCC_MULEQ; X.SourceLoc = T.SourceLoc; }
|
||||
assign_op(X) ::= DIVEQ(T). { X.Int = ZCC_DIVEQ; X.SourceLoc = T.SourceLoc; }
|
||||
assign_op(X) ::= MODEQ(T). { X.Int = ZCC_MODEQ; X.SourceLoc = T.SourceLoc; }
|
||||
assign_op(X) ::= ADDEQ(T). { X.Int = ZCC_ADDEQ; X.SourceLoc = T.SourceLoc; }
|
||||
assign_op(X) ::= SUBEQ(T). { X.Int = ZCC_SUBEQ; X.SourceLoc = T.SourceLoc; }
|
||||
assign_op(X) ::= LSHEQ(T). { X.Int = ZCC_LSHEQ; X.SourceLoc = T.SourceLoc; }
|
||||
assign_op(X) ::= RSHEQ(T). { X.Int = ZCC_RSHEQ; X.SourceLoc = T.SourceLoc; }
|
||||
assign_op(X) ::= ANDEQ(T). { X.Int = ZCC_ANDEQ; X.SourceLoc = T.SourceLoc; }
|
||||
assign_op(X) ::= OREQ(T). { X.Int = ZCC_OREQ; X.SourceLoc = T.SourceLoc; }
|
||||
assign_op(X) ::= XOREQ(T). { X.Int = ZCC_XOREQ; X.SourceLoc = T.SourceLoc; }
|
||||
|
||||
/*----- Local Variable Definition "Statements" -----*/
|
||||
|
||||
|
|
@ -1351,7 +1373,7 @@ assign_op(X) ::= XOREQ. { X = ZCC_XOREQ; }
|
|||
|
||||
local_var(X) ::= type(A) variable_list(B) var_init(C).
|
||||
{
|
||||
NEW_AST_NODE(LocalVarStmt,vardef);
|
||||
NEW_AST_NODE(LocalVarStmt,vardef,A);
|
||||
vardef->Type = A;
|
||||
vardef->Vars = B;
|
||||
vardef->Inits = C;
|
||||
|
|
|
|||
|
|
@ -186,6 +186,7 @@ static void DoParse(const char *filename)
|
|||
|
||||
while (sc.GetToken())
|
||||
{
|
||||
value.SourceLoc = sc.GetMessageLine();
|
||||
if (sc.TokenType == TK_StringConst)
|
||||
{
|
||||
value.String = state.Strings.Alloc(sc.String, sc.StringLen);
|
||||
|
|
|
|||
|
|
@ -11,11 +11,15 @@ struct ZCCParseState
|
|||
struct ZCC_TreeNode *TopNode;
|
||||
};
|
||||
|
||||
union ZCCToken
|
||||
struct ZCCToken
|
||||
{
|
||||
int Int;
|
||||
double Float;
|
||||
FString *String;
|
||||
union
|
||||
{
|
||||
int Int;
|
||||
double Float;
|
||||
FString *String;
|
||||
};
|
||||
int SourceLoc;
|
||||
|
||||
ENamedName Name() { return ENamedName(Int); }
|
||||
};
|
||||
|
|
@ -195,6 +199,11 @@ struct ZCC_TreeNode
|
|||
ZCC_TreeNode *SiblingNext;
|
||||
ZCC_TreeNode *SiblingPrev;
|
||||
|
||||
// can't use FScriptPosition, because the string wouldn't have a chance to
|
||||
// destruct if we did that.
|
||||
FString *SourceName;
|
||||
int SourceLoc;
|
||||
|
||||
// Node type is one of the node types above, which corresponds with
|
||||
// one of the structures below.
|
||||
EZCCTreeNodeType NodeType;
|
||||
|
|
|
|||
Loading…
Reference in a new issue