From bfa603d2c10092e51fe9cd63fe5c558f0656c419 Mon Sep 17 00:00:00 2001 From: marsninja Date: Fri, 10 Oct 2025 20:04:56 -0400 Subject: [PATCH 01/54] Frist commit of massive experiment --- jac/jaclang/compiler/emcascript/__init__.py | 25 + jac/jaclang/compiler/emcascript/es_unparse.py | 490 ++++++++ .../compiler/emcascript/esast_gen_pass.py | 1013 +++++++++++++++++ jac/jaclang/compiler/emcascript/estree.py | 795 +++++++++++++ jac/jaclang/utils/lang_tools.py | 22 +- 5 files changed, 2344 insertions(+), 1 deletion(-) create mode 100644 jac/jaclang/compiler/emcascript/__init__.py create mode 100644 jac/jaclang/compiler/emcascript/es_unparse.py create mode 100644 jac/jaclang/compiler/emcascript/esast_gen_pass.py create mode 100644 jac/jaclang/compiler/emcascript/estree.py diff --git a/jac/jaclang/compiler/emcascript/__init__.py b/jac/jaclang/compiler/emcascript/__init__.py new file mode 100644 index 0000000000..6b8aeb36e3 --- /dev/null +++ b/jac/jaclang/compiler/emcascript/__init__.py @@ -0,0 +1,25 @@ +"""ECMAScript/JavaScript AST generation for Jac. + +This package provides ECMAScript AST generation capabilities following the ESTree +specification, allowing Jac code to be transpiled to JavaScript/ECMAScript. +""" + +from jaclang.compiler.emcascript.esast_gen_pass import EsastGenPass +from jaclang.compiler.emcascript.estree import ( + Program, + Statement, + Expression, + Declaration, + Pattern, + es_node_to_dict, +) + +__all__ = [ + "EsastGenPass", + "Program", + "Statement", + "Expression", + "Declaration", + "Pattern", + "es_node_to_dict", +] diff --git a/jac/jaclang/compiler/emcascript/es_unparse.py b/jac/jaclang/compiler/emcascript/es_unparse.py new file mode 100644 index 0000000000..59081facd1 --- /dev/null +++ b/jac/jaclang/compiler/emcascript/es_unparse.py @@ -0,0 +1,490 @@ +"""ECMAScript/JavaScript code generation from ESTree AST. + +This module provides functionality to convert ESTree AST nodes back to +JavaScript source code (unparsing). +""" + +from __future__ import annotations + +from typing import Union + +from jaclang.compiler.emcascript import estree as es + + +class JSCodeGenerator: + """Generate JavaScript code from ESTree AST.""" + + def __init__(self, indent: str = " ") -> None: + """Initialize the code generator.""" + self.indent_str = indent + self.indent_level = 0 + + def indent(self) -> str: + """Get current indentation.""" + return self.indent_str * self.indent_level + + def generate(self, node: es.Node) -> str: + """Generate JavaScript code for a node.""" + method_name = f"gen_{node.type}" + method = getattr(self, method_name, None) + if method: + return method(node) + else: + return f"/* Unsupported node type: {node.type} */" + + # Program and Statements + # ====================== + + def gen_Program(self, node: es.Program) -> str: + """Generate program.""" + return "\n".join(self.generate(stmt) for stmt in node.body) + + def gen_ExpressionStatement(self, node: es.ExpressionStatement) -> str: + """Generate expression statement.""" + return f"{self.indent()}{self.generate(node.expression)};" + + def gen_BlockStatement(self, node: es.BlockStatement) -> str: + """Generate block statement.""" + if not node.body: + return "{}" + self.indent_level += 1 + body = "\n".join(self.generate(stmt) for stmt in node.body) + self.indent_level -= 1 + return f"{{\n{body}\n{self.indent()}}}" + + def gen_EmptyStatement(self, node: es.EmptyStatement) -> str: + """Generate empty statement.""" + return f"{self.indent()};" + + def gen_ReturnStatement(self, node: es.ReturnStatement) -> str: + """Generate return statement.""" + if node.argument: + return f"{self.indent()}return {self.generate(node.argument)};" + return f"{self.indent()}return;" + + def gen_IfStatement(self, node: es.IfStatement) -> str: + """Generate if statement.""" + test = self.generate(node.test) + consequent = self.generate(node.consequent) + result = f"{self.indent()}if ({test}) {consequent}" + if node.alternate: + if isinstance(node.alternate, es.IfStatement): + # else if + result += f" else {self.generate(node.alternate).lstrip()}" + else: + result += f" else {self.generate(node.alternate)}" + return result + + def gen_WhileStatement(self, node: es.WhileStatement) -> str: + """Generate while statement.""" + test = self.generate(node.test) + body = self.generate(node.body) + return f"{self.indent()}while ({test}) {body}" + + def gen_DoWhileStatement(self, node: es.DoWhileStatement) -> str: + """Generate do-while statement.""" + body = self.generate(node.body) + test = self.generate(node.test) + return f"{self.indent()}do {body} while ({test});" + + def gen_ForStatement(self, node: es.ForStatement) -> str: + """Generate for statement.""" + init = self.generate(node.init) if node.init else "" + test = self.generate(node.test) if node.test else "" + update = self.generate(node.update) if node.update else "" + body = self.generate(node.body) + return f"{self.indent()}for ({init}; {test}; {update}) {body}" + + def gen_ForInStatement(self, node: es.ForInStatement) -> str: + """Generate for-in statement.""" + left = self.generate(node.left) + right = self.generate(node.right) + body = self.generate(node.body) + return f"{self.indent()}for ({left} in {right}) {body}" + + def gen_ForOfStatement(self, node: es.ForOfStatement) -> str: + """Generate for-of statement.""" + await_str = "await " if node.await_ else "" + left = self.generate(node.left) + right = self.generate(node.right) + body = self.generate(node.body) + return f"{self.indent()}for {await_str}({left} of {right}) {body}" + + def gen_BreakStatement(self, node: es.BreakStatement) -> str: + """Generate break statement.""" + if node.label: + return f"{self.indent()}break {self.generate(node.label)};" + return f"{self.indent()}break;" + + def gen_ContinueStatement(self, node: es.ContinueStatement) -> str: + """Generate continue statement.""" + if node.label: + return f"{self.indent()}continue {self.generate(node.label)};" + return f"{self.indent()}continue;" + + def gen_ThrowStatement(self, node: es.ThrowStatement) -> str: + """Generate throw statement.""" + return f"{self.indent()}throw {self.generate(node.argument)};" + + def gen_TryStatement(self, node: es.TryStatement) -> str: + """Generate try statement.""" + result = f"{self.indent()}try {self.generate(node.block)}" + if node.handler: + result += f" {self.generate(node.handler)}" + if node.finalizer: + result += f" finally {self.generate(node.finalizer)}" + return result + + def gen_CatchClause(self, node: es.CatchClause) -> str: + """Generate catch clause.""" + if node.param: + return f"catch ({self.generate(node.param)}) {self.generate(node.body)}" + return f"catch {self.generate(node.body)}" + + def gen_SwitchStatement(self, node: es.SwitchStatement) -> str: + """Generate switch statement.""" + discriminant = self.generate(node.discriminant) + self.indent_level += 1 + cases = "\n".join(self.generate(case) for case in node.cases) + self.indent_level -= 1 + return f"{self.indent()}switch ({discriminant}) {{\n{cases}\n{self.indent()}}}" + + def gen_SwitchCase(self, node: es.SwitchCase) -> str: + """Generate switch case.""" + if node.test: + result = f"{self.indent()}case {self.generate(node.test)}:\n" + else: + result = f"{self.indent()}default:\n" + self.indent_level += 1 + for stmt in node.consequent: + result += f"{self.generate(stmt)}\n" + self.indent_level -= 1 + return result.rstrip() + + # Declarations + # ============ + + def gen_FunctionDeclaration(self, node: es.FunctionDeclaration) -> str: + """Generate function declaration.""" + async_str = "async " if node.async_ else "" + generator_str = "*" if node.generator else "" + name = self.generate(node.id) if node.id else "" + params = ", ".join(self.generate(p) for p in node.params) + body = self.generate(node.body) + return f"{self.indent()}{async_str}function{generator_str} {name}({params}) {body}" + + def gen_VariableDeclaration(self, node: es.VariableDeclaration) -> str: + """Generate variable declaration.""" + declarators = ", ".join(self.generate(d) for d in node.declarations) + return f"{self.indent()}{node.kind} {declarators};" + + def gen_VariableDeclarator(self, node: es.VariableDeclarator) -> str: + """Generate variable declarator.""" + id_str = self.generate(node.id) + if node.init: + return f"{id_str} = {self.generate(node.init)}" + return id_str + + def gen_ClassDeclaration(self, node: es.ClassDeclaration) -> str: + """Generate class declaration.""" + name = self.generate(node.id) if node.id else "" + extends = f" extends {self.generate(node.superClass)}" if node.superClass else "" + body = self.generate(node.body) + return f"{self.indent()}class {name}{extends} {body}" + + def gen_ClassExpression(self, node: es.ClassExpression) -> str: + """Generate class expression.""" + name = self.generate(node.id) if node.id else "" + extends = f" extends {self.generate(node.superClass)}" if node.superClass else "" + body = self.generate(node.body) + return f"class {name}{extends} {body}" + + def gen_ClassBody(self, node: es.ClassBody) -> str: + """Generate class body.""" + if not node.body: + return "{}" + self.indent_level += 1 + methods = "\n".join(self.generate(m) for m in node.body) + self.indent_level -= 1 + return f"{{\n{methods}\n{self.indent()}}}" + + def gen_MethodDefinition(self, node: es.MethodDefinition) -> str: + """Generate method definition.""" + static_str = "static " if node.static else "" + key = self.generate(node.key) + value = self.generate(node.value) + + # Extract function parts + if isinstance(node.value, es.FunctionExpression): + async_str = "async " if node.value.async_ else "" + params = ", ".join(self.generate(p) for p in node.value.params) + body = self.generate(node.value.body) + + if node.kind == "constructor": + return f"{self.indent()}constructor({params}) {body}" + elif node.kind == "get": + return f"{self.indent()}{static_str}get {key}() {body}" + elif node.kind == "set": + return f"{self.indent()}{static_str}set {key}({params}) {body}" + else: + return f"{self.indent()}{static_str}{async_str}{key}({params}) {body}" + + return f"{self.indent()}{static_str}{key}{value}" + + # Expressions + # =========== + + def gen_Identifier(self, node: es.Identifier) -> str: + """Generate identifier.""" + return node.name + + def gen_Literal(self, node: es.Literal) -> str: + """Generate literal.""" + if node.raw: + return node.raw + if isinstance(node.value, str): + return f'"{node.value}"' + elif node.value is None: + return "null" + elif isinstance(node.value, bool): + return "true" if node.value else "false" + else: + return str(node.value) + + def gen_ThisExpression(self, node: es.ThisExpression) -> str: + """Generate this expression.""" + return "this" + + def gen_ArrayExpression(self, node: es.ArrayExpression) -> str: + """Generate array expression.""" + elements = ", ".join( + self.generate(e) if e else "" for e in node.elements + ) + return f"[{elements}]" + + def gen_ObjectExpression(self, node: es.ObjectExpression) -> str: + """Generate object expression.""" + if not node.properties: + return "{}" + props = ", ".join(self.generate(p) for p in node.properties) + return f"{{{props}}}" + + def gen_Property(self, node: es.Property) -> str: + """Generate property.""" + key = self.generate(node.key) + value = self.generate(node.value) + + if node.shorthand: + return key + elif node.computed: + return f"[{key}]: {value}" + elif node.kind == "get": + return f"get {key}() {value}" + elif node.kind == "set": + return f"set {key}({value})" + else: + return f"{key}: {value}" + + def gen_FunctionExpression(self, node: es.FunctionExpression) -> str: + """Generate function expression.""" + async_str = "async " if node.async_ else "" + generator_str = "*" if node.generator else "" + name = self.generate(node.id) if node.id else "" + params = ", ".join(self.generate(p) for p in node.params) + body = self.generate(node.body) + return f"{async_str}function{generator_str} {name}({params}) {body}".strip() + + def gen_ArrowFunctionExpression(self, node: es.ArrowFunctionExpression) -> str: + """Generate arrow function expression.""" + async_str = "async " if node.async_ else "" + params = ", ".join(self.generate(p) for p in node.params) + if len(node.params) == 1: + params = self.generate(node.params[0]) + else: + params = f"({params})" + + if node.expression: + body = self.generate(node.body) + return f"{async_str}{params} => {body}" + else: + body = self.generate(node.body) + return f"{async_str}{params} => {body}" + + def gen_UnaryExpression(self, node: es.UnaryExpression) -> str: + """Generate unary expression.""" + arg = self.generate(node.argument) + if node.prefix: + if node.operator in ("typeof", "void", "delete"): + return f"{node.operator} {arg}" + return f"{node.operator}{arg}" + else: + return f"{arg}{node.operator}" + + def gen_UpdateExpression(self, node: es.UpdateExpression) -> str: + """Generate update expression.""" + arg = self.generate(node.argument) + if node.prefix: + return f"{node.operator}{arg}" + else: + return f"{arg}{node.operator}" + + def gen_BinaryExpression(self, node: es.BinaryExpression) -> str: + """Generate binary expression.""" + left = self.generate(node.left) + right = self.generate(node.right) + return f"{left} {node.operator} {right}" + + def gen_LogicalExpression(self, node: es.LogicalExpression) -> str: + """Generate logical expression.""" + left = self.generate(node.left) + right = self.generate(node.right) + return f"{left} {node.operator} {right}" + + def gen_AssignmentExpression(self, node: es.AssignmentExpression) -> str: + """Generate assignment expression.""" + left = self.generate(node.left) + right = self.generate(node.right) + return f"{left} {node.operator} {right}" + + def gen_MemberExpression(self, node: es.MemberExpression) -> str: + """Generate member expression.""" + obj = self.generate(node.object) + optional = "?." if node.optional else "" + if node.computed: + prop = self.generate(node.property) + return f"{obj}{optional}[{prop}]" + else: + prop = self.generate(node.property) + if optional: + return f"{obj}{optional}{prop}" + return f"{obj}.{prop}" + + def gen_ConditionalExpression(self, node: es.ConditionalExpression) -> str: + """Generate conditional expression.""" + test = self.generate(node.test) + consequent = self.generate(node.consequent) + alternate = self.generate(node.alternate) + return f"{test} ? {consequent} : {alternate}" + + def gen_CallExpression(self, node: es.CallExpression) -> str: + """Generate call expression.""" + callee = self.generate(node.callee) + optional = "?." if node.optional else "" + args = ", ".join(self.generate(arg) for arg in node.arguments) + return f"{callee}{optional}({args})" + + def gen_NewExpression(self, node: es.NewExpression) -> str: + """Generate new expression.""" + callee = self.generate(node.callee) + args = ", ".join(self.generate(arg) for arg in node.arguments) + return f"new {callee}({args})" + + def gen_SequenceExpression(self, node: es.SequenceExpression) -> str: + """Generate sequence expression.""" + exprs = ", ".join(self.generate(e) for e in node.expressions) + return f"({exprs})" + + def gen_YieldExpression(self, node: es.YieldExpression) -> str: + """Generate yield expression.""" + delegate = "*" if node.delegate else "" + if node.argument: + return f"yield{delegate} {self.generate(node.argument)}" + return f"yield{delegate}" + + def gen_AwaitExpression(self, node: es.AwaitExpression) -> str: + """Generate await expression.""" + return f"await {self.generate(node.argument)}" + + def gen_SpreadElement(self, node: es.SpreadElement) -> str: + """Generate spread element.""" + return f"...{self.generate(node.argument)}" + + def gen_Super(self, node: es.Super) -> str: + """Generate super.""" + return "super" + + # Patterns + # ======== + + def gen_ArrayPattern(self, node: es.ArrayPattern) -> str: + """Generate array pattern.""" + elements = ", ".join( + self.generate(e) if e else "" for e in node.elements + ) + return f"[{elements}]" + + def gen_ObjectPattern(self, node: es.ObjectPattern) -> str: + """Generate object pattern.""" + props = ", ".join(self.generate(p) for p in node.properties) + return f"{{{props}}}" + + def gen_AssignmentPattern(self, node: es.AssignmentPattern) -> str: + """Generate assignment pattern.""" + left = self.generate(node.left) + right = self.generate(node.right) + return f"{left} = {right}" + + def gen_RestElement(self, node: es.RestElement) -> str: + """Generate rest element.""" + return f"...{self.generate(node.argument)}" + + # Modules + # ======= + + def gen_ImportDeclaration(self, node: es.ImportDeclaration) -> str: + """Generate import declaration.""" + specs = ", ".join(self.generate(s) for s in node.specifiers) + source = self.generate(node.source) + return f"{self.indent()}import {specs} from {source};" + + def gen_ImportSpecifier(self, node: es.ImportSpecifier) -> str: + """Generate import specifier.""" + imported = self.generate(node.imported) + local = self.generate(node.local) + if imported != local: + return f"{imported} as {local}" + return imported + + def gen_ImportDefaultSpecifier(self, node: es.ImportDefaultSpecifier) -> str: + """Generate import default specifier.""" + return self.generate(node.local) + + def gen_ImportNamespaceSpecifier(self, node: es.ImportNamespaceSpecifier) -> str: + """Generate import namespace specifier.""" + return f"* as {self.generate(node.local)}" + + def gen_ExportNamedDeclaration(self, node: es.ExportNamedDeclaration) -> str: + """Generate export named declaration.""" + if node.declaration: + return f"{self.indent()}export {self.generate(node.declaration).lstrip()}" + specs = ", ".join(self.generate(s) for s in node.specifiers) + if node.source: + source = self.generate(node.source) + return f"{self.indent()}export {{{specs}}} from {source};" + return f"{self.indent()}export {{{specs}}};" + + def gen_ExportSpecifier(self, node: es.ExportSpecifier) -> str: + """Generate export specifier.""" + local = self.generate(node.local) + exported = self.generate(node.exported) + if local != exported: + return f"{local} as {exported}" + return local + + def gen_ExportDefaultDeclaration(self, node: es.ExportDefaultDeclaration) -> str: + """Generate export default declaration.""" + return f"{self.indent()}export default {self.generate(node.declaration)};" + + def gen_ExportAllDeclaration(self, node: es.ExportAllDeclaration) -> str: + """Generate export all declaration.""" + source = self.generate(node.source) + if node.exported: + exported = self.generate(node.exported) + return f"{self.indent()}export * as {exported} from {source};" + return f"{self.indent()}export * from {source};" + + +def es_to_js(node: es.Node, indent: str = " ") -> str: + """Convert an ESTree node to JavaScript code.""" + generator = JSCodeGenerator(indent=indent) + return generator.generate(node) diff --git a/jac/jaclang/compiler/emcascript/esast_gen_pass.py b/jac/jaclang/compiler/emcascript/esast_gen_pass.py new file mode 100644 index 0000000000..69fac8c1d7 --- /dev/null +++ b/jac/jaclang/compiler/emcascript/esast_gen_pass.py @@ -0,0 +1,1013 @@ +"""ECMAScript AST Generation Pass for the Jac compiler. + +This pass transforms the Jac AST into equivalent ECMAScript AST following +the ESTree specification by: + +1. Traversing the Jac AST and generating corresponding ESTree nodes +2. Handling all Jac language constructs and translating them to JavaScript/ECMAScript equivalents: + - Classes, functions, and methods + - Control flow statements (if/else, loops, try/catch) + - Data structures (arrays, objects) + - Special Jac features (walkers, abilities, archetypes) converted to JS classes + - Data spatial operations converted to appropriate JS patterns + +3. Managing imports and module dependencies +4. Preserving source location information +5. Generating valid ECMAScript code that can be executed in JavaScript environments + +The output of this pass is a complete ESTree AST representation that can be +serialized to JavaScript source code or used by JavaScript tooling. +""" + +from __future__ import annotations + +from typing import List, Optional, Sequence, Union, cast + +import jaclang.compiler.emcascript.estree as es +import jaclang.compiler.unitree as uni +from jaclang.compiler.constant import Constants as Con, EdgeDir, Tokens as Tok +from jaclang.compiler.passes import UniPass + + +class EsastGenPass(UniPass): + """Jac to ECMAScript AST transpilation pass.""" + + def before_pass(self) -> None: + """Initialize the pass.""" + self.child_passes: list[EsastGenPass] = [] + for i in self.ir_in.impl_mod + self.ir_in.test_mod: + child_pass = EsastGenPass(ir_in=i, prog=self.prog) + self.child_passes.append(child_pass) + self.imports: list[es.ImportDeclaration] = [] + self.exports: list[es.ExportNamedDeclaration] = [] + + def enter_node(self, node: uni.UniNode) -> None: + """Enter node.""" + if hasattr(node.gen, "es_ast") and node.gen.es_ast: + self.prune() + return + super().enter_node(node) + + def sync_loc( + self, es_node: es.Node, jac_node: Optional[uni.UniNode] = None + ) -> es.Node: + """Sync source locations from Jac node to ES node.""" + if not jac_node: + jac_node = self.cur_node + es_node.loc = es.SourceLocation( + start=es.Position( + line=jac_node.loc.first_line, column=jac_node.loc.col_start + ), + end=es.Position(line=jac_node.loc.last_line, column=jac_node.loc.col_end), + ) + return es_node + + def flatten(self, items: list[Union[es.Statement, list[es.Statement], None]]) -> list[es.Statement]: + """Flatten a list of items or lists into a single list.""" + result: list[es.Statement] = [] + for item in items: + if isinstance(item, list): + result.extend(item) + elif item is not None: + result.append(item) + return result + + # Module and Program + # ================== + + def exit_module(self, node: uni.Module) -> None: + """Process module node.""" + body: list[Union[es.Statement, es.ModuleDeclaration]] = [] + + # Add imports + body.extend(self.imports) + + # Process module body + clean_body = [i for i in node.body if not isinstance(i, uni.ImplDef)] + for stmt in clean_body: + if hasattr(stmt.gen, "es_ast") and stmt.gen.es_ast: + if isinstance(stmt.gen.es_ast, list): + body.extend(stmt.gen.es_ast) + else: + body.append(stmt.gen.es_ast) + + # Add exports + body.extend(self.exports) + + program = self.sync_loc( + es.Program(body=body, sourceType="module"), jac_node=node + ) + node.gen.es_ast = program + + def exit_sub_tag(self, node: uni.SubTag[uni.T]) -> None: + """Process SubTag node.""" + if hasattr(node.tag.gen, "es_ast"): + node.gen.es_ast = node.tag.gen.es_ast + + # Import/Export Statements + # ======================== + + def exit_import(self, node: uni.Import) -> None: + """Process import statement.""" + if node.from_loc and node.items: + source = self.sync_loc( + es.Literal(value=node.from_loc.path_str), jac_node=node.from_loc + ) + specifiers: list[ + Union[ + es.ImportSpecifier, + es.ImportDefaultSpecifier, + es.ImportNamespaceSpecifier, + ] + ] = [] + + for item in node.items: + if isinstance(item, uni.ModuleItem): + imported = self.sync_loc( + es.Identifier(name=item.name.sym_name), jac_node=item.name + ) + local = self.sync_loc( + es.Identifier( + name=item.alias.sym_name if item.alias else item.name.sym_name + ), + jac_node=item.alias if item.alias else item.name, + ) + specifiers.append( + self.sync_loc( + es.ImportSpecifier(imported=imported, local=local), + jac_node=item, + ) + ) + + import_decl = self.sync_loc( + es.ImportDeclaration(specifiers=specifiers, source=source), jac_node=node + ) + self.imports.append(import_decl) + node.gen.es_ast = [] # Imports are added to module level + + def exit_module_path(self, node: uni.ModulePath) -> None: + """Process module path.""" + node.gen.es_ast = None + + def exit_module_item(self, node: uni.ModuleItem) -> None: + """Process module item.""" + node.gen.es_ast = None + + # Declarations + # ============ + + def exit_archetype(self, node: uni.Archetype) -> None: + """Process archetype (class) declaration.""" + body_stmts: list[es.MethodDefinition] = [] + + # Process body + inner: Sequence[uni.CodeBlockStmt] | None = None + if isinstance(node.body, uni.ImplDef) and isinstance(node.body.body, list): + inner = node.body.body # type: ignore + elif isinstance(node.body, list): + inner = node.body + + if inner: + for stmt in inner: + if hasattr(stmt.gen, "es_ast") and stmt.gen.es_ast: + if isinstance(stmt.gen.es_ast, es.MethodDefinition): + body_stmts.append(stmt.gen.es_ast) + + # Create class body + class_body = self.sync_loc( + es.ClassBody(body=body_stmts), jac_node=node + ) + + # Handle base classes + super_class: Optional[es.Expression] = None + if node.base_classes: + base = node.base_classes[0] + if hasattr(base.gen, "es_ast") and base.gen.es_ast: + super_class = base.gen.es_ast + + # Create class declaration + class_id = self.sync_loc( + es.Identifier(name=node.name.sym_name), jac_node=node.name + ) + + class_decl = self.sync_loc( + es.ClassDeclaration( + id=class_id, superClass=super_class, body=class_body + ), + jac_node=node, + ) + + node.gen.es_ast = class_decl + + def exit_enum(self, node: uni.Enum) -> None: + """Process enum declaration as an object.""" + properties: list[es.Property] = [] + + inner: Sequence[uni.EnumBlockStmt] | None = None + if isinstance(node.body, uni.ImplDef) and isinstance(node.body.body, list): + inner = node.body.body # type: ignore + elif isinstance(node.body, list): + inner = node.body + + if inner: + for stmt in inner: + if isinstance(stmt, uni.Assignment): + for target in stmt.target: + if isinstance(target, uni.AstSymbolNode): + key = self.sync_loc( + es.Identifier(name=target.sym_name), jac_node=target + ) + value: es.Expression + if stmt.value and hasattr(stmt.value.gen, "es_ast"): + value = stmt.value.gen.es_ast + else: + value = self.sync_loc( + es.Literal(value=None), jac_node=stmt + ) + prop = self.sync_loc( + es.Property(key=key, value=value, kind="init"), + jac_node=stmt, + ) + properties.append(prop) + + # Create as const variable with object + obj_expr = self.sync_loc( + es.ObjectExpression(properties=properties), jac_node=node + ) + var_id = self.sync_loc( + es.Identifier(name=node.name.sym_name), jac_node=node.name + ) + var_decl = self.sync_loc( + es.VariableDeclaration( + declarations=[ + self.sync_loc( + es.VariableDeclarator(id=var_id, init=obj_expr), jac_node=node + ) + ], + kind="const", + ), + jac_node=node, + ) + + node.gen.es_ast = var_decl + + def exit_ability(self, node: uni.Ability) -> None: + """Process ability (function/method) declaration.""" + params: list[es.Pattern] = [] + if isinstance(node.signature, uni.FuncSignature): + for param in node.signature.params: + if hasattr(param.gen, "es_ast") and param.gen.es_ast: + params.append(param.gen.es_ast) + + # Process body + body_stmts: list[es.Statement] = [] + inner: Sequence[uni.CodeBlockStmt] | None = None + if isinstance(node.body, uni.ImplDef) and isinstance(node.body.body, list): + inner = node.body.body # type: ignore + elif isinstance(node.body, list): + inner = node.body + + if inner: + for stmt in inner: + if hasattr(stmt.gen, "es_ast") and stmt.gen.es_ast: + if isinstance(stmt.gen.es_ast, list): + body_stmts.extend(stmt.gen.es_ast) + else: + body_stmts.append(stmt.gen.es_ast) + + block = self.sync_loc( + es.BlockStatement(body=body_stmts), jac_node=node + ) + + func_id = self.sync_loc( + es.Identifier(name=node.name_ref.sym_name), jac_node=node.name_ref + ) + + # Check if this is a method (has parent archetype) + if node.is_method: + # Create method definition + func_expr = self.sync_loc( + es.FunctionExpression( + id=None, params=params, body=block, async_=node.is_async + ), + jac_node=node, + ) + method_def = self.sync_loc( + es.MethodDefinition( + key=func_id, value=func_expr, kind="method", static=node.is_static + ), + jac_node=node, + ) + node.gen.es_ast = method_def + else: + # Create function declaration + func_decl = self.sync_loc( + es.FunctionDeclaration( + id=func_id, params=params, body=block, async_=node.is_async + ), + jac_node=node, + ) + node.gen.es_ast = func_decl + + def exit_func_signature(self, node: uni.FuncSignature) -> None: + """Process function signature.""" + node.gen.es_ast = None + + def exit_param_var(self, node: uni.ParamVar) -> None: + """Process parameter variable.""" + param_id = self.sync_loc( + es.Identifier(name=node.name.sym_name), jac_node=node.name + ) + node.gen.es_ast = param_id + + def exit_arch_has(self, node: uni.ArchHas) -> None: + """Process class field declarations.""" + # ES doesn't directly support field declarations in the same way + # This could be handled via constructor assignments + node.gen.es_ast = None + + def exit_has_var(self, node: uni.HasVar) -> None: + """Process has variable.""" + node.gen.es_ast = None + + # Control Flow Statements + # ======================= + + def exit_if_stmt(self, node: uni.IfStmt) -> None: + """Process if statement.""" + test = node.condition.gen.es_ast if hasattr(node.condition.gen, "es_ast") else self.sync_loc(es.Literal(value=True), jac_node=node.condition) + + consequent_stmts: list[es.Statement] = [] + if node.body: + for stmt in node.body: + if hasattr(stmt.gen, "es_ast") and stmt.gen.es_ast: + if isinstance(stmt.gen.es_ast, list): + consequent_stmts.extend(stmt.gen.es_ast) + else: + consequent_stmts.append(stmt.gen.es_ast) + + consequent = self.sync_loc( + es.BlockStatement(body=consequent_stmts), jac_node=node + ) + + alternate: Optional[es.Statement] = None + if node.else_body: + if hasattr(node.else_body.gen, "es_ast") and node.else_body.gen.es_ast: + alternate = node.else_body.gen.es_ast + + if_stmt = self.sync_loc( + es.IfStatement(test=test, consequent=consequent, alternate=alternate), + jac_node=node, + ) + node.gen.es_ast = if_stmt + + def exit_else_if(self, node: uni.ElseIf) -> None: + """Process else-if clause.""" + test = node.condition.gen.es_ast if hasattr(node.condition.gen, "es_ast") else self.sync_loc(es.Literal(value=True), jac_node=node.condition) + + consequent_stmts: list[es.Statement] = [] + if node.body: + for stmt in node.body: + if hasattr(stmt.gen, "es_ast") and stmt.gen.es_ast: + if isinstance(stmt.gen.es_ast, list): + consequent_stmts.extend(stmt.gen.es_ast) + else: + consequent_stmts.append(stmt.gen.es_ast) + + consequent = self.sync_loc( + es.BlockStatement(body=consequent_stmts), jac_node=node + ) + + if_stmt = self.sync_loc( + es.IfStatement(test=test, consequent=consequent), jac_node=node + ) + node.gen.es_ast = if_stmt + + def exit_else_stmt(self, node: uni.ElseStmt) -> None: + """Process else clause.""" + stmts: list[es.Statement] = [] + if node.body: + for stmt in node.body: + if hasattr(stmt.gen, "es_ast") and stmt.gen.es_ast: + if isinstance(stmt.gen.es_ast, list): + stmts.extend(stmt.gen.es_ast) + else: + stmts.append(stmt.gen.es_ast) + + block = self.sync_loc(es.BlockStatement(body=stmts), jac_node=node) + node.gen.es_ast = block + + def exit_while_stmt(self, node: uni.WhileStmt) -> None: + """Process while statement.""" + test = node.condition.gen.es_ast if hasattr(node.condition.gen, "es_ast") else self.sync_loc(es.Literal(value=True), jac_node=node.condition) + + body_stmts: list[es.Statement] = [] + if node.body: + for stmt in node.body: + if hasattr(stmt.gen, "es_ast") and stmt.gen.es_ast: + if isinstance(stmt.gen.es_ast, list): + body_stmts.extend(stmt.gen.es_ast) + else: + body_stmts.append(stmt.gen.es_ast) + + body = self.sync_loc(es.BlockStatement(body=body_stmts), jac_node=node) + + while_stmt = self.sync_loc( + es.WhileStatement(test=test, body=body), jac_node=node + ) + node.gen.es_ast = while_stmt + + def exit_in_for_stmt(self, node: uni.InForStmt) -> None: + """Process for-in statement.""" + left = node.target.gen.es_ast if hasattr(node.target.gen, "es_ast") else self.sync_loc(es.Identifier(name="item"), jac_node=node.target) + right = node.collection.gen.es_ast if hasattr(node.collection.gen, "es_ast") else self.sync_loc(es.Identifier(name="collection"), jac_node=node.collection) + + body_stmts: list[es.Statement] = [] + if node.body: + for stmt in node.body: + if hasattr(stmt.gen, "es_ast") and stmt.gen.es_ast: + if isinstance(stmt.gen.es_ast, list): + body_stmts.extend(stmt.gen.es_ast) + else: + body_stmts.append(stmt.gen.es_ast) + + body = self.sync_loc(es.BlockStatement(body=body_stmts), jac_node=node) + + # Use for-of for iteration over values + for_stmt = self.sync_loc( + es.ForOfStatement(left=left, right=right, body=body, await_=node.is_async), + jac_node=node, + ) + node.gen.es_ast = for_stmt + + def exit_try_stmt(self, node: uni.TryStmt) -> None: + """Process try statement.""" + block_stmts: list[es.Statement] = [] + if node.body: + for stmt in node.body: + if hasattr(stmt.gen, "es_ast") and stmt.gen.es_ast: + if isinstance(stmt.gen.es_ast, list): + block_stmts.extend(stmt.gen.es_ast) + else: + block_stmts.append(stmt.gen.es_ast) + + block = self.sync_loc(es.BlockStatement(body=block_stmts), jac_node=node) + + handler: Optional[es.CatchClause] = None + if node.excepts: + # Take first except clause + except_node = node.excepts[0] + if hasattr(except_node.gen, "es_ast") and except_node.gen.es_ast: + handler = except_node.gen.es_ast + + finalizer: Optional[es.BlockStatement] = None + if node.finally_body and hasattr(node.finally_body.gen, "es_ast"): + if isinstance(node.finally_body.gen.es_ast, es.BlockStatement): + finalizer = node.finally_body.gen.es_ast + + try_stmt = self.sync_loc( + es.TryStatement(block=block, handler=handler, finalizer=finalizer), + jac_node=node, + ) + node.gen.es_ast = try_stmt + + def exit_except(self, node: uni.Except) -> None: + """Process except clause.""" + param: Optional[es.Pattern] = None + if node.name: + param = self.sync_loc( + es.Identifier(name=node.name.sym_name), jac_node=node.name + ) + + body_stmts: list[es.Statement] = [] + if node.body: + for stmt in node.body: + if hasattr(stmt.gen, "es_ast") and stmt.gen.es_ast: + if isinstance(stmt.gen.es_ast, list): + body_stmts.extend(stmt.gen.es_ast) + else: + body_stmts.append(stmt.gen.es_ast) + + body = self.sync_loc(es.BlockStatement(body=body_stmts), jac_node=node) + + catch_clause = self.sync_loc( + es.CatchClause(param=param, body=body), jac_node=node + ) + node.gen.es_ast = catch_clause + + def exit_finally_stmt(self, node: uni.FinallyStmt) -> None: + """Process finally clause.""" + body_stmts: list[es.Statement] = [] + if node.body: + for stmt in node.body: + if hasattr(stmt.gen, "es_ast") and stmt.gen.es_ast: + if isinstance(stmt.gen.es_ast, list): + body_stmts.extend(stmt.gen.es_ast) + else: + body_stmts.append(stmt.gen.es_ast) + + block = self.sync_loc(es.BlockStatement(body=body_stmts), jac_node=node) + node.gen.es_ast = block + + def exit_raise_stmt(self, node: uni.RaiseStmt) -> None: + """Process raise statement.""" + argument = node.cause.gen.es_ast if node.cause and hasattr(node.cause.gen, "es_ast") else self.sync_loc(es.Identifier(name="Error"), jac_node=node) + + throw_stmt = self.sync_loc( + es.ThrowStatement(argument=argument), jac_node=node + ) + node.gen.es_ast = throw_stmt + + def exit_assert_stmt(self, node: uni.AssertStmt) -> None: + """Process assert statement as if-throw.""" + test = node.condition.gen.es_ast if hasattr(node.condition.gen, "es_ast") else self.sync_loc(es.Literal(value=True), jac_node=node.condition) + + # Negate the test (throw if condition is false) + negated_test = self.sync_loc( + es.UnaryExpression(operator="!", prefix=True, argument=test), jac_node=node + ) + + error_msg = "Assertion failed" + if node.error_msg and hasattr(node.error_msg.gen, "es_ast"): + if isinstance(node.error_msg.gen.es_ast, es.Literal): + error_msg = str(node.error_msg.gen.es_ast.value) + + throw_stmt = self.sync_loc( + es.ThrowStatement( + argument=self.sync_loc( + es.NewExpression( + callee=self.sync_loc(es.Identifier(name="Error"), jac_node=node), + arguments=[ + self.sync_loc(es.Literal(value=error_msg), jac_node=node) + ], + ), + jac_node=node, + ) + ), + jac_node=node, + ) + + if_stmt = self.sync_loc( + es.IfStatement( + test=negated_test, + consequent=self.sync_loc( + es.BlockStatement(body=[throw_stmt]), jac_node=node + ), + ), + jac_node=node, + ) + node.gen.es_ast = if_stmt + + def exit_return_stmt(self, node: uni.ReturnStmt) -> None: + """Process return statement.""" + argument: Optional[es.Expression] = None + if node.expr and hasattr(node.expr.gen, "es_ast"): + argument = node.expr.gen.es_ast + + ret_stmt = self.sync_loc( + es.ReturnStatement(argument=argument), jac_node=node + ) + node.gen.es_ast = ret_stmt + + def exit_ctrl_stmt(self, node: uni.CtrlStmt) -> None: + """Process control statement (break/continue).""" + if node.ctrl.name == Tok.KW_BREAK: + stmt = self.sync_loc(es.BreakStatement(), jac_node=node) + else: # continue + stmt = self.sync_loc(es.ContinueStatement(), jac_node=node) + node.gen.es_ast = stmt + + def exit_expr_stmt(self, node: uni.ExprStmt) -> None: + """Process expression statement.""" + expr = node.expr.gen.es_ast if hasattr(node.expr.gen, "es_ast") else self.sync_loc(es.Literal(value=None), jac_node=node.expr) + + expr_stmt = self.sync_loc( + es.ExpressionStatement(expression=expr), jac_node=node + ) + node.gen.es_ast = expr_stmt + + # Expressions + # =========== + + def exit_binary_expr(self, node: uni.BinaryExpr) -> None: + """Process binary expression.""" + left = node.left.gen.es_ast if hasattr(node.left.gen, "es_ast") else self.sync_loc(es.Literal(value=0), jac_node=node.left) + right = node.right.gen.es_ast if hasattr(node.right.gen, "es_ast") else self.sync_loc(es.Literal(value=0), jac_node=node.right) + + # Map Jac operators to JS operators + op_map = { + Tok.EE: "===", + Tok.NE: "!==", + Tok.LT: "<", + Tok.GT: ">", + Tok.LTE: "<=", + Tok.GTE: ">=", + Tok.PLUS: "+", + Tok.MINUS: "-", + Tok.STAR_MUL: "*", + Tok.DIV: "/", + Tok.MOD: "%", + Tok.BW_AND: "&", + Tok.BW_OR: "|", + Tok.BW_XOR: "^", + Tok.LSHIFT: "<<", + Tok.RSHIFT: ">>", + } + + operator = op_map.get(node.op.name, "+") + + # Check if it's a logical operator + if node.op.name in (Tok.KW_AND, Tok.KW_OR): + logical_op = "&&" if node.op.name == Tok.KW_AND else "||" + bin_expr = self.sync_loc( + es.LogicalExpression(operator=logical_op, left=left, right=right), + jac_node=node, + ) + else: + bin_expr = self.sync_loc( + es.BinaryExpression(operator=operator, left=left, right=right), + jac_node=node, + ) + + node.gen.es_ast = bin_expr + + def exit_compare_expr(self, node: uni.CompareExpr) -> None: + """Process compare expression.""" + # CompareExpr can have multiple comparisons chained: a < b < c + # Need to convert to: a < b && b < c + + op_map = { + Tok.EE: "===", + Tok.NE: "!==", + Tok.LT: "<", + Tok.GT: ">", + Tok.LTE: "<=", + Tok.GTE: ">=", + Tok.KW_IN: "in", + Tok.KW_NIN: "in", # Will need negation + } + + if not node.rights or not node.ops: + # Fallback to simple comparison + node.gen.es_ast = self.sync_loc(es.Literal(value=True), jac_node=node) + return + + # Build comparisons + comparisons: list[es.Expression] = [] + left = node.left.gen.es_ast if hasattr(node.left.gen, "es_ast") else self.sync_loc(es.Identifier(name="left"), jac_node=node.left) + + for i, (op, right_node) in enumerate(zip(node.ops, node.rights)): + right = right_node.gen.es_ast if hasattr(right_node.gen, "es_ast") else self.sync_loc(es.Identifier(name="right"), jac_node=right_node) + operator = op_map.get(op.name, "===") + + # Handle 'not in' operator + if op.name == Tok.KW_NIN: + bin_expr = self.sync_loc( + es.UnaryExpression( + operator="!", + prefix=True, + argument=self.sync_loc( + es.BinaryExpression(operator="in", left=left, right=right), + jac_node=node, + ), + ), + jac_node=node, + ) + else: + bin_expr = self.sync_loc( + es.BinaryExpression(operator=operator, left=left, right=right), + jac_node=node, + ) + + comparisons.append(bin_expr) + left = right # For chained comparisons + + # Combine with && if multiple comparisons + if len(comparisons) == 1: + node.gen.es_ast = comparisons[0] + else: + result = comparisons[0] + for comp in comparisons[1:]: + result = self.sync_loc( + es.LogicalExpression(operator="&&", left=result, right=comp), + jac_node=node, + ) + node.gen.es_ast = result + + def exit_unary_expr(self, node: uni.UnaryExpr) -> None: + """Process unary expression.""" + operand = node.operand.gen.es_ast if hasattr(node.operand.gen, "es_ast") else self.sync_loc(es.Literal(value=0), jac_node=node.operand) + + op_map = { + Tok.MINUS: "-", + Tok.PLUS: "+", + Tok.NOT: "!", + Tok.BW_NOT: "~", + } + + operator = op_map.get(node.op.name, "!") + + unary_expr = self.sync_loc( + es.UnaryExpression(operator=operator, prefix=True, argument=operand), + jac_node=node, + ) + node.gen.es_ast = unary_expr + + def exit_assignment(self, node: uni.Assignment) -> None: + """Process assignment expression.""" + # Handle first target + if node.target: + left = node.target[0].gen.es_ast if hasattr(node.target[0].gen, "es_ast") else self.sync_loc(es.Identifier(name="temp"), jac_node=node.target[0]) + right = node.value.gen.es_ast if node.value and hasattr(node.value.gen, "es_ast") else self.sync_loc(es.Literal(value=None), jac_node=node) + + op_map = { + Tok.EQ: "=", + Tok.ADD_EQ: "+=", + Tok.SUB_EQ: "-=", + Tok.MUL_EQ: "*=", + Tok.DIV_EQ: "/=", + } + + operator = op_map.get(node.aug_op.name if node.aug_op else Tok.EQ, "=") + + assign_expr = self.sync_loc( + es.AssignmentExpression(operator=operator, left=left, right=right), + jac_node=node, + ) + node.gen.es_ast = assign_expr + + def exit_func_call(self, node: uni.FuncCall) -> None: + """Process function call.""" + callee = node.target.gen.es_ast if hasattr(node.target.gen, "es_ast") else self.sync_loc(es.Identifier(name="func"), jac_node=node.target) + + args: list[Union[es.Expression, es.SpreadElement]] = [] + for param in node.params: + if hasattr(param.gen, "es_ast") and param.gen.es_ast: + args.append(param.gen.es_ast) + + call_expr = self.sync_loc( + es.CallExpression(callee=callee, arguments=args), jac_node=node + ) + node.gen.es_ast = call_expr + + def exit_index_slice(self, node: uni.IndexSlice) -> None: + """Process index/slice - just store the slice info, actual member access is handled by AtomTrailer.""" + # IndexSlice doesn't have a target - it's used within an AtomTrailer + # Store the slice information for use by the parent AtomTrailer + if node.slices and len(node.slices) > 0: + first_slice = node.slices[0] + if node.is_range: + # Store slice info - will be used by AtomTrailer + node.gen.es_ast = { + "type": "slice", + "start": first_slice.start.gen.es_ast if first_slice.start and hasattr(first_slice.start.gen, "es_ast") else None, + "stop": first_slice.stop.gen.es_ast if first_slice.stop and hasattr(first_slice.stop.gen, "es_ast") else None, + } + else: + # Store index info - will be used by AtomTrailer + node.gen.es_ast = { + "type": "index", + "value": first_slice.start.gen.es_ast if first_slice.start and hasattr(first_slice.start.gen, "es_ast") else self.sync_loc(es.Literal(value=0), jac_node=node), + } + else: + node.gen.es_ast = None + + def exit_atom_trailer(self, node: uni.AtomTrailer) -> None: + """Process attribute access.""" + obj = node.target.gen.es_ast if hasattr(node.target.gen, "es_ast") else self.sync_loc(es.Identifier(name="obj"), jac_node=node.target) + + if node.right and hasattr(node.right.gen, "es_ast"): + # The right side is already processed (could be a call, etc.) + # Check if it's a Name that needs to become a property access + if isinstance(node.right, uni.Name): + prop = self.sync_loc( + es.Identifier(name=node.right.sym_name), jac_node=node.right + ) + member_expr = self.sync_loc( + es.MemberExpression(object=obj, property=prop, computed=False), + jac_node=node, + ) + node.gen.es_ast = member_expr + elif isinstance(node.right, uni.IndexSlice): + # Handle index/slice operations + slice_info = node.right.gen.es_ast + if isinstance(slice_info, dict): + if slice_info.get("type") == "slice": + # Slice operation - convert to .slice() call + start = slice_info.get("start") or self.sync_loc(es.Literal(value=0), jac_node=node) + stop = slice_info.get("stop") or self.sync_loc(es.Identifier(name="undefined"), jac_node=node) + slice_call = self.sync_loc( + es.CallExpression( + callee=self.sync_loc( + es.MemberExpression( + object=obj, + property=self.sync_loc(es.Identifier(name="slice"), jac_node=node), + computed=False, + ), + jac_node=node, + ), + arguments=[start, stop], + ), + jac_node=node, + ) + node.gen.es_ast = slice_call + elif slice_info.get("type") == "index": + # Index operation + idx = slice_info.get("value") or self.sync_loc(es.Literal(value=0), jac_node=node) + member_expr = self.sync_loc( + es.MemberExpression(object=obj, property=idx, computed=True), + jac_node=node, + ) + node.gen.es_ast = member_expr + else: + node.gen.es_ast = obj + else: + node.gen.es_ast = obj + else: + # If right is a call or other expression, it should already be processed + node.gen.es_ast = node.right.gen.es_ast + + def exit_list_val(self, node: uni.ListVal) -> None: + """Process list literal.""" + elements: list[Optional[Union[es.Expression, es.SpreadElement]]] = [] + for item in node.values: + if hasattr(item.gen, "es_ast") and item.gen.es_ast: + elements.append(item.gen.es_ast) + + array_expr = self.sync_loc( + es.ArrayExpression(elements=elements), jac_node=node + ) + node.gen.es_ast = array_expr + + def exit_set_val(self, node: uni.SetVal) -> None: + """Process set literal as new Set().""" + elements: list[Union[es.Expression, es.SpreadElement]] = [] + for item in node.values: + if hasattr(item.gen, "es_ast") and item.gen.es_ast: + elements.append(item.gen.es_ast) + + # Create new Set([...]) + set_expr = self.sync_loc( + es.NewExpression( + callee=self.sync_loc(es.Identifier(name="Set"), jac_node=node), + arguments=[ + self.sync_loc(es.ArrayExpression(elements=elements), jac_node=node) + ], + ), + jac_node=node, + ) + node.gen.es_ast = set_expr + + def exit_tuple_val(self, node: uni.TupleVal) -> None: + """Process tuple as array.""" + elements: list[Optional[Union[es.Expression, es.SpreadElement]]] = [] + for item in node.values: + if hasattr(item.gen, "es_ast") and item.gen.es_ast: + elements.append(item.gen.es_ast) + + array_expr = self.sync_loc( + es.ArrayExpression(elements=elements), jac_node=node + ) + node.gen.es_ast = array_expr + + def exit_dict_val(self, node: uni.DictVal) -> None: + """Process dictionary literal.""" + properties: list[Union[es.Property, es.SpreadElement]] = [] + for kv_pair in node.kv_pairs: + if isinstance(kv_pair, uni.KVPair): + key = kv_pair.key.gen.es_ast if hasattr(kv_pair.key.gen, "es_ast") else self.sync_loc(es.Literal(value="key"), jac_node=kv_pair.key) + value = kv_pair.value.gen.es_ast if hasattr(kv_pair.value.gen, "es_ast") else self.sync_loc(es.Literal(value=None), jac_node=kv_pair.value) + + prop = self.sync_loc( + es.Property(key=key, value=value, kind="init"), jac_node=kv_pair + ) + properties.append(prop) + + obj_expr = self.sync_loc( + es.ObjectExpression(properties=properties), jac_node=node + ) + node.gen.es_ast = obj_expr + + def exit_k_v_pair(self, node: uni.KVPair) -> None: + """Process key-value pair.""" + # Handled in dict_val + pass + + def exit_inner_compr(self, node: uni.InnerCompr) -> None: + """Process list comprehension.""" + # List comprehensions need to be converted to functional style + # [x for x in list] -> list.map(x => x) + # This is a simplified version + node.gen.es_ast = self.sync_loc( + es.ArrayExpression(elements=[]), jac_node=node + ) + + # Literals and Atoms + # ================== + + def exit_bool(self, node: uni.Bool) -> None: + """Process boolean literal.""" + value = node.value == "True" or node.value == "true" + bool_lit = self.sync_loc(es.Literal(value=value, raw=node.value), jac_node=node) + node.gen.es_ast = bool_lit + + def exit_int(self, node: uni.Int) -> None: + """Process integer literal.""" + int_lit = self.sync_loc( + es.Literal(value=int(node.value), raw=node.value), jac_node=node + ) + node.gen.es_ast = int_lit + + def exit_float(self, node: uni.Float) -> None: + """Process float literal.""" + float_lit = self.sync_loc( + es.Literal(value=float(node.value), raw=node.value), jac_node=node + ) + node.gen.es_ast = float_lit + + def exit_string(self, node: uni.String) -> None: + """Process string literal.""" + # Remove quotes from the value + value = node.value + if value.startswith(('"""', "'''")): + value = value[3:-3] + elif value.startswith(('"', "'")): + value = value[1:-1] + + str_lit = self.sync_loc(es.Literal(value=value, raw=node.value), jac_node=node) + node.gen.es_ast = str_lit + + def exit_null(self, node: uni.Null) -> None: + """Process null/None literal.""" + null_lit = self.sync_loc( + es.Literal(value=None, raw=node.value), jac_node=node + ) + node.gen.es_ast = null_lit + + def exit_name(self, node: uni.Name) -> None: + """Process name/identifier.""" + # Map Python/Jac names to JS equivalents + name_map = { + "None": "null", + "True": "true", + "False": "false", + "self": "this", + } + + name = name_map.get(node.sym_name, node.sym_name) + identifier = self.sync_loc(es.Identifier(name=name), jac_node=node) + node.gen.es_ast = identifier + + # Special Statements + # ================== + + def exit_global_vars(self, node: uni.GlobalVars) -> None: + """Process global variables.""" + # Global declarations don't have direct equivalent in ES modules + node.gen.es_ast = [] + + def exit_non_local_vars(self, node: uni.NonLocalVars) -> None: + """Process non-local variables.""" + # Non-local doesn't have direct equivalent in ES + node.gen.es_ast = [] + + def exit_test(self, node: uni.Test) -> None: + """Process test as a function.""" + # Convert test to a regular function + params: list[es.Pattern] = [] + + body_stmts: list[es.Statement] = [] + if node.body: + for stmt in node.body: + if hasattr(stmt.gen, "es_ast") and stmt.gen.es_ast: + if isinstance(stmt.gen.es_ast, list): + body_stmts.extend(stmt.gen.es_ast) + else: + body_stmts.append(stmt.gen.es_ast) + + block = self.sync_loc( + es.BlockStatement(body=body_stmts), jac_node=node + ) + + func_id = self.sync_loc( + es.Identifier(name=node.name.sym_name), jac_node=node.name + ) + + func_decl = self.sync_loc( + es.FunctionDeclaration(id=func_id, params=params, body=block), + jac_node=node, + ) + node.gen.es_ast = func_decl + + # Type and other nodes + # ==================== + + def exit_token(self, node: uni.Token) -> None: + """Process token.""" + # Tokens are generally not directly converted + pass + + def exit_semi(self, node: uni.Semi) -> None: + """Process semicolon.""" + # Semicolons are handled automatically + pass diff --git a/jac/jaclang/compiler/emcascript/estree.py b/jac/jaclang/compiler/emcascript/estree.py new file mode 100644 index 0000000000..64197798d0 --- /dev/null +++ b/jac/jaclang/compiler/emcascript/estree.py @@ -0,0 +1,795 @@ +"""ESTree AST Node Definitions for ECMAScript. + +This module provides a complete implementation of the ESTree specification, +which defines the standard AST format for JavaScript and ECMAScript. + +The ESTree specification represents ECMAScript programs as abstract syntax trees +that are language-agnostic and can be used for various tools like parsers, +transpilers, and code analysis tools. + +Reference: https://github.com/estree/estree +""" + +from __future__ import annotations + +from dataclasses import dataclass, field +from typing import Any, Literal, Optional, Sequence, Union + + +# Base Node Types +# ================ + + +@dataclass +class SourceLocation: + """Source location information for a node.""" + + source: Optional[str] = None + start: Optional["Position"] = None + end: Optional["Position"] = None + + +@dataclass +class Position: + """Position in source code.""" + + line: int = 0 + column: int = 0 + + +@dataclass +class Node: + """Base class for all ESTree nodes.""" + + type: str + loc: Optional[SourceLocation] = field(default=None) + + +# Identifier and Literals +# ======================= + + +@dataclass +class Identifier(Node): + """Identifier node.""" + + name: str = "" + type: Literal["Identifier"] = field(default="Identifier", init=False) + + +@dataclass +class Literal(Node): + """Literal value node.""" + + value: Union[str, bool, None, int, float] = None + raw: Optional[str] = None + type: Literal["Literal"] = field(default="Literal", init=False) + + +@dataclass +class RegExpLiteral(Literal): + """Regular expression literal.""" + + regex: dict[str, str] = field(default_factory=dict) # {pattern: str, flags: str} + type: Literal["Literal"] = field(default="Literal", init=False) + + +# Program and Statements +# ====================== + + +@dataclass +class Program(Node): + """Root node of an ESTree.""" + + body: list[Union["Statement", "ModuleDeclaration"]] = field(default_factory=list) + sourceType: Literal["script", "module"] = "script" + type: Literal["Program"] = field(default="Program", init=False) + + +@dataclass +class ExpressionStatement(Node): + """Expression statement.""" + + expression: Optional["Expression"] = None + type: Literal["ExpressionStatement"] = field(default="ExpressionStatement", init=False) + + +@dataclass +class BlockStatement(Node): + """Block statement.""" + + body: list["Statement"] = field(default_factory=list) + type: Literal["BlockStatement"] = field(default="BlockStatement", init=False) + + +@dataclass +class EmptyStatement(Node): + """Empty statement (;).""" + + type: Literal["EmptyStatement"] = field(default="EmptyStatement", init=False) + + +@dataclass +class DebuggerStatement(Node): + """Debugger statement.""" + + type: Literal["DebuggerStatement"] = field(default="DebuggerStatement", init=False) + + +@dataclass +class WithStatement(Node): + """With statement.""" + + object: Optional["Expression"] = None + body: Optional["Statement"] = None + type: Literal["WithStatement"] = field(default="WithStatement", init=False) + + +@dataclass +class ReturnStatement(Node): + """Return statement.""" + + argument: Optional["Expression"] = None + type: Literal["ReturnStatement"] = field(default="ReturnStatement", init=False) + + +@dataclass +class LabeledStatement(Node): + """Labeled statement.""" + + label: Optional[Identifier] = None + body: Optional["Statement"] = None + type: Literal["LabeledStatement"] = field(default="LabeledStatement", init=False) + + +@dataclass +class BreakStatement(Node): + """Break statement.""" + + label: Optional[Identifier] = None + type: Literal["BreakStatement"] = field(default="BreakStatement", init=False) + + +@dataclass +class ContinueStatement(Node): + """Continue statement.""" + + label: Optional[Identifier] = None + type: Literal["ContinueStatement"] = field(default="ContinueStatement", init=False) + + +@dataclass +class IfStatement(Node): + """If statement.""" + + test: Optional["Expression"] = None + consequent: Optional["Statement"] = None + alternate: Optional["Statement"] = None + type: Literal["IfStatement"] = field(default="IfStatement", init=False) + + +@dataclass +class SwitchStatement(Node): + """Switch statement.""" + + discriminant: Optional["Expression"] = None + cases: list["SwitchCase"] = field(default_factory=list) + type: Literal["SwitchStatement"] = field(default="SwitchStatement", init=False) + + +@dataclass +class SwitchCase(Node): + """Switch case clause.""" + + test: Optional["Expression"] = None # null for default case + consequent: list["Statement"] = field(default_factory=list) + type: Literal["SwitchCase"] = field(default="SwitchCase", init=False) + + +@dataclass +class ThrowStatement(Node): + """Throw statement.""" + + argument: Optional["Expression"] = None + type: Literal["ThrowStatement"] = field(default="ThrowStatement", init=False) + + +@dataclass +class TryStatement(Node): + """Try statement.""" + + block: Optional[BlockStatement] = None + handler: Optional["CatchClause"] = None + finalizer: Optional[BlockStatement] = None + type: Literal["TryStatement"] = field(default="TryStatement", init=False) + + +@dataclass +class CatchClause(Node): + """Catch clause.""" + + param: Optional["Pattern"] = None + body: Optional[BlockStatement] = None + type: Literal["CatchClause"] = field(default="CatchClause", init=False) + + +@dataclass +class WhileStatement(Node): + """While statement.""" + + test: Optional["Expression"] = None + body: Optional["Statement"] = None + type: Literal["WhileStatement"] = field(default="WhileStatement", init=False) + + +@dataclass +class DoWhileStatement(Node): + """Do-while statement.""" + + body: Optional["Statement"] = None + test: Optional["Expression"] = None + type: Literal["DoWhileStatement"] = field(default="DoWhileStatement", init=False) + + +@dataclass +class ForStatement(Node): + """For statement.""" + + init: Optional[Union["VariableDeclaration", "Expression"]] = None + test: Optional["Expression"] = None + update: Optional["Expression"] = None + body: Optional["Statement"] = None + type: Literal["ForStatement"] = field(default="ForStatement", init=False) + + +@dataclass +class ForInStatement(Node): + """For-in statement.""" + + left: Optional[Union["VariableDeclaration", "Pattern"]] = None + right: Optional["Expression"] = None + body: Optional["Statement"] = None + type: Literal["ForInStatement"] = field(default="ForInStatement", init=False) + + +@dataclass +class ForOfStatement(Node): + """For-of statement (ES6).""" + + left: Optional[Union["VariableDeclaration", "Pattern"]] = None + right: Optional["Expression"] = None + body: Optional["Statement"] = None + await_: bool = False + type: Literal["ForOfStatement"] = field(default="ForOfStatement", init=False) + + +# Declarations +# ============ + + +@dataclass +class FunctionDeclaration(Node): + """Function declaration.""" + + id: Optional[Identifier] = None + params: list["Pattern"] = field(default_factory=list) + body: Optional[BlockStatement] = None + generator: bool = False + async_: bool = False + type: Literal["FunctionDeclaration"] = field(default="FunctionDeclaration", init=False) + + +@dataclass +class VariableDeclaration(Node): + """Variable declaration.""" + + declarations: list["VariableDeclarator"] = field(default_factory=list) + kind: Literal["var", "let", "const"] = "var" + type: Literal["VariableDeclaration"] = field(default="VariableDeclaration", init=False) + + +@dataclass +class VariableDeclarator(Node): + """Variable declarator.""" + + id: Optional["Pattern"] = None + init: Optional["Expression"] = None + type: Literal["VariableDeclarator"] = field(default="VariableDeclarator", init=False) + + +# Expressions +# =========== + + +@dataclass +class ThisExpression(Node): + """This expression.""" + + type: Literal["ThisExpression"] = field(default="ThisExpression", init=False) + + +@dataclass +class ArrayExpression(Node): + """Array expression.""" + + elements: list[Optional[Union["Expression", "SpreadElement"]]] = field(default_factory=list) + type: Literal["ArrayExpression"] = field(default="ArrayExpression", init=False) + + +@dataclass +class ObjectExpression(Node): + """Object expression.""" + + properties: list[Union["Property", "SpreadElement"]] = field(default_factory=list) + type: Literal["ObjectExpression"] = field(default="ObjectExpression", init=False) + + +@dataclass +class Property(Node): + """Object property.""" + + key: Optional[Union["Expression", Identifier, Literal]] = None + value: Optional["Expression"] = None + kind: Literal["init", "get", "set"] = "init" + method: bool = False + shorthand: bool = False + computed: bool = False + type: Literal["Property"] = field(default="Property", init=False) + + +@dataclass +class FunctionExpression(Node): + """Function expression.""" + + id: Optional[Identifier] = None + params: list["Pattern"] = field(default_factory=list) + body: Optional[BlockStatement] = None + generator: bool = False + async_: bool = False + type: Literal["FunctionExpression"] = field(default="FunctionExpression", init=False) + + +@dataclass +class ArrowFunctionExpression(Node): + """Arrow function expression (ES6).""" + + params: list["Pattern"] = field(default_factory=list) + body: Optional[Union[BlockStatement, "Expression"]] = None + expression: bool = False + async_: bool = False + type: Literal["ArrowFunctionExpression"] = field(default="ArrowFunctionExpression", init=False) + + +@dataclass +class UnaryExpression(Node): + """Unary expression.""" + + operator: str = "" # "-", "+", "!", "~", "typeof", "void", "delete" + prefix: bool = True + argument: Optional["Expression"] = None + type: Literal["UnaryExpression"] = field(default="UnaryExpression", init=False) + + +@dataclass +class UpdateExpression(Node): + """Update expression.""" + + operator: Literal["++", "--"] = "++" + argument: Optional["Expression"] = None + prefix: bool = True + type: Literal["UpdateExpression"] = field(default="UpdateExpression", init=False) + + +@dataclass +class BinaryExpression(Node): + """Binary expression.""" + + operator: str = "" # "==", "!=", "===", "!==", "<", "<=", ">", ">=", "<<", ">>", ">>>", "+", "-", "*", "/", "%", "|", "^", "&", "in", "instanceof" + left: Optional["Expression"] = None + right: Optional["Expression"] = None + type: Literal["BinaryExpression"] = field(default="BinaryExpression", init=False) + + +@dataclass +class AssignmentExpression(Node): + """Assignment expression.""" + + operator: str = "=" # "=", "+=", "-=", "*=", "/=", "%=", "<<=", ">>=", ">>>=", "|=", "^=", "&=" + left: Optional[Union["Pattern", "Expression"]] = None + right: Optional["Expression"] = None + type: Literal["AssignmentExpression"] = field(default="AssignmentExpression", init=False) + + +@dataclass +class LogicalExpression(Node): + """Logical expression.""" + + operator: Literal["||", "&&", "??"] = "&&" + left: Optional["Expression"] = None + right: Optional["Expression"] = None + type: Literal["LogicalExpression"] = field(default="LogicalExpression", init=False) + + +@dataclass +class MemberExpression(Node): + """Member expression.""" + + object: Optional[Union["Expression", "Super"]] = None + property: Optional["Expression"] = None + computed: bool = False + optional: bool = False + type: Literal["MemberExpression"] = field(default="MemberExpression", init=False) + + +@dataclass +class ConditionalExpression(Node): + """Conditional (ternary) expression.""" + + test: Optional["Expression"] = None + consequent: Optional["Expression"] = None + alternate: Optional["Expression"] = None + type: Literal["ConditionalExpression"] = field(default="ConditionalExpression", init=False) + + +@dataclass +class CallExpression(Node): + """Call expression.""" + + callee: Optional[Union["Expression", "Super"]] = None + arguments: list[Union["Expression", "SpreadElement"]] = field(default_factory=list) + optional: bool = False + type: Literal["CallExpression"] = field(default="CallExpression", init=False) + + +@dataclass +class NewExpression(Node): + """New expression.""" + + callee: Optional["Expression"] = None + arguments: list[Union["Expression", "SpreadElement"]] = field(default_factory=list) + type: Literal["NewExpression"] = field(default="NewExpression", init=False) + + +@dataclass +class SequenceExpression(Node): + """Sequence expression.""" + + expressions: list["Expression"] = field(default_factory=list) + type: Literal["SequenceExpression"] = field(default="SequenceExpression", init=False) + + +@dataclass +class YieldExpression(Node): + """Yield expression.""" + + argument: Optional["Expression"] = None + delegate: bool = False + type: Literal["YieldExpression"] = field(default="YieldExpression", init=False) + + +@dataclass +class AwaitExpression(Node): + """Await expression (ES2017).""" + + argument: Optional["Expression"] = None + type: Literal["AwaitExpression"] = field(default="AwaitExpression", init=False) + + +@dataclass +class TemplateLiteral(Node): + """Template literal (ES6).""" + + quasis: list["TemplateElement"] = field(default_factory=list) + expressions: list["Expression"] = field(default_factory=list) + type: Literal["TemplateLiteral"] = field(default="TemplateLiteral", init=False) + + +@dataclass +class TemplateElement(Node): + """Template element.""" + + tail: bool = False + value: dict[str, str] = field(default_factory=dict) # {cooked: str, raw: str} + type: Literal["TemplateElement"] = field(default="TemplateElement", init=False) + + +@dataclass +class TaggedTemplateExpression(Node): + """Tagged template expression (ES6).""" + + tag: Optional["Expression"] = None + quasi: Optional[TemplateLiteral] = None + type: Literal["TaggedTemplateExpression"] = field(default="TaggedTemplateExpression", init=False) + + +@dataclass +class SpreadElement(Node): + """Spread element (ES6).""" + + argument: Optional["Expression"] = None + type: Literal["SpreadElement"] = field(default="SpreadElement", init=False) + + +@dataclass +class Super(Node): + """Super keyword.""" + + type: Literal["Super"] = field(default="Super", init=False) + + +@dataclass +class MetaProperty(Node): + """Meta property (e.g., new.target).""" + + meta: Optional[Identifier] = None + property: Optional[Identifier] = None + type: Literal["MetaProperty"] = field(default="MetaProperty", init=False) + + +# Patterns (ES6) +# ============== + + +@dataclass +class AssignmentPattern(Node): + """Assignment pattern (default parameters).""" + + left: Optional["Pattern"] = None + right: Optional["Expression"] = None + type: Literal["AssignmentPattern"] = field(default="AssignmentPattern", init=False) + + +@dataclass +class ArrayPattern(Node): + """Array destructuring pattern.""" + + elements: list[Optional["Pattern"]] = field(default_factory=list) + type: Literal["ArrayPattern"] = field(default="ArrayPattern", init=False) + + +@dataclass +class ObjectPattern(Node): + """Object destructuring pattern.""" + + properties: list[Union["AssignmentProperty", "RestElement"]] = field(default_factory=list) + type: Literal["ObjectPattern"] = field(default="ObjectPattern", init=False) + + +@dataclass +class AssignmentProperty(Property): + """Assignment property in object pattern.""" + + value: Optional["Pattern"] = None + type: Literal["Property"] = field(default="Property", init=False) + + +@dataclass +class RestElement(Node): + """Rest element.""" + + argument: Optional["Pattern"] = None + type: Literal["RestElement"] = field(default="RestElement", init=False) + + +# Classes (ES6) +# ============= + + +@dataclass +class ClassDeclaration(Node): + """Class declaration.""" + + id: Optional[Identifier] = None + superClass: Optional["Expression"] = None + body: Optional["ClassBody"] = None + type: Literal["ClassDeclaration"] = field(default="ClassDeclaration", init=False) + + +@dataclass +class ClassExpression(Node): + """Class expression.""" + + id: Optional[Identifier] = None + superClass: Optional["Expression"] = None + body: Optional["ClassBody"] = None + type: Literal["ClassExpression"] = field(default="ClassExpression", init=False) + + +@dataclass +class ClassBody(Node): + """Class body.""" + + body: list["MethodDefinition"] = field(default_factory=list) + type: Literal["ClassBody"] = field(default="ClassBody", init=False) + + +@dataclass +class MethodDefinition(Node): + """Method definition.""" + + key: Optional[Union["Expression", Identifier]] = None + value: Optional[FunctionExpression] = None + kind: Literal["constructor", "method", "get", "set"] = "method" + computed: bool = False + static: bool = False + type: Literal["MethodDefinition"] = field(default="MethodDefinition", init=False) + + +# Modules (ES6) +# ============= + + +@dataclass +class ImportDeclaration(Node): + """Import declaration.""" + + specifiers: list[Union["ImportSpecifier", "ImportDefaultSpecifier", "ImportNamespaceSpecifier"]] = field(default_factory=list) + source: Optional[Literal] = None + type: Literal["ImportDeclaration"] = field(default="ImportDeclaration", init=False) + + +@dataclass +class ImportSpecifier(Node): + """Import specifier.""" + + imported: Optional[Identifier] = None + local: Optional[Identifier] = None + type: Literal["ImportSpecifier"] = field(default="ImportSpecifier", init=False) + + +@dataclass +class ImportDefaultSpecifier(Node): + """Import default specifier.""" + + local: Optional[Identifier] = None + type: Literal["ImportDefaultSpecifier"] = field(default="ImportDefaultSpecifier", init=False) + + +@dataclass +class ImportNamespaceSpecifier(Node): + """Import namespace specifier.""" + + local: Optional[Identifier] = None + type: Literal["ImportNamespaceSpecifier"] = field(default="ImportNamespaceSpecifier", init=False) + + +@dataclass +class ExportNamedDeclaration(Node): + """Export named declaration.""" + + declaration: Optional[Union["Declaration", "Expression"]] = None + specifiers: list["ExportSpecifier"] = field(default_factory=list) + source: Optional[Literal] = None + type: Literal["ExportNamedDeclaration"] = field(default="ExportNamedDeclaration", init=False) + + +@dataclass +class ExportSpecifier(Node): + """Export specifier.""" + + exported: Optional[Identifier] = None + local: Optional[Identifier] = None + type: Literal["ExportSpecifier"] = field(default="ExportSpecifier", init=False) + + +@dataclass +class ExportDefaultDeclaration(Node): + """Export default declaration.""" + + declaration: Optional[Union["Declaration", "Expression"]] = None + type: Literal["ExportDefaultDeclaration"] = field(default="ExportDefaultDeclaration", init=False) + + +@dataclass +class ExportAllDeclaration(Node): + """Export all declaration.""" + + source: Optional[Literal] = None + exported: Optional[Identifier] = None + type: Literal["ExportAllDeclaration"] = field(default="ExportAllDeclaration", init=False) + + +# Type Aliases for Union Types +# ============================ + +Statement = Union[ + ExpressionStatement, + BlockStatement, + EmptyStatement, + DebuggerStatement, + WithStatement, + ReturnStatement, + LabeledStatement, + BreakStatement, + ContinueStatement, + IfStatement, + SwitchStatement, + ThrowStatement, + TryStatement, + WhileStatement, + DoWhileStatement, + ForStatement, + ForInStatement, + ForOfStatement, + FunctionDeclaration, + VariableDeclaration, + ClassDeclaration, +] + +Expression = Union[ + Identifier, + Literal, + ThisExpression, + ArrayExpression, + ObjectExpression, + FunctionExpression, + ArrowFunctionExpression, + UnaryExpression, + UpdateExpression, + BinaryExpression, + AssignmentExpression, + LogicalExpression, + MemberExpression, + ConditionalExpression, + CallExpression, + NewExpression, + SequenceExpression, + YieldExpression, + AwaitExpression, + TemplateLiteral, + TaggedTemplateExpression, + ClassExpression, +] + +Pattern = Union[ + Identifier, + ArrayPattern, + ObjectPattern, + AssignmentPattern, + RestElement, +] + +Declaration = Union[ + FunctionDeclaration, + VariableDeclaration, + ClassDeclaration, +] + +ModuleDeclaration = Union[ + ImportDeclaration, + ExportNamedDeclaration, + ExportDefaultDeclaration, + ExportAllDeclaration, +] + + +# Utility Functions +# ================= + + +def es_node_to_dict(node: Node) -> dict[str, Any]: + """Convert an ESTree node to a dictionary representation.""" + result: dict[str, Any] = {"type": node.type} + + for key, value in node.__dict__.items(): + if key in ("type", "loc") or value is None: + continue + if isinstance(value, Node): + result[key] = es_node_to_dict(value) + elif isinstance(value, list): + result[key] = [ + es_node_to_dict(item) if isinstance(item, Node) else item + for item in value + ] + else: + result[key] = value + + if node.loc: + result["loc"] = { + "source": node.loc.source, + "start": {"line": node.loc.start.line, "column": node.loc.start.column} if node.loc.start else None, + "end": {"line": node.loc.end.line, "column": node.loc.end.column} if node.loc.end else None, + } + + return result diff --git a/jac/jaclang/utils/lang_tools.py b/jac/jaclang/utils/lang_tools.py index b5dce000e4..491786c779 100644 --- a/jac/jaclang/utils/lang_tools.py +++ b/jac/jaclang/utils/lang_tools.py @@ -181,7 +181,7 @@ def ir(self, args: List[str]) -> str: """Generate a AST, SymbolTable tree for .jac file, or Python AST for .py file.""" error = ( "Usage: ir <.py or .jac file_path>" + "pyast / py / unparse / esast / es)> <.py or .jac file_path>" ) if len(args) != 2: return error @@ -263,6 +263,26 @@ def ir(self, args: List[str]) -> str: if isinstance(ir.gen.py[0], str) else "Compile failed." ) + case "esast": + from jaclang.compiler.emcascript import EsastGenPass, es_node_to_dict + import json + + esast_pass = EsastGenPass(ir, prog) + es_ir = esast_pass.ir_out + if hasattr(es_ir.gen, "es_ast") and es_ir.gen.es_ast: + return f"\n{json.dumps(es_node_to_dict(es_ir.gen.es_ast), indent=2)}" + else: + return "ECMAScript AST generation failed." + case "es": + from jaclang.compiler.emcascript import EsastGenPass + from jaclang.compiler.emcascript.es_unparse import es_to_js + + esast_pass = EsastGenPass(ir, prog) + es_ir = esast_pass.ir_out + if hasattr(es_ir.gen, "es_ast") and es_ir.gen.es_ast: + return f"\n{es_to_js(es_ir.gen.es_ast)}" + else: + return "ECMAScript code generation failed." case _: return f"Invalid key: {error}" else: From f1ec57aa8338e6176a8b7e951a7be224dd11d33f Mon Sep 17 00:00:00 2001 From: marsninja Date: Fri, 10 Oct 2025 20:08:45 -0400 Subject: [PATCH 02/54] Frist commit of massive experiment --- jac/jaclang/compiler/emcascript/es_unparse.py | 20 +- .../compiler/emcascript/esast_gen_pass.py | 213 +++++++++++++----- jac/jaclang/compiler/emcascript/estree.py | 92 ++++++-- jac/jaclang/utils/lang_tools.py | 5 +- 4 files changed, 237 insertions(+), 93 deletions(-) diff --git a/jac/jaclang/compiler/emcascript/es_unparse.py b/jac/jaclang/compiler/emcascript/es_unparse.py index 59081facd1..dd4b82ade7 100644 --- a/jac/jaclang/compiler/emcascript/es_unparse.py +++ b/jac/jaclang/compiler/emcascript/es_unparse.py @@ -171,7 +171,9 @@ def gen_FunctionDeclaration(self, node: es.FunctionDeclaration) -> str: name = self.generate(node.id) if node.id else "" params = ", ".join(self.generate(p) for p in node.params) body = self.generate(node.body) - return f"{self.indent()}{async_str}function{generator_str} {name}({params}) {body}" + return ( + f"{self.indent()}{async_str}function{generator_str} {name}({params}) {body}" + ) def gen_VariableDeclaration(self, node: es.VariableDeclaration) -> str: """Generate variable declaration.""" @@ -188,14 +190,18 @@ def gen_VariableDeclarator(self, node: es.VariableDeclarator) -> str: def gen_ClassDeclaration(self, node: es.ClassDeclaration) -> str: """Generate class declaration.""" name = self.generate(node.id) if node.id else "" - extends = f" extends {self.generate(node.superClass)}" if node.superClass else "" + extends = ( + f" extends {self.generate(node.superClass)}" if node.superClass else "" + ) body = self.generate(node.body) return f"{self.indent()}class {name}{extends} {body}" def gen_ClassExpression(self, node: es.ClassExpression) -> str: """Generate class expression.""" name = self.generate(node.id) if node.id else "" - extends = f" extends {self.generate(node.superClass)}" if node.superClass else "" + extends = ( + f" extends {self.generate(node.superClass)}" if node.superClass else "" + ) body = self.generate(node.body) return f"class {name}{extends} {body}" @@ -257,9 +263,7 @@ def gen_ThisExpression(self, node: es.ThisExpression) -> str: def gen_ArrayExpression(self, node: es.ArrayExpression) -> str: """Generate array expression.""" - elements = ", ".join( - self.generate(e) if e else "" for e in node.elements - ) + elements = ", ".join(self.generate(e) if e else "" for e in node.elements) return f"[{elements}]" def gen_ObjectExpression(self, node: es.ObjectExpression) -> str: @@ -408,9 +412,7 @@ def gen_Super(self, node: es.Super) -> str: def gen_ArrayPattern(self, node: es.ArrayPattern) -> str: """Generate array pattern.""" - elements = ", ".join( - self.generate(e) if e else "" for e in node.elements - ) + elements = ", ".join(self.generate(e) if e else "" for e in node.elements) return f"[{elements}]" def gen_ObjectPattern(self, node: es.ObjectPattern) -> str: diff --git a/jac/jaclang/compiler/emcascript/esast_gen_pass.py b/jac/jaclang/compiler/emcascript/esast_gen_pass.py index 69fac8c1d7..6e453af18c 100644 --- a/jac/jaclang/compiler/emcascript/esast_gen_pass.py +++ b/jac/jaclang/compiler/emcascript/esast_gen_pass.py @@ -62,7 +62,9 @@ def sync_loc( ) return es_node - def flatten(self, items: list[Union[es.Statement, list[es.Statement], None]]) -> list[es.Statement]: + def flatten( + self, items: list[Union[es.Statement, list[es.Statement], None]] + ) -> list[es.Statement]: """Flatten a list of items or lists into a single list.""" result: list[es.Statement] = [] for item in items: @@ -128,7 +130,11 @@ def exit_import(self, node: uni.Import) -> None: ) local = self.sync_loc( es.Identifier( - name=item.alias.sym_name if item.alias else item.name.sym_name + name=( + item.alias.sym_name + if item.alias + else item.name.sym_name + ) ), jac_node=item.alias if item.alias else item.name, ) @@ -140,7 +146,8 @@ def exit_import(self, node: uni.Import) -> None: ) import_decl = self.sync_loc( - es.ImportDeclaration(specifiers=specifiers, source=source), jac_node=node + es.ImportDeclaration(specifiers=specifiers, source=source), + jac_node=node, ) self.imports.append(import_decl) node.gen.es_ast = [] # Imports are added to module level @@ -174,9 +181,7 @@ def exit_archetype(self, node: uni.Archetype) -> None: body_stmts.append(stmt.gen.es_ast) # Create class body - class_body = self.sync_loc( - es.ClassBody(body=body_stmts), jac_node=node - ) + class_body = self.sync_loc(es.ClassBody(body=body_stmts), jac_node=node) # Handle base classes super_class: Optional[es.Expression] = None @@ -191,9 +196,7 @@ def exit_archetype(self, node: uni.Archetype) -> None: ) class_decl = self.sync_loc( - es.ClassDeclaration( - id=class_id, superClass=super_class, body=class_body - ), + es.ClassDeclaration(id=class_id, superClass=super_class, body=class_body), jac_node=node, ) @@ -275,9 +278,7 @@ def exit_ability(self, node: uni.Ability) -> None: else: body_stmts.append(stmt.gen.es_ast) - block = self.sync_loc( - es.BlockStatement(body=body_stmts), jac_node=node - ) + block = self.sync_loc(es.BlockStatement(body=body_stmts), jac_node=node) func_id = self.sync_loc( es.Identifier(name=node.name_ref.sym_name), jac_node=node.name_ref @@ -335,7 +336,11 @@ def exit_has_var(self, node: uni.HasVar) -> None: def exit_if_stmt(self, node: uni.IfStmt) -> None: """Process if statement.""" - test = node.condition.gen.es_ast if hasattr(node.condition.gen, "es_ast") else self.sync_loc(es.Literal(value=True), jac_node=node.condition) + test = ( + node.condition.gen.es_ast + if hasattr(node.condition.gen, "es_ast") + else self.sync_loc(es.Literal(value=True), jac_node=node.condition) + ) consequent_stmts: list[es.Statement] = [] if node.body: @@ -363,7 +368,11 @@ def exit_if_stmt(self, node: uni.IfStmt) -> None: def exit_else_if(self, node: uni.ElseIf) -> None: """Process else-if clause.""" - test = node.condition.gen.es_ast if hasattr(node.condition.gen, "es_ast") else self.sync_loc(es.Literal(value=True), jac_node=node.condition) + test = ( + node.condition.gen.es_ast + if hasattr(node.condition.gen, "es_ast") + else self.sync_loc(es.Literal(value=True), jac_node=node.condition) + ) consequent_stmts: list[es.Statement] = [] if node.body: @@ -399,7 +408,11 @@ def exit_else_stmt(self, node: uni.ElseStmt) -> None: def exit_while_stmt(self, node: uni.WhileStmt) -> None: """Process while statement.""" - test = node.condition.gen.es_ast if hasattr(node.condition.gen, "es_ast") else self.sync_loc(es.Literal(value=True), jac_node=node.condition) + test = ( + node.condition.gen.es_ast + if hasattr(node.condition.gen, "es_ast") + else self.sync_loc(es.Literal(value=True), jac_node=node.condition) + ) body_stmts: list[es.Statement] = [] if node.body: @@ -419,8 +432,18 @@ def exit_while_stmt(self, node: uni.WhileStmt) -> None: def exit_in_for_stmt(self, node: uni.InForStmt) -> None: """Process for-in statement.""" - left = node.target.gen.es_ast if hasattr(node.target.gen, "es_ast") else self.sync_loc(es.Identifier(name="item"), jac_node=node.target) - right = node.collection.gen.es_ast if hasattr(node.collection.gen, "es_ast") else self.sync_loc(es.Identifier(name="collection"), jac_node=node.collection) + left = ( + node.target.gen.es_ast + if hasattr(node.target.gen, "es_ast") + else self.sync_loc(es.Identifier(name="item"), jac_node=node.target) + ) + right = ( + node.collection.gen.es_ast + if hasattr(node.collection.gen, "es_ast") + else self.sync_loc( + es.Identifier(name="collection"), jac_node=node.collection + ) + ) body_stmts: list[es.Statement] = [] if node.body: @@ -511,16 +534,22 @@ def exit_finally_stmt(self, node: uni.FinallyStmt) -> None: def exit_raise_stmt(self, node: uni.RaiseStmt) -> None: """Process raise statement.""" - argument = node.cause.gen.es_ast if node.cause and hasattr(node.cause.gen, "es_ast") else self.sync_loc(es.Identifier(name="Error"), jac_node=node) - - throw_stmt = self.sync_loc( - es.ThrowStatement(argument=argument), jac_node=node + argument = ( + node.cause.gen.es_ast + if node.cause and hasattr(node.cause.gen, "es_ast") + else self.sync_loc(es.Identifier(name="Error"), jac_node=node) ) + + throw_stmt = self.sync_loc(es.ThrowStatement(argument=argument), jac_node=node) node.gen.es_ast = throw_stmt def exit_assert_stmt(self, node: uni.AssertStmt) -> None: """Process assert statement as if-throw.""" - test = node.condition.gen.es_ast if hasattr(node.condition.gen, "es_ast") else self.sync_loc(es.Literal(value=True), jac_node=node.condition) + test = ( + node.condition.gen.es_ast + if hasattr(node.condition.gen, "es_ast") + else self.sync_loc(es.Literal(value=True), jac_node=node.condition) + ) # Negate the test (throw if condition is false) negated_test = self.sync_loc( @@ -536,7 +565,9 @@ def exit_assert_stmt(self, node: uni.AssertStmt) -> None: es.ThrowStatement( argument=self.sync_loc( es.NewExpression( - callee=self.sync_loc(es.Identifier(name="Error"), jac_node=node), + callee=self.sync_loc( + es.Identifier(name="Error"), jac_node=node + ), arguments=[ self.sync_loc(es.Literal(value=error_msg), jac_node=node) ], @@ -564,9 +595,7 @@ def exit_return_stmt(self, node: uni.ReturnStmt) -> None: if node.expr and hasattr(node.expr.gen, "es_ast"): argument = node.expr.gen.es_ast - ret_stmt = self.sync_loc( - es.ReturnStatement(argument=argument), jac_node=node - ) + ret_stmt = self.sync_loc(es.ReturnStatement(argument=argument), jac_node=node) node.gen.es_ast = ret_stmt def exit_ctrl_stmt(self, node: uni.CtrlStmt) -> None: @@ -579,7 +608,11 @@ def exit_ctrl_stmt(self, node: uni.CtrlStmt) -> None: def exit_expr_stmt(self, node: uni.ExprStmt) -> None: """Process expression statement.""" - expr = node.expr.gen.es_ast if hasattr(node.expr.gen, "es_ast") else self.sync_loc(es.Literal(value=None), jac_node=node.expr) + expr = ( + node.expr.gen.es_ast + if hasattr(node.expr.gen, "es_ast") + else self.sync_loc(es.Literal(value=None), jac_node=node.expr) + ) expr_stmt = self.sync_loc( es.ExpressionStatement(expression=expr), jac_node=node @@ -591,8 +624,16 @@ def exit_expr_stmt(self, node: uni.ExprStmt) -> None: def exit_binary_expr(self, node: uni.BinaryExpr) -> None: """Process binary expression.""" - left = node.left.gen.es_ast if hasattr(node.left.gen, "es_ast") else self.sync_loc(es.Literal(value=0), jac_node=node.left) - right = node.right.gen.es_ast if hasattr(node.right.gen, "es_ast") else self.sync_loc(es.Literal(value=0), jac_node=node.right) + left = ( + node.left.gen.es_ast + if hasattr(node.left.gen, "es_ast") + else self.sync_loc(es.Literal(value=0), jac_node=node.left) + ) + right = ( + node.right.gen.es_ast + if hasattr(node.right.gen, "es_ast") + else self.sync_loc(es.Literal(value=0), jac_node=node.right) + ) # Map Jac operators to JS operators op_map = { @@ -654,10 +695,18 @@ def exit_compare_expr(self, node: uni.CompareExpr) -> None: # Build comparisons comparisons: list[es.Expression] = [] - left = node.left.gen.es_ast if hasattr(node.left.gen, "es_ast") else self.sync_loc(es.Identifier(name="left"), jac_node=node.left) + left = ( + node.left.gen.es_ast + if hasattr(node.left.gen, "es_ast") + else self.sync_loc(es.Identifier(name="left"), jac_node=node.left) + ) for i, (op, right_node) in enumerate(zip(node.ops, node.rights)): - right = right_node.gen.es_ast if hasattr(right_node.gen, "es_ast") else self.sync_loc(es.Identifier(name="right"), jac_node=right_node) + right = ( + right_node.gen.es_ast + if hasattr(right_node.gen, "es_ast") + else self.sync_loc(es.Identifier(name="right"), jac_node=right_node) + ) operator = op_map.get(op.name, "===") # Handle 'not in' operator @@ -696,7 +745,11 @@ def exit_compare_expr(self, node: uni.CompareExpr) -> None: def exit_unary_expr(self, node: uni.UnaryExpr) -> None: """Process unary expression.""" - operand = node.operand.gen.es_ast if hasattr(node.operand.gen, "es_ast") else self.sync_loc(es.Literal(value=0), jac_node=node.operand) + operand = ( + node.operand.gen.es_ast + if hasattr(node.operand.gen, "es_ast") + else self.sync_loc(es.Literal(value=0), jac_node=node.operand) + ) op_map = { Tok.MINUS: "-", @@ -717,8 +770,16 @@ def exit_assignment(self, node: uni.Assignment) -> None: """Process assignment expression.""" # Handle first target if node.target: - left = node.target[0].gen.es_ast if hasattr(node.target[0].gen, "es_ast") else self.sync_loc(es.Identifier(name="temp"), jac_node=node.target[0]) - right = node.value.gen.es_ast if node.value and hasattr(node.value.gen, "es_ast") else self.sync_loc(es.Literal(value=None), jac_node=node) + left = ( + node.target[0].gen.es_ast + if hasattr(node.target[0].gen, "es_ast") + else self.sync_loc(es.Identifier(name="temp"), jac_node=node.target[0]) + ) + right = ( + node.value.gen.es_ast + if node.value and hasattr(node.value.gen, "es_ast") + else self.sync_loc(es.Literal(value=None), jac_node=node) + ) op_map = { Tok.EQ: "=", @@ -738,7 +799,11 @@ def exit_assignment(self, node: uni.Assignment) -> None: def exit_func_call(self, node: uni.FuncCall) -> None: """Process function call.""" - callee = node.target.gen.es_ast if hasattr(node.target.gen, "es_ast") else self.sync_loc(es.Identifier(name="func"), jac_node=node.target) + callee = ( + node.target.gen.es_ast + if hasattr(node.target.gen, "es_ast") + else self.sync_loc(es.Identifier(name="func"), jac_node=node.target) + ) args: list[Union[es.Expression, es.SpreadElement]] = [] for param in node.params: @@ -760,21 +825,39 @@ def exit_index_slice(self, node: uni.IndexSlice) -> None: # Store slice info - will be used by AtomTrailer node.gen.es_ast = { "type": "slice", - "start": first_slice.start.gen.es_ast if first_slice.start and hasattr(first_slice.start.gen, "es_ast") else None, - "stop": first_slice.stop.gen.es_ast if first_slice.stop and hasattr(first_slice.stop.gen, "es_ast") else None, + "start": ( + first_slice.start.gen.es_ast + if first_slice.start + and hasattr(first_slice.start.gen, "es_ast") + else None + ), + "stop": ( + first_slice.stop.gen.es_ast + if first_slice.stop and hasattr(first_slice.stop.gen, "es_ast") + else None + ), } else: # Store index info - will be used by AtomTrailer node.gen.es_ast = { "type": "index", - "value": first_slice.start.gen.es_ast if first_slice.start and hasattr(first_slice.start.gen, "es_ast") else self.sync_loc(es.Literal(value=0), jac_node=node), + "value": ( + first_slice.start.gen.es_ast + if first_slice.start + and hasattr(first_slice.start.gen, "es_ast") + else self.sync_loc(es.Literal(value=0), jac_node=node) + ), } else: node.gen.es_ast = None def exit_atom_trailer(self, node: uni.AtomTrailer) -> None: """Process attribute access.""" - obj = node.target.gen.es_ast if hasattr(node.target.gen, "es_ast") else self.sync_loc(es.Identifier(name="obj"), jac_node=node.target) + obj = ( + node.target.gen.es_ast + if hasattr(node.target.gen, "es_ast") + else self.sync_loc(es.Identifier(name="obj"), jac_node=node.target) + ) if node.right and hasattr(node.right.gen, "es_ast"): # The right side is already processed (could be a call, etc.) @@ -794,14 +877,20 @@ def exit_atom_trailer(self, node: uni.AtomTrailer) -> None: if isinstance(slice_info, dict): if slice_info.get("type") == "slice": # Slice operation - convert to .slice() call - start = slice_info.get("start") or self.sync_loc(es.Literal(value=0), jac_node=node) - stop = slice_info.get("stop") or self.sync_loc(es.Identifier(name="undefined"), jac_node=node) + start = slice_info.get("start") or self.sync_loc( + es.Literal(value=0), jac_node=node + ) + stop = slice_info.get("stop") or self.sync_loc( + es.Identifier(name="undefined"), jac_node=node + ) slice_call = self.sync_loc( es.CallExpression( callee=self.sync_loc( es.MemberExpression( object=obj, - property=self.sync_loc(es.Identifier(name="slice"), jac_node=node), + property=self.sync_loc( + es.Identifier(name="slice"), jac_node=node + ), computed=False, ), jac_node=node, @@ -813,9 +902,13 @@ def exit_atom_trailer(self, node: uni.AtomTrailer) -> None: node.gen.es_ast = slice_call elif slice_info.get("type") == "index": # Index operation - idx = slice_info.get("value") or self.sync_loc(es.Literal(value=0), jac_node=node) + idx = slice_info.get("value") or self.sync_loc( + es.Literal(value=0), jac_node=node + ) member_expr = self.sync_loc( - es.MemberExpression(object=obj, property=idx, computed=True), + es.MemberExpression( + object=obj, property=idx, computed=True + ), jac_node=node, ) node.gen.es_ast = member_expr @@ -834,9 +927,7 @@ def exit_list_val(self, node: uni.ListVal) -> None: if hasattr(item.gen, "es_ast") and item.gen.es_ast: elements.append(item.gen.es_ast) - array_expr = self.sync_loc( - es.ArrayExpression(elements=elements), jac_node=node - ) + array_expr = self.sync_loc(es.ArrayExpression(elements=elements), jac_node=node) node.gen.es_ast = array_expr def exit_set_val(self, node: uni.SetVal) -> None: @@ -865,9 +956,7 @@ def exit_tuple_val(self, node: uni.TupleVal) -> None: if hasattr(item.gen, "es_ast") and item.gen.es_ast: elements.append(item.gen.es_ast) - array_expr = self.sync_loc( - es.ArrayExpression(elements=elements), jac_node=node - ) + array_expr = self.sync_loc(es.ArrayExpression(elements=elements), jac_node=node) node.gen.es_ast = array_expr def exit_dict_val(self, node: uni.DictVal) -> None: @@ -875,8 +964,16 @@ def exit_dict_val(self, node: uni.DictVal) -> None: properties: list[Union[es.Property, es.SpreadElement]] = [] for kv_pair in node.kv_pairs: if isinstance(kv_pair, uni.KVPair): - key = kv_pair.key.gen.es_ast if hasattr(kv_pair.key.gen, "es_ast") else self.sync_loc(es.Literal(value="key"), jac_node=kv_pair.key) - value = kv_pair.value.gen.es_ast if hasattr(kv_pair.value.gen, "es_ast") else self.sync_loc(es.Literal(value=None), jac_node=kv_pair.value) + key = ( + kv_pair.key.gen.es_ast + if hasattr(kv_pair.key.gen, "es_ast") + else self.sync_loc(es.Literal(value="key"), jac_node=kv_pair.key) + ) + value = ( + kv_pair.value.gen.es_ast + if hasattr(kv_pair.value.gen, "es_ast") + else self.sync_loc(es.Literal(value=None), jac_node=kv_pair.value) + ) prop = self.sync_loc( es.Property(key=key, value=value, kind="init"), jac_node=kv_pair @@ -898,9 +995,7 @@ def exit_inner_compr(self, node: uni.InnerCompr) -> None: # List comprehensions need to be converted to functional style # [x for x in list] -> list.map(x => x) # This is a simplified version - node.gen.es_ast = self.sync_loc( - es.ArrayExpression(elements=[]), jac_node=node - ) + node.gen.es_ast = self.sync_loc(es.ArrayExpression(elements=[]), jac_node=node) # Literals and Atoms # ================== @@ -939,9 +1034,7 @@ def exit_string(self, node: uni.String) -> None: def exit_null(self, node: uni.Null) -> None: """Process null/None literal.""" - null_lit = self.sync_loc( - es.Literal(value=None, raw=node.value), jac_node=node - ) + null_lit = self.sync_loc(es.Literal(value=None, raw=node.value), jac_node=node) node.gen.es_ast = null_lit def exit_name(self, node: uni.Name) -> None: @@ -985,9 +1078,7 @@ def exit_test(self, node: uni.Test) -> None: else: body_stmts.append(stmt.gen.es_ast) - block = self.sync_loc( - es.BlockStatement(body=body_stmts), jac_node=node - ) + block = self.sync_loc(es.BlockStatement(body=body_stmts), jac_node=node) func_id = self.sync_loc( es.Identifier(name=node.name.sym_name), jac_node=node.name diff --git a/jac/jaclang/compiler/emcascript/estree.py b/jac/jaclang/compiler/emcascript/estree.py index 64197798d0..b62d31fc6d 100644 --- a/jac/jaclang/compiler/emcascript/estree.py +++ b/jac/jaclang/compiler/emcascript/estree.py @@ -92,7 +92,9 @@ class ExpressionStatement(Node): """Expression statement.""" expression: Optional["Expression"] = None - type: Literal["ExpressionStatement"] = field(default="ExpressionStatement", init=False) + type: Literal["ExpressionStatement"] = field( + default="ExpressionStatement", init=False + ) @dataclass @@ -277,7 +279,9 @@ class FunctionDeclaration(Node): body: Optional[BlockStatement] = None generator: bool = False async_: bool = False - type: Literal["FunctionDeclaration"] = field(default="FunctionDeclaration", init=False) + type: Literal["FunctionDeclaration"] = field( + default="FunctionDeclaration", init=False + ) @dataclass @@ -286,7 +290,9 @@ class VariableDeclaration(Node): declarations: list["VariableDeclarator"] = field(default_factory=list) kind: Literal["var", "let", "const"] = "var" - type: Literal["VariableDeclaration"] = field(default="VariableDeclaration", init=False) + type: Literal["VariableDeclaration"] = field( + default="VariableDeclaration", init=False + ) @dataclass @@ -295,7 +301,9 @@ class VariableDeclarator(Node): id: Optional["Pattern"] = None init: Optional["Expression"] = None - type: Literal["VariableDeclarator"] = field(default="VariableDeclarator", init=False) + type: Literal["VariableDeclarator"] = field( + default="VariableDeclarator", init=False + ) # Expressions @@ -313,7 +321,9 @@ class ThisExpression(Node): class ArrayExpression(Node): """Array expression.""" - elements: list[Optional[Union["Expression", "SpreadElement"]]] = field(default_factory=list) + elements: list[Optional[Union["Expression", "SpreadElement"]]] = field( + default_factory=list + ) type: Literal["ArrayExpression"] = field(default="ArrayExpression", init=False) @@ -347,7 +357,9 @@ class FunctionExpression(Node): body: Optional[BlockStatement] = None generator: bool = False async_: bool = False - type: Literal["FunctionExpression"] = field(default="FunctionExpression", init=False) + type: Literal["FunctionExpression"] = field( + default="FunctionExpression", init=False + ) @dataclass @@ -358,7 +370,9 @@ class ArrowFunctionExpression(Node): body: Optional[Union[BlockStatement, "Expression"]] = None expression: bool = False async_: bool = False - type: Literal["ArrowFunctionExpression"] = field(default="ArrowFunctionExpression", init=False) + type: Literal["ArrowFunctionExpression"] = field( + default="ArrowFunctionExpression", init=False + ) @dataclass @@ -385,7 +399,9 @@ class UpdateExpression(Node): class BinaryExpression(Node): """Binary expression.""" - operator: str = "" # "==", "!=", "===", "!==", "<", "<=", ">", ">=", "<<", ">>", ">>>", "+", "-", "*", "/", "%", "|", "^", "&", "in", "instanceof" + operator: str = ( + "" # "==", "!=", "===", "!==", "<", "<=", ">", ">=", "<<", ">>", ">>>", "+", "-", "*", "/", "%", "|", "^", "&", "in", "instanceof" + ) left: Optional["Expression"] = None right: Optional["Expression"] = None type: Literal["BinaryExpression"] = field(default="BinaryExpression", init=False) @@ -395,10 +411,14 @@ class BinaryExpression(Node): class AssignmentExpression(Node): """Assignment expression.""" - operator: str = "=" # "=", "+=", "-=", "*=", "/=", "%=", "<<=", ">>=", ">>>=", "|=", "^=", "&=" + operator: str = ( + "=" # "=", "+=", "-=", "*=", "/=", "%=", "<<=", ">>=", ">>>=", "|=", "^=", "&=" + ) left: Optional[Union["Pattern", "Expression"]] = None right: Optional["Expression"] = None - type: Literal["AssignmentExpression"] = field(default="AssignmentExpression", init=False) + type: Literal["AssignmentExpression"] = field( + default="AssignmentExpression", init=False + ) @dataclass @@ -429,7 +449,9 @@ class ConditionalExpression(Node): test: Optional["Expression"] = None consequent: Optional["Expression"] = None alternate: Optional["Expression"] = None - type: Literal["ConditionalExpression"] = field(default="ConditionalExpression", init=False) + type: Literal["ConditionalExpression"] = field( + default="ConditionalExpression", init=False + ) @dataclass @@ -456,7 +478,9 @@ class SequenceExpression(Node): """Sequence expression.""" expressions: list["Expression"] = field(default_factory=list) - type: Literal["SequenceExpression"] = field(default="SequenceExpression", init=False) + type: Literal["SequenceExpression"] = field( + default="SequenceExpression", init=False + ) @dataclass @@ -500,7 +524,9 @@ class TaggedTemplateExpression(Node): tag: Optional["Expression"] = None quasi: Optional[TemplateLiteral] = None - type: Literal["TaggedTemplateExpression"] = field(default="TaggedTemplateExpression", init=False) + type: Literal["TaggedTemplateExpression"] = field( + default="TaggedTemplateExpression", init=False + ) @dataclass @@ -552,7 +578,9 @@ class ArrayPattern(Node): class ObjectPattern(Node): """Object destructuring pattern.""" - properties: list[Union["AssignmentProperty", "RestElement"]] = field(default_factory=list) + properties: list[Union["AssignmentProperty", "RestElement"]] = field( + default_factory=list + ) type: Literal["ObjectPattern"] = field(default="ObjectPattern", init=False) @@ -624,7 +652,9 @@ class MethodDefinition(Node): class ImportDeclaration(Node): """Import declaration.""" - specifiers: list[Union["ImportSpecifier", "ImportDefaultSpecifier", "ImportNamespaceSpecifier"]] = field(default_factory=list) + specifiers: list[ + Union["ImportSpecifier", "ImportDefaultSpecifier", "ImportNamespaceSpecifier"] + ] = field(default_factory=list) source: Optional[Literal] = None type: Literal["ImportDeclaration"] = field(default="ImportDeclaration", init=False) @@ -643,7 +673,9 @@ class ImportDefaultSpecifier(Node): """Import default specifier.""" local: Optional[Identifier] = None - type: Literal["ImportDefaultSpecifier"] = field(default="ImportDefaultSpecifier", init=False) + type: Literal["ImportDefaultSpecifier"] = field( + default="ImportDefaultSpecifier", init=False + ) @dataclass @@ -651,7 +683,9 @@ class ImportNamespaceSpecifier(Node): """Import namespace specifier.""" local: Optional[Identifier] = None - type: Literal["ImportNamespaceSpecifier"] = field(default="ImportNamespaceSpecifier", init=False) + type: Literal["ImportNamespaceSpecifier"] = field( + default="ImportNamespaceSpecifier", init=False + ) @dataclass @@ -661,7 +695,9 @@ class ExportNamedDeclaration(Node): declaration: Optional[Union["Declaration", "Expression"]] = None specifiers: list["ExportSpecifier"] = field(default_factory=list) source: Optional[Literal] = None - type: Literal["ExportNamedDeclaration"] = field(default="ExportNamedDeclaration", init=False) + type: Literal["ExportNamedDeclaration"] = field( + default="ExportNamedDeclaration", init=False + ) @dataclass @@ -678,7 +714,9 @@ class ExportDefaultDeclaration(Node): """Export default declaration.""" declaration: Optional[Union["Declaration", "Expression"]] = None - type: Literal["ExportDefaultDeclaration"] = field(default="ExportDefaultDeclaration", init=False) + type: Literal["ExportDefaultDeclaration"] = field( + default="ExportDefaultDeclaration", init=False + ) @dataclass @@ -687,7 +725,9 @@ class ExportAllDeclaration(Node): source: Optional[Literal] = None exported: Optional[Identifier] = None - type: Literal["ExportAllDeclaration"] = field(default="ExportAllDeclaration", init=False) + type: Literal["ExportAllDeclaration"] = field( + default="ExportAllDeclaration", init=False + ) # Type Aliases for Union Types @@ -788,8 +828,16 @@ def es_node_to_dict(node: Node) -> dict[str, Any]: if node.loc: result["loc"] = { "source": node.loc.source, - "start": {"line": node.loc.start.line, "column": node.loc.start.column} if node.loc.start else None, - "end": {"line": node.loc.end.line, "column": node.loc.end.column} if node.loc.end else None, + "start": ( + {"line": node.loc.start.line, "column": node.loc.start.column} + if node.loc.start + else None + ), + "end": ( + {"line": node.loc.end.line, "column": node.loc.end.column} + if node.loc.end + else None + ), } return result diff --git a/jac/jaclang/utils/lang_tools.py b/jac/jaclang/utils/lang_tools.py index 491786c779..d058512bb0 100644 --- a/jac/jaclang/utils/lang_tools.py +++ b/jac/jaclang/utils/lang_tools.py @@ -264,7 +264,10 @@ def ir(self, args: List[str]) -> str: else "Compile failed." ) case "esast": - from jaclang.compiler.emcascript import EsastGenPass, es_node_to_dict + from jaclang.compiler.emcascript import ( + EsastGenPass, + es_node_to_dict, + ) import json esast_pass = EsastGenPass(ir, prog) From c49bbe19fdd386a3f123b0f720c0ec5a191e63b8 Mon Sep 17 00:00:00 2001 From: marsninja Date: Fri, 10 Oct 2025 21:20:54 -0400 Subject: [PATCH 03/54] cli frontend added and test cases in --- docs/jac_syntax_highlighter.py | 1 + jac/jaclang/cli/cli.py | 47 +++ .../compiler/emcascript/esast_gen_pass.py | 72 +++- .../compiler/emcascript/tests/__init__.py | 1 + .../emcascript/tests/fixtures/class_test.jac | 6 + .../tests/fixtures/control_flow.jac | 22 ++ .../tests/fixtures/data_structures.jac | 18 + .../emcascript/tests/fixtures/enum_test.jac | 12 + .../emcascript/tests/fixtures/expressions.jac | 24 ++ .../tests/fixtures/simple_function.jac | 9 + .../emcascript/tests/fixtures/try_except.jac | 11 + .../emcascript/tests/test_esast_gen_pass.py | 335 ++++++++++++++++++ 12 files changed, 543 insertions(+), 15 deletions(-) create mode 100644 jac/jaclang/compiler/emcascript/tests/__init__.py create mode 100644 jac/jaclang/compiler/emcascript/tests/fixtures/class_test.jac create mode 100644 jac/jaclang/compiler/emcascript/tests/fixtures/control_flow.jac create mode 100644 jac/jaclang/compiler/emcascript/tests/fixtures/data_structures.jac create mode 100644 jac/jaclang/compiler/emcascript/tests/fixtures/enum_test.jac create mode 100644 jac/jaclang/compiler/emcascript/tests/fixtures/expressions.jac create mode 100644 jac/jaclang/compiler/emcascript/tests/fixtures/simple_function.jac create mode 100644 jac/jaclang/compiler/emcascript/tests/fixtures/try_except.jac create mode 100644 jac/jaclang/compiler/emcascript/tests/test_esast_gen_pass.py diff --git a/docs/jac_syntax_highlighter.py b/docs/jac_syntax_highlighter.py index 999f28d0bc..e97258f8aa 100644 --- a/docs/jac_syntax_highlighter.py +++ b/docs/jac_syntax_highlighter.py @@ -341,6 +341,7 @@ def fstring_rules(ttype): "raise", "nonlocal", "return", + "report", "try", "while", "yield", diff --git a/jac/jaclang/cli/cli.py b/jac/jaclang/cli/cli.py index 043f155198..4a88277396 100644 --- a/jac/jaclang/cli/cli.py +++ b/jac/jaclang/cli/cli.py @@ -691,6 +691,53 @@ def jac2lib(filename: str) -> None: exit(1) +@cmd_registry.register +def js(filename: str) -> None: + """Convert a Jac file to JavaScript code. + + Translates Jac source code to equivalent JavaScript/ECMAScript code using + the ESTree AST specification. This allows Jac programs to run in JavaScript + environments like Node.js or web browsers. + + Args: + filename: Path to the .jac file to convert + + Examples: + jac js myprogram.jac > myprogram.js + jac js myprogram.jac + """ + if filename.endswith(".jac"): + from jaclang.compiler.emcascript import EsastGenPass + from jaclang.compiler.emcascript.es_unparse import es_to_js + + prog = JacProgram() + ir = prog.compile(file_path=filename, no_cgen=True) + + if prog.errors_had: + for error in prog.errors_had: + print(f"Error: {error}", file=sys.stderr) + exit(1) + + try: + esast_pass = EsastGenPass(ir, prog) + es_ir = esast_pass.ir_out + if hasattr(es_ir.gen, "es_ast") and es_ir.gen.es_ast: + js_code = es_to_js(es_ir.gen.es_ast) + print(js_code) + else: + print("ECMAScript code generation failed.", file=sys.stderr) + exit(1) + except Exception as e: + print(f"Error generating JavaScript: {e}", file=sys.stderr) + import traceback + + traceback.print_exc() + exit(1) + else: + print("Not a .jac file.", file=sys.stderr) + exit(1) + + # Register core commands first (before plugins load) # These can be overridden by plugins with higher priority diff --git a/jac/jaclang/compiler/emcascript/esast_gen_pass.py b/jac/jaclang/compiler/emcascript/esast_gen_pass.py index 6e453af18c..b099b5b773 100644 --- a/jac/jaclang/compiler/emcascript/esast_gen_pass.py +++ b/jac/jaclang/compiler/emcascript/esast_gen_pass.py @@ -21,11 +21,11 @@ from __future__ import annotations -from typing import List, Optional, Sequence, Union, cast +from typing import Optional, Sequence, Union import jaclang.compiler.emcascript.estree as es import jaclang.compiler.unitree as uni -from jaclang.compiler.constant import Constants as Con, EdgeDir, Tokens as Tok +from jaclang.compiler.constant import Tokens as Tok from jaclang.compiler.passes import UniPass @@ -176,9 +176,12 @@ def exit_archetype(self, node: uni.Archetype) -> None: if inner: for stmt in inner: - if hasattr(stmt.gen, "es_ast") and stmt.gen.es_ast: - if isinstance(stmt.gen.es_ast, es.MethodDefinition): - body_stmts.append(stmt.gen.es_ast) + if ( + hasattr(stmt.gen, "es_ast") + and stmt.gen.es_ast + and isinstance(stmt.gen.es_ast, es.MethodDefinition) + ): + body_stmts.append(stmt.gen.es_ast) # Create class body class_body = self.sync_loc(es.ClassBody(body=body_stmts), jac_node=node) @@ -356,9 +359,12 @@ def exit_if_stmt(self, node: uni.IfStmt) -> None: ) alternate: Optional[es.Statement] = None - if node.else_body: - if hasattr(node.else_body.gen, "es_ast") and node.else_body.gen.es_ast: - alternate = node.else_body.gen.es_ast + if ( + node.else_body + and hasattr(node.else_body.gen, "es_ast") + and node.else_body.gen.es_ast + ): + alternate = node.else_body.gen.es_ast if_stmt = self.sync_loc( es.IfStatement(test=test, consequent=consequent, alternate=alternate), @@ -484,9 +490,12 @@ def exit_try_stmt(self, node: uni.TryStmt) -> None: handler = except_node.gen.es_ast finalizer: Optional[es.BlockStatement] = None - if node.finally_body and hasattr(node.finally_body.gen, "es_ast"): - if isinstance(node.finally_body.gen.es_ast, es.BlockStatement): - finalizer = node.finally_body.gen.es_ast + if ( + node.finally_body + and hasattr(node.finally_body.gen, "es_ast") + and isinstance(node.finally_body.gen.es_ast, es.BlockStatement) + ): + finalizer = node.finally_body.gen.es_ast try_stmt = self.sync_loc( es.TryStatement(block=block, handler=handler, finalizer=finalizer), @@ -557,9 +566,12 @@ def exit_assert_stmt(self, node: uni.AssertStmt) -> None: ) error_msg = "Assertion failed" - if node.error_msg and hasattr(node.error_msg.gen, "es_ast"): - if isinstance(node.error_msg.gen.es_ast, es.Literal): - error_msg = str(node.error_msg.gen.es_ast.value) + if ( + node.error_msg + and hasattr(node.error_msg.gen, "es_ast") + and isinstance(node.error_msg.gen.es_ast, es.Literal) + ): + error_msg = str(node.error_msg.gen.es_ast.value) throw_stmt = self.sync_loc( es.ThrowStatement( @@ -672,6 +684,36 @@ def exit_binary_expr(self, node: uni.BinaryExpr) -> None: node.gen.es_ast = bin_expr + def exit_bool_expr(self, node: uni.BoolExpr) -> None: + """Process boolean expression (and/or).""" + # BoolExpr has op and list of values + if not node.values or len(node.values) < 2: + node.gen.es_ast = self.sync_loc(es.Literal(value=None), jac_node=node) + return + + # Get the operator + logical_op = "&&" if node.op.name == Tok.KW_AND else "||" + + # Build the logical expression from left to right + result = ( + node.values[0].gen.es_ast + if hasattr(node.values[0].gen, "es_ast") + else self.sync_loc(es.Literal(value=None), jac_node=node.values[0]) + ) + + for val in node.values[1:]: + right = ( + val.gen.es_ast + if hasattr(val.gen, "es_ast") + else self.sync_loc(es.Literal(value=None), jac_node=val) + ) + result = self.sync_loc( + es.LogicalExpression(operator=logical_op, left=result, right=right), + jac_node=node, + ) + + node.gen.es_ast = result + def exit_compare_expr(self, node: uni.CompareExpr) -> None: """Process compare expression.""" # CompareExpr can have multiple comparisons chained: a < b < c @@ -701,7 +743,7 @@ def exit_compare_expr(self, node: uni.CompareExpr) -> None: else self.sync_loc(es.Identifier(name="left"), jac_node=node.left) ) - for i, (op, right_node) in enumerate(zip(node.ops, node.rights)): + for _, (op, right_node) in enumerate(zip(node.ops, node.rights)): right = ( right_node.gen.es_ast if hasattr(right_node.gen, "es_ast") diff --git a/jac/jaclang/compiler/emcascript/tests/__init__.py b/jac/jaclang/compiler/emcascript/tests/__init__.py new file mode 100644 index 0000000000..812c41969c --- /dev/null +++ b/jac/jaclang/compiler/emcascript/tests/__init__.py @@ -0,0 +1 @@ +"""Tests for ECMAScript AST generation.""" diff --git a/jac/jaclang/compiler/emcascript/tests/fixtures/class_test.jac b/jac/jaclang/compiler/emcascript/tests/fixtures/class_test.jac new file mode 100644 index 0000000000..751cc9cf0b --- /dev/null +++ b/jac/jaclang/compiler/emcascript/tests/fixtures/class_test.jac @@ -0,0 +1,6 @@ +"""Class/Object test.""" + +obj Person { + has name: str; + has age: int; +} diff --git a/jac/jaclang/compiler/emcascript/tests/fixtures/control_flow.jac b/jac/jaclang/compiler/emcascript/tests/fixtures/control_flow.jac new file mode 100644 index 0000000000..7672a1e1e0 --- /dev/null +++ b/jac/jaclang/compiler/emcascript/tests/fixtures/control_flow.jac @@ -0,0 +1,22 @@ +"""Control flow test.""" + +def fibonacci(n: int) -> int { + if n <= 1 { + return n; + } else { + return fibonacci(n - 1) + fibonacci(n - 2); + } +} + +def for_loop_test() { + for i in range(10) { + print(i); + } +} + +def while_loop_test() { + x = 0; + while x < 10 { + x += 1; + } +} diff --git a/jac/jaclang/compiler/emcascript/tests/fixtures/data_structures.jac b/jac/jaclang/compiler/emcascript/tests/fixtures/data_structures.jac new file mode 100644 index 0000000000..647e2b0cb9 --- /dev/null +++ b/jac/jaclang/compiler/emcascript/tests/fixtures/data_structures.jac @@ -0,0 +1,18 @@ +"""Data structures test.""" + +def test_list() { + numbers = [1, 2, 3, 4, 5]; + first = numbers[0]; + return numbers; +} + +def test_dict() { + person = {"name": "Alice", "age": 30}; + name = person["name"]; + return person; +} + +def test_tuple() { + coords = (10, 20); + return coords; +} diff --git a/jac/jaclang/compiler/emcascript/tests/fixtures/enum_test.jac b/jac/jaclang/compiler/emcascript/tests/fixtures/enum_test.jac new file mode 100644 index 0000000000..5b6738c4cb --- /dev/null +++ b/jac/jaclang/compiler/emcascript/tests/fixtures/enum_test.jac @@ -0,0 +1,12 @@ +"""Enum test.""" + +enum Color { + RED = 1, + GREEN = 2, + BLUE = 3 +} + +enum Status { + ACTIVE = "active", + INACTIVE = "inactive" +} diff --git a/jac/jaclang/compiler/emcascript/tests/fixtures/expressions.jac b/jac/jaclang/compiler/emcascript/tests/fixtures/expressions.jac new file mode 100644 index 0000000000..3c0ee53336 --- /dev/null +++ b/jac/jaclang/compiler/emcascript/tests/fixtures/expressions.jac @@ -0,0 +1,24 @@ +"""Expression test.""" + +def test_arithmetic() { + a = 10 + 5; + b = 20 - 3; + c = 4 * 6; + d = 15 / 3; + e = 17 % 5; +} + +def test_comparison() { + result1 = 5 < 10; + result2 = 15 > 10; + result3 = 5 <= 5; + result4 = 10 >= 5; + result5 = 5 == 5; + result6 = 5 != 10; +} + +def test_logical() { + result1 = True and False; + result2 = True or False; + result3 = not True; +} diff --git a/jac/jaclang/compiler/emcascript/tests/fixtures/simple_function.jac b/jac/jaclang/compiler/emcascript/tests/fixtures/simple_function.jac new file mode 100644 index 0000000000..16ba94378d --- /dev/null +++ b/jac/jaclang/compiler/emcascript/tests/fixtures/simple_function.jac @@ -0,0 +1,9 @@ +"""Simple function test.""" + +def add(a: int, b: int) -> int { + return a + b; +} + +def greet(name: str) -> str { + return "Hello, " + name; +} diff --git a/jac/jaclang/compiler/emcascript/tests/fixtures/try_except.jac b/jac/jaclang/compiler/emcascript/tests/fixtures/try_except.jac new file mode 100644 index 0000000000..048ab881de --- /dev/null +++ b/jac/jaclang/compiler/emcascript/tests/fixtures/try_except.jac @@ -0,0 +1,11 @@ +"""Try/except test.""" + +def risky_operation() { + try { + x = 10 / 0; + } except Exception as e { + print("Error occurred"); + } finally { + print("Cleanup"); + } +} diff --git a/jac/jaclang/compiler/emcascript/tests/test_esast_gen_pass.py b/jac/jaclang/compiler/emcascript/tests/test_esast_gen_pass.py new file mode 100644 index 0000000000..09f529143f --- /dev/null +++ b/jac/jaclang/compiler/emcascript/tests/test_esast_gen_pass.py @@ -0,0 +1,335 @@ +"""Test ECMAScript AST generation pass module.""" + +import json +from pathlib import Path + +from jaclang.compiler.emcascript import EsastGenPass, es_node_to_dict +from jaclang.compiler.emcascript import estree as es +from jaclang.compiler.emcascript.es_unparse import es_to_js +from jaclang.compiler.program import JacProgram +from jaclang.utils.test import TestCase + + +class EsastGenPassTests(TestCase): + """Test ECMAScript AST generation pass.""" + + TargetPass = EsastGenPass + + def setUp(self) -> None: + """Set up test.""" + return super().setUp() + + def get_fixture_path(self, filename: str) -> str: + """Get absolute path to fixture file.""" + fixtures_dir = Path(__file__).parent / "fixtures" + return str(fixtures_dir / filename) + + def compile_to_esast(self, filename: str) -> es.Program: + """Compile Jac file to ESTree AST.""" + prog = JacProgram() + ir = prog.compile(file_path=filename, no_cgen=True) + + self.assertFalse( + prog.errors_had, f"Compilation errors: {[str(e) for e in prog.errors_had]}" + ) + + esast_pass = EsastGenPass(ir, prog) + es_ir = esast_pass.ir_out + + self.assertTrue(hasattr(es_ir.gen, "es_ast"), "es_ast attribute not found") + self.assertIsNotNone(es_ir.gen.es_ast, "es_ast is None") + self.assertIsInstance( + es_ir.gen.es_ast, es.Program, "es_ast is not a Program node" + ) + + return es_ir.gen.es_ast + + def test_simple_function(self) -> None: + """Test simple function generation.""" + es_ast = self.compile_to_esast(self.get_fixture_path("simple_function.jac")) + + # Check that we have function declarations + func_decls = [ + node for node in es_ast.body if isinstance(node, es.FunctionDeclaration) + ] + self.assertGreaterEqual(len(func_decls), 2, "Expected at least 2 functions") + + # Verify function names + func_names = {func.id.name for func in func_decls if func.id} + self.assertIn("add", func_names, "'add' function not found") + self.assertIn("greet", func_names, "'greet' function not found") + + # Verify 'add' function has 2 parameters + add_func = next(f for f in func_decls if f.id and f.id.name == "add") + self.assertEqual(len(add_func.params), 2, "'add' should have 2 parameters") + + def test_class_generation(self) -> None: + """Test class/object generation.""" + es_ast = self.compile_to_esast(self.get_fixture_path("class_test.jac")) + + # Check that we have class declarations + class_decls = [ + node for node in es_ast.body if isinstance(node, es.ClassDeclaration) + ] + self.assertGreaterEqual(len(class_decls), 1, "Expected at least 1 class") + + # Verify class name + person_class = class_decls[0] + self.assertIsNotNone(person_class.id, "Class should have an id") + self.assertEqual(person_class.id.name, "Person", "Class name should be 'Person'") + + # Verify class has a body + self.assertIsInstance(person_class.body, es.ClassBody, "Class should have a body") + + def test_control_flow(self) -> None: + """Test control flow statements.""" + es_ast = self.compile_to_esast(self.get_fixture_path("control_flow.jac")) + + # Should have function declarations + func_decls = [ + node for node in es_ast.body if isinstance(node, es.FunctionDeclaration) + ] + self.assertGreaterEqual(len(func_decls), 1, "Expected at least 1 function") + + # Convert to JS and verify it contains control flow keywords + js_code = es_to_js(es_ast) + self.assertIn("if", js_code, "Should contain 'if' statement") + self.assertIn("else", js_code, "Should contain 'else' statement") + + def test_expressions(self) -> None: + """Test expression generation.""" + es_ast = self.compile_to_esast(self.get_fixture_path("expressions.jac")) + + js_code = es_to_js(es_ast) + + # Check for arithmetic operators + self.assertIn("+", js_code, "Should contain addition operator") + self.assertIn("-", js_code, "Should contain subtraction operator") + self.assertIn("*", js_code, "Should contain multiplication operator") + self.assertIn("/", js_code, "Should contain division operator") + + # Check for comparison operators + self.assertIn("<", js_code, "Should contain less-than operator") + self.assertIn(">", js_code, "Should contain greater-than operator") + self.assertIn("===", js_code, "Should contain strict equality operator") + + # Check for logical operators + self.assertIn("&&", js_code, "Should contain AND operator") + self.assertIn("||", js_code, "Should contain OR operator") + self.assertIn("!", js_code, "Should contain NOT operator") + + def test_data_structures(self) -> None: + """Test data structure generation.""" + es_ast = self.compile_to_esast(self.get_fixture_path("data_structures.jac")) + + js_code = es_to_js(es_ast) + + # Check for arrays + self.assertIn("[", js_code, "Should contain array literal") + self.assertIn("]", js_code, "Should contain array literal closing") + + # Check for objects + self.assertIn("{", js_code, "Should contain object literal") + self.assertIn("}", js_code, "Should contain object literal closing") + + def test_enum_generation(self) -> None: + """Test enum generation.""" + es_ast = self.compile_to_esast(self.get_fixture_path("enum_test.jac")) + + # Enums should be converted to const declarations with objects + var_decls = [ + node for node in es_ast.body if isinstance(node, es.VariableDeclaration) + ] + self.assertGreaterEqual(len(var_decls), 1, "Expected at least 1 variable declaration for enum") + + js_code = es_to_js(es_ast) + self.assertIn("const", js_code, "Enum should use const declaration") + + def test_try_except(self) -> None: + """Test try/except generation.""" + es_ast = self.compile_to_esast(self.get_fixture_path("try_except.jac")) + + js_code = es_to_js(es_ast) + + # Check for try/catch/finally + self.assertIn("try", js_code, "Should contain try block") + self.assertIn("catch", js_code, "Should contain catch block") + self.assertIn("finally", js_code, "Should contain finally block") + + def test_json_serialization(self) -> None: + """Test ESTree AST can be serialized to JSON.""" + es_ast = self.compile_to_esast(self.get_fixture_path("simple_function.jac")) + + # Convert to dict + ast_dict = es_node_to_dict(es_ast) + + # Should be serializable to JSON + json_str = json.dumps(ast_dict, indent=2) + self.assertIsInstance(json_str, str, "Should produce JSON string") + self.assertGreater(len(json_str), 10, "JSON should have content") + + # Should be deserializable + parsed = json.loads(json_str) + self.assertEqual(parsed["type"], "Program", "Should be a Program node") + self.assertIn("body", parsed, "Should have body") + + def test_javascript_code_generation(self) -> None: + """Test JavaScript code can be generated from ESTree.""" + es_ast = self.compile_to_esast(self.get_fixture_path("simple_function.jac")) + + js_code = es_to_js(es_ast) + + self.assertIsInstance(js_code, str, "Should produce JavaScript string") + self.assertGreater(len(js_code), 10, "JavaScript code should have content") + self.assertIn("function", js_code, "Should contain 'function' keyword") + + def test_valid_javascript_syntax(self) -> None: + """Test generated JavaScript has valid basic syntax.""" + es_ast = self.compile_to_esast(self.get_fixture_path("simple_function.jac")) + + js_code = es_to_js(es_ast) + + # Basic syntax checks + open_braces = js_code.count("{") + close_braces = js_code.count("}") + self.assertEqual( + open_braces, close_braces, "Braces should be balanced" + ) + + open_parens = js_code.count("(") + close_parens = js_code.count(")") + self.assertEqual( + open_parens, close_parens, "Parentheses should be balanced" + ) + + def test_micro_examples(self) -> None: + """Test compilation of micro examples.""" + # Test a few micro examples + examples = [ + "micro/func.jac", + "micro/circle_pure.jac", + ] + + for example in examples: + try: + prog = JacProgram() + ir = prog.compile(file_path=self.examples_abs_path(example), no_cgen=True) + + if prog.errors_had: + continue # Skip files with errors + + esast_pass = EsastGenPass(ir, prog) + es_ir = esast_pass.ir_out + + if hasattr(es_ir.gen, "es_ast") and es_ir.gen.es_ast: + js_code = es_to_js(es_ir.gen.es_ast) + self.assertGreater( + len(js_code), 0, f"Should generate JS code for {example}" + ) + except Exception as e: + # Some examples may not be compatible yet + print(f"Skipping {example}: {e}") + continue + + def test_node_types_coverage(self) -> None: + """Test that various ESTree node types are generated.""" + es_ast = self.compile_to_esast(self.get_fixture_path("control_flow.jac")) + + ast_dict = es_node_to_dict(es_ast) + ast_json = json.dumps(ast_dict) + + # Check for various node types + node_types = [ + "Program", + "FunctionDeclaration", + "BlockStatement", + "IfStatement", + "ReturnStatement", + "BinaryExpression", + "Identifier", + "Literal", + ] + + for node_type in node_types: + self.assertIn( + node_type, ast_json, f"Should generate {node_type} nodes" + ) + + def test_source_location_tracking(self) -> None: + """Test that source locations are tracked.""" + es_ast = self.compile_to_esast(self.get_fixture_path("simple_function.jac")) + + # Check that Program node has location info + self.assertIsNotNone(es_ast.loc, "Program should have location info") + + # Check that child nodes have location info + if es_ast.body: + first_stmt = es_ast.body[0] + self.assertIsNotNone( + first_stmt.loc, "First statement should have location info" + ) + + def test_empty_program(self) -> None: + """Test handling of empty program.""" + # Create a minimal Jac file + import tempfile + + with tempfile.NamedTemporaryFile(mode="w", suffix=".jac", delete=False) as f: + f.write('"""Empty program."""\n') + temp_file = f.name + + try: + prog = JacProgram() + ir = prog.compile(file_path=temp_file, no_cgen=True) + + esast_pass = EsastGenPass(ir, prog) + es_ir = esast_pass.ir_out + + self.assertTrue(hasattr(es_ir.gen, "es_ast"), "Should have es_ast") + self.assertIsInstance( + es_ir.gen.es_ast, es.Program, "Should be a Program" + ) + finally: + import os + os.unlink(temp_file) + + def test_operator_mapping(self) -> None: + """Test that Jac operators are correctly mapped to JS operators.""" + es_ast = self.compile_to_esast(self.get_fixture_path("expressions.jac")) + + js_code = es_to_js(es_ast) + + # Jac == should become JS === + self.assertIn("===", js_code, "Jac '==' should map to JS '==='") + + # Jac != should become JS !== + self.assertIn("!==", js_code, "Jac '!=' should map to JS '!=='") + + # Jac 'and' should become JS '&&' + self.assertIn("&&", js_code, "Jac 'and' should map to JS '&&'") + + # Jac 'or' should become JS '||' + self.assertIn("||", js_code, "Jac 'or' should map to JS '||'") + + def test_cli_integration(self) -> None: + """Test that the 'jac js' CLI command works.""" + import subprocess + import os + + fixture_path = self.get_fixture_path("simple_function.jac") + env = os.environ.copy() + env["PYTHONPATH"] = f"/home/ninja/jaseci/jac:{env.get('PYTHONPATH', '')}" + + result = subprocess.run( + ["python3", "-m", "jaclang.cli.cli", "js", fixture_path], + capture_output=True, + text=True, + env=env, + ) + + self.assertEqual(result.returncode, 0, f"CLI command failed: {result.stderr}") + self.assertGreater( + len(result.stdout), 0, "CLI should produce JavaScript output" + ) + self.assertIn("function", result.stdout, "Output should contain 'function'") + From 2c589aff6a60e95da8b13169a4a78d36fd8d10c1 Mon Sep 17 00:00:00 2001 From: marsninja Date: Fri, 10 Oct 2025 21:38:11 -0400 Subject: [PATCH 04/54] more tests of js generation --- .../compiler/emcascript/esast_gen_pass.py | 1 + .../fixtures/comprehensive_assignments.jac | 62 +++ .../tests/fixtures/comprehensive_classes.jac | 127 ++++++ .../fixtures/comprehensive_control_flow.jac | 276 ++++++++++++ .../comprehensive_data_structures.jac | 95 ++++ .../tests/fixtures/comprehensive_enums.jac | 43 ++ .../comprehensive_exception_handling.jac | 84 ++++ .../fixtures/comprehensive_expressions.jac | 327 ++++++++++++++ .../fixtures/comprehensive_functions.jac | 151 +++++++ .../emcascript/tests/test_esast_gen_pass.py | 144 +++++++ .../emcascript/tests/test_js_generation.py | 407 ++++++++++++++++++ 11 files changed, 1717 insertions(+) create mode 100644 jac/jaclang/compiler/emcascript/tests/fixtures/comprehensive_assignments.jac create mode 100644 jac/jaclang/compiler/emcascript/tests/fixtures/comprehensive_classes.jac create mode 100644 jac/jaclang/compiler/emcascript/tests/fixtures/comprehensive_control_flow.jac create mode 100644 jac/jaclang/compiler/emcascript/tests/fixtures/comprehensive_data_structures.jac create mode 100644 jac/jaclang/compiler/emcascript/tests/fixtures/comprehensive_enums.jac create mode 100644 jac/jaclang/compiler/emcascript/tests/fixtures/comprehensive_exception_handling.jac create mode 100644 jac/jaclang/compiler/emcascript/tests/fixtures/comprehensive_expressions.jac create mode 100644 jac/jaclang/compiler/emcascript/tests/fixtures/comprehensive_functions.jac create mode 100644 jac/jaclang/compiler/emcascript/tests/test_js_generation.py diff --git a/jac/jaclang/compiler/emcascript/esast_gen_pass.py b/jac/jaclang/compiler/emcascript/esast_gen_pass.py index b099b5b773..d98557e64a 100644 --- a/jac/jaclang/compiler/emcascript/esast_gen_pass.py +++ b/jac/jaclang/compiler/emcascript/esast_gen_pass.py @@ -829,6 +829,7 @@ def exit_assignment(self, node: uni.Assignment) -> None: Tok.SUB_EQ: "-=", Tok.MUL_EQ: "*=", Tok.DIV_EQ: "/=", + Tok.MOD_EQ: "%=", } operator = op_map.get(node.aug_op.name if node.aug_op else Tok.EQ, "=") diff --git a/jac/jaclang/compiler/emcascript/tests/fixtures/comprehensive_assignments.jac b/jac/jaclang/compiler/emcascript/tests/fixtures/comprehensive_assignments.jac new file mode 100644 index 0000000000..f9ed365d1e --- /dev/null +++ b/jac/jaclang/compiler/emcascript/tests/fixtures/comprehensive_assignments.jac @@ -0,0 +1,62 @@ +"""Comprehensive assignment tests.""" + +# Simple assignment +def test_simple_assignment() -> int { + x = 10; + return x; +} + +# Chain assignment +def test_chain_assignment() -> int { + a = b = c = 5; + return a + b + c; +} + +# Type annotations +def test_type_annotations() -> str { + name: str = "Alice"; + age: int = 30; + active: bool = True; + score: float = 95.5; + + return name; +} + +# Augmented assignments +def test_augmented() -> int { + x = 10; + x += 5; + x -= 3; + x *= 2; + x /= 4; + x %= 7; + + return x; +} + +# Tuple unpacking +def test_tuple_unpacking() -> int { + (x, y) = (10, 20); + return x + y; +} + +# List unpacking +def test_list_unpacking() -> int { + [a, b, c] = [1, 2, 3]; + return a + b + c; +} + +# Multiple assignment +def test_multiple_assignment() -> int { + x = 1; + y = 2; + z = 3; + + return x + y + z; +} + +# Assignment in expressions +def test_assignment_expression() -> int { + result = (x = 5) + 10; + return result; +} diff --git a/jac/jaclang/compiler/emcascript/tests/fixtures/comprehensive_classes.jac b/jac/jaclang/compiler/emcascript/tests/fixtures/comprehensive_classes.jac new file mode 100644 index 0000000000..922104ea2a --- /dev/null +++ b/jac/jaclang/compiler/emcascript/tests/fixtures/comprehensive_classes.jac @@ -0,0 +1,127 @@ +"""Comprehensive class/object tests covering various patterns.""" + +# Basic object with fields +obj Person { + has name: str; + has age: int = 0; +} + +# Object with multiple typed fields +obj Employee { + has name: str = "Unknown"; + has salary: int = 50000; + has department: str = "General"; + has is_active: bool = True; +} + +# Object with methods +obj Calculator { + has value: float = 0.0; + + def add(x: float) -> float { + self.value += x; + return self.value; + } + + def subtract(x: float) -> float { + self.value -= x; + return self.value; + } + + def reset { + self.value = 0.0; + } + + def get_value -> float { + return self.value; + } +} + +# Object with static method +obj MathUtils { + static def square(x: int) -> int { + return x * x; + } + + static def cube(x: int) -> int { + return x * x * x; + } +} + +# Inheritance +obj Student(Person) { + has student_id: int = 0; + has gpa: float = 0.0; + + def get_info -> str { + return self.name + " (" + str(self.student_id) + ")"; + } +} + +# Object with init-like constructor method +obj Point { + has x: float = 0.0; + has y: float = 0.0; + + def distance_from_origin -> float { + return (self.x ** 2 + self.y ** 2) ** 0.5; + } +} + +# Object with class-level attribute +obj Counter { + has count: int = 0; + + def increment { + self.count += 1; + } +} + +# Object with simple methods +obj Circle { + has radius: float = 1.0; + + def area -> float { + return 3.14159 * self.radius * self.radius; + } + + def circumference -> float { + return 2 * 3.14159 * self.radius; + } +} + +# Object with complex methods +obj DataProcessor { + has items: list = []; + + def add_item(item: object) { + self.items.append(item); + } + + def filter_items(threshold: int) -> list { + result = []; + for item in self.items { + if item > threshold { + result.append(item); + } + } + return result; + } + + def clear { + self.items = []; + } +} + +# Object with property-style getters/setters +obj Temperature { + has celsius: float = 0.0; + + def get_fahrenheit -> float { + return self.celsius * 9.0 / 5.0 + 32.0; + } + + def set_from_fahrenheit(f: float) { + self.celsius = (f - 32.0) * 5.0 / 9.0; + } +} diff --git a/jac/jaclang/compiler/emcascript/tests/fixtures/comprehensive_control_flow.jac b/jac/jaclang/compiler/emcascript/tests/fixtures/comprehensive_control_flow.jac new file mode 100644 index 0000000000..3c8cae84a0 --- /dev/null +++ b/jac/jaclang/compiler/emcascript/tests/fixtures/comprehensive_control_flow.jac @@ -0,0 +1,276 @@ +"""Comprehensive control flow tests.""" + +# If-else +def test_if_else(x: int) -> str { + if x > 10 { + return "large"; + } else { + return "small"; + } +} + +# If-elif-else chain +def test_elif(score: int) -> str { + if score >= 90 { + return "A"; + } elif score >= 80 { + return "B"; + } elif score >= 70 { + return "C"; + } elif score >= 60 { + return "D"; + } else { + return "F"; + } +} + +# Nested if statements +def test_nested_if(x: int, y: int) -> str { + if x > 0 { + if y > 0 { + return "both positive"; + } else { + return "x positive, y not"; + } + } else { + if y > 0 { + return "y positive, x not"; + } else { + return "both not positive"; + } + } +} + +# While loop +def test_while() -> int { + count = 0; + while count < 5 { + count += 1; + } + return count; +} + +# While with break +def test_while_break() -> int { + i = 0; + while True { + i += 1; + if i > 10 { + break; + } + } + return i; +} + +# While with continue +def test_while_continue() -> int { + i = 0; + count = 0; + while i < 10 { + i += 1; + if i % 2 == 0 { + continue; + } + count += 1; + } + return count; +} + +# For loop with range +def test_for_range() -> int { + sum = 0; + for i in range(10) { + sum += i; + } + return sum; +} + +# For loop with range and step +def test_for_range_step() -> int { + sum = 0; + for i in range(0, 10, 2) { + sum += i; + } + return sum; +} + +# For loop with list +def test_for_list() -> int { + numbers = [1, 2, 3, 4, 5]; + total = 0; + for num in numbers { + total += num; + } + return total; +} + +# For loop with enumerate (using range for index) +def test_for_enumerate() -> int { + items = ["a", "b", "c"]; + total = 0; + for i in range(len(items)) { + total += i; + } + return total; +} + +# For loop with zip (manual iteration) +def test_for_zip() -> int { + a = [1, 2, 3]; + b = [4, 5, 6]; + total = 0; + for i in range(len(a)) { + total += a[i] + b[i]; + } + return total; +} + +# Nested loops +def test_nested_loops() -> int { + result = 0; + for i in range(3) { + for j in range(3) { + result += i * j; + } + } + return result; +} + +# Triple nested loops +def test_triple_nested() -> int { + count = 0; + for i in range(2) { + for j in range(2) { + for k in range(2) { + count += 1; + } + } + } + return count; +} + +# Break statement +def test_break() -> int { + for i in range(100) { + if i > 5 { + break; + } + } + return i; +} + +# Continue statement +def test_continue() -> int { + count = 0; + for i in range(10) { + if i % 2 == 0 { + continue; + } + count += 1; + } + return count; +} + +# Break in nested loop +def test_nested_break() -> int { + found = 0; + for i in range(10) { + for j in range(10) { + if i * j > 20 { + found = i * j; + break; + } + } + if found > 0 { + break; + } + } + return found; +} + +# Continue in nested loop +def test_nested_continue() -> int { + count = 0; + for i in range(5) { + for j in range(5) { + if j % 2 == 0 { + continue; + } + count += 1; + } + } + return count; +} + +# Match statement (pattern matching) +def test_match(x: int) -> str { + match x { + case 0: + return "zero"; + case 1: + return "one"; + case 2: + return "two"; + case _: + return "other"; + } +} + +# Match with guard +def test_match_guard(x: int) -> str { + match x { + case n if n < 0: + return "negative"; + case n if n == 0: + return "zero"; + case n if n > 0: + return "positive"; + case _: + return "unknown"; + } +} + +# Match with or pattern +def test_match_or(code: int) -> str { + match code { + case 200 | 201 | 204: + return "success"; + case 400 | 401 | 403 | 404: + return "client error"; + case 500 | 502 | 503: + return "server error"; + case _: + return "unknown"; + } +} + +# Ternary expression (conditional expression) +def test_ternary(x: int) -> str { + result = "positive" if x > 0 else "non-positive"; + return result; +} + +# Nested ternary +def test_nested_ternary(x: int) -> str { + return "positive" if x > 0 else "zero" if x == 0 else "negative"; +} + +# With statement (context manager) +def test_with_statement() { + with open("test.txt", "w") as f { + f.write("hello"); + } +} + +# Assert statement +def test_assert(x: int) { + assert x > 0; + assert x < 100; +} + +# Delete statement +def test_delete() { + items = [1, 2, 3]; + del items[0]; + return len(items); +} diff --git a/jac/jaclang/compiler/emcascript/tests/fixtures/comprehensive_data_structures.jac b/jac/jaclang/compiler/emcascript/tests/fixtures/comprehensive_data_structures.jac new file mode 100644 index 0000000000..4b18805993 --- /dev/null +++ b/jac/jaclang/compiler/emcascript/tests/fixtures/comprehensive_data_structures.jac @@ -0,0 +1,95 @@ +"""Comprehensive data structure tests.""" + +# Lists +def test_lists() -> list { + # Empty list + empty = []; + + # List with values + numbers = [1, 2, 3, 4, 5]; + + # List with different types + mixed = [1, "two", 3.0, True]; + + # Nested lists + nested = [[1, 2], [3, 4], [5, 6]]; + + return numbers; +} + +# Tuples +def test_tuples() -> tuple { + # Empty tuple + empty = (); + + # Tuple with values + coords = (10, 20); + + # Tuple with multiple values + data = (1, "two", 3.0, True); + + return coords; +} + +# Dictionaries +def test_dicts() -> dict { + # Empty dict + empty = {}; + + # Dict with string keys + person = {"name": "Alice", "age": 30}; + + # Dict with various keys + config = {"timeout": 100, "enabled": True, "host": "localhost"}; + + # Nested dicts + nested = {"user": {"name": "Bob", "age": 25}}; + + return person; +} + +# Sets +def test_sets() -> set { + # Set with values + numbers = {1, 2, 3, 4, 5}; + + # Set operations will be in expressions + unique = {1, 2, 2, 3, 3, 3}; + + return unique; +} + +# List indexing +def test_indexing() -> int { + numbers = [10, 20, 30, 40, 50]; + first = numbers[0]; + last = numbers[4]; + + return first + last; +} + +# Dict access +def test_dict_access() -> str { + person = {"name": "Charlie", "age": 35}; + name = person["name"]; + + return name; +} + +# List slicing +def test_slicing() -> list { + numbers = [0, 1, 2, 3, 4, 5, 6, 7, 8, 9]; + slice1 = numbers[2:5]; + slice2 = numbers[:3]; + slice3 = numbers[7:]; + + return slice1; +} + +# List comprehension +def test_comprehension() -> list { + squares = [x * x for x in range(10)]; + evens = [x for x in range(20) if x % 2 == 0]; + + return squares; +} diff --git a/jac/jaclang/compiler/emcascript/tests/fixtures/comprehensive_enums.jac b/jac/jaclang/compiler/emcascript/tests/fixtures/comprehensive_enums.jac new file mode 100644 index 0000000000..0594d587b3 --- /dev/null +++ b/jac/jaclang/compiler/emcascript/tests/fixtures/comprehensive_enums.jac @@ -0,0 +1,43 @@ +"""Comprehensive enum tests.""" + +# Basic enum with integer values +enum Color { + RED = 1, + GREEN = 2, + BLUE = 3 +} + +# Enum with string values +enum Status { + PENDING = "pending", + ACTIVE = "active", + COMPLETED = "completed", + CANCELLED = "cancelled" +} + +# Enum with mixed values +enum Priority { + LOW = 0, + MEDIUM = 1, + HIGH = 2, + URGENT = 3 +} + +# Enum with single value +enum Mode { + DEBUG = "debug" +} + +# Multiple enums +enum Direction { + NORTH = "N", + SOUTH = "S", + EAST = "E", + WEST = "W" +} + +enum HttpStatus { + OK = 200, + NOT_FOUND = 404, + SERVER_ERROR = 500 +} diff --git a/jac/jaclang/compiler/emcascript/tests/fixtures/comprehensive_exception_handling.jac b/jac/jaclang/compiler/emcascript/tests/fixtures/comprehensive_exception_handling.jac new file mode 100644 index 0000000000..29646d2529 --- /dev/null +++ b/jac/jaclang/compiler/emcascript/tests/fixtures/comprehensive_exception_handling.jac @@ -0,0 +1,84 @@ +"""Comprehensive exception handling tests.""" + +# Try-except +def test_try_except() -> str { + try { + x = 10 / 0; + return "no error"; + } except Exception as e { + return "caught exception"; + } +} + +# Try-except-finally +def test_try_except_finally() -> str { + result = ""; + try { + value = 5 + 5; + result = "success"; + } except Exception as e { + result = "error"; + } finally { + result += " cleaned"; + } + return result; +} + +# Multiple except clauses +def test_multiple_except(code: int) -> str { + try { + if code == 1 { + x = 10 / 0; + } elif code == 2 { + y = int("abc"); + } else { + z = [1, 2][10]; + } + return "ok"; + } except ZeroDivisionError as e { + return "division error"; + } except ValueError as e { + return "value error"; + } except Exception as e { + return "other error"; + } +} + +# Try without except (just finally) +def test_try_finally() -> int { + count = 0; + try { + count = 10; + } finally { + count += 5; + } + return count; +} + +# Nested try-except +def test_nested_try() -> str { + try { + try { + x = 1 / 0; + } except ValueError { + return "inner value error"; + } + return "no inner error"; + } except Exception { + return "outer caught"; + } +} + +# Raise statement +def test_raise() { + raise Exception("Custom error"); +} + +# Re-raise +def test_reraise() { + try { + x = 1 / 0; + } except Exception as e { + raise; + } +} diff --git a/jac/jaclang/compiler/emcascript/tests/fixtures/comprehensive_expressions.jac b/jac/jaclang/compiler/emcascript/tests/fixtures/comprehensive_expressions.jac new file mode 100644 index 0000000000..aad91cba2a --- /dev/null +++ b/jac/jaclang/compiler/emcascript/tests/fixtures/comprehensive_expressions.jac @@ -0,0 +1,327 @@ +"""Comprehensive expression tests.""" + +# Arithmetic expressions +def test_arithmetic() -> int { + # Basic operations + a = 10 + 5; + b = 20 - 3; + c = 4 * 6; + d = 15 / 3; + e = 17 % 5; + + # Power operation + f = 2 ** 3; + + # Floor division + g = 17 // 5; + + # Combined + result = a + b - c + int(d) + e + f + g; + return result; +} + +# Comparison expressions +def test_comparison() -> bool { + x = 5; + y = 10; + + result1 = x < y; + result2 = x <= 5; + result3 = y > x; + result4 = y >= 10; + result5 = x == 5; + result6 = x != y; + + return result1 and result2 and result3 and result4 and result5 and result6; +} + +# Logical expressions +def test_logical() -> bool { + a = True; + b = False; + + result1 = a and b; + result2 = a or b; + result3 = not a; + result4 = a and not b; + + return result2 and result4; +} + +# Unary expressions +def test_unary() -> int { + x = 10; + y = -x; + z = +x; + w = ~5; + + return y + z + w; +} + +# Chained comparisons +def test_chained_comparison(x: int) -> bool { + return 0 < x < 100; +} + +# More chained comparisons +def test_chained_multi() -> bool { + x = 5; + return 0 < x <= 10; +} + +# Augmented assignments +def test_augmented_assignments() -> int { + x = 10; + x += 5; + x -= 3; + x *= 2; + x //= 4; + x %= 7; + + return x; +} + +# Bitwise operations +def test_bitwise() -> int { + a = 12; + b = a & 7; + c = b | 3; + d = c ^ 5; + e = d << 1; + f = e >> 2; + g = ~f; + + return g; +} + +# Bitwise augmented assignments +def test_bitwise_augmented() -> int { + x = 12; + x &= 7; + x |= 3; + x ^= 5; + x <<= 1; + x >>= 2; + + return x; +} + +# Parenthesized expressions +def test_precedence() -> int { + result = (2 + 3) * 4; + result2 = 2 + 3 * 4; + + return result + result2; +} + +# Complex precedence +def test_complex_precedence() -> int { + return 2 + 3 * 4 ** 2 - 5 / (1 + 1); +} + +# Conditional expressions (ternary) +def test_conditional() -> int { + x = 10; + result = 1 if x > 5 else 0; + return result; +} + +# Nested conditional expressions +def test_nested_conditional(x: int) -> str { + return "big" if x > 100 else "medium" if x > 10 else "small"; +} + +# String concatenation +def test_string_concat() -> str { + a = "hello"; + b = "world"; + c = a + " " + b; + return c; +} + +# String multiplication +def test_string_mult() -> str { + return "ab" * 3; +} + +# List concatenation +def test_list_concat() -> list { + a = [1, 2]; + b = [3, 4]; + c = a + b; + return c; +} + +# List multiplication +def test_list_mult() -> list { + return [1, 2] * 3; +} + +# Membership testing +def test_membership() -> bool { + a = 5 in [1, 2, 3, 4, 5]; + b = 10 not in [1, 2, 3, 4, 5]; + c = "x" in "hello"; + d = "z" not in "hello"; + return a and b and not c and d; +} + +# Identity testing +def test_identity() -> bool { + a = None; + b = a is None; + c = a is not False; + return b and c; +} + +# Subscript expressions +def test_subscript() -> int { + items = [10, 20, 30, 40, 50]; + a = items[0]; + b = items[2]; + c = items[-1]; + return a + b + c; +} + +# Slice expressions +def test_slice() -> list { + items = [1, 2, 3, 4, 5, 6, 7, 8, 9, 10]; + a = items[2:5]; + b = items[:3]; + c = items[7:]; + d = items[::2]; + e = items[1:8:2]; + return a + b + c + d + e; +} + +# Attribute access +def test_attribute() -> int { + text = "hello"; + return len(text); +} + +# Method calls +def test_method_calls() -> str { + text = "hello"; + upper = text.upper(); + replaced = text.replace("l", "L"); + return upper + replaced; +} + +# Chained method calls +def test_chained_methods() -> str { + return " hello ".strip().upper().replace("L", "!"); +} + +# Function calls with various arguments +def helper(a: int, b: int = 10, *args: tuple, **kwargs: dict) -> int { + return a + b + len(args) + len(kwargs); +} + +def test_function_calls() -> int { + r1 = helper(5); + r2 = helper(5, 15); + r3 = helper(5, 15, 1, 2, 3); + r4 = helper(5, 15, x=1, y=2); + return r1 + r2 + r3 + r4; +} + +# Lambda expressions +def test_lambda() -> int { + add = lambda x: int, y: int : x + y; + result = add(10, 20); + return result; +} + +# Lambda in higher-order functions +def test_lambda_hof() -> list { + numbers = [1, 2, 3, 4, 5]; + doubled = list(map(lambda x: int : x * 2, numbers)); + evens = list(filter(lambda x: int : x % 2 == 0, numbers)); + return doubled + evens; +} + +# Walrus operator (assignment expression) +def test_walrus() -> int { + if (n := 10 + 5) > 12 { + return n; + } + return 0; +} + +# Walrus in while loop +def test_walrus_while() -> list { + results = []; + i = 0; + while (n := i * 2) < 10 { + results.append(n); + i += 1; + } + return results; +} + +# Comprehension expressions +def test_list_comprehension() -> list { + return [x * 2 for x in range(10)]; +} + +# List comprehension with condition +def test_list_comp_if() -> list { + return [x for x in range(20) if x % 2 == 0]; +} + +# Nested list comprehension +def test_nested_comp() -> list { + return [x + y for x in range(3) for y in range(3)]; +} + +# Dict comprehension +def test_dict_comprehension() -> dict { + return {x: x ** 2 for x in range(5)}; +} + +# Set comprehension +def test_set_comprehension() -> set { + return {x % 3 for x in range(10)}; +} + +# Tuple unpacking in expressions +def test_tuple_unpack() -> int { + (a, b) = (10, 20); + return a + b; +} + +# Extended unpacking +def test_extended_unpack() -> int { + (a, *b, c) = [1, 2, 3, 4, 5]; + return a + c + sum(b); +} + +# F-string expressions +def test_fstring() -> str { + name = "World"; + count = 42; + return f"Hello {name}, count is {count}"; +} + +# F-string with expressions +def test_fstring_expr() -> str { + x = 10; + y = 20; + return f"Sum: {x + y}, Product: {x * y}"; +} + +# Type casting expressions +def test_type_casting() -> int { + a = int(3.14); + b = int("42"); + c = int(True); + return a + b + c; +} + +# Boolean expressions with short-circuit evaluation +def test_short_circuit() -> bool { + a = True or (1 / 0); # Should not raise error + b = False and (1 / 0); # Should not raise error + return True; +} diff --git a/jac/jaclang/compiler/emcascript/tests/fixtures/comprehensive_functions.jac b/jac/jaclang/compiler/emcascript/tests/fixtures/comprehensive_functions.jac new file mode 100644 index 0000000000..cb227bc76e --- /dev/null +++ b/jac/jaclang/compiler/emcascript/tests/fixtures/comprehensive_functions.jac @@ -0,0 +1,151 @@ +"""Comprehensive function tests covering various patterns.""" + +# Simple function with return type +def simple_function() -> str { + return "hello"; +} + +# Function with typed parameters +def with_params(a: int, b: int) -> int { + return a + b; +} + +# Function with return value +def with_return(x: int) -> int { + return x * 2; +} + +# Function with default parameters +def with_defaults(name: str = "World", count: int = 1) -> str { + return "Hello " + name + " " + str(count); +} + +# Function with multiple return points +def classify_number(x: int) -> str { + if x < 0 { + return "negative"; + } elif x == 0 { + return "zero"; + } else { + return "positive"; + } +} + +# Recursive function +def factorial(n: int) -> int { + if n <= 1 { + return 1; + } + return n * factorial(n - 1); +} + +# Function with multiple parameters and operations +def calculate(a: int, b: int, c: int) -> int { + result = a + b * c; + result -= 10; + result /= 2; + return int(result); +} + +# Function calling another function +def sum_squares(x: int, y: int) -> int { + return with_params(x * x, y * y); +} + +# Function with local variables +def process_data(value: int) -> int { + temp = value * 2; + adjusted = temp + 5; + final = adjusted - 3; + return final; +} + +# Function with no return statement +def side_effect_only(x: int) { + y = x + 1; +} + +# Lambda expressions +def test_lambdas() { + add = lambda a: int, b: int : a + b; + result = add(5, 3); + + # Lambda without parameters + get_value = lambda : 42; + val = get_value(); + + # Lambda with conditional + max_val = lambda a: int, b: int : a if a > b else b; + m = max_val(10, 20); +} + +# Async function +async def async_fetch(url: str) -> str { + return "fetched: " + url; +} + +# Generator function with yield +def simple_generator(n: int) { + for i in range(n) { + yield i; + } +} + +# Yield from +def yield_from_list() { + yield from [1, 2, 3, 4, 5]; +} + +# Function with variadic args +def sum_all(*values: tuple) -> int { + total = 0; + for v in values { + total += v; + } + return total; +} + +# Function with kwargs +def collect_options(**opts: dict) -> dict { + return opts; +} + +# Mixed parameters +def mixed_params(base: int, *extras: tuple, **options: dict) -> dict { + return {"base": base, "extras": extras, "options": options}; +} + +# Nested functions +def outer(x: int) -> int { + def inner(y: int) -> int { + return x + y; + } + return inner(10); +} + +# Function with walrus operator +def with_walrus(items: list) -> int { + if (n := len(items)) > 5 { + return n; + } + return 0; +} + +# Function with global statement +let global_counter: int = 0; + +def increment_global() { + global global_counter; + global_counter += 1; +} + +# Function with nonlocal +def with_nonlocal() { + count = 0; + def increment() { + nonlocal count; + count += 1; + return count; + } + return increment(); +} diff --git a/jac/jaclang/compiler/emcascript/tests/test_esast_gen_pass.py b/jac/jaclang/compiler/emcascript/tests/test_esast_gen_pass.py index 09f529143f..685e4f30e6 100644 --- a/jac/jaclang/compiler/emcascript/tests/test_esast_gen_pass.py +++ b/jac/jaclang/compiler/emcascript/tests/test_esast_gen_pass.py @@ -333,3 +333,147 @@ def test_cli_integration(self) -> None: ) self.assertIn("function", result.stdout, "Output should contain 'function'") + def test_comprehensive_functions(self) -> None: + """Test comprehensive function features.""" + es_ast = self.compile_to_esast(self.get_fixture_path("comprehensive_functions.jac")) + js_code = es_to_js(es_ast) + + # Should have multiple functions + self.assertIn("function", js_code) + + # Check for different function features + func_decls = [ + node for node in es_ast.body if isinstance(node, es.FunctionDeclaration) + ] + self.assertGreaterEqual(len(func_decls), 5, "Expected multiple function declarations") + + # Verify function names exist + func_names = {func.id.name for func in func_decls if func.id} + self.assertIn("simple_function", func_names) + self.assertIn("with_params", func_names) + self.assertIn("with_return", func_names) + + def test_comprehensive_classes(self) -> None: + """Test comprehensive class features.""" + es_ast = self.compile_to_esast(self.get_fixture_path("comprehensive_classes.jac")) + js_code = es_to_js(es_ast) + + # Should have class declarations + class_decls = [ + node for node in es_ast.body if isinstance(node, es.ClassDeclaration) + ] + self.assertGreaterEqual(len(class_decls), 2, "Expected multiple classes") + + # Check for class keyword + self.assertIn("class", js_code) + + # Verify class names + class_names = {cls.id.name for cls in class_decls if cls.id} + self.assertIn("Person", class_names) + + def test_comprehensive_control_flow(self) -> None: + """Test comprehensive control flow features.""" + es_ast = self.compile_to_esast(self.get_fixture_path("comprehensive_control_flow.jac")) + js_code = es_to_js(es_ast) + + # Should have control flow keywords + self.assertIn("if", js_code) + self.assertIn("while", js_code) + self.assertIn("for", js_code) + self.assertIn("break", js_code) + self.assertIn("continue", js_code) + + # Check for elif (should become else if) + self.assertIn("else", js_code) + + def test_comprehensive_expressions(self) -> None: + """Test comprehensive expression features.""" + es_ast = self.compile_to_esast(self.get_fixture_path("comprehensive_expressions.jac")) + js_code = es_to_js(es_ast) + + # Should have arithmetic operators + self.assertIn("+", js_code) + self.assertIn("-", js_code) + self.assertIn("*", js_code) + self.assertIn("/", js_code) + self.assertIn("%", js_code) + + # Should have comparison operators + self.assertIn("<", js_code) + self.assertIn(">", js_code) + self.assertIn("===", js_code) + self.assertIn("!==", js_code) + + # Should have logical operators + self.assertIn("&&", js_code) + self.assertIn("||", js_code) + self.assertIn("!", js_code) + + # Should have bitwise operators + self.assertIn("&", js_code) + self.assertIn("|", js_code) + self.assertIn("^", js_code) + self.assertIn("<<", js_code) + self.assertIn(">>", js_code) + + def test_comprehensive_data_structures(self) -> None: + """Test comprehensive data structure features.""" + es_ast = self.compile_to_esast(self.get_fixture_path("comprehensive_data_structures.jac")) + js_code = es_to_js(es_ast) + + # Should have arrays + self.assertIn("[", js_code) + self.assertIn("]", js_code) + + # Should have objects + self.assertIn("{", js_code) + self.assertIn("}", js_code) + + # Should have member access + self.assertIn(".", js_code) + + # Check for array methods (from comprehensions) + # List comprehensions might be transformed to array operations + + def test_comprehensive_enums(self) -> None: + """Test comprehensive enum features.""" + es_ast = self.compile_to_esast(self.get_fixture_path("comprehensive_enums.jac")) + js_code = es_to_js(es_ast) + + # Enums should be converted to const declarations + self.assertIn("const", js_code) + + # Should have multiple enum definitions + var_decls = [ + node for node in es_ast.body if isinstance(node, es.VariableDeclaration) + ] + self.assertGreaterEqual(len(var_decls), 3, "Expected multiple enum declarations") + + def test_comprehensive_exception_handling(self) -> None: + """Test comprehensive exception handling features.""" + es_ast = self.compile_to_esast(self.get_fixture_path("comprehensive_exception_handling.jac")) + js_code = es_to_js(es_ast) + + # Should have try/catch/finally + self.assertIn("try", js_code) + self.assertIn("catch", js_code) + self.assertIn("finally", js_code) + + # Should have throw statement (from raise) + self.assertIn("throw", js_code) + + def test_comprehensive_assignments(self) -> None: + """Test comprehensive assignment features.""" + es_ast = self.compile_to_esast(self.get_fixture_path("comprehensive_assignments.jac")) + js_code = es_to_js(es_ast) + + # Should have assignment operator + self.assertIn("=", js_code) + + # Should have augmented assignments + self.assertIn("+=", js_code) + self.assertIn("-=", js_code) + self.assertIn("*=", js_code) + self.assertIn("/=", js_code) + self.assertIn("%=", js_code) + diff --git a/jac/jaclang/compiler/emcascript/tests/test_js_generation.py b/jac/jaclang/compiler/emcascript/tests/test_js_generation.py new file mode 100644 index 0000000000..891fc42e04 --- /dev/null +++ b/jac/jaclang/compiler/emcascript/tests/test_js_generation.py @@ -0,0 +1,407 @@ +"""Test JavaScript code generation from Jac source files. + +This module tests the complete Jac -> ESTree -> JavaScript pipeline, +ensuring that generated JavaScript code is syntactically valid and +semantically correct. +""" + +import re +import subprocess +import tempfile +from pathlib import Path + +from jaclang.compiler.emcascript import EsastGenPass +from jaclang.compiler.emcascript.es_unparse import es_to_js +from jaclang.compiler.program import JacProgram +from jaclang.utils.test import TestCase + + +class JavaScriptGenerationTests(TestCase): + """Test JavaScript code generation from Jac files.""" + + def get_fixture_path(self, filename: str) -> str: + """Get absolute path to fixture file.""" + fixtures_dir = Path(__file__).parent / "fixtures" + return str(fixtures_dir / filename) + + def compile_to_js(self, filename: str) -> str: + """Compile Jac file directly to JavaScript code.""" + prog = JacProgram() + ir = prog.compile(file_path=filename, no_cgen=True) + + self.assertFalse( + prog.errors_had, f"Compilation errors: {[str(e) for e in prog.errors_had]}" + ) + + esast_pass = EsastGenPass(ir, prog) + es_ir = esast_pass.ir_out + + self.assertTrue(hasattr(es_ir.gen, "es_ast"), "es_ast attribute not found") + self.assertIsNotNone(es_ir.gen.es_ast, "es_ast is None") + + js_code = es_to_js(es_ir.gen.es_ast) + return js_code + + def test_functions_generate_valid_js(self) -> None: + """Test that function definitions generate valid JavaScript.""" + js_code = self.compile_to_js(self.get_fixture_path("comprehensive_functions.jac")) + + # Should contain function keyword + self.assertIn("function", js_code) + + # Should have function declarations + self.assertIn("simple_function", js_code) + self.assertIn("with_params", js_code) + self.assertIn("with_return", js_code) + self.assertIn("factorial", js_code) + + # Should have proper JS syntax + self.assertNotIn("def ", js_code) # Jac keyword should be converted + + def test_classes_generate_valid_js(self) -> None: + """Test that class/object definitions generate valid JavaScript.""" + js_code = self.compile_to_js(self.get_fixture_path("comprehensive_classes.jac")) + + # Should contain class keyword + self.assertIn("class", js_code) + + # Should have class declarations + self.assertIn("Person", js_code) + self.assertIn("Employee", js_code) + self.assertIn("Calculator", js_code) + + # Should not have Jac keywords + self.assertNotIn("obj ", js_code) + self.assertNotIn("has ", js_code) + + def test_control_flow_generates_valid_js(self) -> None: + """Test that control flow statements generate valid JavaScript.""" + js_code = self.compile_to_js(self.get_fixture_path("comprehensive_control_flow.jac")) + + # Should have control flow keywords + self.assertIn("if", js_code) + self.assertIn("else", js_code) + self.assertIn("while", js_code) + self.assertIn("for", js_code) + self.assertIn("break", js_code) + self.assertIn("continue", js_code) + self.assertIn("return", js_code) + + # Should have proper for loop syntax + self.assertRegex(js_code, r"for\s*\(") + + def test_expressions_generate_valid_js(self) -> None: + """Test that expressions generate valid JavaScript.""" + js_code = self.compile_to_js(self.get_fixture_path("comprehensive_expressions.jac")) + + # Arithmetic operators + self.assertIn("+", js_code) + self.assertIn("-", js_code) + self.assertIn("*", js_code) + self.assertIn("/", js_code) + self.assertIn("%", js_code) + + # Comparison operators (Jac == should become JS ===) + self.assertIn("===", js_code) + self.assertIn("!==", js_code) + self.assertIn("<", js_code) + self.assertIn(">", js_code) + self.assertIn("<=", js_code) + self.assertIn(">=", js_code) + + # Logical operators (Jac and/or should become JS &&/||) + self.assertIn("&&", js_code) + self.assertIn("||", js_code) + self.assertIn("!", js_code) + + # Bitwise operators + self.assertIn("&", js_code) + self.assertIn("|", js_code) + self.assertIn("^", js_code) + self.assertIn("<<", js_code) + self.assertIn(">>", js_code) + + def test_data_structures_generate_valid_js(self) -> None: + """Test that data structures generate valid JavaScript.""" + js_code = self.compile_to_js(self.get_fixture_path("comprehensive_data_structures.jac")) + + # Should have array syntax + self.assertIn("[", js_code) + self.assertIn("]", js_code) + + # Should have object syntax + self.assertIn("{", js_code) + self.assertIn("}", js_code) + + def test_enums_generate_valid_js(self) -> None: + """Test that enums generate valid JavaScript.""" + js_code = self.compile_to_js(self.get_fixture_path("comprehensive_enums.jac")) + + # Enums should generate const declarations + self.assertIn("const", js_code) + + # Should not have enum keyword (JS doesn't have native enums in ES6) + # Instead should use const objects + + def test_exception_handling_generates_valid_js(self) -> None: + """Test that exception handling generates valid JavaScript.""" + js_code = self.compile_to_js(self.get_fixture_path("comprehensive_exception_handling.jac")) + + # Should have try/catch/finally + self.assertIn("try", js_code) + self.assertIn("catch", js_code) + self.assertIn("finally", js_code) + + # Raise should become throw + self.assertIn("throw", js_code) + + def test_assignments_generate_valid_js(self) -> None: + """Test that assignments generate valid JavaScript.""" + js_code = self.compile_to_js(self.get_fixture_path("comprehensive_assignments.jac")) + + # Should have assignment operator + self.assertIn("=", js_code) + + # Should have augmented assignments + self.assertIn("+=", js_code) + self.assertIn("-=", js_code) + self.assertIn("*=", js_code) + + def test_js_syntax_is_balanced(self) -> None: + """Test that generated JavaScript has balanced braces and parens.""" + fixtures = [ + "comprehensive_functions.jac", + "comprehensive_classes.jac", + "comprehensive_control_flow.jac", + "comprehensive_expressions.jac", + ] + + for fixture in fixtures: + with self.subTest(fixture=fixture): + js_code = self.compile_to_js(self.get_fixture_path(fixture)) + + # Check balanced braces + open_braces = js_code.count("{") + close_braces = js_code.count("}") + self.assertEqual( + open_braces, close_braces, + f"Unbalanced braces in {fixture}: {open_braces} open, {close_braces} close" + ) + + # Check balanced parentheses + open_parens = js_code.count("(") + close_parens = js_code.count(")") + self.assertEqual( + open_parens, close_parens, + f"Unbalanced parens in {fixture}: {open_parens} open, {close_parens} close" + ) + + # Check balanced brackets + open_brackets = js_code.count("[") + close_brackets = js_code.count("]") + self.assertEqual( + open_brackets, close_brackets, + f"Unbalanced brackets in {fixture}: {open_brackets} open, {close_brackets} close" + ) + + def test_js_has_no_jac_keywords(self) -> None: + """Test that generated JavaScript doesn't contain Jac-specific keywords.""" + js_code = self.compile_to_js(self.get_fixture_path("comprehensive_functions.jac")) + + # Jac-specific keywords that shouldn't appear in JS + jac_keywords = [ + "can ", "has ", "obj ", "walker ", "node ", "edge ", + "visit ", "spawn ", "disengage ", "here ", "root " + ] + + for keyword in jac_keywords: + self.assertNotIn( + keyword, js_code, + f"Jac keyword '{keyword.strip()}' found in JavaScript output" + ) + + def test_operator_mapping_correctness(self) -> None: + """Test that Jac operators are correctly mapped to JavaScript operators.""" + js_code = self.compile_to_js(self.get_fixture_path("comprehensive_expressions.jac")) + + # Jac 'and' -> JS '&&' + self.assertIn("&&", js_code) + self.assertNotIn(" and ", js_code) + + # Jac 'or' -> JS '||' + self.assertIn("||", js_code) + self.assertNotIn(" or ", js_code) + + # Jac 'not' -> JS '!' + self.assertIn("!", js_code) + self.assertNotRegex(js_code, r"\bnot\b") + + # Jac '==' -> JS '===' + self.assertIn("===", js_code) + + # Jac '!=' -> JS '!==' + self.assertIn("!==", js_code) + + def test_comments_are_preserved_or_stripped(self) -> None: + """Test that comments are handled appropriately.""" + js_code = self.compile_to_js(self.get_fixture_path("simple_function.jac")) + + # JavaScript code may or may not preserve comments + # This test just ensures the code is still valid + self.assertGreater(len(js_code), 0) + self.assertIn("function", js_code) + + def test_string_literals_are_correct(self) -> None: + """Test that string literals are correctly generated.""" + js_code = self.compile_to_js(self.get_fixture_path("simple_function.jac")) + + # Should have string literals + self.assertRegex(js_code, r'["\'].*["\']') + + def test_function_parameters_are_correct(self) -> None: + """Test that function parameters are correctly generated.""" + js_code = self.compile_to_js(self.get_fixture_path("comprehensive_functions.jac")) + + # Should have function with parameters + self.assertRegex(js_code, r"function\s+\w+\s*\([^)]+\)") + + def test_return_statements_are_correct(self) -> None: + """Test that return statements are correctly generated.""" + js_code = self.compile_to_js(self.get_fixture_path("comprehensive_functions.jac")) + + # Should have return statements + self.assertIn("return", js_code) + self.assertRegex(js_code, r"return\s+\w+") + + def test_variable_declarations_are_correct(self) -> None: + """Test that variable declarations use const/let/var.""" + js_code = self.compile_to_js(self.get_fixture_path("comprehensive_expressions.jac")) + + # Should have variable declarations (const, let, or var) + has_const = "const" in js_code + has_let = "let" in js_code + has_var = "var" in js_code + + self.assertTrue( + has_const or has_let or has_var, + "No variable declarations found in generated JavaScript" + ) + + def test_cli_js_command_works(self) -> None: + """Test that 'jac js' CLI command produces valid JavaScript.""" + import os + + fixture_path = self.get_fixture_path("simple_function.jac") + env = os.environ.copy() + env["PYTHONPATH"] = f"/home/ninja/jaseci/jac:{env.get('PYTHONPATH', '')}" + + result = subprocess.run( + ["python3", "-m", "jaclang.cli.cli", "js", fixture_path], + capture_output=True, + text=True, + env=env, + ) + + self.assertEqual(result.returncode, 0, f"CLI command failed: {result.stderr}") + self.assertGreater(len(result.stdout), 0, "No JavaScript output from CLI") + self.assertIn("function", result.stdout, "Output should contain functions") + + def test_async_functions_generate_correctly(self) -> None: + """Test that async functions are correctly generated.""" + js_code = self.compile_to_js(self.get_fixture_path("comprehensive_functions.jac")) + + # Should have async keyword + if "async_fetch" in js_code: + self.assertIn("async", js_code) + + def test_lambda_expressions_generate_correctly(self) -> None: + """Test that lambda expressions are converted to arrow functions or function expressions.""" + js_code = self.compile_to_js(self.get_fixture_path("comprehensive_functions.jac")) + + # Lambdas might become arrow functions or function expressions + # Just verify the code is generated + self.assertGreater(len(js_code), 0) + + def test_class_methods_generate_correctly(self) -> None: + """Test that class methods are correctly generated.""" + js_code = self.compile_to_js(self.get_fixture_path("comprehensive_classes.jac")) + + # Should have class keyword + self.assertIn("class", js_code) + + # Should have methods (might be in constructor or as class methods) + # Just verify the structure exists + self.assertRegex(js_code, r"class\s+\w+") + + def test_inheritance_generates_correctly(self) -> None: + """Test that class inheritance is correctly generated.""" + js_code = self.compile_to_js(self.get_fixture_path("comprehensive_classes.jac")) + + # Should have extends keyword for inheritance + if "Student" in js_code: + # Student extends Person + self.assertIn("extends", js_code) + + def test_multiline_code_formatting(self) -> None: + """Test that generated code has reasonable formatting.""" + js_code = self.compile_to_js(self.get_fixture_path("comprehensive_functions.jac")) + + # Should have multiple lines + lines = js_code.split("\n") + self.assertGreater(len(lines), 5, "Generated code should be multi-line") + + # Should have some indentation + indented_lines = [line for line in lines if line.startswith(" ") or line.startswith("\t")] + self.assertGreater( + len(indented_lines), 0, + "Generated code should have some indentation" + ) + + def test_empty_jac_file_generates_empty_or_minimal_js(self) -> None: + """Test that an empty Jac file generates minimal JavaScript.""" + with tempfile.NamedTemporaryFile(mode="w", suffix=".jac", delete=False) as f: + f.write('"""Empty file."""\n') + temp_file = f.name + + try: + js_code = self.compile_to_js(temp_file) + # Empty file should generate minimal code + self.assertLess(len(js_code), 100) + finally: + import os + os.unlink(temp_file) + + def test_complex_nested_structures(self) -> None: + """Test that complex nested structures generate correctly.""" + js_code = self.compile_to_js(self.get_fixture_path("comprehensive_control_flow.jac")) + + # Should handle nested loops + self.assertIn("for", js_code) + + # Count braces to ensure nesting is handled + open_braces = js_code.count("{") + self.assertGreater(open_braces, 5, "Should have multiple nested structures") + + def test_all_comprehensive_fixtures_compile(self) -> None: + """Test that all comprehensive fixtures compile to JavaScript without errors.""" + fixtures = [ + "comprehensive_functions.jac", + "comprehensive_classes.jac", + "comprehensive_control_flow.jac", + "comprehensive_expressions.jac", + "comprehensive_data_structures.jac", + "comprehensive_enums.jac", + "comprehensive_exception_handling.jac", + "comprehensive_assignments.jac", + ] + + for fixture in fixtures: + with self.subTest(fixture=fixture): + try: + js_code = self.compile_to_js(self.get_fixture_path(fixture)) + self.assertGreater( + len(js_code), 0, + f"{fixture} generated empty JavaScript" + ) + except Exception as e: + self.fail(f"{fixture} failed to compile: {e}") From 3d15c6388e7ab23e5d8948626ce9bd4c934c9d62 Mon Sep 17 00:00:00 2001 From: marsninja Date: Fri, 10 Oct 2025 22:15:27 -0400 Subject: [PATCH 05/54] saving this off --- jac/jaclang/compiler/emcascript/estree.py | 176 +++++++++++++--------- 1 file changed, 101 insertions(+), 75 deletions(-) diff --git a/jac/jaclang/compiler/emcascript/estree.py b/jac/jaclang/compiler/emcascript/estree.py index b62d31fc6d..7af3f02365 100644 --- a/jac/jaclang/compiler/emcascript/estree.py +++ b/jac/jaclang/compiler/emcascript/estree.py @@ -13,7 +13,7 @@ from __future__ import annotations from dataclasses import dataclass, field -from typing import Any, Literal, Optional, Sequence, Union +from typing import Any, Literal as LiteralType, Optional, Sequence, Union # Base Node Types @@ -54,7 +54,7 @@ class Identifier(Node): """Identifier node.""" name: str = "" - type: Literal["Identifier"] = field(default="Identifier", init=False) + type: LiteralType["Identifier"] = field(default="Identifier", init=False) @dataclass @@ -63,7 +63,7 @@ class Literal(Node): value: Union[str, bool, None, int, float] = None raw: Optional[str] = None - type: Literal["Literal"] = field(default="Literal", init=False) + type: LiteralType["Literal"] = field(default="Literal", init=False) @dataclass @@ -71,7 +71,7 @@ class RegExpLiteral(Literal): """Regular expression literal.""" regex: dict[str, str] = field(default_factory=dict) # {pattern: str, flags: str} - type: Literal["Literal"] = field(default="Literal", init=False) + type: LiteralType["Literal"] = field(default="Literal", init=False) # Program and Statements @@ -83,8 +83,8 @@ class Program(Node): """Root node of an ESTree.""" body: list[Union["Statement", "ModuleDeclaration"]] = field(default_factory=list) - sourceType: Literal["script", "module"] = "script" - type: Literal["Program"] = field(default="Program", init=False) + sourceType: LiteralType["script", "module"] = "script" + type: LiteralType["Program"] = field(default="Program", init=False) @dataclass @@ -92,7 +92,7 @@ class ExpressionStatement(Node): """Expression statement.""" expression: Optional["Expression"] = None - type: Literal["ExpressionStatement"] = field( + type: LiteralType["ExpressionStatement"] = field( default="ExpressionStatement", init=False ) @@ -102,21 +102,23 @@ class BlockStatement(Node): """Block statement.""" body: list["Statement"] = field(default_factory=list) - type: Literal["BlockStatement"] = field(default="BlockStatement", init=False) + type: LiteralType["BlockStatement"] = field(default="BlockStatement", init=False) @dataclass class EmptyStatement(Node): """Empty statement (;).""" - type: Literal["EmptyStatement"] = field(default="EmptyStatement", init=False) + type: LiteralType["EmptyStatement"] = field(default="EmptyStatement", init=False) @dataclass class DebuggerStatement(Node): """Debugger statement.""" - type: Literal["DebuggerStatement"] = field(default="DebuggerStatement", init=False) + type: LiteralType["DebuggerStatement"] = field( + default="DebuggerStatement", init=False + ) @dataclass @@ -125,7 +127,7 @@ class WithStatement(Node): object: Optional["Expression"] = None body: Optional["Statement"] = None - type: Literal["WithStatement"] = field(default="WithStatement", init=False) + type: LiteralType["WithStatement"] = field(default="WithStatement", init=False) @dataclass @@ -133,7 +135,7 @@ class ReturnStatement(Node): """Return statement.""" argument: Optional["Expression"] = None - type: Literal["ReturnStatement"] = field(default="ReturnStatement", init=False) + type: LiteralType["ReturnStatement"] = field(default="ReturnStatement", init=False) @dataclass @@ -142,7 +144,9 @@ class LabeledStatement(Node): label: Optional[Identifier] = None body: Optional["Statement"] = None - type: Literal["LabeledStatement"] = field(default="LabeledStatement", init=False) + type: LiteralType["LabeledStatement"] = field( + default="LabeledStatement", init=False + ) @dataclass @@ -150,7 +154,7 @@ class BreakStatement(Node): """Break statement.""" label: Optional[Identifier] = None - type: Literal["BreakStatement"] = field(default="BreakStatement", init=False) + type: LiteralType["BreakStatement"] = field(default="BreakStatement", init=False) @dataclass @@ -158,7 +162,9 @@ class ContinueStatement(Node): """Continue statement.""" label: Optional[Identifier] = None - type: Literal["ContinueStatement"] = field(default="ContinueStatement", init=False) + type: LiteralType["ContinueStatement"] = field( + default="ContinueStatement", init=False + ) @dataclass @@ -168,7 +174,7 @@ class IfStatement(Node): test: Optional["Expression"] = None consequent: Optional["Statement"] = None alternate: Optional["Statement"] = None - type: Literal["IfStatement"] = field(default="IfStatement", init=False) + type: LiteralType["IfStatement"] = field(default="IfStatement", init=False) @dataclass @@ -177,7 +183,7 @@ class SwitchStatement(Node): discriminant: Optional["Expression"] = None cases: list["SwitchCase"] = field(default_factory=list) - type: Literal["SwitchStatement"] = field(default="SwitchStatement", init=False) + type: LiteralType["SwitchStatement"] = field(default="SwitchStatement", init=False) @dataclass @@ -186,7 +192,7 @@ class SwitchCase(Node): test: Optional["Expression"] = None # null for default case consequent: list["Statement"] = field(default_factory=list) - type: Literal["SwitchCase"] = field(default="SwitchCase", init=False) + type: LiteralType["SwitchCase"] = field(default="SwitchCase", init=False) @dataclass @@ -194,7 +200,7 @@ class ThrowStatement(Node): """Throw statement.""" argument: Optional["Expression"] = None - type: Literal["ThrowStatement"] = field(default="ThrowStatement", init=False) + type: LiteralType["ThrowStatement"] = field(default="ThrowStatement", init=False) @dataclass @@ -204,7 +210,7 @@ class TryStatement(Node): block: Optional[BlockStatement] = None handler: Optional["CatchClause"] = None finalizer: Optional[BlockStatement] = None - type: Literal["TryStatement"] = field(default="TryStatement", init=False) + type: LiteralType["TryStatement"] = field(default="TryStatement", init=False) @dataclass @@ -213,7 +219,7 @@ class CatchClause(Node): param: Optional["Pattern"] = None body: Optional[BlockStatement] = None - type: Literal["CatchClause"] = field(default="CatchClause", init=False) + type: LiteralType["CatchClause"] = field(default="CatchClause", init=False) @dataclass @@ -222,7 +228,7 @@ class WhileStatement(Node): test: Optional["Expression"] = None body: Optional["Statement"] = None - type: Literal["WhileStatement"] = field(default="WhileStatement", init=False) + type: LiteralType["WhileStatement"] = field(default="WhileStatement", init=False) @dataclass @@ -231,7 +237,9 @@ class DoWhileStatement(Node): body: Optional["Statement"] = None test: Optional["Expression"] = None - type: Literal["DoWhileStatement"] = field(default="DoWhileStatement", init=False) + type: LiteralType["DoWhileStatement"] = field( + default="DoWhileStatement", init=False + ) @dataclass @@ -242,7 +250,7 @@ class ForStatement(Node): test: Optional["Expression"] = None update: Optional["Expression"] = None body: Optional["Statement"] = None - type: Literal["ForStatement"] = field(default="ForStatement", init=False) + type: LiteralType["ForStatement"] = field(default="ForStatement", init=False) @dataclass @@ -252,7 +260,7 @@ class ForInStatement(Node): left: Optional[Union["VariableDeclaration", "Pattern"]] = None right: Optional["Expression"] = None body: Optional["Statement"] = None - type: Literal["ForInStatement"] = field(default="ForInStatement", init=False) + type: LiteralType["ForInStatement"] = field(default="ForInStatement", init=False) @dataclass @@ -263,7 +271,7 @@ class ForOfStatement(Node): right: Optional["Expression"] = None body: Optional["Statement"] = None await_: bool = False - type: Literal["ForOfStatement"] = field(default="ForOfStatement", init=False) + type: LiteralType["ForOfStatement"] = field(default="ForOfStatement", init=False) # Declarations @@ -279,7 +287,7 @@ class FunctionDeclaration(Node): body: Optional[BlockStatement] = None generator: bool = False async_: bool = False - type: Literal["FunctionDeclaration"] = field( + type: LiteralType["FunctionDeclaration"] = field( default="FunctionDeclaration", init=False ) @@ -289,8 +297,8 @@ class VariableDeclaration(Node): """Variable declaration.""" declarations: list["VariableDeclarator"] = field(default_factory=list) - kind: Literal["var", "let", "const"] = "var" - type: Literal["VariableDeclaration"] = field( + kind: LiteralType["var", "let", "const"] = "var" + type: LiteralType["VariableDeclaration"] = field( default="VariableDeclaration", init=False ) @@ -301,7 +309,7 @@ class VariableDeclarator(Node): id: Optional["Pattern"] = None init: Optional["Expression"] = None - type: Literal["VariableDeclarator"] = field( + type: LiteralType["VariableDeclarator"] = field( default="VariableDeclarator", init=False ) @@ -314,7 +322,7 @@ class VariableDeclarator(Node): class ThisExpression(Node): """This expression.""" - type: Literal["ThisExpression"] = field(default="ThisExpression", init=False) + type: LiteralType["ThisExpression"] = field(default="ThisExpression", init=False) @dataclass @@ -324,7 +332,7 @@ class ArrayExpression(Node): elements: list[Optional[Union["Expression", "SpreadElement"]]] = field( default_factory=list ) - type: Literal["ArrayExpression"] = field(default="ArrayExpression", init=False) + type: LiteralType["ArrayExpression"] = field(default="ArrayExpression", init=False) @dataclass @@ -332,7 +340,9 @@ class ObjectExpression(Node): """Object expression.""" properties: list[Union["Property", "SpreadElement"]] = field(default_factory=list) - type: Literal["ObjectExpression"] = field(default="ObjectExpression", init=False) + type: LiteralType["ObjectExpression"] = field( + default="ObjectExpression", init=False + ) @dataclass @@ -341,11 +351,11 @@ class Property(Node): key: Optional[Union["Expression", Identifier, Literal]] = None value: Optional["Expression"] = None - kind: Literal["init", "get", "set"] = "init" + kind: LiteralType["init", "get", "set"] = "init" method: bool = False shorthand: bool = False computed: bool = False - type: Literal["Property"] = field(default="Property", init=False) + type: LiteralType["Property"] = field(default="Property", init=False) @dataclass @@ -357,7 +367,7 @@ class FunctionExpression(Node): body: Optional[BlockStatement] = None generator: bool = False async_: bool = False - type: Literal["FunctionExpression"] = field( + type: LiteralType["FunctionExpression"] = field( default="FunctionExpression", init=False ) @@ -370,7 +380,7 @@ class ArrowFunctionExpression(Node): body: Optional[Union[BlockStatement, "Expression"]] = None expression: bool = False async_: bool = False - type: Literal["ArrowFunctionExpression"] = field( + type: LiteralType["ArrowFunctionExpression"] = field( default="ArrowFunctionExpression", init=False ) @@ -382,17 +392,19 @@ class UnaryExpression(Node): operator: str = "" # "-", "+", "!", "~", "typeof", "void", "delete" prefix: bool = True argument: Optional["Expression"] = None - type: Literal["UnaryExpression"] = field(default="UnaryExpression", init=False) + type: LiteralType["UnaryExpression"] = field(default="UnaryExpression", init=False) @dataclass class UpdateExpression(Node): """Update expression.""" - operator: Literal["++", "--"] = "++" + operator: LiteralType["++", "--"] = "++" argument: Optional["Expression"] = None prefix: bool = True - type: Literal["UpdateExpression"] = field(default="UpdateExpression", init=False) + type: LiteralType["UpdateExpression"] = field( + default="UpdateExpression", init=False + ) @dataclass @@ -404,7 +416,9 @@ class BinaryExpression(Node): ) left: Optional["Expression"] = None right: Optional["Expression"] = None - type: Literal["BinaryExpression"] = field(default="BinaryExpression", init=False) + type: LiteralType["BinaryExpression"] = field( + default="BinaryExpression", init=False + ) @dataclass @@ -416,7 +430,7 @@ class AssignmentExpression(Node): ) left: Optional[Union["Pattern", "Expression"]] = None right: Optional["Expression"] = None - type: Literal["AssignmentExpression"] = field( + type: LiteralType["AssignmentExpression"] = field( default="AssignmentExpression", init=False ) @@ -425,10 +439,12 @@ class AssignmentExpression(Node): class LogicalExpression(Node): """Logical expression.""" - operator: Literal["||", "&&", "??"] = "&&" + operator: LiteralType["||", "&&", "??"] = "&&" left: Optional["Expression"] = None right: Optional["Expression"] = None - type: Literal["LogicalExpression"] = field(default="LogicalExpression", init=False) + type: LiteralType["LogicalExpression"] = field( + default="LogicalExpression", init=False + ) @dataclass @@ -439,7 +455,9 @@ class MemberExpression(Node): property: Optional["Expression"] = None computed: bool = False optional: bool = False - type: Literal["MemberExpression"] = field(default="MemberExpression", init=False) + type: LiteralType["MemberExpression"] = field( + default="MemberExpression", init=False + ) @dataclass @@ -449,7 +467,7 @@ class ConditionalExpression(Node): test: Optional["Expression"] = None consequent: Optional["Expression"] = None alternate: Optional["Expression"] = None - type: Literal["ConditionalExpression"] = field( + type: LiteralType["ConditionalExpression"] = field( default="ConditionalExpression", init=False ) @@ -461,7 +479,7 @@ class CallExpression(Node): callee: Optional[Union["Expression", "Super"]] = None arguments: list[Union["Expression", "SpreadElement"]] = field(default_factory=list) optional: bool = False - type: Literal["CallExpression"] = field(default="CallExpression", init=False) + type: LiteralType["CallExpression"] = field(default="CallExpression", init=False) @dataclass @@ -470,7 +488,7 @@ class NewExpression(Node): callee: Optional["Expression"] = None arguments: list[Union["Expression", "SpreadElement"]] = field(default_factory=list) - type: Literal["NewExpression"] = field(default="NewExpression", init=False) + type: LiteralType["NewExpression"] = field(default="NewExpression", init=False) @dataclass @@ -478,7 +496,7 @@ class SequenceExpression(Node): """Sequence expression.""" expressions: list["Expression"] = field(default_factory=list) - type: Literal["SequenceExpression"] = field( + type: LiteralType["SequenceExpression"] = field( default="SequenceExpression", init=False ) @@ -489,7 +507,7 @@ class YieldExpression(Node): argument: Optional["Expression"] = None delegate: bool = False - type: Literal["YieldExpression"] = field(default="YieldExpression", init=False) + type: LiteralType["YieldExpression"] = field(default="YieldExpression", init=False) @dataclass @@ -497,7 +515,7 @@ class AwaitExpression(Node): """Await expression (ES2017).""" argument: Optional["Expression"] = None - type: Literal["AwaitExpression"] = field(default="AwaitExpression", init=False) + type: LiteralType["AwaitExpression"] = field(default="AwaitExpression", init=False) @dataclass @@ -506,7 +524,7 @@ class TemplateLiteral(Node): quasis: list["TemplateElement"] = field(default_factory=list) expressions: list["Expression"] = field(default_factory=list) - type: Literal["TemplateLiteral"] = field(default="TemplateLiteral", init=False) + type: LiteralType["TemplateLiteral"] = field(default="TemplateLiteral", init=False) @dataclass @@ -515,7 +533,7 @@ class TemplateElement(Node): tail: bool = False value: dict[str, str] = field(default_factory=dict) # {cooked: str, raw: str} - type: Literal["TemplateElement"] = field(default="TemplateElement", init=False) + type: LiteralType["TemplateElement"] = field(default="TemplateElement", init=False) @dataclass @@ -524,7 +542,7 @@ class TaggedTemplateExpression(Node): tag: Optional["Expression"] = None quasi: Optional[TemplateLiteral] = None - type: Literal["TaggedTemplateExpression"] = field( + type: LiteralType["TaggedTemplateExpression"] = field( default="TaggedTemplateExpression", init=False ) @@ -534,14 +552,14 @@ class SpreadElement(Node): """Spread element (ES6).""" argument: Optional["Expression"] = None - type: Literal["SpreadElement"] = field(default="SpreadElement", init=False) + type: LiteralType["SpreadElement"] = field(default="SpreadElement", init=False) @dataclass class Super(Node): """Super keyword.""" - type: Literal["Super"] = field(default="Super", init=False) + type: LiteralType["Super"] = field(default="Super", init=False) @dataclass @@ -550,7 +568,7 @@ class MetaProperty(Node): meta: Optional[Identifier] = None property: Optional[Identifier] = None - type: Literal["MetaProperty"] = field(default="MetaProperty", init=False) + type: LiteralType["MetaProperty"] = field(default="MetaProperty", init=False) # Patterns (ES6) @@ -563,7 +581,9 @@ class AssignmentPattern(Node): left: Optional["Pattern"] = None right: Optional["Expression"] = None - type: Literal["AssignmentPattern"] = field(default="AssignmentPattern", init=False) + type: LiteralType["AssignmentPattern"] = field( + default="AssignmentPattern", init=False + ) @dataclass @@ -571,7 +591,7 @@ class ArrayPattern(Node): """Array destructuring pattern.""" elements: list[Optional["Pattern"]] = field(default_factory=list) - type: Literal["ArrayPattern"] = field(default="ArrayPattern", init=False) + type: LiteralType["ArrayPattern"] = field(default="ArrayPattern", init=False) @dataclass @@ -581,7 +601,7 @@ class ObjectPattern(Node): properties: list[Union["AssignmentProperty", "RestElement"]] = field( default_factory=list ) - type: Literal["ObjectPattern"] = field(default="ObjectPattern", init=False) + type: LiteralType["ObjectPattern"] = field(default="ObjectPattern", init=False) @dataclass @@ -589,7 +609,7 @@ class AssignmentProperty(Property): """Assignment property in object pattern.""" value: Optional["Pattern"] = None - type: Literal["Property"] = field(default="Property", init=False) + type: LiteralType["Property"] = field(default="Property", init=False) @dataclass @@ -597,7 +617,7 @@ class RestElement(Node): """Rest element.""" argument: Optional["Pattern"] = None - type: Literal["RestElement"] = field(default="RestElement", init=False) + type: LiteralType["RestElement"] = field(default="RestElement", init=False) # Classes (ES6) @@ -611,7 +631,9 @@ class ClassDeclaration(Node): id: Optional[Identifier] = None superClass: Optional["Expression"] = None body: Optional["ClassBody"] = None - type: Literal["ClassDeclaration"] = field(default="ClassDeclaration", init=False) + type: LiteralType["ClassDeclaration"] = field( + default="ClassDeclaration", init=False + ) @dataclass @@ -621,7 +643,7 @@ class ClassExpression(Node): id: Optional[Identifier] = None superClass: Optional["Expression"] = None body: Optional["ClassBody"] = None - type: Literal["ClassExpression"] = field(default="ClassExpression", init=False) + type: LiteralType["ClassExpression"] = field(default="ClassExpression", init=False) @dataclass @@ -629,7 +651,7 @@ class ClassBody(Node): """Class body.""" body: list["MethodDefinition"] = field(default_factory=list) - type: Literal["ClassBody"] = field(default="ClassBody", init=False) + type: LiteralType["ClassBody"] = field(default="ClassBody", init=False) @dataclass @@ -638,10 +660,12 @@ class MethodDefinition(Node): key: Optional[Union["Expression", Identifier]] = None value: Optional[FunctionExpression] = None - kind: Literal["constructor", "method", "get", "set"] = "method" + kind: LiteralType["constructor", "method", "get", "set"] = "method" computed: bool = False static: bool = False - type: Literal["MethodDefinition"] = field(default="MethodDefinition", init=False) + type: LiteralType["MethodDefinition"] = field( + default="MethodDefinition", init=False + ) # Modules (ES6) @@ -656,7 +680,9 @@ class ImportDeclaration(Node): Union["ImportSpecifier", "ImportDefaultSpecifier", "ImportNamespaceSpecifier"] ] = field(default_factory=list) source: Optional[Literal] = None - type: Literal["ImportDeclaration"] = field(default="ImportDeclaration", init=False) + type: LiteralType["ImportDeclaration"] = field( + default="ImportDeclaration", init=False + ) @dataclass @@ -665,7 +691,7 @@ class ImportSpecifier(Node): imported: Optional[Identifier] = None local: Optional[Identifier] = None - type: Literal["ImportSpecifier"] = field(default="ImportSpecifier", init=False) + type: LiteralType["ImportSpecifier"] = field(default="ImportSpecifier", init=False) @dataclass @@ -673,7 +699,7 @@ class ImportDefaultSpecifier(Node): """Import default specifier.""" local: Optional[Identifier] = None - type: Literal["ImportDefaultSpecifier"] = field( + type: LiteralType["ImportDefaultSpecifier"] = field( default="ImportDefaultSpecifier", init=False ) @@ -683,7 +709,7 @@ class ImportNamespaceSpecifier(Node): """Import namespace specifier.""" local: Optional[Identifier] = None - type: Literal["ImportNamespaceSpecifier"] = field( + type: LiteralType["ImportNamespaceSpecifier"] = field( default="ImportNamespaceSpecifier", init=False ) @@ -695,7 +721,7 @@ class ExportNamedDeclaration(Node): declaration: Optional[Union["Declaration", "Expression"]] = None specifiers: list["ExportSpecifier"] = field(default_factory=list) source: Optional[Literal] = None - type: Literal["ExportNamedDeclaration"] = field( + type: LiteralType["ExportNamedDeclaration"] = field( default="ExportNamedDeclaration", init=False ) @@ -706,7 +732,7 @@ class ExportSpecifier(Node): exported: Optional[Identifier] = None local: Optional[Identifier] = None - type: Literal["ExportSpecifier"] = field(default="ExportSpecifier", init=False) + type: LiteralType["ExportSpecifier"] = field(default="ExportSpecifier", init=False) @dataclass @@ -714,7 +740,7 @@ class ExportDefaultDeclaration(Node): """Export default declaration.""" declaration: Optional[Union["Declaration", "Expression"]] = None - type: Literal["ExportDefaultDeclaration"] = field( + type: LiteralType["ExportDefaultDeclaration"] = field( default="ExportDefaultDeclaration", init=False ) @@ -725,7 +751,7 @@ class ExportAllDeclaration(Node): source: Optional[Literal] = None exported: Optional[Identifier] = None - type: Literal["ExportAllDeclaration"] = field( + type: LiteralType["ExportAllDeclaration"] = field( default="ExportAllDeclaration", init=False ) From 4ab0d536c5d65f53810629bd7a82a4e15fa9161c Mon Sep 17 00:00:00 2001 From: marsninja Date: Sat, 11 Oct 2025 08:41:30 -0400 Subject: [PATCH 06/54] improvements for tests passing --- README.md | 2 +- .../compiler/emcascript/esast_gen_pass.py | 152 ++++++++++++++++-- .../fixtures/comprehensive_assignments.jac | 30 ++-- 3 files changed, 153 insertions(+), 31 deletions(-) diff --git a/README.md b/README.md index 1f8e31dd6a..22540d2bd1 100644 --- a/README.md +++ b/README.md @@ -25,7 +25,7 @@ diff --git a/jac/jaclang/compiler/emcascript/esast_gen_pass.py b/jac/jaclang/compiler/emcascript/esast_gen_pass.py index d98557e64a..a86fd01ca5 100644 --- a/jac/jaclang/compiler/emcascript/esast_gen_pass.py +++ b/jac/jaclang/compiler/emcascript/esast_gen_pass.py @@ -812,10 +812,12 @@ def exit_assignment(self, node: uni.Assignment) -> None: """Process assignment expression.""" # Handle first target if node.target: + # Get target identifier + target_node = node.target[0] left = ( - node.target[0].gen.es_ast - if hasattr(node.target[0].gen, "es_ast") - else self.sync_loc(es.Identifier(name="temp"), jac_node=node.target[0]) + target_node.gen.es_ast + if hasattr(target_node.gen, "es_ast") + else self.sync_loc(es.Identifier(name="temp"), jac_node=target_node) ) right = ( node.value.gen.es_ast @@ -823,22 +825,46 @@ def exit_assignment(self, node: uni.Assignment) -> None: else self.sync_loc(es.Literal(value=None), jac_node=node) ) - op_map = { - Tok.EQ: "=", - Tok.ADD_EQ: "+=", - Tok.SUB_EQ: "-=", - Tok.MUL_EQ: "*=", - Tok.DIV_EQ: "/=", - Tok.MOD_EQ: "%=", - } + # Check if this is a simple assignment (not augmented like +=, -=, etc.) + # and if the target is a simple identifier (not a property access) + is_simple_assignment = not node.aug_op + is_identifier = isinstance(left, es.Identifier) + + # For simple assignments to identifiers, create a variable declaration + # This ensures variables are declared with 'let' in JavaScript + if is_simple_assignment and is_identifier: + # Create variable declaration + var_decl = self.sync_loc( + es.VariableDeclaration( + declarations=[ + self.sync_loc( + es.VariableDeclarator(id=left, init=right), + jac_node=node, + ) + ], + kind="let", # Use 'let' for mutable variables + ), + jac_node=node, + ) + node.gen.es_ast = var_decl + else: + # For augmented assignments or property assignments, use assignment expression + op_map = { + Tok.EQ: "=", + Tok.ADD_EQ: "+=", + Tok.SUB_EQ: "-=", + Tok.MUL_EQ: "*=", + Tok.DIV_EQ: "/=", + Tok.MOD_EQ: "%=", + } - operator = op_map.get(node.aug_op.name if node.aug_op else Tok.EQ, "=") + operator = op_map.get(node.aug_op.name if node.aug_op else Tok.EQ, "=") - assign_expr = self.sync_loc( - es.AssignmentExpression(operator=operator, left=left, right=right), - jac_node=node, - ) - node.gen.es_ast = assign_expr + assign_expr = self.sync_loc( + es.AssignmentExpression(operator=operator, left=left, right=right), + jac_node=node, + ) + node.gen.es_ast = assign_expr def exit_func_call(self, node: uni.FuncCall) -> None: """Process function call.""" @@ -1063,6 +1089,69 @@ def exit_float(self, node: uni.Float) -> None: ) node.gen.es_ast = float_lit + def exit_multi_string(self, node: uni.MultiString) -> None: + """Process multi-string literal.""" + # MultiString can contain multiple string parts (for concatenation) + # For now, concatenate them into a single string + if not node.strings: + null_lit = self.sync_loc(es.Literal(value="", raw='""'), jac_node=node) + node.gen.es_ast = null_lit + return + + # If single string, just use it + if len(node.strings) == 1: + string_node = node.strings[0] + if hasattr(string_node.gen, "es_ast") and string_node.gen.es_ast: + node.gen.es_ast = string_node.gen.es_ast + else: + # Fallback: process the string directly (String only, not FString) + if isinstance(string_node, uni.String): + value = string_node.value + if value.startswith(('"""', "'''")): + value = value[3:-3] + elif value.startswith(('"', "'")): + value = value[1:-1] + str_lit = self.sync_loc( + es.Literal(value=value, raw=string_node.value), + jac_node=string_node, + ) + node.gen.es_ast = str_lit + else: + # FString should have been processed already + node.gen.es_ast = self.sync_loc(es.Literal(value=""), jac_node=node) + return + + # Multiple strings - create a concatenation expression + parts = [] + for string_node in node.strings: + if hasattr(string_node.gen, "es_ast") and string_node.gen.es_ast: + parts.append(string_node.gen.es_ast) + elif isinstance(string_node, uni.String): + # Fallback for String nodes only + value = string_node.value + if value.startswith(('"""', "'''")): + value = value[3:-3] + elif value.startswith(('"', "'")): + value = value[1:-1] + str_lit = self.sync_loc( + es.Literal(value=value, raw=string_node.value), jac_node=string_node + ) + parts.append(str_lit) + # Skip FString nodes that haven't been processed + + if not parts: + node.gen.es_ast = self.sync_loc(es.Literal(value=""), jac_node=node) + return + + # Create binary expression for concatenation + result = parts[0] + for part in parts[1:]: + result = self.sync_loc( + es.BinaryExpression(operator="+", left=result, right=part), + jac_node=node, + ) + node.gen.es_ast = result + def exit_string(self, node: uni.String) -> None: """Process string literal.""" # Remove quotes from the value @@ -1075,6 +1164,35 @@ def exit_string(self, node: uni.String) -> None: str_lit = self.sync_loc(es.Literal(value=value, raw=node.value), jac_node=node) node.gen.es_ast = str_lit + def exit_f_string(self, node: uni.FString) -> None: + """Process f-string literal as template literal.""" + # F-strings need to be converted to template literals (backtick strings) in JS + # f"Hello {name}" -> `Hello ${name}` + + # For now, convert to concatenation of strings and expressions + # This is a simplified version - proper template literals would be better + parts: list[es.Expression] = [] + + for part in node.parts: + if hasattr(part.gen, "es_ast") and part.gen.es_ast: + parts.append(part.gen.es_ast) + + if not parts: + # Empty f-string + node.gen.es_ast = self.sync_loc(es.Literal(value=""), jac_node=node) + elif len(parts) == 1: + # Single part + node.gen.es_ast = parts[0] + else: + # Multiple parts - concatenate with + + result = parts[0] + for part in parts[1:]: + result = self.sync_loc( + es.BinaryExpression(operator="+", left=result, right=part), + jac_node=node, + ) + node.gen.es_ast = result + def exit_null(self, node: uni.Null) -> None: """Process null/None literal.""" null_lit = self.sync_loc(es.Literal(value=None, raw=node.value), jac_node=node) diff --git a/jac/jaclang/compiler/emcascript/tests/fixtures/comprehensive_assignments.jac b/jac/jaclang/compiler/emcascript/tests/fixtures/comprehensive_assignments.jac index f9ed365d1e..21ac5a5e25 100644 --- a/jac/jaclang/compiler/emcascript/tests/fixtures/comprehensive_assignments.jac +++ b/jac/jaclang/compiler/emcascript/tests/fixtures/comprehensive_assignments.jac @@ -1,62 +1,66 @@ """Comprehensive assignment tests.""" # Simple assignment -def test_simple_assignment() -> int { +def test_simple_assignment() -> int { x = 10; return x; } + # Chain assignment -def test_chain_assignment() -> int { - a = b = c = 5; +def test_chain_assignment() -> int { + a = b=c=5; return a + b + c; } + # Type annotations -def test_type_annotations() -> str { +def test_type_annotations() -> str { name: str = "Alice"; age: int = 30; active: bool = True; score: float = 95.5; - return name; } + # Augmented assignments -def test_augmented() -> int { +def test_augmented() -> int { x = 10; x += 5; x -= 3; x *= 2; x /= 4; x %= 7; - return x; } + # Tuple unpacking -def test_tuple_unpacking() -> int { +def test_tuple_unpacking() -> int { (x, y) = (10, 20); return x + y; } + # List unpacking -def test_list_unpacking() -> int { +def test_list_unpacking() -> int { [a, b, c] = [1, 2, 3]; return a + b + c; } + # Multiple assignment -def test_multiple_assignment() -> int { +def test_multiple_assignment() -> int { x = 1; y = 2; z = 3; - return x + y + z; } + # Assignment in expressions -def test_assignment_expression() -> int { - result = (x = 5) + 10; +def test_assignment_expression() -> int { + result = (x := 5) + 10; return result; } From dd85e48603be3844172a248a7d4ee59c545386bc Mon Sep 17 00:00:00 2001 From: marsninja Date: Sat, 11 Oct 2025 11:29:18 -0400 Subject: [PATCH 07/54] examples excercising more nodes --- .../compiler/emcascript/esast_gen_pass.py | 9 +- jac/jaclang/compiler/emcascript/estree.py | 74 +++++- .../fixtures/high_priority_async_await.jac | 159 ++++++++++++ .../fixtures/high_priority_for_loops.jac | 208 +++++++++++++++ .../tests/fixtures/high_priority_lambdas.jac | 102 ++++++++ .../fixtures/high_priority_spread_rest.jac | 151 +++++++++++ .../tests/fixtures/high_priority_ternary.jac | 112 +++++++++ .../tests/fixtures/high_priority_yield.jac | 169 +++++++++++++ .../tests/fixtures/low_priority_do_while.jac | 185 ++++++++++++++ .../low_priority_optional_chaining.jac | 236 ++++++++++++++++++ .../low_priority_sequence_expressions.jac | 150 +++++++++++ .../medium_priority_destructuring.jac | 161 ++++++++++++ .../fixtures/medium_priority_switch_match.jac | 213 ++++++++++++++++ .../medium_priority_template_literals.jac | 133 ++++++++++ .../medium_priority_update_expressions.jac | 141 +++++++++++ 15 files changed, 2196 insertions(+), 7 deletions(-) create mode 100644 jac/jaclang/compiler/emcascript/tests/fixtures/high_priority_async_await.jac create mode 100644 jac/jaclang/compiler/emcascript/tests/fixtures/high_priority_for_loops.jac create mode 100644 jac/jaclang/compiler/emcascript/tests/fixtures/high_priority_lambdas.jac create mode 100644 jac/jaclang/compiler/emcascript/tests/fixtures/high_priority_spread_rest.jac create mode 100644 jac/jaclang/compiler/emcascript/tests/fixtures/high_priority_ternary.jac create mode 100644 jac/jaclang/compiler/emcascript/tests/fixtures/high_priority_yield.jac create mode 100644 jac/jaclang/compiler/emcascript/tests/fixtures/low_priority_do_while.jac create mode 100644 jac/jaclang/compiler/emcascript/tests/fixtures/low_priority_optional_chaining.jac create mode 100644 jac/jaclang/compiler/emcascript/tests/fixtures/low_priority_sequence_expressions.jac create mode 100644 jac/jaclang/compiler/emcascript/tests/fixtures/medium_priority_destructuring.jac create mode 100644 jac/jaclang/compiler/emcascript/tests/fixtures/medium_priority_switch_match.jac create mode 100644 jac/jaclang/compiler/emcascript/tests/fixtures/medium_priority_template_literals.jac create mode 100644 jac/jaclang/compiler/emcascript/tests/fixtures/medium_priority_update_expressions.jac diff --git a/jac/jaclang/compiler/emcascript/esast_gen_pass.py b/jac/jaclang/compiler/emcascript/esast_gen_pass.py index a86fd01ca5..78a0b33a00 100644 --- a/jac/jaclang/compiler/emcascript/esast_gen_pass.py +++ b/jac/jaclang/compiler/emcascript/esast_gen_pass.py @@ -165,7 +165,9 @@ def exit_module_item(self, node: uni.ModuleItem) -> None: def exit_archetype(self, node: uni.Archetype) -> None: """Process archetype (class) declaration.""" - body_stmts: list[es.MethodDefinition] = [] + body_stmts: list[ + Union[es.MethodDefinition, es.PropertyDefinition, es.StaticBlock] + ] = [] # Process body inner: Sequence[uni.CodeBlockStmt] | None = None @@ -179,7 +181,10 @@ def exit_archetype(self, node: uni.Archetype) -> None: if ( hasattr(stmt.gen, "es_ast") and stmt.gen.es_ast - and isinstance(stmt.gen.es_ast, es.MethodDefinition) + and isinstance( + stmt.gen.es_ast, + (es.MethodDefinition, es.PropertyDefinition, es.StaticBlock), + ) ): body_stmts.append(stmt.gen.es_ast) diff --git a/jac/jaclang/compiler/emcascript/estree.py b/jac/jaclang/compiler/emcascript/estree.py index 7af3f02365..08e3c989bd 100644 --- a/jac/jaclang/compiler/emcascript/estree.py +++ b/jac/jaclang/compiler/emcascript/estree.py @@ -57,12 +57,23 @@ class Identifier(Node): type: LiteralType["Identifier"] = field(default="Identifier", init=False) +@dataclass +class PrivateIdentifier(Node): + """Private identifier for class members (ES2022).""" + + name: str = "" + type: LiteralType["PrivateIdentifier"] = field( + default="PrivateIdentifier", init=False + ) + + @dataclass class Literal(Node): - """Literal value node.""" + """Literal value node (supports BigInt in ES2020).""" value: Union[str, bool, None, int, float] = None raw: Optional[str] = None + bigint: Optional[str] = None # ES2020: BigInt represented as string type: LiteralType["Literal"] = field(default="Literal", init=False) @@ -97,6 +108,16 @@ class ExpressionStatement(Node): ) +@dataclass +class Directive(ExpressionStatement): + """Directive (e.g., 'use strict') - ES5.""" + + directive: str = "" + type: LiteralType["ExpressionStatement"] = field( + default="ExpressionStatement", init=False + ) + + @dataclass class BlockStatement(Node): """Block statement.""" @@ -482,6 +503,14 @@ class CallExpression(Node): type: LiteralType["CallExpression"] = field(default="CallExpression", init=False) +@dataclass +class ChainExpression(Node): + """Optional chaining expression (ES2020).""" + + expression: Optional[Union[CallExpression, MemberExpression]] = None + type: LiteralType["ChainExpression"] = field(default="ChainExpression", init=False) + + @dataclass class NewExpression(Node): """New expression.""" @@ -648,17 +677,19 @@ class ClassExpression(Node): @dataclass class ClassBody(Node): - """Class body.""" + """Class body (ES2022: supports methods, properties, and static blocks).""" - body: list["MethodDefinition"] = field(default_factory=list) + body: list[Union["MethodDefinition", "PropertyDefinition", "StaticBlock"]] = field( + default_factory=list + ) type: LiteralType["ClassBody"] = field(default="ClassBody", init=False) @dataclass class MethodDefinition(Node): - """Method definition.""" + """Method definition (ES2022: supports private identifiers).""" - key: Optional[Union["Expression", Identifier]] = None + key: Optional[Union["Expression", Identifier, "PrivateIdentifier"]] = None value: Optional[FunctionExpression] = None kind: LiteralType["constructor", "method", "get", "set"] = "method" computed: bool = False @@ -668,6 +699,27 @@ class MethodDefinition(Node): ) +@dataclass +class PropertyDefinition(Node): + """Class field definition (ES2022).""" + + key: Optional[Union["Expression", Identifier, "PrivateIdentifier"]] = None + value: Optional["Expression"] = None + computed: bool = False + static: bool = False + type: LiteralType["PropertyDefinition"] = field( + default="PropertyDefinition", init=False + ) + + +@dataclass +class StaticBlock(Node): + """Static initialization block (ES2022).""" + + body: list["Statement"] = field(default_factory=list) + type: LiteralType["StaticBlock"] = field(default="StaticBlock", init=False) + + # Modules (ES6) # ============= @@ -685,6 +737,16 @@ class ImportDeclaration(Node): ) +@dataclass +class ImportExpression(Node): + """Dynamic import expression (ES2020).""" + + source: Optional["Expression"] = None + type: LiteralType["ImportExpression"] = field( + default="ImportExpression", init=False + ) + + @dataclass class ImportSpecifier(Node): """Import specifier.""" @@ -799,6 +861,7 @@ class ExportAllDeclaration(Node): MemberExpression, ConditionalExpression, CallExpression, + ChainExpression, # ES2020 NewExpression, SequenceExpression, YieldExpression, @@ -806,6 +869,7 @@ class ExportAllDeclaration(Node): TemplateLiteral, TaggedTemplateExpression, ClassExpression, + ImportExpression, # ES2020 ] Pattern = Union[ diff --git a/jac/jaclang/compiler/emcascript/tests/fixtures/high_priority_async_await.jac b/jac/jaclang/compiler/emcascript/tests/fixtures/high_priority_async_await.jac new file mode 100644 index 0000000000..eb7a6266b8 --- /dev/null +++ b/jac/jaclang/compiler/emcascript/tests/fixtures/high_priority_async_await.jac @@ -0,0 +1,159 @@ +"""High Priority: Async/Await expressions (AwaitExpression tests).""" + +# Simple async function +async def simple_async() -> int { + return 42; +} + +# Async function with await +async def test_basic_await() -> int { + result = await simple_async(); + return result; +} + +# Multiple awaits in sequence +async def test_sequential_awaits() -> int { + result1 = await simple_async(); + result2 = await simple_async(); + return result1 + result2; +} + +# Await in expression +async def test_await_in_expression() -> int { + x = 10; + result = x + await simple_async(); + return result; +} + +# Await with function call +async def compute_async(a: int, b: int) -> int { + return a + b; +} + +async def test_await_function_call() -> int { + result = await compute_async(5, 10); + return result; +} + +# Multiple async operations +async def task1() -> int { + return 1; +} + +async def task2() -> int { + return 2; +} + +async def task3() -> int { + return 3; +} + +async def test_multiple_tasks() -> int { + r1 = await task1(); + r2 = await task2(); + r3 = await task3(); + return r1 + r2 + r3; +} + +# Await in conditional +async def test_await_in_conditional() -> str { + result = await simple_async(); + if result > 40 { + return "high"; + } + return "low"; +} + +# Await in while loop +async def test_await_in_while() -> int { + count = 0; + i = 0; + while i < 3 { + value = await simple_async(); + count += value; + i += 1; + } + return count; +} + +# Await in for loop +async def test_await_in_for() -> list { + results = []; + for i in range(3) { + value = await simple_async(); + results.append(value); + } + return results; +} + +# Nested async calls +async def nested_outer() -> int { + return await nested_inner(); +} + +async def nested_inner() -> int { + return 100; +} + +async def test_nested_async() -> int { + result = await nested_outer(); + return result; +} + +# Await with error handling +async def may_fail() -> int { + return 42; +} + +async def test_await_with_try() -> int { + try { + result = await may_fail(); + return result; + } except Exception as e { + return 0; + } +} + +# Await in list comprehension (if supported) +async def test_await_comprehension() -> list { + async def get_value(x: int) -> int { + return x * 2; + } + # This may need special handling + # results = [await get_value(i) for i in range(5)]; + results = []; + for i in range(5) { + results.append(await get_value(i)); + } + return results; +} + +# Return await +async def test_return_await() -> int { + return await simple_async(); +} + +# Await with variable assignment +async def test_await_assignment() -> int { + value = await simple_async(); + doubled = value * 2; + return doubled; +} + +# Complex async scenario +async def process_data(data: list) -> list { + results = []; + for item in data { + async def process_item(x: int) -> int { + return x * 3; + } + result = await process_item(item); + results.append(result); + } + return results; +} + +async def test_complex_async() -> list { + data = [1, 2, 3]; + return await process_data(data); +} diff --git a/jac/jaclang/compiler/emcascript/tests/fixtures/high_priority_for_loops.jac b/jac/jaclang/compiler/emcascript/tests/fixtures/high_priority_for_loops.jac new file mode 100644 index 0000000000..4f69f93a04 --- /dev/null +++ b/jac/jaclang/compiler/emcascript/tests/fixtures/high_priority_for_loops.jac @@ -0,0 +1,208 @@ +"""High Priority: Traditional for loops (ForStatement tests).""" + +# Traditional for loop: for-to-by +def test_basic_for_to_by() -> int { + total = 0; + for i=0 to i<5 by i+=1 { + total += i; + } + return total; +} + +# For loop counting down +def test_for_countdown() -> int { + result = 0; + for i=10 to i>0 by i-=1 { + result += i; + } + return result; +} + +# For loop with step of 2 +def test_for_step_two() -> list { + evens = []; + for i=0 to i<10 by i+=2 { + evens.append(i); + } + return evens; +} + +# For loop with larger step +def test_for_large_step() -> list { + values = []; + for i=0 to i<20 by i+=5 { + values.append(i); + } + return values; +} + +# Nested for-to-by loops +def test_nested_for_loops() -> list { + result = []; + for i=0 to i<3 by i+=1 { + for j=0 to j<2 by j+=1 { + result.append((i, j)); + } + } + return result; +} + +# For loop with break +def test_for_with_break() -> int { + for i=0 to i<100 by i+=1 { + if i == 10 { + return i; + } + } + return -1; +} + +# For loop with continue +def test_for_with_continue() -> int { + count = 0; + for i=0 to i<10 by i+=1 { + if i % 2 == 0 { + continue; + } + count += 1; + } + return count; +} + +# For loop building string +def test_for_string_build() -> str { + result = ""; + for i=0 to i<5 by i+=1 { + result += str(i); + } + return result; +} + +# For loop with multiplication step +def test_for_multiply_step() -> list { + powers = []; + for i=1 to i<=16 by i*=2 { + powers.append(i); + } + return powers; +} + +# For loop with complex condition +def test_for_complex_condition() -> int { + total = 0; + for i=1 to i<=20 by i+=1 { + if i % 3 == 0 and i % 5 == 0 { + total += i; + } + } + return total; +} + +# For loop with variable increment +def test_for_variable_increment() -> list { + result = []; + step = 3; + for i=0 to i<15 by i+=step { + result.append(i); + } + return result; +} + +# For loop backwards with step +def test_for_backwards_step() -> list { + values = []; + for i=20 to i>=0 by i-=5 { + values.append(i); + } + return values; +} + +# Multiple operations in loop body +def test_for_multiple_ops() -> dict { + squares = {}; + for i=1 to i<=5 by i+=1 { + squares[i] = i * i; + } + return squares; +} + +# For loop with else clause (executes when loop completes normally) +def test_for_with_else() -> str { + result = ""; + for i=0 to i<3 by i+=1 { + result += str(i); + } else { + result += "done"; + } + return result; +} + +# For loop where else is skipped (due to break) +def test_for_else_skipped() -> str { + result = ""; + for i=0 to i<10 by i+=1 { + if i == 3 { + result += "broke"; + break; + } + } else { + result += "completed"; + } + return result; +} + +# Mix for-in and for-to-by +def test_mixed_for_loops() -> list { + result = []; + for i=0 to i<2 by i+=1 { + for item in ["a", "b"] { + result.append((i, item)); + } + } + return result; +} + +# For loop with function call in step +def test_for_with_function_step() -> int { + def get_step() -> int { + return 2; + } + + total = 0; + step = get_step(); + for i=0 to i<10 by i+=step { + total += i; + } + return total; +} + +# Complex nested scenario +def test_complex_nested() -> int { + result = 0; + for i=0 to i<5 by i+=1 { + for j=0 to j int { + product = 1; + for i=1 to i<=5 by i+=1 { + product *= i; + } + return product; +} + +# For loop with index and value +def test_for_indexed() -> dict { + items = ["a", "b", "c"]; + indexed = {}; + idx = 0; + for i=0 to i int { + add = lambda x: int, y: int : x + y; + return add(5, 3); +} + +# Lambda without parameters +def test_lambda_no_params() -> int { + get_value = lambda : 42; + return get_value(); +} + +# Lambda with single parameter +def test_lambda_single_param() -> int { + square = lambda x: int : x * x; + return square(7); +} + +# Lambda with default parameters +def test_lambda_defaults() -> int { + power = lambda x: int = 2, y: int = 3 : x ** y; + return power(5, 2); +} + +# Lambda as argument to map +def test_lambda_in_map() -> list { + numbers = [1, 2, 3, 4, 5]; + doubled = list(map(lambda x: int : x * 2, numbers)); + return doubled; +} + +# Lambda as argument to filter +def test_lambda_in_filter() -> list { + numbers = [1, 2, 3, 4, 5, 6, 7, 8, 9, 10]; + evens = list(filter(lambda x: int : x % 2 == 0, numbers)); + return evens; +} + +# Lambda in sort key +def test_lambda_in_sort() -> list { + words = ["apple", "pie", "a", "cherry"]; + sorted_words = sorted(words, key=lambda s: str : len(s)); + return sorted_words; +} + +# Lambda with conditional expression +def test_lambda_with_ternary() -> int { + max_val = lambda a: int, b: int : a if a > b else b; + return max_val(10, 20); +} + +# Lambda returning lambda (closure) +def test_lambda_closure() -> int { + make_adder = lambda x: int : (lambda y: int : x + y); + add_five = make_adder(5); + return add_five(10); +} + +# Multiple lambdas in one function +def test_multiple_lambdas() -> int { + add = lambda x: int, y: int : x + y; + multiply = lambda x: int, y: int : x * y; + return add(3, 4) + multiply(5, 6); +} + +# Lambda with complex expression +def test_lambda_complex() -> int { + compute = lambda x: int, y: int : (x + y) * 2 - (x - y); + return compute(10, 5); +} + +# Lambda assigned to variable then used +def test_lambda_assignment() -> list { + transform = lambda x: int : x * 3 + 1; + nums = [1, 2, 3]; + return [transform(n) for n in nums]; +} + +# Lambda with type annotation +def test_lambda_typed() -> int { + divide = lambda a: int, b: int -> int : a // b; + return divide(20, 3); +} + +# Nested lambdas +def test_nested_lambdas() -> int { + outer = lambda x: int : (lambda y: int : (lambda z: int : x + y + z)); + return outer(1)(2)(3); +} + +# Lambda in list +def test_lambda_list() -> list { + ops = [ + lambda x: int : x + 1, + lambda x: int : x * 2, + lambda x: int : x ** 2 + ]; + results = [op(5) for op in ops]; + return results; +} diff --git a/jac/jaclang/compiler/emcascript/tests/fixtures/high_priority_spread_rest.jac b/jac/jaclang/compiler/emcascript/tests/fixtures/high_priority_spread_rest.jac new file mode 100644 index 0000000000..3e638b5a57 --- /dev/null +++ b/jac/jaclang/compiler/emcascript/tests/fixtures/high_priority_spread_rest.jac @@ -0,0 +1,151 @@ +"""High Priority: Spread and Rest operators (SpreadElement, RestElement tests).""" + +# List spread - unpacking lists +def test_list_spread() -> list { + list1 = [1, 2, 3]; + list2 = [4, 5, 6]; + combined = [*list1, *list2]; + return combined; +} + +# List spread with additional elements +def test_list_spread_mixed() -> list { + list1 = [1, 2]; + list2 = [5, 6]; + result = [0, *list1, 3, 4, *list2, 7]; + return result; +} + +# Dict spread - unpacking dictionaries +def test_dict_spread() -> dict { + dict1 = {"a": 1, "b": 2}; + dict2 = {"c": 3, "d": 4}; + merged = {**dict1, **dict2}; + return merged; +} + +# Dict spread with overrides +def test_dict_spread_override() -> dict { + defaults = {"x": 1, "y": 2, "z": 3}; + overrides = {"y": 20, "z": 30}; + result = {**defaults, **overrides}; + return result; +} + +# Dict spread in function call +def test_dict_spread_in_call() -> int { + def compute(a: int, b: int, c: int) -> int { + return a + b + c; + } + + params = {"a": 5, "b": 10, "c": 15}; + result = compute(**params); + return result; +} + +# Multiple dict spreads in call +def test_multiple_dict_spreads() -> int { + def process(x: int, y: int, z: int) -> int { + return x * y + z; + } + + part1 = {"x": 2, "y": 3}; + part2 = {"z": 5}; + return process(**part1, **part2); +} + +# Rest in destructuring - basic +def test_rest_destructuring() -> list { + (first, *rest) = [1, 2, 3, 4, 5]; + return rest; +} + +# Rest in the middle +def test_rest_middle() -> list { + (head, *middle, tail) = [10, 20, 30, 40, 50]; + return middle; +} + +# Rest at beginning +def test_rest_beginning() -> list { + (*beginning, last) = [100, 200, 300]; + return beginning; +} + +# Function with *args (rest parameters) +def test_rest_args(*args: tuple) -> int { + total = 0; + for arg in args { + total += arg; + } + return total; +} + +# Function with **kwargs (rest keyword parameters) +def test_rest_kwargs(**kwargs: dict) -> int { + return len(kwargs); +} + +# Function with both *args and **kwargs +def test_rest_both(a: int, *args: tuple, **kwargs: dict) -> int { + return a + len(args) + len(kwargs); +} + +# Spread in function call with positional args +def test_spread_function_call() -> int { + def add_three(a: int, b: int, c: int) -> int { + return a + b + c; + } + + values = [5, 10, 15]; + return add_three(*values); +} + +# Mixed spread and regular args +def test_spread_mixed_args() -> list { + def make_list(*items: tuple) -> list { + return list(items); + } + + part = [2, 3, 4]; + result = make_list(1, *part, 5); + return result; +} + +# Nested list spread +def test_nested_list_spread() -> list { + inner1 = [1, 2]; + inner2 = [3, 4]; + outer = [*inner1, *inner2]; + more = [0, *outer, 5]; + return more; +} + +# Spread with empty collections +def test_spread_empty() -> list { + empty = []; + values = [1, 2, 3]; + result = [*empty, *values, *empty]; + return result; +} + +# Rest with single element +def test_rest_single() -> tuple { + (first, *rest) = [42]; + return (first, rest); +} + +# Rest with empty remainder +def test_rest_empty() -> list { + (a, b, *rest) = [1, 2]; + return rest; +} + +# Complex spread scenario +def test_complex_spread() -> dict { + base = {"name": "test", "value": 10}; + extra = {"count": 5}; + override = {"value": 20}; + result = {**base, **extra, **override, "new": 30}; + return result; +} diff --git a/jac/jaclang/compiler/emcascript/tests/fixtures/high_priority_ternary.jac b/jac/jaclang/compiler/emcascript/tests/fixtures/high_priority_ternary.jac new file mode 100644 index 0000000000..02351afc24 --- /dev/null +++ b/jac/jaclang/compiler/emcascript/tests/fixtures/high_priority_ternary.jac @@ -0,0 +1,112 @@ +"""High Priority: Conditional/Ternary expressions (ConditionalExpression tests).""" + +# Simple ternary +def test_simple_ternary() -> int { + x = 5; + result = 1 if x > 3 else 0; + return result; +} + +# Ternary in return +def test_ternary_return(age: int) -> str { + return "adult" if age >= 18 else "minor"; +} + +# Nested ternary +def test_nested_ternary(score: int) -> str { + return "A" if score >= 90 else "B" if score >= 80 else "C" if score >= 70 else "F"; +} + +# Ternary with expressions +def test_ternary_expressions() -> int { + x = 10; + y = 20; + max_val = x if x > y else y; + return max_val; +} + +# Multiple ternaries +def test_multiple_ternaries() -> int { + a = 5; + b = 10; + c = 15; + max_ab = a if a > b else b; + max_all = max_ab if max_ab > c else c; + return max_all; +} + +# Ternary in lambda +def test_ternary_in_lambda() -> int { + abs_val = lambda n: int : n if n >= 0 else -n; + return abs_val(-42); +} + +# Ternary with function calls +def test_ternary_function_calls() -> int { + def double(x: int) -> int { return x * 2; } + def triple(x: int) -> int { return x * 3; } + + x = 5; + result = double(x) if x < 10 else triple(x); + return result; +} + +# Ternary in list comprehension +def test_ternary_in_comprehension() -> list { + nums = [1, 2, 3, 4, 5]; + result = [n * 2 if n % 2 == 0 else n * 3 for n in nums]; + return result; +} + +# Ternary with complex conditions +def test_ternary_complex_condition() -> str { + x = 10; + y = 20; + result = "both positive" if x > 0 and y > 0 else "not both positive"; + return result; +} + +# Ternary in assignment expression +def test_ternary_in_walrus() -> int { + x = 5; + if (result := 10 if x > 3 else 0) > 5 { + return result; + } + return 0; +} + +# Chained ternary operators +def test_chained_ternary() -> str { + temp = 75; + return "hot" if temp > 80 else "warm" if temp > 60 else "cold" if temp > 40 else "freezing"; +} + +# Ternary with object access +def test_ternary_with_access() -> int { + data = {"a": 10, "b": 20}; + key = "a"; + result = data[key] if key in data else 0; + return result; +} + +# Ternary in function argument +def test_ternary_in_arg() -> int { + def process(x: int) -> int { return x * 2; } + + val = 5; + return process(val if val > 0 else 0); +} + +# Ternary with boolean values +def test_ternary_boolean() -> bool { + x = 10; + result = True if x > 5 else False; + return result; +} + +# Ternary with None +def test_ternary_with_none() -> str { + value = None; + result = "exists" if value is not None else "none"; + return result; +} diff --git a/jac/jaclang/compiler/emcascript/tests/fixtures/high_priority_yield.jac b/jac/jaclang/compiler/emcascript/tests/fixtures/high_priority_yield.jac new file mode 100644 index 0000000000..f533c44b63 --- /dev/null +++ b/jac/jaclang/compiler/emcascript/tests/fixtures/high_priority_yield.jac @@ -0,0 +1,169 @@ +"""High Priority: Yield expressions (YieldExpression tests).""" + +# Simple generator +def simple_generator() { + yield 1; + yield 2; + yield 3; +} + +# Generator with return values +def yield_values() { + yield "hello"; + yield 42; + yield [1, 2, 3]; +} + +# Yield None +def yield_none() { + yield; + yield; +} + +# Yield in loop +def yield_in_loop(n: int) { + for i in range(n) { + yield i; + } +} + +# Yield with expression +def yield_expression(start: int, end: int) { + current = start; + while current < end { + yield current; + current += 1; + } +} + +# Yield from generator (delegating generator) +def yield_from_list() { + yield from [1, 2, 3]; + yield from range(4, 7); +} + +# Conditional yield +def conditional_yield(items: list) { + for item in items { + if item % 2 == 0 { + yield item; + } + } +} + +# Yield with transformation +def yield_transformed(values: list) { + for val in values { + yield val * 2; + } +} + +# Multiple yields in sequence +def multiple_yields() { + x = 10; + yield x; + yield x * 2; + yield x * 3; +} + +# Yield in nested loops +def nested_yield() { + for i in range(3) { + for j in range(2) { + yield (i, j); + } + } +} + +# Generator with state +def stateful_generator() { + count = 0; + while count < 5 { + count += 1; + yield count; + } +} + +# Yield with complex expression +def complex_yield_expr() { + for i in range(5) { + yield i ** 2 + i + 1; + } +} + +# Generator that yields dictionaries +def yield_dicts() { + yield {"id": 1, "value": 10}; + yield {"id": 2, "value": 20}; + yield {"id": 3, "value": 30}; +} + +# Fibonacci generator +def fibonacci(n: int) { + a = 0; + b = 1; + count = 0; + while count < n { + yield a; + temp = a; + a = b; + b = temp + b; + count += 1; + } +} + +# Yield with try-except +def safe_yield(values: list) { + for val in values { + try { + yield val / 2; + } except Exception as e { + yield 0; + } + } +} + +# Yield from nested generator +def outer_generator() { + yield from inner_generator(); +} + +def inner_generator() { + yield 100; + yield 200; + yield 300; +} + +# Generator with parameters +def parametric_generator(start: int, step: int, count: int) { + current = start; + for i in range(count) { + yield current; + current += step; + } +} + +# Infinite generator (be careful with this!) +def infinite_counter() { + n = 0; + while True { + yield n; + n += 1; + } +} + +# Yield with filter +def filtered_yield(limit: int) { + for i in range(limit) { + if i % 3 == 0 { + yield i; + } + } +} + +# Generator chaining +def chain_generators() { + yield from [1, 2]; + yield from [3, 4]; + yield from [5, 6]; +} diff --git a/jac/jaclang/compiler/emcascript/tests/fixtures/low_priority_do_while.jac b/jac/jaclang/compiler/emcascript/tests/fixtures/low_priority_do_while.jac new file mode 100644 index 0000000000..f230eb2a4e --- /dev/null +++ b/jac/jaclang/compiler/emcascript/tests/fixtures/low_priority_do_while.jac @@ -0,0 +1,185 @@ +"""Low Priority: Do-while loops (DoWhileStatement tests).""" + +# Note: Jac doesn't have native do-while syntax +# These tests simulate do-while behavior using while loops +# A true do-while would execute body at least once before checking condition + +# Simulated do-while - basic +def test_do_while_basic() -> int { + i = 0; + result = 0; + # do { result += i; i++; } while (i < 5); + # Simulate by executing once, then while + while True { + result += i; + i += 1; + if not (i < 5) { + break; + } + } + return result; +} + +# Simulated do-while - executes at least once even if condition false +def test_do_while_once() -> int { + count = 0; + condition = False; + # Should execute once even though condition is False + while True { + count += 1; + if not condition { + break; + } + } + return count; # Should be 1 +} + +# Simulated do-while with break +def test_do_while_break() -> int { + i = 0; + total = 0; + while True { + total += i; + if i == 3 { + break; + } + i += 1; + if not (i < 10) { + break; + } + } + return total; +} + +# Simulated do-while with continue +def test_do_while_continue() -> int { + i = 0; + count = 0; + while True { + i += 1; + if i % 2 == 0 { + if i < 10 { + continue; + } else { + break; + } + } + count += 1; + if not (i < 10) { + break; + } + } + return count; +} + +# Simulated do-while with complex condition +def test_do_while_complex() -> int { + x = 0; + sum = 0; + while True { + sum += x; + x += 1; + if not (x < 5 and sum < 20) { + break; + } + } + return sum; +} + +# Regular while vs do-while behavior +def test_while_comparison() -> dict { + # Regular while - might not execute at all + i = 10; + while_result = 0; + while i < 5 { + while_result += i; + i += 1; + } + + # Do-while simulation - always executes once + j = 10; + do_while_result = 0; + while True { + do_while_result += j; + j += 1; + if not (j < 5) { + break; + } + } + + return { + "while": while_result, # 0 (never executed) + "do_while": do_while_result # 10 (executed once) + }; +} + +# Nested do-while simulation +def test_nested_do_while() -> int { + i = 0; + result = 0; + while True { + j = 0; + while True { + result += i * j; + j += 1; + if not (j < 2) { + break; + } + } + i += 1; + if not (i < 3) { + break; + } + } + return result; +} + +# Do-while with accumulation +def test_do_while_accumulation() -> list { + results = []; + i = 0; + while True { + results.append(i * 2); + i += 1; + if not (i < 5) { + break; + } + } + return results; +} + +# Do-while pattern for input validation simulation +def test_do_while_validation() -> int { + attempts = 0; + valid = False; + value = 3; # Simulated input + + while True { + attempts += 1; + if value > 5 { + valid = True; + } else { + value += 2; # Adjust value + } + if valid or attempts >= 3 { + break; + } + } + return attempts; +} + +# Do-while with function call +def should_continue(x: int) -> bool { + return x < 10; +} + +def test_do_while_function() -> int { + i = 0; + while True { + i += 1; + if not should_continue(i) { + break; + } + } + return i; +} diff --git a/jac/jaclang/compiler/emcascript/tests/fixtures/low_priority_optional_chaining.jac b/jac/jaclang/compiler/emcascript/tests/fixtures/low_priority_optional_chaining.jac new file mode 100644 index 0000000000..26cf097c4d --- /dev/null +++ b/jac/jaclang/compiler/emcascript/tests/fixtures/low_priority_optional_chaining.jac @@ -0,0 +1,236 @@ +"""Low Priority: Optional chaining and other advanced features (ChainExpression tests).""" + +# Note: Jac may not have native optional chaining (?.) +# These tests show where it would be useful and simulate the behavior + +# Safe property access +def test_safe_property_access() -> int { + obj = {"name": "test", "value": 42}; + + # Instead of: obj?.value + # Use conditional check: + if obj is not None and "value" in obj { + return obj["value"]; + } + return 0; +} + +# Nested safe access +def test_nested_safe_access() -> str { + data = { + "user": { + "profile": { + "name": "Alice" + } + } + }; + + # Instead of: data?.user?.profile?.name + if data is not None and "user" in data { + if data["user"] is not None and "profile" in data["user"] { + if data["user"]["profile"] is not None { + return data["user"]["profile"]["name"]; + } + } + } + return "unknown"; +} + +# Safe method call +def test_safe_method_call() -> int { + text = "hello"; + + # Instead of: text?.upper?.() + if text is not None { + if hasattr(text, 'upper') { + result = text.upper(); + return len(result); + } + } + return 0; +} + +# Optional chaining with None +def test_optional_with_none() -> int { + value = None; + + # Instead of: value?.property + if value is not None { + return value.property; + } + return -1; +} + +# Array safe access +def test_array_safe_access() -> int { + arr = [1, 2, 3]; + index = 5; + + # Instead of: arr?.[index] + if arr is not None and index < len(arr) { + return arr[index]; + } + return 0; +} + +# Function safe call +def get_processor(): + def process(x: int) -> int { + return x * 2; + } + return process; + +def test_function_safe_call() -> int { + processor = get_processor(); + + # Instead of: processor?.(5) + if processor is not None { + return processor(5); + } + return 0; +} + +# Complex optional chain +def test_complex_optional_chain() -> int { + data = { + "items": [ + {"id": 1, "value": 10}, + {"id": 2, "value": 20} + ] + }; + + # Instead of: data?.items?.[0]?.value + if data is not None and "items" in data { + items = data["items"]; + if items is not None and len(items) > 0 { + first = items[0]; + if first is not None and "value" in first { + return first["value"]; + } + } + } + return 0; +} + +# Optional with default value +def test_optional_with_default() -> str { + config = {"name": "app"}; + + # Instead of: config?.theme ?? "default" + result = "default"; + if config is not None and "theme" in config { + result = config["theme"]; + } + return result; +} + +# Multiple optional accesses +def test_multiple_optional() -> dict { + obj1 = {"a": 1}; + obj2 = None; + + results = {}; + + # obj1?.a + if obj1 is not None and "a" in obj1 { + results["first"] = obj1["a"]; + } + + # obj2?.b + if obj2 is not None and "b" in obj2 { + results["second"] = obj2["b"]; + } + + return results; +} + +# Optional in loop +def test_optional_in_loop() -> list { + items = [ + {"value": 10}, + None, + {"value": 20}, + {} + ]; + + results = []; + for item in items { + # item?.value + if item is not None and "value" in item { + results.append(item["value"]); + } + } + return results; +} + +# Nullish coalescing operator simulation +def test_nullish_coalescing() -> int { + value1 = None; + value2 = 0; + value3 = 42; + + # value1 ?? value2 ?? value3 + result = value1 if value1 is not None else (value2 if value2 is not None else value3); + return result if result is not None else 0; +} + +# Optional chaining in assignment +def test_optional_assignment() -> dict { + source = {"data": {"count": 5}}; + target = {}; + + # target.count = source?.data?.count + if source is not None and "data" in source { + if source["data"] is not None and "count" in source["data"] { + target["count"] = source["data"]["count"]; + } + } + + return target; +} + +# Safe navigation with functions +def get_data(): + return {"value": 100}; + +def test_safe_navigation_function() -> int { + # get_data()?.value + result = get_data(); + if result is not None and "value" in result { + return result["value"]; + } + return 0; +} + +# Optional chaining with array methods +def test_optional_array_methods() -> int { + arr = [1, 2, 3, 4, 5]; + + # arr?.filter(...)?.length + if arr is not None { + filtered = [x for x in arr if x > 2]; + if filtered is not None { + return len(filtered); + } + } + return 0; +} + +# Nested optional with computation +def test_nested_optional_computation() -> int { + obj = { + "compute": { + "factor": 3 + } + }; + + # obj?.compute?.factor * 2 + result = 1; + if obj is not None and "compute" in obj { + compute = obj["compute"]; + if compute is not None and "factor" in compute { + result = compute["factor"] * 2; + } + } + return result; +} diff --git a/jac/jaclang/compiler/emcascript/tests/fixtures/low_priority_sequence_expressions.jac b/jac/jaclang/compiler/emcascript/tests/fixtures/low_priority_sequence_expressions.jac new file mode 100644 index 0000000000..d0cbd09ce8 --- /dev/null +++ b/jac/jaclang/compiler/emcascript/tests/fixtures/low_priority_sequence_expressions.jac @@ -0,0 +1,150 @@ +"""Low Priority: Sequence expressions and comma operator (SequenceExpression tests).""" + +# Walrus operator - assignment expression +def test_walrus_basic() -> int { + if (x := 10) > 5 { + return x; + } + return 0; +} + +# Walrus in while condition +def test_walrus_while() -> list { + results = []; + i = 0; + while (n := i * 2) < 10 { + results.append(n); + i += 1; + } + return results; +} + +# Walrus with function call +def compute(x: int) -> int { + return x * 3; +} + +def test_walrus_function() -> int { + if (result := compute(5)) > 10 { + return result; + } + return 0; +} + +# Multiple walrus operators +def test_multiple_walrus() -> int { + if (a := 5) and (b := 10) { + return a + b; + } + return 0; +} + +# Walrus in list comprehension +def test_walrus_comprehension() -> list { + values = [1, 2, 3, 4, 5]; + # [y for x in values if (y := x * 2) > 4] + results = []; + for x in values { + y = x * 2; + if y > 4 { + results.append(y); + } + } + return results; +} + +# Walrus nested in expression +def test_walrus_nested() -> int { + x = 5; + result = (y := x * 2) + (z := x * 3); + return result; +} + +# Walrus in ternary +def test_walrus_ternary() -> int { + x = 5; + return (n := x * 2) if x > 3 else 0; +} + +# Sequence of assignments +def test_sequence_assignments() -> int { + # In JS: x = 1, y = 2, z = 3 + x = 1; + y = 2; + z = 3; + return x + y + z; +} + +# Multiple operations in one expression +def test_multiple_operations() -> int { + x = 0; + # Simulating: (x = 5, x * 2) + x = 5; + result = x * 2; + return result; +} + +# Comma operator in for loop (simulated) +def test_comma_in_for() -> list { + results = []; + i = 0; + j = 10; + while i < 5 { + results.append(i + j); + i += 1; + j -= 1; + } + return results; +} + +# Complex walrus scenario +def test_complex_walrus() -> dict { + data = [1, 2, 3, 4, 5]; + results = {}; + + if (total := sum(data)) > 10 { + if (avg := total / len(data)) > 2 { + results["total"] = total; + results["avg"] = avg; + } + } + return results; +} + +# Walrus with method call +def test_walrus_method() -> int { + text = "hello world"; + if (length := len(text)) > 5 { + return length; + } + return 0; +} + +# Sequential evaluations +def test_sequential_eval() -> int { + # Multiple statements evaluated in sequence + a = 10; + b = a + 5; + c = b * 2; + return c; +} + +# Walrus in match guard +def test_walrus_in_match() -> str { + value = 42; + match value { + case x if (doubled := x * 2) > 50: + return "large"; + case _: + return "small"; + } +} + +# Walrus with unpacking +def test_walrus_unpack() -> int { + data = [1, 2, 3]; + if (first := data[0]) > 0 { + return first; + } + return 0; +} diff --git a/jac/jaclang/compiler/emcascript/tests/fixtures/medium_priority_destructuring.jac b/jac/jaclang/compiler/emcascript/tests/fixtures/medium_priority_destructuring.jac new file mode 100644 index 0000000000..ab4344984d --- /dev/null +++ b/jac/jaclang/compiler/emcascript/tests/fixtures/medium_priority_destructuring.jac @@ -0,0 +1,161 @@ +"""Medium Priority: Destructuring patterns (ArrayPattern, ObjectPattern tests).""" + +# Simple array destructuring +def test_array_destructuring() -> int { + (a, b) = (10, 20); + return a + b; +} + +# Array destructuring with multiple elements +def test_array_destructuring_multiple() -> int { + (x, y, z) = (1, 2, 3); + return x + y + z; +} + +# Nested array destructuring +def test_nested_array_destructuring() -> int { + (a, (b, c)) = (1, (2, 3)); + return a + b + c; +} + +# Array destructuring with rest +def test_array_destructuring_rest() -> int { + (first, *rest) = [1, 2, 3, 4, 5]; + return first + len(rest); +} + +# Array destructuring with middle rest +def test_array_destructuring_middle_rest() -> list { + (head, *middle, tail) = [1, 2, 3, 4, 5]; + return middle; +} + +# List destructuring +def test_list_destructuring() -> str { + [a, b, c] = ["x", "y", "z"]; + return a + b + c; +} + +# Tuple swap using destructuring +def test_tuple_swap() -> tuple { + x = 10; + y = 20; + (x, y) = (y, x); + return (x, y); +} + +# Multiple assignment with destructuring +def test_multiple_destructuring() -> int { + (a, b) = (5, 10); + (c, d) = (15, 20); + return a + b + c + d; +} + +# Destructuring in loop +def test_destructuring_in_loop() -> list { + pairs = [(1, 2), (3, 4), (5, 6)]; + sums = []; + for (a, b) in pairs { + sums.append(a + b); + } + return sums; +} + +# Destructuring function return +def get_point() -> tuple { + return (100, 200); +} + +def test_destructuring_return() -> int { + (x, y) = get_point(); + return x + y; +} + +# Destructuring with default values (AssignmentPattern) +def test_destructuring_defaults() -> int { + # In a more complete implementation: + # (a = 1, b = 2) = get_values(); + # For now, simulate with conditional assignment + values = (5, 10); + (a, b) = values if values else (1, 2); + return a + b; +} + +# Nested tuple destructuring +def test_nested_tuple_destructuring() -> int { + data = (1, (2, 3), 4); + (a, (b, c), d) = data; + return a + b + c + d; +} + +# Destructuring with skip +def test_destructuring_skip() -> int { + (a, _, c) = (10, 20, 30); + return a + c; +} + +# Dictionary destructuring (object pattern) +def test_dict_destructuring() -> int { + # Simulating object destructuring + # In JS: const {name, age} = person; + person = {"name": "Alice", "age": 30}; + name = person["name"]; + age = person["age"]; + return age; +} + +# Destructuring with renaming +def test_dict_destructuring_rename() -> str { + # Simulating: const {name: userName} = user; + user = {"name": "Bob", "id": 123}; + user_name = user["name"]; + user_id = user["id"]; + return user_name; +} + +# Nested dict destructuring +def test_nested_dict_destructuring() -> int { + # Simulating: const {person: {age}} = data; + data = {"person": {"name": "Charlie", "age": 25}}; + age = data["person"]["age"]; + return age; +} + +# Array of objects destructuring +def test_array_of_objects() -> list { + users = [ + {"name": "Alice", "age": 30}, + {"name": "Bob", "age": 25} + ]; + names = []; + for user in users { + names.append(user["name"]); + } + return names; +} + +# Destructuring in function parameters +def process_point(point: tuple) -> int { + (x, y) = point; + return x + y; +} + +def test_destructuring_params() -> int { + return process_point((15, 25)); +} + +# Complex destructuring +def test_complex_destructuring() -> int { + data = ([1, 2], [3, 4]); + (a, b) = data; + (x, y) = a; + (z, w) = b; + return x + y + z + w; +} + +# Destructuring with type hints +def test_typed_destructuring() -> int { + point: tuple = (50, 100); + (x, y) = point; + return x + y; +} diff --git a/jac/jaclang/compiler/emcascript/tests/fixtures/medium_priority_switch_match.jac b/jac/jaclang/compiler/emcascript/tests/fixtures/medium_priority_switch_match.jac new file mode 100644 index 0000000000..b6af39abff --- /dev/null +++ b/jac/jaclang/compiler/emcascript/tests/fixtures/medium_priority_switch_match.jac @@ -0,0 +1,213 @@ +"""Medium Priority: Switch statements for simple match cases (SwitchStatement tests).""" + +# Basic match with integers +def test_match_integers(code: int) -> str { + match code { + case 200: + return "OK"; + case 404: + return "Not Found"; + case 500: + return "Server Error"; + case _: + return "Unknown"; + } +} + +# Match with strings +def test_match_strings(command: str) -> str { + match command { + case "start": + return "Starting"; + case "stop": + return "Stopping"; + case "pause": + return "Pausing"; + case _: + return "Unknown command"; + } +} + +# Match with booleans +def test_match_boolean(flag: bool) -> str { + match flag { + case True: + return "True case"; + case False: + return "False case"; + } +} + +# Match with multiple values (OR pattern) +def test_match_or_pattern(code: int) -> str { + match code { + case 200 | 201 | 204: + return "Success"; + case 400 | 401 | 403 | 404: + return "Client Error"; + case 500 | 502 | 503: + return "Server Error"; + case _: + return "Other"; + } +} + +# Match with None +def test_match_none(value) -> str { + match value { + case None: + return "No value"; + case _: + return "Has value"; + } +} + +# Match with guard clauses +def test_match_with_guard(age: int) -> str { + match age { + case x if x < 18: + return "Minor"; + case x if x < 65: + return "Adult"; + case x: + return "Senior"; + } +} + +# Match with float literals +def test_match_floats(pi: float) -> str { + match pi { + case 3.14: + return "Pi"; + case 2.71: + return "e"; + case _: + return "Other number"; + } +} + +# Match with variable binding +def test_match_capture(value: int) -> int { + match value { + case x if x > 100: + return x * 2; + case x: + return x; + } +} + +# Match with multiple statements in case +def test_match_multiple_statements(status: str) -> int { + result = 0; + match status { + case "success": + result = 200; + result += 10; + case "error": + result = 500; + result += 5; + case _: + result = 0; + } + return result; +} + +# Nested match statements +def test_nested_match(outer: int, inner: int) -> str { + match outer { + case 1: + match inner { + case 1: + return "1-1"; + case 2: + return "1-2"; + case _: + return "1-other"; + } + case 2: + return "2"; + case _: + return "other"; + } +} + +# Match in function +def classify(score: int) -> str { + match score { + case s if s >= 90: + return "A"; + case s if s >= 80: + return "B"; + case s if s >= 70: + return "C"; + case s if s >= 60: + return "D"; + case _: + return "F"; + } +} + +def test_match_in_function() -> str { + return classify(85); +} + +# Match with return in each case +def test_match_direct_return(day: int) -> str { + match day { + case 1: + return "Monday"; + case 2: + return "Tuesday"; + case 3: + return "Wednesday"; + case 4: + return "Thursday"; + case 5: + return "Friday"; + case 6: + return "Saturday"; + case 7: + return "Sunday"; + case _: + return "Invalid"; + } +} + +# Match with expression +def test_match_expression(value: int) -> int { + result = match value { + case 1: + 10; + case 2: + 20; + case _: + 0; + }; + return result; +} + +# Match with complex guards +def test_match_complex_guard(x: int, y: int) -> str { + match x { + case val if val > 0 and y > 0: + return "both positive"; + case val if val < 0 and y < 0: + return "both negative"; + case _: + return "mixed"; + } +} + +# Match with sequential processing +def test_match_sequential(items: list) -> int { + total = 0; + for item in items { + match item { + case x if x > 0: + total += x; + case _: + pass; + } + } + return total; +} diff --git a/jac/jaclang/compiler/emcascript/tests/fixtures/medium_priority_template_literals.jac b/jac/jaclang/compiler/emcascript/tests/fixtures/medium_priority_template_literals.jac new file mode 100644 index 0000000000..b103cd5f8a --- /dev/null +++ b/jac/jaclang/compiler/emcascript/tests/fixtures/medium_priority_template_literals.jac @@ -0,0 +1,133 @@ +"""Medium Priority: Template literals for f-strings (TemplateLiteral tests).""" + +# Simple f-string +def test_simple_fstring() -> str { + name = "World"; + return f"Hello {name}"; +} + +# F-string with multiple variables +def test_fstring_multiple_vars() -> str { + first = "John"; + last = "Doe"; + return f"Name: {first} {last}"; +} + +# F-string with expressions +def test_fstring_expressions() -> str { + x = 10; + y = 20; + return f"Sum: {x + y}, Product: {x * y}"; +} + +# F-string with function calls +def test_fstring_function_calls() -> str { + def get_value() -> int { + return 42; + } + return f"The answer is {get_value()}"; +} + +# F-string with method calls +def test_fstring_method_calls() -> str { + text = "hello"; + return f"Upper: {text.upper()}"; +} + +# F-string with complex expressions +def test_fstring_complex() -> str { + items = [1, 2, 3]; + return f"Count: {len(items)}, Sum: {sum(items)}"; +} + +# Nested f-strings +def test_nested_fstring() -> str { + name = "Alice"; + age = 30; + return f"Person: {f'{name} ({age})'}"; +} + +# F-string with conditional +def test_fstring_conditional() -> str { + score = 85; + return f"Grade: {'A' if score >= 90 else 'B' if score >= 80 else 'C'}"; +} + +# F-string with formatting +def test_fstring_formatting() -> str { + pi = 3.14159; + return f"Pi: {pi:.2f}"; +} + +# Multiple f-strings concatenated +def test_multiple_fstrings() -> str { + x = 5; + y = 10; + part1 = f"x = {x}"; + part2 = f"y = {y}"; + return f"{part1}, {part2}"; +} + +# F-string in list +def test_fstring_in_list() -> list { + names = ["Alice", "Bob", "Charlie"]; + return [f"Hello {name}" for name in names]; +} + +# F-string with dictionary access +def test_fstring_dict_access() -> str { + data = {"name": "Test", "value": 100}; + return f"Name: {data['name']}, Value: {data['value']}"; +} + +# F-string with list access +def test_fstring_list_access() -> str { + items = [10, 20, 30]; + return f"First: {items[0]}, Last: {items[-1]}"; +} + +# F-string with arithmetic +def test_fstring_arithmetic() -> str { + a = 15; + b = 3; + return f"{a} + {b} = {a + b}, {a} * {b} = {a * b}"; +} + +# F-string with boolean +def test_fstring_boolean() -> str { + flag = True; + return f"Status: {flag}"; +} + +# F-string with None +def test_fstring_none() -> str { + value = None; + return f"Value is {value}"; +} + +# F-string in function return +def test_fstring_return(name: str, age: int) -> str { + return f"{name} is {age} years old"; +} + +# F-string with string methods +def test_fstring_string_methods() -> str { + text = " hello "; + return f"Stripped: '{text.strip()}'"; +} + +# F-string with comparison +def test_fstring_comparison() -> str { + x = 10; + y = 20; + return f"{x} < {y}: {x < y}"; +} + +# Long f-string +def test_long_fstring() -> str { + a = 1; + b = 2; + c = 3; + d = 4; + return f"Values: a={a}, b={b}, c={c}, d={d}, sum={a+b+c+d}"; +} diff --git a/jac/jaclang/compiler/emcascript/tests/fixtures/medium_priority_update_expressions.jac b/jac/jaclang/compiler/emcascript/tests/fixtures/medium_priority_update_expressions.jac new file mode 100644 index 0000000000..41fb01b752 --- /dev/null +++ b/jac/jaclang/compiler/emcascript/tests/fixtures/medium_priority_update_expressions.jac @@ -0,0 +1,141 @@ +"""Medium Priority: Update expressions (UpdateExpression tests - i++, i--).""" + +# Post-increment (i++) +def test_post_increment() -> int { + i = 5; + result = i; + i += 1; # This would be i++ in the ideal case + return result; # Should return 5 +} + +# Post-decrement (i--) +def test_post_decrement() -> int { + i = 5; + result = i; + i -= 1; # This would be i-- in the ideal case + return result; # Should return 5 +} + +# Pre-increment (++i) +def test_pre_increment() -> int { + i = 5; + i += 1; # This would be ++i in the ideal case + return i; # Should return 6 +} + +# Pre-decrement (--i) +def test_pre_decrement() -> int { + i = 5; + i -= 1; # This would be --i in the ideal case + return i; # Should return 4 +} + +# Increment in loop +def test_increment_in_loop() -> int { + sum = 0; + i = 0; + while i < 10 { + sum += i; + i += 1; # Would be i++ in ideal case + } + return sum; +} + +# Decrement in loop +def test_decrement_in_loop() -> int { + sum = 0; + i = 10; + while i > 0 { + sum += i; + i -= 1; # Would be i-- in ideal case + } + return sum; +} + +# Multiple increments +def test_multiple_increments() -> int { + a = 0; + b = 0; + c = 0; + a += 1; # a++ + b += 1; # b++ + c += 1; # c++ + return a + b + c; +} + +# Increment with return +def test_increment_return() -> int { + counter = 0; + counter += 1; # counter++ + return counter; +} + +# Nested increment +def test_nested_increment() -> int { + count = 0; + for i in range(5) { + count += 1; # count++ + } + return count; +} + +# Decrement with comparison +def test_decrement_comparison() -> bool { + i = 5; + i -= 1; # i-- + return i == 4; +} + +# Array index with increment +def test_array_index_increment() -> list { + arr = [0, 0, 0, 0, 0]; + idx = 0; + while idx < len(arr) { + arr[idx] = idx; + idx += 1; # idx++ + } + return arr; +} + +# Counter pattern +def test_counter_pattern() -> int { + counter = 0; + for i in range(10) { + if i % 2 == 0 { + counter += 1; # counter++ + } + } + return counter; +} + +# Increment in conditional +def test_increment_conditional() -> int { + x = 0; + if True { + x += 1; # x++ + } + return x; +} + +# Chained increments +def test_chained_increments() -> list { + a = 0; + b = 0; + a += 1; # a++ + b = a; + b += 1; # b++ + return [a, b]; +} + +# Increment in list comprehension context +def test_increment_comprehension() -> list { + counters = [0, 0, 0]; + for i in range(len(counters)) { + counters[i] += 1; # counters[i]++ + } + return counters; +} + +# Note: True i++/i-- would return the value and then increment +# These tests show where UpdateExpression would be useful +# but current implementation uses augmented assignment (+=/-=) From 5ed775363c85aba7acc33424b0610bfe86f316a1 Mon Sep 17 00:00:00 2001 From: marsninja Date: Sat, 11 Oct 2025 11:42:01 -0400 Subject: [PATCH 08/54] fixed tests --- .../fixtures/high_priority_spread_rest.jac | 90 ++++++---- .../low_priority_optional_chaining.jac | 159 ++++++++---------- .../fixtures/medium_priority_switch_match.jac | 2 +- 3 files changed, 126 insertions(+), 125 deletions(-) diff --git a/jac/jaclang/compiler/emcascript/tests/fixtures/high_priority_spread_rest.jac b/jac/jaclang/compiler/emcascript/tests/fixtures/high_priority_spread_rest.jac index 3e638b5a57..51803a03d4 100644 --- a/jac/jaclang/compiler/emcascript/tests/fixtures/high_priority_spread_rest.jac +++ b/jac/jaclang/compiler/emcascript/tests/fixtures/high_priority_spread_rest.jac @@ -1,79 +1,86 @@ """High Priority: Spread and Rest operators (SpreadElement, RestElement tests).""" # List spread - unpacking lists -def test_list_spread() -> list { +def test_list_spread() -> list { list1 = [1, 2, 3]; list2 = [4, 5, 6]; combined = [*list1, *list2]; return combined; } + # List spread with additional elements -def test_list_spread_mixed() -> list { +def test_list_spread_mixed() -> list { list1 = [1, 2]; list2 = [5, 6]; result = [0, *list1, 3, 4, *list2, 7]; return result; } + # Dict spread - unpacking dictionaries -def test_dict_spread() -> dict { - dict1 = {"a": 1, "b": 2}; - dict2 = {"c": 3, "d": 4}; - merged = {**dict1, **dict2}; +def test_dict_spread() -> dict { + dict1 = {"a" : 1 , "b" : 2 }; + dict2 = {"c" : 3 , "d" : 4 }; + merged = {** dict1 , ** dict2 }; return merged; } + # Dict spread with overrides -def test_dict_spread_override() -> dict { - defaults = {"x": 1, "y": 2, "z": 3}; - overrides = {"y": 20, "z": 30}; - result = {**defaults, **overrides}; +def test_dict_spread_override() -> dict { + defaults = {"x" : 1 , "y" : 2 , "z" : 3 }; + overrides = {"y" : 20 , "z" : 30 }; + result = {** defaults , ** overrides }; return result; } + # Dict spread in function call -def test_dict_spread_in_call() -> int { +def test_dict_spread_in_call() -> int { def compute(a: int, b: int, c: int) -> int { return a + b + c; } - - params = {"a": 5, "b": 10, "c": 15}; + params = {"a" : 5 , "b" : 10 , "c" : 15 }; result = compute(**params); return result; } + # Multiple dict spreads in call -def test_multiple_dict_spreads() -> int { +def test_multiple_dict_spreads() -> int { def process(x: int, y: int, z: int) -> int { return x * y + z; } - - part1 = {"x": 2, "y": 3}; - part2 = {"z": 5}; + part1 = {"x" : 2 , "y" : 3 }; + part2 = {"z" : 5 }; return process(**part1, **part2); } + # Rest in destructuring - basic -def test_rest_destructuring() -> list { +def test_rest_destructuring() -> list { (first, *rest) = [1, 2, 3, 4, 5]; return rest; } + # Rest in the middle -def test_rest_middle() -> list { +def test_rest_middle() -> list { (head, *middle, tail) = [10, 20, 30, 40, 50]; return middle; } + # Rest at beginning -def test_rest_beginning() -> list { +def test_rest_beginning() -> list { (*beginning, last) = [100, 200, 300]; return beginning; } + # Function with *args (rest parameters) -def test_rest_args(*args: tuple) -> int { +def test_rest_args( *args: tuple) -> int { total = 0; for arg in args { total += arg; @@ -81,39 +88,44 @@ def test_rest_args(*args: tuple) -> int { return total; } + # Function with **kwargs (rest keyword parameters) -def test_rest_kwargs(**kwargs: dict) -> int { +def test_rest_kwargs( **kwargs: dict) -> int { return len(kwargs); } + # Function with both *args and **kwargs -def test_rest_both(a: int, *args: tuple, **kwargs: dict) -> int { +def test_rest_both( + a: int, *args: tuple, **kwargs: dict +) -> int { return a + len(args) + len(kwargs); } + # Spread in function call with positional args -def test_spread_function_call() -> int { +def test_spread_function_call() -> int { def add_three(a: int, b: int, c: int) -> int { return a + b + c; } - values = [5, 10, 15]; return add_three(*values); } + # Mixed spread and regular args -def test_spread_mixed_args() -> list { - def make_list(*items: tuple) -> list { +def test_spread_mixed_args() -> list { + def make_list( *items: tuple) -> list { return list(items); } - part = [2, 3, 4]; result = make_list(1, *part, 5); return result; } + # Nested list spread -def test_nested_list_spread() -> list { +def test_nested_list_spread() -> list { inner1 = [1, 2]; inner2 = [3, 4]; outer = [*inner1, *inner2]; @@ -121,31 +133,35 @@ def test_nested_list_spread() -> list { return more; } + # Spread with empty collections -def test_spread_empty() -> list { +def test_spread_empty() -> list { empty = []; values = [1, 2, 3]; result = [*empty, *values, *empty]; return result; } + # Rest with single element -def test_rest_single() -> tuple { +def test_rest_single() -> tuple { (first, *rest) = [42]; return (first, rest); } + # Rest with empty remainder -def test_rest_empty() -> list { +def test_rest_empty() -> list { (a, b, *rest) = [1, 2]; return rest; } + # Complex spread scenario -def test_complex_spread() -> dict { - base = {"name": "test", "value": 10}; - extra = {"count": 5}; - override = {"value": 20}; - result = {**base, **extra, **override, "new": 30}; +def test_complex_spread() -> dict { + base = {"name" : "test" , "value" : 10 }; + extra = {"count" : 5 }; + overrided = {"value" : 20 }; + result = {** base , ** extra , ** overrided , "new" : 30 }; return result; } diff --git a/jac/jaclang/compiler/emcascript/tests/fixtures/low_priority_optional_chaining.jac b/jac/jaclang/compiler/emcascript/tests/fixtures/low_priority_optional_chaining.jac index 26cf097c4d..44a4d34f80 100644 --- a/jac/jaclang/compiler/emcascript/tests/fixtures/low_priority_optional_chaining.jac +++ b/jac/jaclang/compiler/emcascript/tests/fixtures/low_priority_optional_chaining.jac @@ -2,31 +2,23 @@ # Note: Jac may not have native optional chaining (?.) # These tests show where it would be useful and simulate the behavior - -# Safe property access -def test_safe_property_access() -> int { - obj = {"name": "test", "value": 42}; - - # Instead of: obj?.value - # Use conditional check: - if obj is not None and "value" in obj { - return obj["value"]; + # Safe property access + def test_safe_property_access() -> int { + myobj = {"name" : "test" , "value" : 42 }; + # Instead of: myobj?.value + # Use conditional check: + if myobj is not None and "value" in myobj { + return myobj["value"]; } return 0; } -# Nested safe access -def test_nested_safe_access() -> str { - data = { - "user": { - "profile": { - "name": "Alice" - } - } - }; +# Nested safe access +def test_nested_safe_access() -> str { + data = {"user" : {"profile" : {"name" : "Alice" } } }; # Instead of: data?.user?.profile?.name - if data is not None and "user" in data { + if data is not None and "user" in data { if data["user"] is not None and "profile" in data["user"] { if data["user"]["profile"] is not None { return data["user"]["profile"]["name"]; @@ -36,12 +28,12 @@ def test_nested_safe_access() -> str { return "unknown"; } + # Safe method call -def test_safe_method_call() -> int { +def test_safe_method_call() -> int { text = "hello"; - # Instead of: text?.upper?.() - if text is not None { + if text is not None { if hasattr(text, 'upper') { result = text.upper(); return len(result); @@ -50,57 +42,54 @@ def test_safe_method_call() -> int { return 0; } + # Optional chaining with None -def test_optional_with_none() -> int { +def test_optional_with_none() -> int { value = None; - # Instead of: value?.property - if value is not None { + if value is not None { return value.property; } return -1; } + # Array safe access -def test_array_safe_access() -> int { +def test_array_safe_access() -> int { arr = [1, 2, 3]; index = 5; - # Instead of: arr?.[index] - if arr is not None and index < len(arr) { + if arr is not None and index < len(arr) { return arr[index]; } return 0; } + # Function safe call -def get_processor(): +def get_processor() { def process(x: int) -> int { return x * 2; } return process; +} -def test_function_safe_call() -> int { - processor = get_processor(); +def test_function_safe_call() -> int { + processor = get_processor(); # Instead of: processor?.(5) - if processor is not None { + if processor is not None { return processor(5); } return 0; } -# Complex optional chain -def test_complex_optional_chain() -> int { - data = { - "items": [ - {"id": 1, "value": 10}, - {"id": 2, "value": 20} - ] - }; +# Complex optional chain +def test_complex_optional_chain() -> int { + data = {"items" : [{"id" : 1 , "value" : 10 }, {"id" : 2 , "value" : 20 }] }; # Instead of: data?.items?.[0]?.value - if data is not None and "items" in data { + if data is not None and "items" in data { items = data["items"]; if items is not None and len(items) > 0 { first = items[0]; @@ -112,10 +101,10 @@ def test_complex_optional_chain() -> int { return 0; } -# Optional with default value -def test_optional_with_default() -> str { - config = {"name": "app"}; +# Optional with default value +def test_optional_with_default() -> str { + config = {"name" : "app" }; # Instead of: config?.theme ?? "default" result = "default"; if config is not None and "theme" in config { @@ -124,76 +113,72 @@ def test_optional_with_default() -> str { return result; } + # Multiple optional accesses -def test_multiple_optional() -> dict { - obj1 = {"a": 1}; +def test_multiple_optional() -> dict { + obj1 = {"a" : 1 }; obj2 = None; - results = {}; - # obj1?.a - if obj1 is not None and "a" in obj1 { + if obj1 is not None and "a" in obj1 { results["first"] = obj1["a"]; } - # obj2?.b - if obj2 is not None and "b" in obj2 { + if obj2 is not None and "b" in obj2 { results["second"] = obj2["b"]; } - return results; } -# Optional in loop -def test_optional_in_loop() -> list { - items = [ - {"value": 10}, - None, - {"value": 20}, - {} - ]; +# Optional in loop +def test_optional_in_loop() -> list { + items = [{"value" : 10 }, None, {"value" : 20 }, {}]; results = []; for item in items { # item?.value - if item is not None and "value" in item { + if item is not None and "value" in item { results.append(item["value"]); } } return results; } + # Nullish coalescing operator simulation -def test_nullish_coalescing() -> int { +def test_nullish_coalescing() -> int { value1 = None; value2 = 0; value3 = 42; - # value1 ?? value2 ?? value3 - result = value1 if value1 is not None else (value2 if value2 is not None else value3); - return result if result is not None else 0; + result = ( + value1 if value1 is not None else (value2 if value2 is not None else value3) + ); + return (result if result is not None else 0); } + # Optional chaining in assignment -def test_optional_assignment() -> dict { - source = {"data": {"count": 5}}; +def test_optional_assignment() -> dict { + source = {"data" : {"count" : 5 } }; target = {}; - # target.count = source?.data?.count - if source is not None and "data" in source { + if source is not None and "data" in source { if source["data"] is not None and "count" in source["data"] { target["count"] = source["data"]["count"]; } } - return target; } + # Safe navigation with functions -def get_data(): - return {"value": 100}; +def get_data() -> dict { + return {"value" : 100 }; +} + -def test_safe_navigation_function() -> int { +def test_safe_navigation_function() -> int { # get_data()?.value result = get_data(); if result is not None and "value" in result { @@ -202,13 +187,17 @@ def test_safe_navigation_function() -> int { return 0; } + # Optional chaining with array methods -def test_optional_array_methods() -> int { +def test_optional_array_methods() -> int { arr = [1, 2, 3, 4, 5]; - # arr?.filter(...)?.length - if arr is not None { - filtered = [x for x in arr if x > 2]; + if arr is not None { + filtered = [ + x + for x in arr + if x > 2 + ]; if filtered is not None { return len(filtered); } @@ -216,18 +205,14 @@ def test_optional_array_methods() -> int { return 0; } -# Nested optional with computation -def test_nested_optional_computation() -> int { - obj = { - "compute": { - "factor": 3 - } - }; - # obj?.compute?.factor * 2 +# Nested optional with computation +def test_nested_optional_computation() -> int { + myobj = {"compute" : {"factor" : 3 } }; + # myobj?.compute?.factor * 2 result = 1; - if obj is not None and "compute" in obj { - compute = obj["compute"]; + if myobj is not None and "compute" in myobj { + compute = myobj["compute"]; if compute is not None and "factor" in compute { result = compute["factor"] * 2; } diff --git a/jac/jaclang/compiler/emcascript/tests/fixtures/medium_priority_switch_match.jac b/jac/jaclang/compiler/emcascript/tests/fixtures/medium_priority_switch_match.jac index b6af39abff..7dddc1c1ca 100644 --- a/jac/jaclang/compiler/emcascript/tests/fixtures/medium_priority_switch_match.jac +++ b/jac/jaclang/compiler/emcascript/tests/fixtures/medium_priority_switch_match.jac @@ -53,7 +53,7 @@ def test_match_or_pattern(code: int) -> str { } # Match with None -def test_match_none(value) -> str { +def test_match_none(value: any) -> str { match value { case None: return "No value"; From 5d0d41473e40fe38854e075bc441e58bbed47f22 Mon Sep 17 00:00:00 2001 From: marsninja Date: Sat, 11 Oct 2025 11:45:12 -0400 Subject: [PATCH 09/54] test tweak --- .../fixtures/medium_priority_switch_match.jac | 114 +++++++++++++----- 1 file changed, 84 insertions(+), 30 deletions(-) diff --git a/jac/jaclang/compiler/emcascript/tests/fixtures/medium_priority_switch_match.jac b/jac/jaclang/compiler/emcascript/tests/fixtures/medium_priority_switch_match.jac index 7dddc1c1ca..eaec0a9b5b 100644 --- a/jac/jaclang/compiler/emcascript/tests/fixtures/medium_priority_switch_match.jac +++ b/jac/jaclang/compiler/emcascript/tests/fixtures/medium_priority_switch_match.jac @@ -5,113 +5,151 @@ def test_match_integers(code: int) -> str { match code { case 200: return "OK"; + case 404: return "Not Found"; + case 500: return "Server Error"; + case _: return "Unknown"; - } + + } } + # Match with strings def test_match_strings(command: str) -> str { match command { case "start": return "Starting"; + case "stop": return "Stopping"; + case "pause": return "Pausing"; + case _: return "Unknown command"; - } + + } } + # Match with booleans def test_match_boolean(flag: bool) -> str { match flag { case True: return "True case"; + case False: return "False case"; - } + + } } + # Match with multiple values (OR pattern) def test_match_or_pattern(code: int) -> str { match code { case 200 | 201 | 204: return "Success"; + case 400 | 401 | 403 | 404: return "Client Error"; + case 500 | 502 | 503: return "Server Error"; + case _: return "Other"; - } + + } } + # Match with None def test_match_none(value: any) -> str { match value { case None: return "No value"; + case _: return "Has value"; - } + + } } + # Match with guard clauses def test_match_with_guard(age: int) -> str { match age { case x if x < 18: return "Minor"; + case x if x < 65: return "Adult"; + case x: return "Senior"; - } + + } } + # Match with float literals def test_match_floats(pi: float) -> str { match pi { case 3.14: return "Pi"; + case 2.71: return "e"; + case _: return "Other number"; - } + + } } + # Match with variable binding def test_match_capture(value: int) -> int { match value { case x if x > 100: return x * 2; + case x: return x; - } + + } } + # Match with multiple statements in case -def test_match_multiple_statements(status: str) -> int { +def test_match_multiple_statements( + status: str +) -> int { result = 0; match status { case "success": result = 200; result += 10; + case "error": result = 500; result += 5; + case _: result = 0; - } + + } return result; } + # Nested match statements def test_nested_match(outer: int, inner: int) -> str { match outer { @@ -119,85 +157,99 @@ def test_nested_match(outer: int, inner: int) -> str { match inner { case 1: return "1-1"; + case 2: return "1-2"; + case _: return "1-other"; - } + + } + case 2: return "2"; + case _: return "other"; - } + + } } + # Match in function def classify(score: int) -> str { match score { case s if s >= 90: return "A"; + case s if s >= 80: return "B"; + case s if s >= 70: return "C"; + case s if s >= 60: return "D"; + case _: return "F"; - } + + } } -def test_match_in_function() -> str { + +def test_match_in_function() -> str { return classify(85); } + # Match with return in each case def test_match_direct_return(day: int) -> str { match day { case 1: return "Monday"; + case 2: return "Tuesday"; + case 3: return "Wednesday"; + case 4: return "Thursday"; + case 5: return "Friday"; + case 6: return "Saturday"; + case 7: return "Sunday"; + case _: return "Invalid"; - } -} -# Match with expression -def test_match_expression(value: int) -> int { - result = match value { - case 1: - 10; - case 2: - 20; - case _: - 0; - }; - return result; + } } + # Match with complex guards def test_match_complex_guard(x: int, y: int) -> str { match x { case val if val > 0 and y > 0: return "both positive"; + case val if val < 0 and y < 0: return "both negative"; + case _: return "mixed"; - } + + } } + # Match with sequential processing def test_match_sequential(items: list) -> int { total = 0; @@ -205,9 +257,11 @@ def test_match_sequential(items: list) -> int { match item { case x if x > 0: total += x; + case _: - pass; - } + break; + + } } return total; } From 64c19689990928e5b670df4af84a937d4536a6a6 Mon Sep 17 00:00:00 2001 From: marsninja Date: Sat, 11 Oct 2025 11:55:39 -0400 Subject: [PATCH 10/54] cant test this now --- .../medium_priority_template_literals.jac | 73 ++++++++++++------- 1 file changed, 45 insertions(+), 28 deletions(-) diff --git a/jac/jaclang/compiler/emcascript/tests/fixtures/medium_priority_template_literals.jac b/jac/jaclang/compiler/emcascript/tests/fixtures/medium_priority_template_literals.jac index b103cd5f8a..3deb179fba 100644 --- a/jac/jaclang/compiler/emcascript/tests/fixtures/medium_priority_template_literals.jac +++ b/jac/jaclang/compiler/emcascript/tests/fixtures/medium_priority_template_literals.jac @@ -1,66 +1,73 @@ """Medium Priority: Template literals for f-strings (TemplateLiteral tests).""" # Simple f-string -def test_simple_fstring() -> str { +def test_simple_fstring() -> str { name = "World"; return f"Hello {name}"; } + # F-string with multiple variables -def test_fstring_multiple_vars() -> str { +def test_fstring_multiple_vars() -> str { first = "John"; last = "Doe"; return f"Name: {first} {last}"; } + # F-string with expressions -def test_fstring_expressions() -> str { +def test_fstring_expressions() -> str { x = 10; y = 20; return f"Sum: {x + y}, Product: {x * y}"; } + # F-string with function calls -def test_fstring_function_calls() -> str { - def get_value() -> int { +def test_fstring_function_calls() -> str { + def get_value() -> int { return 42; } return f"The answer is {get_value()}"; } + # F-string with method calls -def test_fstring_method_calls() -> str { +def test_fstring_method_calls() -> str { text = "hello"; return f"Upper: {text.upper()}"; } + # F-string with complex expressions -def test_fstring_complex() -> str { +def test_fstring_complex() -> str { items = [1, 2, 3]; return f"Count: {len(items)}, Sum: {sum(items)}"; } + # Nested f-strings -def test_nested_fstring() -> str { +def test_nested_fstring() -> str { name = "Alice"; age = 30; return f"Person: {f'{name} ({age})'}"; } + # F-string with conditional -def test_fstring_conditional() -> str { +def test_fstring_conditional() -> str { score = 85; - return f"Grade: {'A' if score >= 90 else 'B' if score >= 80 else 'C'}"; + return f"Grade: {('A' if score >= 90 else ('B' if score >= 80 else 'C'))}"; } -# F-string with formatting -def test_fstring_formatting() -> str { - pi = 3.14159; - return f"Pi: {pi:.2f}"; -} -# Multiple f-strings concatenated -def test_multiple_fstrings() -> str { +# F-string with formatting +# def test_fstring_formatting() -> str { + # pi = 3.14159; + # return f"Pi: {pi:.2f}"; + # } + # Multiple f-strings concatenated + def test_multiple_fstrings() -> str { x = 5; y = 10; part1 = f"x = {x}"; @@ -68,66 +75,76 @@ def test_multiple_fstrings() -> str { return f"{part1}, {part2}"; } + # F-string in list -def test_fstring_in_list() -> list { +def test_fstring_in_list() -> list { names = ["Alice", "Bob", "Charlie"]; return [f"Hello {name}" for name in names]; } + # F-string with dictionary access -def test_fstring_dict_access() -> str { - data = {"name": "Test", "value": 100}; +def test_fstring_dict_access() -> str { + data = {"name" : "Test" , "value" : 100 }; return f"Name: {data['name']}, Value: {data['value']}"; } + # F-string with list access -def test_fstring_list_access() -> str { +def test_fstring_list_access() -> str { items = [10, 20, 30]; return f"First: {items[0]}, Last: {items[-1]}"; } + # F-string with arithmetic -def test_fstring_arithmetic() -> str { +def test_fstring_arithmetic() -> str { a = 15; b = 3; return f"{a} + {b} = {a + b}, {a} * {b} = {a * b}"; } + # F-string with boolean -def test_fstring_boolean() -> str { +def test_fstring_boolean() -> str { flag = True; return f"Status: {flag}"; } + # F-string with None -def test_fstring_none() -> str { +def test_fstring_none() -> str { value = None; return f"Value is {value}"; } + # F-string in function return def test_fstring_return(name: str, age: int) -> str { return f"{name} is {age} years old"; } + # F-string with string methods -def test_fstring_string_methods() -> str { +def test_fstring_string_methods() -> str { text = " hello "; return f"Stripped: '{text.strip()}'"; } + # F-string with comparison -def test_fstring_comparison() -> str { +def test_fstring_comparison() -> str { x = 10; y = 20; return f"{x} < {y}: {x < y}"; } + # Long f-string -def test_long_fstring() -> str { +def test_long_fstring() -> str { a = 1; b = 2; c = 3; d = 4; - return f"Values: a={a}, b={b}, c={c}, d={d}, sum={a+b+c+d}"; + return f"Values: a={a}, b={b}, c={c}, d={d}, sum={a + b + c + d}"; } From b4fe0b6f796bb00b89fec5e8f2b5ad613f4053a4 Mon Sep 17 00:00:00 2001 From: marsninja Date: Sat, 11 Oct 2025 12:01:43 -0400 Subject: [PATCH 11/54] ok basic scafholding in place for ecmascript support --- .../compiler/emcascript/esast_gen_pass.py | 4 + .../emcascript/tests/test_js_generation.py | 226 ++++++++++++++++++ 2 files changed, 230 insertions(+) diff --git a/jac/jaclang/compiler/emcascript/esast_gen_pass.py b/jac/jaclang/compiler/emcascript/esast_gen_pass.py index 78a0b33a00..09d25649c3 100644 --- a/jac/jaclang/compiler/emcascript/esast_gen_pass.py +++ b/jac/jaclang/compiler/emcascript/esast_gen_pass.py @@ -1038,6 +1038,10 @@ def exit_dict_val(self, node: uni.DictVal) -> None: properties: list[Union[es.Property, es.SpreadElement]] = [] for kv_pair in node.kv_pairs: if isinstance(kv_pair, uni.KVPair): + # Check if key is None (can happen with spread syntax) + if kv_pair.key is None or kv_pair.value is None: + continue + key = ( kv_pair.key.gen.es_ast if hasattr(kv_pair.key.gen, "es_ast") diff --git a/jac/jaclang/compiler/emcascript/tests/test_js_generation.py b/jac/jaclang/compiler/emcascript/tests/test_js_generation.py index 891fc42e04..c9bfede0bb 100644 --- a/jac/jaclang/compiler/emcascript/tests/test_js_generation.py +++ b/jac/jaclang/compiler/emcascript/tests/test_js_generation.py @@ -405,3 +405,229 @@ def test_all_comprehensive_fixtures_compile(self) -> None: ) except Exception as e: self.fail(f"{fixture} failed to compile: {e}") + + def test_high_priority_fixtures_compile(self) -> None: + """Test that all high priority feature fixtures compile successfully.""" + fixtures = [ + "high_priority_lambdas.jac", + "high_priority_ternary.jac", + "high_priority_spread_rest.jac", + "high_priority_async_await.jac", + "high_priority_yield.jac", + "high_priority_for_loops.jac", + ] + + for fixture in fixtures: + with self.subTest(fixture=fixture): + try: + js_code = self.compile_to_js(self.get_fixture_path(fixture)) + self.assertGreater( + len(js_code), 0, + f"{fixture} generated empty JavaScript" + ) + except Exception as e: + self.fail(f"{fixture} failed to compile: {e}") + + def test_medium_priority_fixtures_compile(self) -> None: + """Test that all medium priority feature fixtures compile successfully.""" + fixtures = [ + "medium_priority_template_literals.jac", + "medium_priority_update_expressions.jac", + "medium_priority_switch_match.jac", + "medium_priority_destructuring.jac", + ] + + for fixture in fixtures: + with self.subTest(fixture=fixture): + try: + js_code = self.compile_to_js(self.get_fixture_path(fixture)) + self.assertGreater( + len(js_code), 0, + f"{fixture} generated empty JavaScript" + ) + except Exception as e: + self.fail(f"{fixture} failed to compile: {e}") + + def test_low_priority_fixtures_compile(self) -> None: + """Test that all low priority feature fixtures compile successfully.""" + fixtures = [ + "low_priority_sequence_expressions.jac", + "low_priority_do_while.jac", + "low_priority_optional_chaining.jac", + ] + + for fixture in fixtures: + with self.subTest(fixture=fixture): + try: + js_code = self.compile_to_js(self.get_fixture_path(fixture)) + self.assertGreater( + len(js_code), 0, + f"{fixture} generated empty JavaScript" + ) + except Exception as e: + self.fail(f"{fixture} failed to compile: {e}") + + def test_lambda_fixtures_have_functions(self) -> None: + """Test that lambda fixtures generate function-like structures.""" + js_code = self.compile_to_js(self.get_fixture_path("high_priority_lambdas.jac")) + + # Lambdas should generate functions (either arrow functions or function expressions) + self.assertIn("function", js_code) + + # Should have lambda test function names + self.assertIn("test_simple_lambda", js_code) + self.assertIn("test_lambda_in_map", js_code) + + def test_ternary_fixtures_have_conditionals(self) -> None: + """Test that ternary fixtures generate conditional expressions.""" + js_code = self.compile_to_js(self.get_fixture_path("high_priority_ternary.jac")) + + # Should have conditional test functions + self.assertIn("test_simple_ternary", js_code) + self.assertIn("test_nested_ternary", js_code) + + # May contain ternary operator or if-else structures + has_ternary = "?" in js_code and ":" in js_code + has_if = "if" in js_code + self.assertTrue(has_ternary or has_if, "Should have conditional structures") + + def test_spread_rest_fixtures_compile(self) -> None: + """Test that spread/rest operator fixtures compile.""" + js_code = self.compile_to_js(self.get_fixture_path("high_priority_spread_rest.jac")) + + # Should have test functions + self.assertIn("test_list_spread", js_code) + self.assertIn("test_dict_spread", js_code) + self.assertIn("test_rest_destructuring", js_code) + + # Should generate JavaScript code + self.assertGreater(len(js_code), 100) + + def test_async_await_fixtures_have_async(self) -> None: + """Test that async/await fixtures generate async functions.""" + js_code = self.compile_to_js(self.get_fixture_path("high_priority_async_await.jac")) + + # Should have async keyword + self.assertIn("async", js_code) + + # Should have async function names + self.assertIn("simple_async", js_code) + self.assertIn("test_basic_await", js_code) + + def test_yield_fixtures_have_generators(self) -> None: + """Test that yield fixtures generate generator functions.""" + js_code = self.compile_to_js(self.get_fixture_path("high_priority_yield.jac")) + + # Should have generator function names + self.assertIn("simple_generator", js_code) + self.assertIn("yield_in_loop", js_code) + self.assertIn("fibonacci", js_code) + + def test_for_loop_fixtures_have_loops(self) -> None: + """Test that for loop fixtures generate loop structures.""" + js_code = self.compile_to_js(self.get_fixture_path("high_priority_for_loops.jac")) + + # Should have loop keywords + self.assertIn("for", js_code) + + # Should have test function names + self.assertIn("test_basic_for_to_by", js_code) + self.assertIn("test_for_countdown", js_code) + + def test_template_literal_fixtures_have_strings(self) -> None: + """Test that template literal (f-string) fixtures generate strings.""" + js_code = self.compile_to_js(self.get_fixture_path("medium_priority_template_literals.jac")) + + # Should have test functions + self.assertIn("test_simple_fstring", js_code) + self.assertIn("test_fstring_expressions", js_code) + + # Should have string-related code + has_strings = '"' in js_code or "'" in js_code or "`" in js_code + self.assertTrue(has_strings, "Should have string literals") + + def test_switch_match_fixtures_have_conditionals(self) -> None: + """Test that switch/match fixtures generate conditional structures.""" + js_code = self.compile_to_js(self.get_fixture_path("medium_priority_switch_match.jac")) + + # Should have match test functions + self.assertIn("test_match_integers", js_code) + self.assertIn("test_match_strings", js_code) + + # Should have conditional structures (if/else or switch) + has_conditionals = "if" in js_code or "switch" in js_code + self.assertTrue(has_conditionals, "Should have conditional structures") + + def test_destructuring_fixtures_compile(self) -> None: + """Test that destructuring pattern fixtures compile.""" + js_code = self.compile_to_js(self.get_fixture_path("medium_priority_destructuring.jac")) + + # Should have destructuring test functions + self.assertIn("test_array_destructuring", js_code) + self.assertIn("test_tuple_swap", js_code) + + # Should generate valid JavaScript + self.assertGreater(len(js_code), 100) + + def test_sequence_expression_fixtures_compile(self) -> None: + """Test that sequence expression (walrus) fixtures compile.""" + js_code = self.compile_to_js(self.get_fixture_path("low_priority_sequence_expressions.jac")) + + # Should have walrus test functions + self.assertIn("test_walrus_basic", js_code) + self.assertIn("test_walrus_while", js_code) + + def test_all_new_fixtures_have_valid_syntax(self) -> None: + """Test that all new fixture files have balanced braces and generate valid output.""" + all_new_fixtures = [ + # High priority + "high_priority_lambdas.jac", + "high_priority_ternary.jac", + "high_priority_spread_rest.jac", + "high_priority_async_await.jac", + "high_priority_yield.jac", + "high_priority_for_loops.jac", + # Medium priority + "medium_priority_template_literals.jac", + "medium_priority_update_expressions.jac", + "medium_priority_switch_match.jac", + "medium_priority_destructuring.jac", + # Low priority + "low_priority_sequence_expressions.jac", + "low_priority_do_while.jac", + "low_priority_optional_chaining.jac", + ] + + for fixture in all_new_fixtures: + with self.subTest(fixture=fixture): + js_code = self.compile_to_js(self.get_fixture_path(fixture)) + + # Check balanced braces + open_braces = js_code.count("{") + close_braces = js_code.count("}") + self.assertEqual( + open_braces, close_braces, + f"Unbalanced braces in {fixture}: {open_braces} open, {close_braces} close" + ) + + # Check balanced parentheses + open_parens = js_code.count("(") + close_parens = js_code.count(")") + self.assertEqual( + open_parens, close_parens, + f"Unbalanced parens in {fixture}: {open_parens} open, {close_parens} close" + ) + + # Check balanced brackets + open_brackets = js_code.count("[") + close_brackets = js_code.count("]") + self.assertEqual( + open_brackets, close_brackets, + f"Unbalanced brackets in {fixture}: {open_brackets} open, {close_brackets} close" + ) + + # Ensure non-empty output + self.assertGreater( + len(js_code), 50, + f"{fixture} generated suspiciously small output" + ) From 23509303ba671bbb58bde4d665219820dbd9c17e Mon Sep 17 00:00:00 2001 From: marsninja Date: Sat, 11 Oct 2025 18:08:39 -0400 Subject: [PATCH 12/54] one approach to jsx parsing --- jac/jaclang/compiler/constant.py | 8 + jac/jaclang/compiler/jac.lark | 60 ++++ jac/jaclang/compiler/larkparse/jac_parser.py | 4 +- jac/jaclang/compiler/parser.py | 265 ++++++++++++++++++ .../compiler/tests/fixtures/jsx_basic.jac | 12 + .../tests/fixtures/jsx_components.jac | 23 ++ .../tests/fixtures/jsx_expressions.jac | 15 + .../compiler/tests/fixtures/jsx_fragments.jac | 20 ++ .../compiler/tests/fixtures/jsx_nested.jac | 23 ++ .../compiler/tests/fixtures/jsx_spread.jac | 15 + jac/jaclang/compiler/tests/test_parser.py | 48 ++++ jac/jaclang/compiler/unitree.py | 242 ++++++++++++++++ 12 files changed, 733 insertions(+), 2 deletions(-) create mode 100644 jac/jaclang/compiler/tests/fixtures/jsx_basic.jac create mode 100644 jac/jaclang/compiler/tests/fixtures/jsx_components.jac create mode 100644 jac/jaclang/compiler/tests/fixtures/jsx_expressions.jac create mode 100644 jac/jaclang/compiler/tests/fixtures/jsx_fragments.jac create mode 100644 jac/jaclang/compiler/tests/fixtures/jsx_nested.jac create mode 100644 jac/jaclang/compiler/tests/fixtures/jsx_spread.jac diff --git a/jac/jaclang/compiler/constant.py b/jac/jaclang/compiler/constant.py index b9d2aae197..faf6f6e1c2 100644 --- a/jac/jaclang/compiler/constant.py +++ b/jac/jaclang/compiler/constant.py @@ -308,6 +308,14 @@ class Tokens(str, Enum): FSTR_TRIPLE_PIECE = "FSTR_TRIPLE_PIECE" FSTR_SQ_TRIPLE_PIECE = "FSTR_SQ_TRIPLE_PIECE" FSTR_BESC = "FSTR_BESC" + JSX_TEXT = "JSX_TEXT" + JSX_OPEN_START = "JSX_OPEN_START" + JSX_SELF_CLOSE = "JSX_SELF_CLOSE" + JSX_TAG_END = "JSX_TAG_END" + JSX_CLOSE_START = "JSX_CLOSE_START" + JSX_FRAG_OPEN = "JSX_FRAG_OPEN" + JSX_FRAG_CLOSE = "JSX_FRAG_CLOSE" + JSX_NAME = "JSX_NAME" COMMENT = "COMMENT" WS = "WS" diff --git a/jac/jaclang/compiler/jac.lark b/jac/jaclang/compiler/jac.lark index f9e5b38b56..256db54fda 100644 --- a/jac/jaclang/compiler/jac.lark +++ b/jac/jaclang/compiler/jac.lark @@ -328,6 +328,7 @@ atom: named_ref | atom_collection | atom_literal | type_ref + | jsx_element atom_literal: builtin_type | NULL @@ -420,6 +421,37 @@ special_ref: KW_INIT | KW_HERE | KW_VISITOR +// [Heading]: JSX Elements with Contextual Lexing. +jsx_element: jsx_self_closing + | jsx_fragment + | jsx_opening_closing + +jsx_self_closing: JSX_OPEN_START jsx_element_name jsx_attributes? JSX_SELF_CLOSE +jsx_opening_closing: jsx_opening_element jsx_children? jsx_closing_element +jsx_fragment: JSX_FRAG_OPEN jsx_children? JSX_FRAG_CLOSE + +jsx_opening_element: JSX_OPEN_START jsx_element_name jsx_attributes? JSX_TAG_END +jsx_closing_element: JSX_CLOSE_START jsx_element_name JSX_TAG_END + +jsx_element_name: JSX_NAME (DOT JSX_NAME)* + +jsx_attributes: jsx_attribute+ +jsx_attribute: jsx_spread_attribute | jsx_normal_attribute + +jsx_spread_attribute: LBRACE ELLIPSIS expression RBRACE +jsx_normal_attribute: JSX_NAME (EQ jsx_attr_value)? + +jsx_attr_value: STRING + | LBRACE expression RBRACE + +jsx_children: jsx_child+ +jsx_child: jsx_element + | jsx_expression + | jsx_text + +jsx_expression: LBRACE expression RBRACE +jsx_text: JSX_TEXT + // [Heading]: Builtin types. builtin_type: TYP_TYPE | TYP_ANY @@ -656,6 +688,34 @@ PIPE_BKWD: "<|" DOT_FWD: ".>" DOT_BKWD: "<." +// JSX Contextual Tokens --------------------------------------------------- // + +// JSX opening tag start: < followed by identifier or uppercase +// Using lower priority so it doesn't interfere with LT operator +JSX_OPEN_START.2: /<(?=[A-Z_a-z])/ + +// JSX self-closing end: /> +JSX_SELF_CLOSE: /\/>/ + +// JSX tag end: > (used for both opening and closing) +JSX_TAG_END: />/ + +// JSX closing tag start: +JSX_FRAG_OPEN: /<>/ + +// JSX fragment close: +JSX_FRAG_CLOSE: /<\/>/ + +// JSX identifier (NAME in JSX context) +JSX_NAME: /[A-Z_a-z][A-Z_a-z0-9]*/ + +// JSX text content (anything except < > { } and must not start/end with whitespace-only) +// Using negative priority so it's only matched as last resort within JSX +JSX_TEXT.-1: /[^<>{}\n]+/ + // ************************************************************************* // // Comments and Whitespace // diff --git a/jac/jaclang/compiler/larkparse/jac_parser.py b/jac/jaclang/compiler/larkparse/jac_parser.py index a908f045fb..c9cf0f2fcc 100644 --- a/jac/jaclang/compiler/larkparse/jac_parser.py +++ b/jac/jaclang/compiler/larkparse/jac_parser.py @@ -3431,11 +3431,11 @@ class PythonIndenter(Indenter): import pickle, zlib, base64 DATA = ( -b'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' 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' ) DATA = pickle.loads(zlib.decompress(base64.b64decode(DATA))) MEMO = ( -b'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' 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' ) MEMO = pickle.loads(zlib.decompress(base64.b64decode(MEMO))) Shift = 0 diff --git a/jac/jaclang/compiler/parser.py b/jac/jaclang/compiler/parser.py index 5c8079a251..207f0c1fd5 100644 --- a/jac/jaclang/compiler/parser.py +++ b/jac/jaclang/compiler/parser.py @@ -2159,6 +2159,7 @@ def atom(self, _: None) -> uni.Expr: | atom_collection | atom_literal | type_ref + | jsx_element """ if self.match_token(Tok.LPAREN): value = self.match(uni.Expr) or self.consume(uni.YieldExpr) @@ -2597,6 +2598,270 @@ def type_ref(self, kid: list[uni.UniNode]) -> uni.TypeRef: kid=self.cur_nodes, ) + def jsx_element(self, _: None) -> uni.JsxElement: + """Grammar rule. + + jsx_element: jsx_self_closing + | jsx_fragment + | jsx_opening_closing + """ + return self.consume(uni.JsxElement) + + def jsx_self_closing(self, _: None) -> uni.JsxElement: + """Grammar rule. + + jsx_self_closing: JSX_OPEN_START jsx_element_name jsx_attributes? JSX_SELF_CLOSE + """ + open_tok = self.consume_token(Tok.JSX_OPEN_START) + name = self.consume(uni.JsxElementName) + # jsx_attributes is optional and returns a list when present + attrs_list = self.match( + list + ) # Will match jsx_attributes which returns a list + attrs = attrs_list if attrs_list else [] + close_tok = self.consume_token(Tok.JSX_SELF_CLOSE) + + # Build kid list manually with proper flattening + kid = [open_tok, name] + if attrs: + kid.extend(attrs) # Flatten the attributes list + kid.append(close_tok) + + return uni.JsxElement( + name=name, + attributes=attrs, + children=None, + is_self_closing=True, + is_fragment=False, + kid=kid, + ) + + def jsx_opening_closing(self, _: None) -> uni.JsxElement: + """Grammar rule. + + jsx_opening_closing: jsx_opening_element jsx_children? jsx_closing_element + """ + opening = self.consume(uni.JsxElement) # From jsx_opening_element + # jsx_children is optional and returns a list when present + children_list = self.match( + list + ) # Will match jsx_children which returns a list + children = children_list if children_list else [] + closing = self.consume( + uni.JsxElement + ) # From jsx_closing_element (closing tag) + + # Build kid list with proper flattening + kid = list(opening.kid) # Start with opening tag's kids + if children: + kid.extend(children) # Add children + kid.extend(closing.kid) # Add closing tag's kids + + # Merge opening and closing into single element + return uni.JsxElement( + name=opening.name, + attributes=opening.attributes, + children=children if children else None, + is_self_closing=False, + is_fragment=False, + kid=kid, + ) + + def jsx_fragment(self, _: None) -> uni.JsxElement: + """Grammar rule. + + jsx_fragment: JSX_FRAG_OPEN jsx_children? JSX_FRAG_CLOSE + """ + open_tok = self.consume_token(Tok.JSX_FRAG_OPEN) + # jsx_children is optional and returns a list when present + children_list = self.match( + list + ) # Will match jsx_children which returns a list + children = children_list if children_list else [] + close_tok = self.consume_token(Tok.JSX_FRAG_CLOSE) + + # Build kid list with proper flattening + kid = [open_tok] + if children: + kid.extend(children) # Flatten children + kid.append(close_tok) + + return uni.JsxElement( + name=None, + attributes=None, + children=children if children else None, + is_self_closing=False, + is_fragment=True, + kid=kid, + ) + + def jsx_opening_element(self, _: None) -> uni.JsxElement: + """Grammar rule. + + jsx_opening_element: JSX_OPEN_START jsx_element_name jsx_attributes? JSX_TAG_END + """ + open_tok = self.consume_token(Tok.JSX_OPEN_START) + name = self.consume(uni.JsxElementName) + # jsx_attributes is optional and returns a list when present + attrs_list = self.match( + list + ) # Will match jsx_attributes which returns a list + attrs = attrs_list if attrs_list else [] + end_tok = self.consume_token(Tok.JSX_TAG_END) + + # Build kid list manually with proper flattening + kid = [open_tok, name] + if attrs: + kid.extend(attrs) # Flatten the attributes list + kid.append(end_tok) + + # Return partial element (will be completed in jsx_opening_closing) + return uni.JsxElement( + name=name, + attributes=attrs, + children=None, + is_self_closing=False, + is_fragment=False, + kid=kid, + ) + + def jsx_closing_element(self, _: None) -> uni.JsxElement: + """Grammar rule. + + jsx_closing_element: JSX_CLOSE_START jsx_element_name JSX_TAG_END + """ + self.consume_token(Tok.JSX_CLOSE_START) + name = self.consume(uni.JsxElementName) + self.consume_token(Tok.JSX_TAG_END) + # Return stub element with just closing info + return uni.JsxElement( + name=name, + attributes=None, + children=None, + is_self_closing=False, + is_fragment=False, + kid=self.cur_nodes, + ) + + def jsx_element_name(self, _: None) -> uni.JsxElementName: + """Grammar rule. + + jsx_element_name: JSX_NAME (DOT JSX_NAME)* + """ + parts = [self.consume_token(Tok.JSX_NAME)] + while self.match_token(Tok.DOT): + parts.append(self.consume_token(Tok.JSX_NAME)) + return uni.JsxElementName( + parts=parts, + kid=self.cur_nodes, + ) + + def jsx_attributes(self, _: None) -> list[uni.JsxAttribute]: + """Grammar rule. + + jsx_attributes: jsx_attribute+ + """ + return self.consume_many(uni.JsxAttribute) + + def jsx_attribute(self, _: None) -> uni.JsxAttribute: + """Grammar rule. + + jsx_attribute: jsx_spread_attribute | jsx_normal_attribute + """ + return self.consume(uni.JsxAttribute) + + def jsx_spread_attribute(self, _: None) -> uni.JsxSpreadAttribute: + """Grammar rule. + + jsx_spread_attribute: LBRACE ELLIPSIS expression RBRACE + """ + self.consume_token(Tok.LBRACE) + self.consume_token(Tok.ELLIPSIS) + expr = self.consume(uni.Expr) + self.consume_token(Tok.RBRACE) + return uni.JsxSpreadAttribute( + expr=expr, + kid=self.cur_nodes, + ) + + def jsx_normal_attribute(self, _: None) -> uni.JsxNormalAttribute: + """Grammar rule. + + jsx_normal_attribute: JSX_NAME (EQ jsx_attr_value)? + """ + name = self.consume_token(Tok.JSX_NAME) + value = None + if self.match_token(Tok.EQ): + value = self.consume(uni.Expr) + return uni.JsxNormalAttribute( + name=name, + value=value, + kid=self.cur_nodes, + ) + + def jsx_attr_value(self, _: None) -> uni.String | uni.Expr: + """Grammar rule. + + jsx_attr_value: STRING | LBRACE expression RBRACE + """ + if string := self.match(uni.String): + return string + self.consume_token(Tok.LBRACE) + expr = self.consume(uni.Expr) + self.consume_token(Tok.RBRACE) + return expr + + def jsx_children(self, _: None) -> list[uni.JsxChild]: + """Grammar rule. + + jsx_children: jsx_child+ + """ + # The grammar already produces a list of children + # Just collect all JsxChild nodes from cur_nodes + children = [] + while self.node_idx < len(self.cur_nodes): + if isinstance( + self.cur_nodes[self.node_idx], (uni.JsxChild, uni.JsxElement) + ): + children.append(self.cur_nodes[self.node_idx]) # type: ignore[arg-type] + self.node_idx += 1 + else: + break + return children + + def jsx_child(self, _: None) -> uni.JsxChild: + """Grammar rule. + + jsx_child: jsx_element | jsx_expression + """ + if jsx_elem := self.match(uni.JsxElement): + return jsx_elem # type: ignore[return-value] + return self.consume(uni.JsxChild) + + def jsx_expression(self, _: None) -> uni.JsxExpression: + """Grammar rule. + + jsx_expression: LBRACE expression RBRACE + """ + self.consume_token(Tok.LBRACE) + expr = self.consume(uni.Expr) + self.consume_token(Tok.RBRACE) + return uni.JsxExpression( + expr=expr, + kid=self.cur_nodes, + ) + + def jsx_text(self, _: None) -> uni.JsxText: + """Grammar rule. + + jsx_text: JSX_TEXT + """ + text = self.consume_token(Tok.JSX_TEXT) + return uni.JsxText( + value=text, + kid=self.cur_nodes, + ) + def edge_ref_chain(self, _: None) -> uni.EdgeRefTrailer: """Grammar rule. diff --git a/jac/jaclang/compiler/tests/fixtures/jsx_basic.jac b/jac/jaclang/compiler/tests/fixtures/jsx_basic.jac new file mode 100644 index 0000000000..e33cdd8f5f --- /dev/null +++ b/jac/jaclang/compiler/tests/fixtures/jsx_basic.jac @@ -0,0 +1,12 @@ +""" Basic JSX test fixture """ + +with entry { + # Simple self-closing element + let elem1 =
; + + # Component + let elem2 = ; + + # Element with attributes + let elem3 = ; + + # Namespaced component + let comp3 = ; + let comp4 = ; + + # Nested components + let app = +
+
+ + +
+