CSY/reowolf Changeset - 7e5f19869dd2 · Centrum Wiskunde & Informatica (CWI)

Changeset - 7e5f19869dd2

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MH - 3 years ago 2022-05-13 23:40:22
contact@maxhenger.nl

Remove distinction between primitive/composite

20 files changed with 161 insertions and 120 deletions:

src/protocol/ast.rs

src/protocol/parser/pass_definitions.rs

src/protocol/tests/parser_validation.rs

src/runtime/tests/api_component.rs

src/runtime/tests/data_transmission.rs

src/runtime/tests/network_shapes.rs

src/runtime/tests/speculation.rs

src/runtime/tests/sync_failure.rs

src/runtime2/component/component.rs

src/runtime2/tests/error_handling.rs

src/runtime2/tests/internet.rs

src/runtime2/tests/messaging.rs

src/runtime2/tests/mod.rs

src/runtime2/tests/transfer_ports.rs

std/std.internet.pdl

std/std.random.pdl

testdata/basic-modules/consumer.pdl

testdata/basic-modules/main.pdl

testdata/basic-modules/producer.pdl

testdata/basic/testing.pdl

0 comments (0 inline, 0 general)

src/protocol/ast.rs

➞

Show inline comments

@@ @@ -909,386 +909,385 @@ impl Definition { @@
             Definition::Union(def) => &def.identifier,
             Definition::Procedure(def) => &def.identifier,
+        }
+    }
     pub fn poly_vars(&self) -> &Vec<Identifier> {
         match self {
             Definition::Struct(def) => &def.poly_vars,
             Definition::Enum(def) => &def.poly_vars,
             Definition::Union(def) => &def.poly_vars,
             Definition::Procedure(def) => &def.poly_vars,
+        }
+    }
+}
 #[derive(Debug, Clone)]
 pub struct StructFieldDefinition {
     pub span: InputSpan,
     pub field: Identifier,
     pub parser_type: ParserType,
+}
 #[derive(Debug, Clone)]
 pub struct StructDefinition {
     pub this: StructDefinitionId,
     pub defined_in: RootId,
     // Symbol scanning
     pub identifier: Identifier,
     pub poly_vars: Vec<Identifier>,
     // Parsing
     pub fields: Vec<StructFieldDefinition>
+}
 impl StructDefinition {
     pub(crate) fn new_empty(
         this: StructDefinitionId, defined_in: RootId,
         identifier: Identifier, poly_vars: Vec<Identifier>
     ) -> Self {
         Self{ this, defined_in, identifier, poly_vars, fields: Vec::new() }
+    }
+}
 #[derive(Debug, Clone, Copy)]
 pub enum EnumVariantValue {
     None,
     Integer(i64),
+}
 #[derive(Debug, Clone)]
 pub struct EnumVariantDefinition {
     pub identifier: Identifier,
     pub value: EnumVariantValue,
+}
 #[derive(Debug, Clone)]
 pub struct EnumDefinition {
     pub this: EnumDefinitionId,
     pub defined_in: RootId,
     // Symbol scanning
     pub identifier: Identifier,
     pub poly_vars: Vec<Identifier>,
     // Parsing
     pub variants: Vec<EnumVariantDefinition>,
+}
 impl EnumDefinition {
     pub(crate) fn new_empty(
         this: EnumDefinitionId, defined_in: RootId,
         identifier: Identifier, poly_vars: Vec<Identifier>
     ) -> Self {
         Self{ this, defined_in, identifier, poly_vars, variants: Vec::new() }
+    }
+}
 #[derive(Debug, Clone)]
 pub struct UnionVariantDefinition {
     pub span: InputSpan,
     pub identifier: Identifier,
     pub value: Vec<ParserType>, // if empty, then union variant does not contain any embedded types
+}
 #[derive(Debug, Clone)]
 pub struct UnionDefinition {
     pub this: UnionDefinitionId,
     pub defined_in: RootId,
     // Phase 1: symbol scanning
     pub identifier: Identifier,
     pub poly_vars: Vec<Identifier>,
     // Phase 2: parsing
     pub variants: Vec<UnionVariantDefinition>,
+}
 impl UnionDefinition {
     pub(crate) fn new_empty(
         this: UnionDefinitionId, defined_in: RootId,
         identifier: Identifier, poly_vars: Vec<Identifier>
     ) -> Self {
         Self{ this, defined_in, identifier, poly_vars, variants: Vec::new() }
+    }
+}
 #[derive(Debug, Clone, Copy, PartialEq, Eq)]
 pub enum ProcedureKind {
     Function, // with return type
     Component,
+}
 /// Monomorphed instantiation of a procedure (or the sole instantiation of a
 /// non-polymorphic procedure).
 #[derive(Debug)]
 pub struct ProcedureDefinitionMonomorph {
     pub argument_types: Vec<TypeId>,
     pub expr_info: Vec<ExpressionInfo>
+}
 impl ProcedureDefinitionMonomorph {
     pub(crate) fn new_invalid() -> Self {
         return Self{
             argument_types: Vec::new(),
             expr_info: Vec::new(),
+        }
+    }
+}
 #[derive(Debug, Clone, Copy)]
 pub struct ExpressionInfo {
     pub type_id: TypeId,
     pub variant: ExpressionInfoVariant,
+}
 impl ExpressionInfo {
     pub(crate) fn new_invalid() -> Self {
         return Self{
             type_id: TypeId::new_invalid(),
             variant: ExpressionInfoVariant::Generic,
+        }
+    }
+}
 #[derive(Debug, Clone, Copy)]
 pub enum ExpressionInfoVariant {
     Generic,
     Procedure(TypeId, u32), // procedure TypeID and its monomorph index
     Select(i32), // index
+}
 impl ExpressionInfoVariant {
     pub(crate) fn as_select(&self) -> i32 {
         match self {
             ExpressionInfoVariant::Select(v) => *v,
             _ => unreachable!(),
+        }
+    }
     pub(crate) fn as_procedure(&self) -> (TypeId, u32) {
         match self {
             ExpressionInfoVariant::Procedure(type_id, monomorph_index) => (*type_id, *monomorph_index),
             _ => unreachable!(),
+        }
+    }
+}
 #[derive(Debug)]
 pub enum ProcedureSource {
     FuncUserDefined,
     CompUserDefined,
     // Builtin functions, available to user
     FuncGet,
     FuncPut,
     FuncFires,
     FuncCreate,
     FuncLength,
     FuncAssert,
     FuncPrint,
     // Buitlin functions, not available to user
     FuncSelectStart,
     FuncSelectRegisterCasePort,
     FuncSelectWait,
     // Builtin components, available to user
     CompRandomU32, // TODO: Remove, temporary thing
     CompTcpClient,
+}
 impl ProcedureSource {
     pub(crate) fn is_builtin(&self) -> bool {
         match self {
             ProcedureSource::FuncUserDefined | ProcedureSource::CompUserDefined => false,
             _ => true,
+        }
+    }
+}
 /// Generic storage for functions, primitive components and composite
 /// components.
 /// Generic storage for functions and components.
 // Note that we will have function definitions for builtin functions as well. In
 // that case the span, the identifier span and the body are all invalid.
 #[derive(Debug)]
 pub struct ProcedureDefinition {
     pub this: ProcedureDefinitionId,
     pub defined_in: RootId,
     // Symbol scanning
     pub kind: ProcedureKind,
     pub identifier: Identifier,
     pub poly_vars: Vec<Identifier>,
     // Parser
     pub source: ProcedureSource,
     pub return_type: Option<ParserType>, // present on functions, not components
     pub parameters: Vec<VariableId>,
     pub scope: ScopeId,
     pub body: BlockStatementId,
     // Monomorphization of typed procedures
     pub monomorphs: Vec<ProcedureDefinitionMonomorph>,
+}
 impl ProcedureDefinition {
     pub(crate) fn new_empty(
         this: ProcedureDefinitionId, defined_in: RootId,
         kind: ProcedureKind, identifier: Identifier, poly_vars: Vec<Identifier>
     ) -> Self {
         Self {
             this, defined_in,
             kind, identifier, poly_vars,
             source: ProcedureSource::FuncUserDefined,
             return_type: None,
             parameters: Vec::new(),
             scope: ScopeId::new_invalid(),
             body: BlockStatementId::new_invalid(),
             monomorphs: Vec::new(),
+        }
+    }
+}
 #[derive(Debug, Clone)]
 pub enum Statement {
     Block(BlockStatement),
     EndBlock(EndBlockStatement),
     Local(LocalStatement),
     Labeled(LabeledStatement),
     If(IfStatement),
     EndIf(EndIfStatement),
     While(WhileStatement),
     EndWhile(EndWhileStatement),
     Break(BreakStatement),
     Continue(ContinueStatement),
     Synchronous(SynchronousStatement),
     EndSynchronous(EndSynchronousStatement),
     Fork(ForkStatement),
     EndFork(EndForkStatement),
     Select(SelectStatement),
     EndSelect(EndSelectStatement),
     Return(ReturnStatement),
     Goto(GotoStatement),
     New(NewStatement),
     Expression(ExpressionStatement),
+}
 impl Statement {
     pub fn as_new(&self) -> &NewStatement {
         match self {
             Statement::New(result) => result,
             _ => panic!("Unable to cast `Statement` to `NewStatement`"),
+        }
+    }
     pub fn span(&self) -> InputSpan {
         match self {
             Statement::Block(v) => v.span,
             Statement::Local(v) => v.span(),
             Statement::Labeled(v) => v.label.span,
             Statement::If(v) => v.span,
             Statement::While(v) => v.span,
             Statement::Break(v) => v.span,
             Statement::Continue(v) => v.span,
             Statement::Synchronous(v) => v.span,
             Statement::Fork(v) => v.span,
             Statement::Select(v) => v.span,
             Statement::Return(v) => v.span,
             Statement::Goto(v) => v.span,
             Statement::New(v) => v.span,
             Statement::Expression(v) => v.span,
             Statement::EndBlock(_)
             | Statement::EndIf(_)
             | Statement::EndWhile(_)
             | Statement::EndSynchronous(_)
             | Statement::EndFork(_)
             | Statement::EndSelect(_) => unreachable!(),
+        }
+    }
     pub fn link_next(&mut self, next: StatementId) {
         match self {
             Statement::Block(stmt) => stmt.next = next,
             Statement::EndBlock(stmt) => stmt.next = next,
             Statement::Local(stmt) => match stmt {
                 LocalStatement::Channel(stmt) => stmt.next = next,
                 LocalStatement::Memory(stmt) => stmt.next = next,
             },
             Statement::EndIf(stmt) => stmt.next = next,
             Statement::EndWhile(stmt) => stmt.next = next,
             Statement::EndSynchronous(stmt) => stmt.next = next,
             Statement::EndFork(stmt) => stmt.next = next,
             Statement::EndSelect(stmt) => stmt.next = next,
             Statement::New(stmt) => stmt.next = next,
             Statement::Expression(stmt) => stmt.next = next,
             Statement::Return(_)
             | Statement::Break(_)
             | Statement::Continue(_)
             | Statement::Synchronous(_)
             | Statement::Fork(_)
             | Statement::Select(_)
             | Statement::Goto(_)
             | Statement::While(_)
             | Statement::Labeled(_)
             | Statement::If(_) => unreachable!(),
+        }
+    }
+}
 #[derive(Debug, Clone)]
 pub struct BlockStatement {
     pub this: BlockStatementId,
     // Phase 1: parser
     pub span: InputSpan, // of the complete block
     pub statements: Vec<StatementId>,
     pub end_block: EndBlockStatementId,
     // Phase 2: linker
     pub scope: ScopeId,
     pub next: StatementId,
+}
 #[derive(Debug, Clone)]
 pub struct EndBlockStatement {
     pub this: EndBlockStatementId,
     // Parser
     pub start_block: BlockStatementId,
     // Validation/Linking
     pub next: StatementId,
+}
 #[derive(Debug, Clone)]
 pub enum LocalStatement {
     Memory(MemoryStatement),
     Channel(ChannelStatement),
+}
 impl LocalStatement {
     pub fn this(&self) -> LocalStatementId {
         match self {
             LocalStatement::Memory(stmt) => stmt.this.upcast(),
             LocalStatement::Channel(stmt) => stmt.this.upcast(),
+        }
+    }
     pub fn span(&self) -> InputSpan {
         match self {
             LocalStatement::Channel(v) => v.span,
             LocalStatement::Memory(v) => v.span,
+        }
+    }
+}
 #[derive(Debug, Clone)]
 pub struct MemoryStatement {
     pub this: MemoryStatementId,
     // Phase 1: parser
     pub span: InputSpan,
     pub variable: VariableId,
     pub initial_expr: AssignmentExpressionId,
     // Phase 2: linker
     pub next: StatementId,
+}
 /// ChannelStatement is the declaration of an input and output port associated
 /// with the same channel. Note that the polarity of the ports are from the
 /// point of view of the component. So an output port is something that a
 /// component uses to send data over (i.e. it is the "input end" of the
 /// channel), and vice versa.
 #[derive(Debug, Clone)]
 pub struct ChannelStatement {
     pub this: ChannelStatementId,
     // Phase 1: parser
     pub span: InputSpan, // of the "channel" keyword
     pub from: VariableId, // output
     pub to: VariableId,   // input
     // Phase 2: linker
     pub relative_pos_in_parent: i32,
     pub next: StatementId,

src/protocol/parser/pass_definitions.rs

➞

Show inline comments

@@ @@ -103,385 +103,385 @@ impl PassDefinitions { @@
                     &module.source, iter.last_valid_pos(),
                     "unexpected symbol, expected a keyword marking the start of a definition"
                 )),
+            }
+        }
+    }
     fn visit_struct_definition(
         &mut self, module: &Module, iter: &mut TokenIter, ctx: &mut PassCtx
     ) -> Result<(), ParseError> {
         consume_exact_ident(&module.source, iter, KW_STRUCT)?;
         let (ident_text, _) = consume_ident(&module.source, iter)?;
         // Retrieve preallocated DefinitionId
         let module_scope = SymbolScope::Module(module.root_id);
         let definition_id = ctx.symbols.get_symbol_by_name_defined_in_scope(module_scope, ident_text)
             .unwrap().variant.as_definition().definition_id;
         self.cur_definition = definition_id;
         // Parse struct definition
         consume_polymorphic_vars_spilled(&module.source, iter, ctx)?;
         let mut fields_section = self.struct_fields.start_section();
         consume_comma_separated(
             TokenKind::OpenCurly, TokenKind::CloseCurly, &module.source, iter, ctx,
             |source, iter, ctx| {
                 let poly_vars = ctx.heap[definition_id].poly_vars();
                 let start_pos = iter.last_valid_pos();
                 let parser_type = self.type_parser.consume_parser_type(
                     iter, &ctx.heap, source, &ctx.symbols, poly_vars, definition_id,
                     module_scope, false, false, None
                 )?;
                 let field = consume_ident_interned(source, iter, ctx)?;
                 Ok(StructFieldDefinition{
                     span: InputSpan::from_positions(start_pos, field.span.end),
                     field, parser_type
                 })
             },
             &mut fields_section, "a struct field", "a list of struct fields", None
         )?;
         // Transfer to preallocated definition
         let struct_def = ctx.heap[definition_id].as_struct_mut();
         struct_def.fields = fields_section.into_vec();
         Ok(())
+    }
     fn visit_enum_definition(
         &mut self, module: &Module, iter: &mut TokenIter, ctx: &mut PassCtx
     ) -> Result<(), ParseError> {
         consume_exact_ident(&module.source, iter, KW_ENUM)?;
         let (ident_text, _) = consume_ident(&module.source, iter)?;
         // Retrieve preallocated DefinitionId
         let module_scope = SymbolScope::Module(module.root_id);
         let definition_id = ctx.symbols.get_symbol_by_name_defined_in_scope(module_scope, ident_text)
             .unwrap().variant.as_definition().definition_id;
         self.cur_definition = definition_id;
         // Parse enum definition
         consume_polymorphic_vars_spilled(&module.source, iter, ctx)?;
         let mut enum_section = self.enum_variants.start_section();
         consume_comma_separated(
             TokenKind::OpenCurly, TokenKind::CloseCurly, &module.source, iter, ctx,
             |source, iter, ctx| {
                 let identifier = consume_ident_interned(source, iter, ctx)?;
                 let value = if iter.next() == Some(TokenKind::Equal) {
                     iter.consume();
                     let (variant_number, _) = consume_integer_literal(source, iter, &mut self.buffer)?;
                     EnumVariantValue::Integer(variant_number as i64) // TODO: @int
                 } else {
                     EnumVariantValue::None
                 };
                 Ok(EnumVariantDefinition{ identifier, value })
             },
             &mut enum_section, "an enum variant", "a list of enum variants", None
         )?;
         // Transfer to definition
         let enum_def = ctx.heap[definition_id].as_enum_mut();
         enum_def.variants = enum_section.into_vec();
         Ok(())
+    }
     fn visit_union_definition(
         &mut self, module: &Module, iter: &mut TokenIter, ctx: &mut PassCtx
     ) -> Result<(), ParseError> {
         consume_exact_ident(&module.source, iter, KW_UNION)?;
         let (ident_text, _) = consume_ident(&module.source, iter)?;
         // Retrieve preallocated DefinitionId
         let module_scope = SymbolScope::Module(module.root_id);
         let definition_id = ctx.symbols.get_symbol_by_name_defined_in_scope(module_scope, ident_text)
             .unwrap().variant.as_definition().definition_id;
         self.cur_definition = definition_id;
         // Parse union definition
         consume_polymorphic_vars_spilled(&module.source, iter, ctx)?;
         let mut variants_section = self.union_variants.start_section();
         consume_comma_separated(
             TokenKind::OpenCurly, TokenKind::CloseCurly, &module.source, iter, ctx,
             |source, iter, ctx| {
                 let identifier = consume_ident_interned(source, iter, ctx)?;
                 let mut close_pos = identifier.span.end;
                 let mut types_section = self.parser_types.start_section();
                 let has_embedded = maybe_consume_comma_separated(
                     TokenKind::OpenParen, TokenKind::CloseParen, source, iter, ctx,
                     |source, iter, ctx| {
                         let poly_vars = ctx.heap[definition_id].poly_vars();
                         self.type_parser.consume_parser_type(
                             iter, &ctx.heap, source, &ctx.symbols, poly_vars, definition_id,
                             module_scope, false, false, None
+                        )
                     },
                     &mut types_section, "an embedded type", Some(&mut close_pos)
                 )?;
                 let value = if has_embedded {
                     types_section.into_vec()
                 } else {
                     types_section.forget();
                     Vec::new()
                 };
                 Ok(UnionVariantDefinition{
                     span: InputSpan::from_positions(identifier.span.begin, close_pos),
                     identifier,
                     value
                 })
             },
             &mut variants_section, "a union variant", "a list of union variants", None
         )?;
         // Transfer to AST
         let union_def = ctx.heap[definition_id].as_union_mut();
         union_def.variants = variants_section.into_vec();
         Ok(())
+    }
     fn visit_function_definition(
         &mut self, module: &Module, iter: &mut TokenIter, ctx: &mut PassCtx
     ) -> Result<(), ParseError> {
         // Retrieve function name
         consume_exact_ident(&module.source, iter, KW_FUNCTION)?;
         let (ident_text, _) = consume_ident(&module.source, iter)?;
         // Retrieve preallocated DefinitionId
         let module_scope = SymbolScope::Module(module.root_id);
         let definition_id = ctx.symbols.get_symbol_by_name_defined_in_scope(module_scope, ident_text)
             .unwrap().variant.as_definition().definition_id;
         self.cur_definition = definition_id;
         let allow_compiler_types = module.is_compiler_file;
         consume_polymorphic_vars_spilled(&module.source, iter, ctx)?;
         // Parse function's argument list
         let mut parameter_section = self.variables.start_section();
         consume_parameter_list(
             &mut self.type_parser, &module.source, iter, ctx, &mut parameter_section,
             module_scope, definition_id, allow_compiler_types
         )?;
         let parameters = parameter_section.into_vec();
         // Consume return types
         consume_token(&module.source, iter, TokenKind::ArrowRight)?;
         let poly_vars = ctx.heap[definition_id].poly_vars();
         let parser_type = self.type_parser.consume_parser_type(
             iter, &ctx.heap, &module.source, &ctx.symbols, poly_vars, definition_id,
             module_scope, false, allow_compiler_types, None
         )?;
         // Consume body
         let (body_id, source) = self.consume_procedure_body(module, iter, ctx, definition_id, ProcedureKind::Function)?;
         let scope_id = ctx.heap.alloc_scope(|this| Scope::new(this, ScopeAssociation::Definition(definition_id)));
         // Assign everything in the preallocated AST node
         let function = ctx.heap[definition_id].as_procedure_mut();
         function.source = source;
         function.return_type = Some(parser_type);
         function.parameters = parameters;
         function.scope = scope_id;
         function.body = body_id;
         Ok(())
+    }
     fn visit_component_definition(
         &mut self, module: &Module, iter: &mut TokenIter, ctx: &mut PassCtx
     ) -> Result<(), ParseError> {
         // Consume component variant and name
         let (_component_text, _) = consume_any_ident(&module.source, iter)?;
         debug_assert!(_component_text == KW_COMPONENT);
         let (ident_text, _) = consume_ident(&module.source, iter)?;
         // Retrieve preallocated definition
         let module_scope = SymbolScope::Module(module.root_id);
         let definition_id = ctx.symbols.get_symbol_by_name_defined_in_scope(module_scope, ident_text)
             .unwrap().variant.as_definition().definition_id;
         self.cur_definition = definition_id;
         let allow_compiler_types = module.is_compiler_file;
         consume_polymorphic_vars_spilled(&module.source, iter, ctx)?;
         // Parse component's argument list
         let mut parameter_section = self.variables.start_section();
         consume_parameter_list(
             &mut self.type_parser, &module.source, iter, ctx, &mut parameter_section,
             module_scope, definition_id, allow_compiler_types
         )?;
         let parameters = parameter_section.into_vec();
         // Consume body
         let procedure_kind = ctx.heap[definition_id].as_procedure().kind;
         let (body_id, source) = self.consume_procedure_body(module, iter, ctx, definition_id, procedure_kind)?;
         let scope_id = ctx.heap.alloc_scope(|this| Scope::new(this, ScopeAssociation::Definition(definition_id)));
         // Assign everything in the AST node
         let component = ctx.heap[definition_id].as_procedure_mut();
         debug_assert!(component.return_type.is_none());
         component.source = source;
         component.parameters = parameters;
         component.scope = scope_id;
         component.body = body_id;
         Ok(())
+    }
     /// Consumes a procedure's body: either a user-defined procedure, which we
     /// parse as normal, or a builtin function, where we'll make sure we expect
     /// the particular builtin.
     ///
     /// We expect that the procedure's name is already stored in the
     /// preallocated AST node.
     fn consume_procedure_body(
         &mut self, module: &Module, iter: &mut TokenIter, ctx: &mut PassCtx, definition_id: DefinitionId, kind: ProcedureKind
     ) -> Result<(BlockStatementId, ProcedureSource), ParseError> {
         if iter.next() == Some(TokenKind::OpenCurly) && iter.peek() == Some(TokenKind::Pragma) {
             // Consume the placeholder "{ #builtin }" tokens
             iter.consume(); // opening curly brace
             let (pragma, pragma_span) = consume_pragma(&module.source, iter)?;
             if pragma != b"#builtin" {
                 return Err(ParseError::new_error_str_at_span(
                     &module.source, pragma_span,
                     "expected a '#builtin' pragma, or a function body"
                 ));
+            }
             if iter.next() != Some(TokenKind::CloseCurly) {
                 // Just to keep the compiler writers in line ;)
                 panic!("compiler error: when using the #builtin pragma, wrap it in curly braces");
+            }
             iter.consume();
             // Retrieve module and procedure name
             assert!(module.name.is_some(), "compiler error: builtin procedure body in unnamed module");
             let (_, module_name) = module.name.as_ref().unwrap();
             let module_name = module_name.as_str();
             let definition = ctx.heap[definition_id].as_procedure();
             let procedure_name = definition.identifier.value.as_str();
             let source = match (module_name, procedure_name) {
                 ("std.global", "get") => ProcedureSource::FuncGet,
                 ("std.global", "put") => ProcedureSource::FuncPut,
                 ("std.global", "fires") => ProcedureSource::FuncFires,
                 ("std.global", "create") => ProcedureSource::FuncCreate,
                 ("std.global", "length") => ProcedureSource::FuncLength,
                 ("std.global", "assert") => ProcedureSource::FuncAssert,
                 ("std.global", "print") => ProcedureSource::FuncPrint,
                 ("std.random", "random_u32") => ProcedureSource::CompRandomU32,
                 ("std.internet", "tcp_client") => ProcedureSource::CompTcpClient,
                 _ => panic!(
                     "compiler error: unknown builtin procedure '{}' in module '{}'",
                     procedure_name, module_name
                 ),
             };
             return Ok((BlockStatementId::new_invalid(), source));
         } else {
             let body_id = self.consume_block_statement(module, iter, ctx)?;
             let source = match kind {
                 ProcedureKind::Function =>
                     ProcedureSource::FuncUserDefined,
                 ProcedureKind::Component =>
                     ProcedureSource::CompUserDefined,
             };
             return Ok((body_id, source))
+        }
+    }
     /// Consumes a statement and returns a boolean indicating whether it was a
     /// block or not.
     fn consume_statement(&mut self, module: &Module, iter: &mut TokenIter, ctx: &mut PassCtx) -> Result<StatementId, ParseError> {
         let next = iter.next().expect("consume_statement has a next token");
         if next == TokenKind::OpenCurly {
             let id = self.consume_block_statement(module, iter, ctx)?;
             return Ok(id.upcast());
         } else if next == TokenKind::Ident {
             let ident = peek_ident(&module.source, iter).unwrap();
             if ident == KW_STMT_IF {
                 // Consume if statement and place end-if statement directly
                 // after it.
                 let id = self.consume_if_statement(module, iter, ctx)?;
                 return Ok(id.upcast());
             } else if ident == KW_STMT_WHILE {
                 let id = self.consume_while_statement(module, iter, ctx)?;
                 return Ok(id.upcast());
             } else if ident == KW_STMT_BREAK {
                 let id = self.consume_break_statement(module, iter, ctx)?;
                 return Ok(id.upcast());
             } else if ident == KW_STMT_CONTINUE {
                 let id = self.consume_continue_statement(module, iter, ctx)?;
                 return Ok(id.upcast());
             } else if ident == KW_STMT_SYNC {
                 let id = self.consume_synchronous_statement(module, iter, ctx)?;
                 return Ok(id.upcast());
             } else if ident == KW_STMT_FORK {
                 let id = self.consume_fork_statement(module, iter, ctx)?;
                 let end_fork = ctx.heap.alloc_end_fork_statement(|this| EndForkStatement {
                     this,
                     start_fork: id,
                     next: StatementId::new_invalid(),
                 });
                 let fork_stmt = &mut ctx.heap[id];
                 fork_stmt.end_fork = end_fork;
                 return Ok(id.upcast());
             } else if ident == KW_STMT_SELECT {
                 let id = self.consume_select_statement(module, iter, ctx)?;
                 return Ok(id.upcast());
             } else if ident == KW_STMT_RETURN {
                 let id = self.consume_return_statement(module, iter, ctx)?;
                 return Ok(id.upcast());
             } else if ident == KW_STMT_GOTO {
                 let id = self.consume_goto_statement(module, iter, ctx)?;
                 return Ok(id.upcast());
             } else if ident == KW_STMT_NEW {
                 let id = self.consume_new_statement(module, iter, ctx)?;
                 return Ok(id.upcast());
             } else if ident == KW_STMT_CHANNEL {
                 let id = self.consume_channel_statement(module, iter, ctx)?;
                 return Ok(id.upcast().upcast());
             } else if iter.peek() == Some(TokenKind::Colon) {
                 let id = self.consume_labeled_statement(module, iter, ctx)?;
                 return Ok(id.upcast());
             } else {
                 // Two fallback possibilities: the first one is a memory
                 // declaration, the other one is to parse it as a normal
                 // expression. This is a bit ugly.
                 if let Some(memory_stmt_id) = self.maybe_consume_memory_statement_without_semicolon(module, iter, ctx)? {
                     consume_token(&module.source, iter, TokenKind::SemiColon)?;
                     return Ok(memory_stmt_id.upcast().upcast());
                 } else {
                     let id = self.consume_expression_statement(module, iter, ctx)?;
                     return Ok(id.upcast());
+                }
+            }
         } else if next == TokenKind::OpenParen {
             // Same as above: memory statement or normal expression
             if let Some(memory_stmt_id) = self.maybe_consume_memory_statement_without_semicolon(module, iter, ctx)? {
                 consume_token(&module.source, iter, TokenKind::SemiColon)?;
                 return Ok(memory_stmt_id.upcast().upcast());
             } else {
                 let id = self.consume_expression_statement(module, iter, ctx)?;
                 return Ok(id.upcast());
+            }
         } else {
             let id = self.consume_expression_statement(module, iter, ctx)?;
             return Ok(id.upcast());
+        }
+    }
     fn consume_block_statement(
         &mut self, module: &Module, iter: &mut TokenIter, ctx: &mut PassCtx
@@ @@ -1474,386 +1474,392 @@ impl PassDefinitions { @@
                 if Some(TokenKind::Comma) == iter.next() && Some(TokenKind::CloseParen) != iter.peek() {
                     // Must be an N-tuple
                     iter.consume(); // the comma
                     let mut scoped_section = self.expressions.start_section();
                     scoped_section.push(expr_id);
                     let mut close_paren_pos = open_paren_pos;
                     consume_comma_separated_until(
                         TokenKind::CloseParen, &module.source, iter, ctx,
                         |_source, iter, ctx| self.consume_expression(module, iter, ctx),
                         &mut scoped_section, "an expression", Some(&mut close_paren_pos)
                     )?;
                     debug_assert!(scoped_section.len() > 1); // peeked token wasn't CloseParen, must be expression
                     let literal_id = ctx.heap.alloc_literal_expression(|this| LiteralExpression{
                         this,
                         span: InputSpan::from_positions(open_paren_pos, close_paren_pos),
                         value: Literal::Tuple(scoped_section.into_vec()),
                         parent: ExpressionParent::None,
                         type_index: -1,
                     });
                     literal_id.upcast()
                 } else {
                     // Assume we're dealing with a normal expression
                     consume_token(&module.source, iter, TokenKind::CloseParen)?;
                     expr_id
+                }
             };
             result
         } else if next == Some(TokenKind::OpenCurly) {
             // Array literal
             let (start_pos, mut end_pos) = iter.next_positions();
             let mut scoped_section = self.expressions.start_section();
             consume_comma_separated(
                 TokenKind::OpenCurly, TokenKind::CloseCurly, &module.source, iter, ctx,
                 |_source, iter, ctx| self.consume_expression(module, iter, ctx),
                 &mut scoped_section, "an expression", "a list of expressions", Some(&mut end_pos)
             )?;
             ctx.heap.alloc_literal_expression(|this| LiteralExpression{
                 this,
                 span: InputSpan::from_positions(start_pos, end_pos),
                 value: Literal::Array(scoped_section.into_vec()),
                 parent: ExpressionParent::None,
                 type_index: -1,
             }).upcast()
         } else if next == Some(TokenKind::Integer) {
             let (literal, span) = consume_integer_literal(&module.source, iter, &mut self.buffer)?;
             ctx.heap.alloc_literal_expression(|this| LiteralExpression {
                 this,
                 span,
                 value: Literal::Integer(LiteralInteger { unsigned_value: literal, negated: false }),
                 parent: ExpressionParent::None,
                 type_index: -1,
             }).upcast()
         } else if next == Some(TokenKind::Bytestring) {
             let span = consume_bytestring_literal(&module.source, iter, &mut self.buffer)?;
             let mut bytes = Vec::with_capacity(self.buffer.len());
             for byte in self.buffer.as_bytes().iter().copied() {
                 bytes.push(byte);
+            }
             ctx.heap.alloc_literal_expression(|this| LiteralExpression{
                 this, span,
                 value: Literal::Bytestring(bytes),
                 parent: ExpressionParent::None,
                 type_index: -1
             }).upcast()
         } else if next == Some(TokenKind::String) {
             let span = consume_string_literal(&module.source, iter, &mut self.buffer)?;
             let interned = ctx.pool.intern(self.buffer.as_bytes());
             ctx.heap.alloc_literal_expression(|this| LiteralExpression{
                 this, span,
                 value: Literal::String(interned),
                 parent: ExpressionParent::None,
                 type_index: -1,
             }).upcast()
         } else if next == Some(TokenKind::Character) {
             let (character, span) = consume_character_literal(&module.source, iter)?;
             ctx.heap.alloc_literal_expression(|this| LiteralExpression{
                 this, span,
                 value: Literal::Character(character),
                 parent: ExpressionParent::None,
                 type_index: -1,
             }).upcast()
         } else if next == Some(TokenKind::Ident) {
             // May be a variable, a type instantiation or a function call. If we
             // have a single identifier that we cannot find in the type table
             // then we're going to assume that we're dealing with a variable.
             let ident_span = iter.next_span();
             let ident_text = module.source.section_at_span(ident_span);
             let symbol = ctx.symbols.get_symbol_by_name(SymbolScope::Module(module.root_id), ident_text);
             if symbol.is_some() {
                 // The first bit looked like a symbol, so we're going to follow
                 // that all the way through, assume we arrive at some kind of
                 // function call or type instantiation
                 use ParserTypeVariant as PTV;
                 let symbol_scope = SymbolScope::Definition(self.cur_definition);
                 let poly_vars = ctx.heap[self.cur_definition].poly_vars();
                 let parser_type = self.type_parser.consume_parser_type(
                     iter, &ctx.heap, &module.source, &ctx.symbols, poly_vars, self.cur_definition,
                     symbol_scope, true, false, None
                 )?;
                 debug_assert!(!parser_type.elements.is_empty());
                 match parser_type.elements[0].variant {
                     PTV::Definition(target_definition_id, _) => {
                         let definition = &ctx.heap[target_definition_id];
                         match definition {
                             Definition::Struct(_) => {
                                 // Struct literal
                                 let mut last_token = iter.last_valid_pos();
                                 let mut struct_fields = Vec::new();
                                 consume_comma_separated(
                                     TokenKind::OpenCurly, TokenKind::CloseCurly, &module.source, iter, ctx,
                                     |source, iter, ctx| {
                                         let identifier = consume_ident_interned(source, iter, ctx)?;
                                         consume_token(source, iter, TokenKind::Colon)?;
                                         let value = self.consume_expression(module, iter, ctx)?;
                                         Ok(LiteralStructField{ identifier, value, field_idx: 0 })
                                     },
                                     &mut struct_fields, "a struct field", "a list of struct fields", Some(&mut last_token)
                                 )?;
                                 ctx.heap.alloc_literal_expression(|this| LiteralExpression{
                                     this,
                                     span: InputSpan::from_positions(ident_span.begin, last_token),
                                     value: Literal::Struct(LiteralStruct{
                                         parser_type,
                                         fields: struct_fields,
                                         definition: target_definition_id,
                                     }),
                                     parent: ExpressionParent::None,
                                     type_index: -1,
                                 }).upcast()
                             },
                             Definition::Enum(_) => {
                                 // Enum literal: consume the variant
                                 consume_token(&module.source, iter, TokenKind::ColonColon)?;
                                 let variant = consume_ident_interned(&module.source, iter, ctx)?;
                                 ctx.heap.alloc_literal_expression(|this| LiteralExpression{
                                     this,
                                     span: InputSpan::from_positions(ident_span.begin, variant.span.end),
                                     value: Literal::Enum(LiteralEnum{
                                         parser_type,
                                         variant,
                                         definition: target_definition_id,
                                         variant_idx: 0
                                     }),
                                     parent: ExpressionParent::None,
                                     type_index: -1,
                                 }).upcast()
                             },
                             Definition::Union(_) => {
                                 // Union literal: consume the variant
                                 consume_token(&module.source, iter, TokenKind::ColonColon)?;
                                 let variant = consume_ident_interned(&module.source, iter, ctx)?;
                                 // Consume any possible embedded values
                                 let mut end_pos = variant.span.end;
                                 let values = if Some(TokenKind::OpenParen) == iter.next() {
                                     self.consume_expression_list(module, iter, ctx, Some(&mut end_pos))?
                                 } else {
                                     Vec::new()
                                 };
                                 ctx.heap.alloc_literal_expression(|this| LiteralExpression{
                                     this,
                                     span: InputSpan::from_positions(ident_span.begin, end_pos),
                                     value: Literal::Union(LiteralUnion{
                                         parser_type, variant, values,
                                         definition: target_definition_id,
                                         variant_idx: 0,
                                     }),
                                     parent: ExpressionParent::None,
                                     type_index: -1,
                                 }).upcast()
                             },
                             Definition::Procedure(proc_def) => {
                                 // Check whether it is a builtin function
                                 // TODO: Once we start generating bytecode this is unnecessary
                                 let procedure_id = proc_def.this;
                                 let method = match proc_def.source {
                                     ProcedureSource::FuncUserDefined => Method::UserFunction,
                                     ProcedureSource::CompUserDefined => Method::UserComponent,
                                     // Bit of a hack, at this point the source is not yet known, except if it is a
                                     // builtin. So we check for the "kind"
                                     ProcedureSource::FuncUserDefined | ProcedureSource::CompUserDefined => {
                                         match proc_def.kind {
                                             ProcedureKind::Function => Method::UserFunction,
                                             ProcedureKind::Component => Method::UserComponent,
+                                        }
                                     },
                                     ProcedureSource::FuncGet => Method::Get,
                                     ProcedureSource::FuncPut => Method::Put,
                                     ProcedureSource::FuncFires => Method::Fires,
                                     ProcedureSource::FuncCreate => Method::Create,
                                     ProcedureSource::FuncLength => Method::Length,
                                     ProcedureSource::FuncAssert => Method::Assert,
                                     ProcedureSource::FuncPrint => Method::Print,
                                     ProcedureSource::CompRandomU32 => Method::ComponentRandomU32,
                                     ProcedureSource::CompTcpClient => Method::ComponentTcpClient,
                                     _ => todo!("other procedure sources"),
                                 };
                                 // Function call: consume the arguments
                                 let func_span = parser_type.full_span;
                                 let mut full_span = func_span;
                                 let arguments = self.consume_expression_list(
                                     module, iter, ctx, Some(&mut full_span.end)
                                 )?;
                                 ctx.heap.alloc_call_expression(|this| CallExpression{
                                     this, func_span, full_span, parser_type, method, arguments,
                                     procedure: procedure_id,
                                     parent: ExpressionParent::None,
                                     type_index: -1,
                                 }).upcast()
+                            }
+                        }
                     },
                     _ => {
                         return Err(ParseError::new_error_str_at_span(
                             &module.source, parser_type.full_span, "unexpected type in expression"
                         ))
+                    }
+                }
             } else {
                 // Check for builtin keywords or builtin functions
                 if ident_text == KW_LIT_NULL || ident_text == KW_LIT_TRUE || ident_text == KW_LIT_FALSE {
                     iter.consume();
                     // Parse builtin literal
                     let value = match ident_text {
                         KW_LIT_NULL => Literal::Null,
                         KW_LIT_TRUE => Literal::True,
                         KW_LIT_FALSE => Literal::False,
                         _ => unreachable!(),
                     };
                     ctx.heap.alloc_literal_expression(|this| LiteralExpression {
                         this,
                         span: ident_span,
                         value,
                         parent: ExpressionParent::None,
                         type_index: -1,
                     }).upcast()
                 } else if ident_text == KW_LET {
                     // Binding expression
                     let operator_span = iter.next_span();
                     iter.consume();
                     let bound_to = self.consume_prefix_expression(module, iter, ctx)?;
                     consume_token(&module.source, iter, TokenKind::Equal)?;
                     let bound_from = self.consume_prefix_expression(module, iter, ctx)?;
                     let full_span = InputSpan::from_positions(
                         operator_span.begin, ctx.heap[bound_from].full_span().end,
                     );
                     ctx.heap.alloc_binding_expression(|this| BindingExpression{
                         this, operator_span, full_span, bound_to, bound_from,
                         parent: ExpressionParent::None,
                         type_index: -1,
                     }).upcast()
                 } else if ident_text == KW_CAST {
                     // Casting expression
                     iter.consume();
                     let to_type = if Some(TokenKind::OpenAngle) == iter.next() {
                         let angle_start_pos = iter.next_start_position();
                         iter.consume();
                         let definition_id = self.cur_definition;
                         let poly_vars = ctx.heap[definition_id].poly_vars();
                         self.type_parser.consume_parser_type(
                             iter, &ctx.heap, &module.source, &ctx.symbols,
                             poly_vars, definition_id, SymbolScope::Module(module.root_id),
                             true, false, Some(angle_start_pos)
                         )?
                     } else {
                         // Automatic casting with inferred target type
                         ParserType{
                             elements: vec![ParserTypeElement{
                                 element_span: ident_span,
                                 variant: ParserTypeVariant::Inferred,
                             }],
                             full_span: ident_span
+                        }
                     };
                     consume_token(&module.source, iter, TokenKind::OpenParen)?;
                     let subject = self.consume_expression(module, iter, ctx)?;
                     let mut full_span = iter.next_span();
                     full_span.begin = to_type.full_span.begin;
                     consume_token(&module.source, iter, TokenKind::CloseParen)?;
                     ctx.heap.alloc_cast_expression(|this| CastExpression{
                         this,
                         cast_span: to_type.full_span,
                         full_span, to_type, subject,
                         parent: ExpressionParent::None,
                         type_index: -1,
                     }).upcast()
                 } else {
                     // Not a builtin literal, but also not a known type. So we
                     // assume it is a variable expression. Although if we do,
                     // then if a programmer mistyped a struct/function name the
                     // error messages will be rather cryptic. For polymorphic
                     // arguments we can't really do anything at all (because it
                     // uses the '<' token). In the other cases we try to provide
                     // a better error message.
                     iter.consume();
                     let next = iter.next();
                     if Some(TokenKind::ColonColon) == next {
                         return Err(ParseError::new_error_str_at_span(&module.source, ident_span, "unknown identifier"));
                     } else if Some(TokenKind::OpenParen) == next {
                         return Err(ParseError::new_error_str_at_span(
                             &module.source, ident_span,
                             "unknown identifier, did you mistype a union variant's, component's, or function's name?"
                         ));
                     } else if Some(TokenKind::OpenCurly) == next {
                         return Err(ParseError::new_error_str_at_span(
                             &module.source, ident_span,
                             "unknown identifier, did you mistype a struct type's name?"
                         ))
+                    }
                     let ident_text = ctx.pool.intern(ident_text);
                     let identifier = Identifier { span: ident_span, value: ident_text };
                     ctx.heap.alloc_variable_expression(|this| VariableExpression {
                         this,
                         identifier,
                         declaration: None,
                         used_as_binding_target: false,
                         parent: ExpressionParent::None,
                         type_index: -1,
                     }).upcast()
+                }
+            }
         } else {
             return Err(ParseError::new_error_str_at_pos(
                 &module.source, iter.last_valid_pos(), "expected an expression"
             ));
         };
         Ok(result)
+    }
     //--------------------------------------------------------------------------
     // Expression Utilities
     //--------------------------------------------------------------------------
     #[inline]
     fn consume_generic_binary_expression<
         M: Fn(Option<TokenKind>) -> Option<BinaryOperator>,
         F: Fn(&mut PassDefinitions, &Module, &mut TokenIter, &mut PassCtx) -> Result<ExpressionId, ParseError>
     >(
         &mut self, module: &Module, iter: &mut TokenIter, ctx: &mut PassCtx, match_fn: M, higher_precedence_fn: F
     ) -> Result<ExpressionId, ParseError> {
         let mut result = higher_precedence_fn(self, module, iter, ctx)?;
         while let Some(operation) = match_fn(iter.next()) {
             let operator_span = iter.next_span();
             iter.consume();
             let left = result;
             let right = higher_precedence_fn(self, module, iter, ctx)?;
             let full_span = InputSpan::from_positions(
                 ctx.heap[left].full_span().begin,
                 ctx.heap[right].full_span().end,
             );
             result = ctx.heap.alloc_binary_expression(|this| BinaryExpression{
                 this, operator_span, full_span, left, operation, right,
                 parent: ExpressionParent::None,
                 type_index: -1,
             }).upcast();
+        }
         Ok(result)
+    }
     #[inline]
     fn consume_expression_list(
         &mut self, module: &Module, iter: &mut TokenIter, ctx: &mut PassCtx, end_pos: Option<&mut InputPosition>

src/protocol/tests/parser_validation.rs

➞

Show inline comments

@@ @@ -407,405 +407,405 @@ fn test_correct_tuple_members() { @@
         .for_field("baz", |f| { f.assert_parser_type("(s8,s16,s32)"); })
         .assert_size_alignment("Foo", 16, 4);
     });
+}
 #[test]
 fn test_incorrect_tuple_member() {
     // Test not really necessary, but hey, what's a test between friends
     Tester::new_single_source_expect_err(
         "unknown tuple member",
         "struct Foo{ (u32, u32, u32, YouThirstySchmoo) field }"
     ).error(|e| { e
         .assert_num(1)
         .assert_msg_has(0, "unknown type")
         .assert_occurs_at(0, "YouThirstySchmoo");
     });
+}
 #[test]
 fn test_correct_tuple_polymorph_args() {
     Tester::new_single_source_expect_ok(
         "single tuple arg",
+        "
         union Option<T>{ Some(T), None }
         func thing() -> u32 {
             auto a = Option<()>::None;
             auto b = Option<(u32, u64)>::None;
             auto c = Option<(Option<(u8, s8)>, Option<(s8, u8)>)>::None;
             return 0;
+        }
+        "
     ).for_union("Option", |u| { u
         .assert_has_monomorph("Option<()>")
         .assert_has_monomorph("Option<(u32,u64)>")
         .assert_has_monomorph("Option<(Option<(u8,s8)>,Option<(s8,u8)>)>")
         .assert_size_alignment("Option<()>", 1, 1, 0, 0)
         .assert_size_alignment("Option<(u32,u64)>", 24, 8, 0, 0) // (u32, u64) becomes size 16, alignment 8. Hence union tag is aligned to 8
         .assert_size_alignment("Option<(Option<(u8,s8)>,Option<(s8,u8)>)>", 7, 1, 0, 0); // inner unions are size 3, alignment 1. Two of those with a tag is size 7
     });
+}
 #[test]
 fn test_incorrect_tuple_polymorph_args() {
     // Do some mismatching brackets. I don't know what else to test
     Tester::new_single_source_expect_err(
         "mismatch angle bracket",
+        "
         union Option<T>{ Some(T), None }
         func f() -> u32 {
             auto a = Option<(u32>)::None;
             return 0;
         }"
     ).error(|e| { e
         .assert_num(2)
         .assert_msg_has(0, "closing '>'").assert_occurs_at(0, ">)::None")
         .assert_msg_has(1, "match this '('").assert_occurs_at(1, "(u32>");
     });
     Tester::new_single_source_expect_err(
         "wrongly placed angle",
+        "
         union O<T>{ S(T), N }
         func f() -> u32 {
             auto a = O<(<u32>)>::None;
             return 0;
+        }
+        "
     ).error(|e| { e
         .assert_num(1)
         .assert_msg_has(0, "expected typename")
         .assert_occurs_at(0, "<u32");
     });
+}
 #[test]
 fn test_incorrect_tuple_member_access() {
     Tester::new_single_source_expect_err(
         "zero-tuple",
         "func foo() -> () { () a = (); auto b = a.0; return a; }"
     ).error(|e| { e
         .assert_num(1)
         .assert_msg_has(0, "out of bounds")
         .assert_occurs_at(0, "a.0");
     });
     // Make the type checker do some shenanigans before we can decide the tuple
     // type.
     Tester::new_single_source_expect_err(
         "sized tuple",
+        "
         func determinator<A,B>((A,B,A) v) -> B { return v.1; }
         func tester() -> u64 {
             auto v = (0,1,2);
             u32 a_u32 = 5;
             v.2 = a_u32;
             v.8 = 5;
             return determinator(v);
+        }
+        "
     ).error(|e| { e
         .assert_num(1)
         .assert_msg_has(0, "out of bounds")
         .assert_occurs_at(0, "v.8");
     });
+}
 #[test]
 fn test_polymorph_array_types() {
     Tester::new_single_source_expect_ok(
         "array of polymorph in struct",
+        "
         struct Foo<T> { T[] hello }
         struct Bar { Foo<u32>[] world }
+        "
     ).for_struct("Bar", |s| { s
         .for_field("world", |f| { f.assert_parser_type("Foo<u32>[]"); });
     });
     Tester::new_single_source_expect_ok(
         "array of port in struct",
+        "
         struct Bar { in<u32>[] inputs }
+        "
     ).for_struct("Bar", |s| { s
         .for_field("inputs", |f| { f.assert_parser_type("in<u32>[]"); });
     });
+}
 #[test]
 fn test_correct_modifying_operators() {
     // Not testing the types, just that it parses
     Tester::new_single_source_expect_ok(
         "valid uses",
+        "
         func f() -> u32 {
             auto a = 5;
             a += 2; a -= 2; a *= 2; a /= 2; a %= 2;
             a <<= 2; a >>= 2;
             a |= 2; a &= 2; a ^= 2;
             return a;
+        }
+        "
     );
+}
 #[test]
 fn test_incorrect_modifying_operators() {
     Tester::new_single_source_expect_err(
         "wrong declaration",
         "func f() -> u8 { auto a += 2; return a; }"
     ).error(|e| { e.assert_msg_has(0, "expected '='"); });
     Tester::new_single_source_expect_err(
         "inside function",
         "func f(u32 a) -> u32 { auto b = 0; auto c = f(a += 2); }"
     ).error(|e| { e.assert_msg_has(0, "assignments are statements"); });
     Tester::new_single_source_expect_err(
         "inside tuple",
         "func f(u32 a) -> u32 { auto b = (a += 2, a /= 2); return 0; }"
     ).error(|e| { e.assert_msg_has(0, "assignments are statements"); });
+}
 #[test]
 fn test_variable_introduction_in_scope() {
     Tester::new_single_source_expect_err(
         "variable use before declaration",
         "func f() -> u8 { return thing; auto thing = 5; }"
     ).error(|e| { e.assert_msg_has(0, "unresolved variable"); });
     Tester::new_single_source_expect_err(
         "variable use in declaration",
         "func f() -> u8 { auto thing = 5 + thing; return thing; }"
     ).error(|e| { e.assert_msg_has(0, "unresolved variable"); });
     Tester::new_single_source_expect_ok(
         "variable use after declaration",
         "func f() -> u8 { auto thing = 5; return thing; }"
     );
     Tester::new_single_source_expect_err(
         "variable use of closed scope",
         "func f() -> u8 { { auto thing = 5; } return thing; }"
     ).error(|e| { e.assert_msg_has(0, "unresolved variable"); });
+}
 #[test]
 fn test_correct_select_statement() {
     Tester::new_single_source_expect_ok(
         "guard variable decl",
+        "
-        primitive f() {
+        comp f() {
             channel<u32> unused -> input;
             u32 outer_value = 0;
             sync select {
                 auto in_same_guard = get(input) -> {} // decl A1
                 auto in_same_gaurd = get(input) -> {} // decl A2
                 auto in_guard_and_block = get(input) -> {} // decl B1
                 outer_value = get(input) -> { auto in_guard_and_block = outer_value; } // decl B2
+            }
+        }
+        "
     );
     Tester::new_single_source_expect_ok(
         "empty select",
-        "primitive f() { sync select {} }"
+        "comp f() { sync select {} }"
     );
     Tester::new_single_source_expect_ok(
         "mixed uses", "
-        primitive f() {
+        comp f() {
             channel unused_output -> input;
             u32 outer_value = 0;
             sync select {
                 outer_value = get(input) -> outer_value = 0;
                 auto new_value = get(input) -> {
                     outer_value = new_value;
+                }
                 get(input) + get(input) ->
                     outer_value = 8;
                 get(input) ->
                     {}
                 outer_value %= get(input) -> {
                     outer_value *= outer_value;
                     auto new_value = get(input);
                     outer_value += new_value;
+                }
+            }
+        }
+        "
     );
+}
 #[test]
 fn test_incorrect_select_statement() {
     Tester::new_single_source_expect_err(
         "outside sync",
-        "primitive f() { select {} }"
+        "comp f() { select {} }"
     ).error(|e| { e
         .assert_num(1)
         .assert_occurs_at(0, "select")
         .assert_msg_has(0, "inside sync blocks");
     });
     Tester::new_single_source_expect_err(
         "variable in previous block",
-        "primitive f() {
+        "comp f() {
             channel<u32> tx -> rx;
             u32 a = 0; // this one will be shadowed
             sync select { auto a = get(rx) -> {} }
         }"
     ).error(|e| { e
         .assert_num(2)
         .assert_occurs_at(0, "a = get").assert_msg_has(0, "variable name conflicts")
         .assert_occurs_at(1, "a = 0").assert_msg_has(1, "Previous variable");
     });
     Tester::new_single_source_expect_err(
         "put inside arm",
-        "primitive f() {
+        "comp f() {
             channel<u32> a -> b;
             sync select { put(a) -> {} }
         }"
     ).error(|e| { e
         .assert_occurs_at(0, "put")
         .assert_msg_has(0, "may not occur");
     });
+}
 #[test]
 fn test_incorrect_goto_statement() {
     Tester::new_single_source_expect_err(
         "goto missing var in same scope",
         "func f() -> u32 {
             goto exit;
             auto v = 5;
             exit: return 0;
         }"
     ).error(|e| { e
         .assert_num(3)
         .assert_occurs_at(0, "exit;").assert_msg_has(0, "skips over a variable")
         .assert_occurs_at(1, "exit:").assert_msg_has(1, "jumps to this label")
         .assert_occurs_at(2, "v = 5").assert_msg_has(2, "skips over this variable");
     });
     Tester::new_single_source_expect_err(
         "goto missing var in outer scope",
         "func f() -> u32 {
             if (true) {
                 goto exit;
+            }
             auto v = 0;
             exit: return 1;
         }"
     ).error(|e| { e
         .assert_num(3)
         .assert_occurs_at(0, "exit;").assert_msg_has(0, "skips over a variable")
         .assert_occurs_at(1, "exit:").assert_msg_has(1, "jumps to this label")
         .assert_occurs_at(2, "v = 0").assert_msg_has(2, "skips over this variable");
     });
     Tester::new_single_source_expect_err(
         "goto jumping into scope",
         "func f() -> u32 {
             goto nested;
+            {
                 nested: return 0;
+            }
             return 1;
         }"
     ).error(|e| { e
         .assert_num(1)
         .assert_occurs_at(0, "nested;")
         .assert_msg_has(0, "could not find this label");
     });
     Tester::new_single_source_expect_err(
         "goto jumping outside sync",
-        "primitive f() {
+        "comp f() {
             sync { goto exit; }
             exit: u32 v = 0;
         }"
     ).error(|e| { e
         .assert_num(3)
         .assert_occurs_at(0, "goto exit;").assert_msg_has(0, "not escape the surrounding sync")
         .assert_occurs_at(1, "exit: u32 v").assert_msg_has(1, "target of the goto")
         .assert_occurs_at(2, "sync {").assert_msg_has(2, "jump past this");
     });
     Tester::new_single_source_expect_err(
         "goto jumping to select case",
-        "primitive f(in<u32> i) {
+        "comp f(in<u32> i) {
             sync select {
                 hello: auto a = get(i) -> i += 1
+            }
             goto hello;
         }"
     ).error(|e| { e
         .assert_msg_has(0, "expected '->'");
     });
     Tester::new_single_source_expect_err(
         "goto jumping into select case skipping variable",
-        "primitive f(in<u32> i) {
+        "comp f(in<u32> i) {
             goto waza;
             sync select {
                 auto a = get(i) -> {
                     waza: a += 1;
+                }
+            }
         }"
     ).error(|e| { e
         .assert_num(1)
         .assert_msg_has(0, "not find this label")
         .assert_occurs_at(0, "waza;");
     });
+}
 #[test]
 fn test_incorrect_while_statement() {
     // Just testing the error cases caught at compile-time. Other ones need
     // evaluation testing
     Tester::new_single_source_expect_err(
         "break wrong earlier loop",
         "func f() -> u32 {
             target: while (true) {}
             while (true) { break target; }
             return 0;
         }"
     ).error(|e| { e
         .assert_num(2)
         .assert_occurs_at(0, "target; }").assert_msg_has(0, "not nested under the target")
         .assert_occurs_at(1, "target: while").assert_msg_has(1, "is found here");
     });
     Tester::new_single_source_expect_err(
         "break wrong later loop",
         "func f() -> u32 {
             while (true) { break target; }
             target: while (true) {}
             return 0;
         }"
     ).error(|e| { e
         .assert_num(2)
         .assert_occurs_at(0, "target; }").assert_msg_has(0, "not nested under the target")
         .assert_occurs_at(1, "target: while").assert_msg_has(1, "is found here");
     });
     Tester::new_single_source_expect_err(
         "break outside of sync",
-        "primitive f() {
+        "comp f() {
             outer: while (true) { //mark
                 sync while(true) { break outer; }
+            }
         }"
     ).error(|e| { e
         .assert_num(3)
         .assert_occurs_at(0, "break outer;").assert_msg_has(0, "may not escape the surrounding")
         .assert_occurs_at(1, "while (true) { //mark").assert_msg_has(1, "escapes out of this loop")
         .assert_occurs_at(2, "sync while").assert_msg_has(2, "escape this synchronous block");
     });
+}
@@ \ No newline at end of file @@

src/runtime/tests/api_component.rs

➞

Show inline comments

 // Testing the api component.
 //
 // These tests explicitly do not use the "NUM_INSTANCES" constant because we're
 // doing some communication with the native component. Hence only expect one
 use super::*;
 #[test]
 fn test_put_and_get() {
     const CODE: &'static str = "
-    primitive handler(in<u32> request, out<u32> response, u32 loops) {
+    comp handler(in<u32> request, out<u32> response, u32 loops) {
         u32 index = 0;
         while (index < loops) {
             sync {
                 auto value = get(request);
                 put(response, value * 2);
+            }
             index += 1;
+        }
+    }
     ";
     let pd = ProtocolDescription::parse(CODE.as_bytes()).unwrap();
     let rt = Runtime::new(NUM_THREADS, pd);
     let mut api = rt.create_interface();
     let req_chan = api.create_channel().unwrap();
     let resp_chan = api.create_channel().unwrap();
     api.create_connector("", "handler", ValueGroup::new_stack(vec![
         Value::Input(PortId::new(req_chan.getter_id.index)),
         Value::Output(PortId::new(resp_chan.putter_id.index)),
         Value::UInt32(NUM_LOOPS),
     ])).unwrap();
     for loop_idx in 0..NUM_LOOPS {
         api.perform_sync_round(vec![
             ApplicationSyncAction::Put(req_chan.putter_id, ValueGroup::new_stack(vec![Value::UInt32(loop_idx)])),
             ApplicationSyncAction::Get(resp_chan.getter_id)
         ]).expect("start sync round");
         let result = api.wait().expect("finish sync round");
         assert!(result.len() == 1);
         if let Value::UInt32(gotten) = result[0].values[0] {
             assert_eq!(gotten, loop_idx * 2);
         } else {
             assert!(false);
+        }
+    }
+}
 #[test]
 fn test_getting_from_component() {
     const CODE: &'static str ="
-    primitive loop_sender(out<u32> numbers, u32 cur, u32 last) {
+    comp loop_sender(out<u32> numbers, u32 cur, u32 last) {
         while (cur < last) {
             sync {
                 put(numbers, cur);
                 cur += 1;
+            }
+        }
     }";
     let pd = ProtocolDescription::parse(CODE.as_bytes()).unwrap();
     let rt = Runtime::new(NUM_THREADS, pd);
     let mut api = rt.create_interface();
     let channel = api.create_channel().unwrap();
     api.create_connector("", "loop_sender", ValueGroup::new_stack(vec![
         Value::Output(PortId::new(channel.putter_id.index)),
         Value::UInt32(1337),
         Value::UInt32(1337 + NUM_LOOPS)
     ])).unwrap();
     for loop_idx in 0..NUM_LOOPS {
         api.perform_sync_round(vec![
             ApplicationSyncAction::Get(channel.getter_id),
         ]).expect("start sync round");
         let result = api.wait().expect("finish sync round");
         assert!(result.len() == 1 && result[0].values.len() == 1);
         if let Value::UInt32(gotten) = result[0].values[0] {
             assert_eq!(gotten, 1337 + loop_idx);
         } else {
             assert!(false);
+        }
+    }
+}
 #[test]
 fn test_putting_to_component() {
     const CODE: &'static str = "
-    primitive loop_receiver(in<u32> numbers, u32 cur, u32 last) {
+    comp loop_receiver(in<u32> numbers, u32 cur, u32 last) {
         while (cur < last) {
             sync {
                 auto number = get(numbers);
                 assert(number == cur);
                 cur += 1;
+            }
+        }
+    }
     ";
     let pd = ProtocolDescription::parse(CODE.as_bytes()).unwrap();
     let rt = Runtime::new(NUM_THREADS, pd);
     let mut api = rt.create_interface();
     let channel = api.create_channel().unwrap();
     api.create_connector("", "loop_receiver", ValueGroup::new_stack(vec![
         Value::Input(PortId::new(channel.getter_id.index)),
         Value::UInt32(42),
         Value::UInt32(42 + NUM_LOOPS)
     ])).unwrap();
     for loop_idx in 0..NUM_LOOPS {
         api.perform_sync_round(vec![
             ApplicationSyncAction::Put(channel.putter_id, ValueGroup::new_stack(vec![Value::UInt32(42 + loop_idx)])),
         ]).expect("start sync round");
         // Note: if we finish a round, then it must have succeeded :)
         api.wait().expect("finish sync round");
+    }
+}
 #[test]
 fn test_doing_nothing() {
     const CODE: &'static str = "
-    primitive getter(in<bool> input, u32 num_loops) {
+    comp getter(in<bool> input, u32 num_loops) {
         u32 index = 0;
         while (index < num_loops) {
             sync {}
             sync { auto res = get(input); assert(res); }
             index += 1;
+        }
+    }
     ";
     let pd = ProtocolDescription::parse(CODE.as_bytes()).unwrap();
     let rt = Runtime::new(NUM_THREADS, pd);
     let mut api = rt.create_interface();
     let channel = api.create_channel().unwrap();
     api.create_connector("", "getter", ValueGroup::new_stack(vec![
         Value::Input(PortId::new(channel.getter_id.index)),
         Value::UInt32(NUM_LOOPS),
     ])).unwrap();
     for _ in 0..NUM_LOOPS {
         api.perform_sync_round(vec![]).expect("start silent sync round");
         api.wait().expect("finish silent sync round");
         api.perform_sync_round(vec![
             ApplicationSyncAction::Put(channel.putter_id, ValueGroup::new_stack(vec![Value::Bool(true)]))
         ]).expect("start firing sync round");
         let res = api.wait().expect("finish firing sync round");
         assert!(res.is_empty());
+    }
+}
@@ \ No newline at end of file @@

src/runtime/tests/data_transmission.rs

➞

Show inline comments

 // basics.rs
 //
 // The most basic of testing: sending a message, receiving a message, etc.
 use super::*;
 #[test]
 fn test_doing_nothing() {
     // If this thing does not get into an infinite loop, (hence: the runtime
     // exits), then the test works
     const CODE: &'static str ="
-    primitive silent_willy(u32 loops) {
+    comp silent_willy(u32 loops) {
         u32 index = 0;
         while (index < loops) {
             sync { index += 1; }
+        }
+    }
     ";
     let _timer = TestTimer::new("doing_nothing");
     run_test_in_runtime(CODE, |api| {
         api.create_connector("", "silent_willy", ValueGroup::new_stack(vec![
             Value::UInt32(NUM_LOOPS),
         ])).expect("create component");
     });
+}
 #[test]
 fn test_single_put_and_get() {
     const CODE: &'static str = "
-    primitive putter(out<bool> sender, u32 loops) {
+    comp putter(out<bool> sender, u32 loops) {
         u32 index = 0;
         while (index < loops) {
             sync {
                 put(sender, true);
+            }
             index += 1;
+        }
+    }
-    primitive getter(in<bool> receiver, u32 loops) {
+    comp getter(in<bool> receiver, u32 loops) {
         u32 index = 0;
         while (index < loops) {
             sync {
                 auto result = get(receiver);
                 assert(result);
+            }
             index += 1;
+        }
+    }
     ";
     let _timer = TestTimer::new("single_put_and_get");
     run_test_in_runtime(CODE, |api| {
         let channel = api.create_channel().unwrap();
         api.create_connector("", "putter", ValueGroup::new_stack(vec![
             Value::Output(PortId::new(channel.putter_id.index)),
             Value::UInt32(NUM_LOOPS)
         ])).expect("create putter");
         api.create_connector("", "getter", ValueGroup::new_stack(vec![
             Value::Input(PortId::new(channel.getter_id.index)),
             Value::UInt32(NUM_LOOPS)
         ])).expect("create getter");
     });
+}
 #[test]
 fn test_combined_put_and_get() {
     const CODE: &'static str = "
-    primitive put_then_get(out<bool> output, in<bool> input, u32 num_loops) {
+    comp put_then_get(out<bool> output, in<bool> input, u32 num_loops) {
         u32 index = 0;
         while (index < num_loops) {
             sync {
                 put(output, true);
                 auto value = get(input);
                 assert(value);
                 index += 1;
+            }
+        }
+    }
-    composite constructor(u32 num_loops) {
+    comp constructor(u32 num_loops) {
         channel output_a -> input_a;
         channel output_b -> input_b;
         new put_then_get(output_a, input_b, num_loops);
         new put_then_get(output_b, input_a, num_loops);
+    }
     ";
     run_test_in_runtime(CODE, |api| {
         api.create_connector("", "constructor", ValueGroup::new_stack(vec![
             Value::UInt32(NUM_LOOPS),
         ])).expect("create connector");
     })
+}
 #[test]
 fn test_multi_put_and_get() {
     const CODE: &'static str = "
-    primitive putter_static(out<u8> vals, u32 num_loops) {
+    comp putter_static(out<u8> vals, u32 num_loops) {
         u32 index = 0;
         while (index < num_loops) {
             sync {
                 put(vals, 0b00000001);
                 put(vals, 0b00000100);
                 put(vals, 0b00010000);
                 put(vals, 0b01000000);
+            }
             index += 1;
+        }
+    }
-    primitive getter_dynamic(in<u8> vals, u32 num_loops) {
+    comp getter_dynamic(in<u8> vals, u32 num_loops) {
         u32 loop_index = 0;
         while (loop_index < num_loops) {
             sync {
                 u32 recv_index = 0;
                 u8 expected = 1;
                 while (recv_index < 4) {
                     auto gotten = get(vals);
                     assert(gotten == expected);
                     expected <<= 2;
                     recv_index += 1;
+                }
+            }
             loop_index += 1;
+        }
+    }
     ";
     let _timer = TestTimer::new("multi_put_and_get");
     run_test_in_runtime(CODE, |api| {
         let channel = api.create_channel().unwrap();
         api.create_connector("", "putter_static", ValueGroup::new_stack(vec![
             Value::Output(PortId::new(channel.putter_id.index)),
             Value::UInt32(NUM_LOOPS),
         ])).unwrap();
         api.create_connector("", "getter_dynamic", ValueGroup::new_stack(vec![
             Value::Input(PortId::new(channel.getter_id.index)),
             Value::UInt32(NUM_LOOPS),
         ])).unwrap();
     })
+}
@@ \ No newline at end of file @@

src/runtime/tests/network_shapes.rs

➞

Show inline comments

 // Testing particular graph shapes
 use super::*;
 #[test]
 fn test_star_shaped_request() {
     const CODE: &'static str = "
-    primitive edge(in<u32> input, out<u32> output, u32 loops) {
+    comp edge(in<u32> input, out<u32> output, u32 loops) {
         u32 index = 0;
         while (index < loops) {
             sync {
                 auto req = get(input);
                 put(output, req * 2);
+            }
             index += 1;
+        }
+    }
-    primitive center(out<u32>[] requests, in<u32>[] responses, u32 loops) {
+    comp center(out<u32>[] requests, in<u32>[] responses, u32 loops) {
         u32 loop_index = 0;
         auto num_edges = length(requests);
         while (loop_index < loops) {
             // print(\"starting loop\");
             sync {
                 u32 edge_index = 0;
                 u32 sum = 0;
                 while (edge_index < num_edges) {
                     put(requests[edge_index], edge_index);
                     auto response = get(responses[edge_index]);
                     sum += response;
                     edge_index += 1;
+                }
                 assert(sum == num_edges * (num_edges - 1));
+            }
             // print(\"ending loop\");
             loop_index += 1;
+        }
+    }
-    composite constructor(u32 num_edges, u32 num_loops) {
+    comp constructor(u32 num_edges, u32 num_loops) {
         auto requests = {};
         auto responses = {};
         u32 edge_index = 0;
         while (edge_index < num_edges) {
             channel req_put -> req_get;
             channel resp_put -> resp_get;
             new edge(req_get, resp_put, num_loops);
             requests @= { req_put };
             responses @= { resp_get };
             edge_index += 1;
+        }
         new center(requests, responses, num_loops);
+    }
     ";
     let _timer = TestTimer::new("star_shaped_request");
     run_test_in_runtime(CODE, |api| {
         api.create_connector("", "constructor", ValueGroup::new_stack(vec![
             Value::UInt32(5),
             Value::UInt32(NUM_LOOPS),
         ])).expect("create connector");
     });
+}
 #[test]
 fn test_conga_line_request() {
     const CODE: &'static str = "
-    primitive start(out<u32> req, in<u32> resp, u32 num_nodes, u32 num_loops) {
+    comp start(out<u32> req, in<u32> resp, u32 num_nodes, u32 num_loops) {
         u32 loop_index = 0;
         u32 initial_value = 1337;
         while (loop_index < num_loops) {
             sync {
                 put(req, initial_value);
                 auto result = get(resp);
                 assert(result == initial_value + num_nodes * 2);
+            }
             loop_index += 1;
+        }
+    }
-    primitive middle(
+    comp middle(
         in<u32> req_in, out<u32> req_forward,
         in<u32> resp_in, out<u32> resp_forward,
         u32 num_loops
     ) {
         u32 loop_index = 0;
         while (loop_index < num_loops) {
             sync {
                 auto req = get(req_in);
                 put(req_forward, req + 1);
                 auto resp = get(resp_in);
                 put(resp_forward, resp + 1);
+            }
             loop_index += 1;
+        }
+    }
-    primitive end(in<u32> req_in, out<u32> resp_out, u32 num_loops) {
+    comp end(in<u32> req_in, out<u32> resp_out, u32 num_loops) {
         u32 loop_index = 0;
         while (loop_index < num_loops) {
             sync {
                 auto req = get(req_in);
                 put(resp_out, req);
+            }
             loop_index += 1;
+        }
+    }
-    composite constructor(u32 num_nodes, u32 num_loops) {
+    comp constructor(u32 num_nodes, u32 num_loops) {
         channel initial_req -> req_in;
         channel resp_out -> final_resp;
         new start(initial_req, final_resp, num_nodes, num_loops);
         in<u32> last_req_in = req_in;
         out<u32> last_resp_out = resp_out;
         u32 node = 0;
         while (node < num_nodes) {
             channel new_req_fw -> new_req_in;
             channel new_resp_out -> new_resp_in;
             new middle(last_req_in, new_req_fw, new_resp_in, last_resp_out, num_loops);
             last_req_in = new_req_in;
             last_resp_out = new_resp_out;
             node += 1;
+        }
         new end(last_req_in, last_resp_out, num_loops);
+    }
     ";
     let _timer = TestTimer::new("conga_line_request");
     run_test_in_runtime(CODE, |api| {
         api.create_connector("", "constructor", ValueGroup::new_stack(vec![
             Value::UInt32(1),
             Value::UInt32(NUM_LOOPS)
         ])).expect("create connector");
     });
+}
@@ \ No newline at end of file @@

src/runtime/tests/speculation.rs

➞

Show inline comments

 // Testing speculation - Basic forms
 use super::*;
 #[test]
 fn test_maybe_do_nothing() {
     // Three variants in which the behaviour in which nothing is performed is
     // somehow not allowed. Note that we "check" by seeing if the test finishes.
     // Only the branches in which ports fire increment the loop index
     const CODE: &'static str = "
-    primitive only_puts(out<bool> output, u32 num_loops) {
+    comp only_puts(out<bool> output, u32 num_loops) {
         u32 index = 0;
         while (index < num_loops) {
             sync { put(output, true); }
             index += 1;
+        }
+    }
-    primitive might_put(out<bool> output, u32 num_loops) {
+    comp might_put(out<bool> output, u32 num_loops) {
         u32 index = 0;
         while (index < num_loops) {
             sync {
                 fork { put(output, true); index += 1; }
                 or   {}
+            }
+        }
+    }
-    primitive only_gets(in<bool> input, u32 num_loops) {
+    comp only_gets(in<bool> input, u32 num_loops) {
         u32 index = 0;
         while (index < num_loops) {
             sync { auto res = get(input); assert(res); }
             index += 1;
+        }
+    }
-    primitive might_get(in<bool> input, u32 num_loops) {
+    comp might_get(in<bool> input, u32 num_loops) {
         u32 index = 0;
         while (index < num_loops) {
             sync fork { auto res = get(input); assert(res); index += 1; } or {}
+        }
+    }
     ";
     // Construct all variants which should work and wait until the runtime exits
     run_test_in_runtime(CODE, |api| {
         // only putting -> maybe getting
         let channel = api.create_channel().unwrap();
         api.create_connector("", "only_puts", ValueGroup::new_stack(vec![
             Value::Output(PortId::new(channel.putter_id.index)),
             Value::UInt32(NUM_LOOPS),
         ])).unwrap();
         api.create_connector("", "might_get", ValueGroup::new_stack(vec![
             Value::Input(PortId::new(channel.getter_id.index)),
             Value::UInt32(NUM_LOOPS),
         ])).unwrap();
         // maybe putting -> only getting
         let channel = api.create_channel().unwrap();
         api.create_connector("", "might_put", ValueGroup::new_stack(vec![
             Value::Output(PortId::new(channel.putter_id.index)),
             Value::UInt32(NUM_LOOPS),
         ])).unwrap();
         api.create_connector("", "only_gets", ValueGroup::new_stack(vec![
             Value::Input(PortId::new(channel.getter_id.index)),
             Value::UInt32(NUM_LOOPS),
         ])).unwrap();
     })
+}
@@ \ No newline at end of file @@

src/runtime/tests/sync_failure.rs

➞

Show inline comments

 // sync_failure.rs
 //
 // Various tests to ensure that failing components fail in a consistent way.
 use super::*;
 #[test]
 fn test_local_sync_failure() {
     // If the component exits cleanly, then the runtime exits cleanly, and the
     // test will finish
     const CODE: &'static str = "
-    primitive immediate_failure_inside_sync() {
+    comp immediate_failure_inside_sync() {
         u32[] only_allows_index_0 = { 1 };
         while (true) sync { // note the infinite loop
             auto value = only_allows_index_0[1];
+        }
+    }
-    primitive immediate_failure_outside_sync() {
+    comp immediate_failure_outside_sync() {
         u32[] only_allows_index_0 = { 1 };
         auto never_gonna_get = only_allows_index_0[1];
         while (true) sync {}
+    }
     ";
     // let thing = TestTimer::new("local_sync_failure");
     run_test_in_runtime(CODE, |api| {
         api.create_connector("", "immediate_failure_outside_sync", ValueGroup::new_stack(Vec::new()))
             .expect("create component");
         api.create_connector("", "immediate_failure_inside_sync", ValueGroup::new_stack(Vec::new()))
             .expect("create component");
     })
+}
 const SHARED_SYNC_CODE: &'static str = "
 enum Location { BeforeSync, AfterPut, AfterGet, AfterSync, Never }
-primitive failing_at_location(in<bool> input, out<bool> output, Location loc) {
+comp failing_at_location(in<bool> input, out<bool> output, Location loc) {
     u32[] failure_array = {};
     while (true) {
         if (loc == Location::BeforeSync) failure_array[0];
         sync {
             put(output, true);
             if (loc == Location::AfterPut) failure_array[0];
             auto received = get(input);
             assert(received);
             if (loc == Location::AfterGet) failure_array[0];
+        }
         if (loc == Location::AfterSync) failure_array[0];
+    }
+}
-composite constructor_pair_a(Location loc) {
+comp constructor_pair_a(Location loc) {
     channel output_a -> input_a;
     channel output_b -> input_b;
     new failing_at_location(input_b, output_a, loc);
     new failing_at_location(input_a, output_b, Location::Never);
+}
-composite constructor_pair_b(Location loc) {
+comp constructor_pair_b(Location loc) {
     channel output_a -> input_a;
     channel output_b -> input_b;
     new failing_at_location(input_b, output_a, Location::Never);
     new failing_at_location(input_a, output_b, loc);
+}
-composite constructor_ring(u32 ring_size, u32 fail_a, Location loc_a, u32 fail_b, Location loc_b) {
+comp constructor_ring(u32 ring_size, u32 fail_a, Location loc_a, u32 fail_b, Location loc_b) {
     channel output_first -> input_old;
     channel output_cur -> input_new;
     u32 ring_index = 0;
     while (ring_index < ring_size) {
         auto cur_loc = Location::Never;
         if (ring_index == fail_a) cur_loc = loc_a;
         if (ring_index == fail_b) cur_loc = loc_b;
         new failing_at_location(input_old, output_cur, cur_loc);
         if (ring_index == ring_size - 2) {
             // Don't create a new channel, join up the last one
             output_cur = output_first;
             input_old = input_new;
         } else if (ring_index != ring_size - 1) {
             channel output_fresh -> input_fresh;
             input_old = input_new;
             output_cur = output_fresh;
             input_new = input_fresh;
+        }
         ring_index += 1;
+    }
+}
 ";
 #[test]
 fn test_shared_sync_failure_pair_variant_a() {
     // One fails, the other one should somehow detect it and fail as well. This
     // variant constructs the failing component first.
     run_test_in_runtime(SHARED_SYNC_CODE, |api| {
         for variant in 0..4 { // all `Location` enum variants, except `Never`.
             // Create the channels
             api.create_connector("", "constructor_pair_a", ValueGroup::new_stack(vec![
                 Value::Enum(variant)
             ])).expect("create connector");
+        }
     })
+}
 #[test]
 fn test_shared_sync_failure_pair_variant_b() {
     // One fails, the other one should somehow detect it and fail as well. This
     // variant constructs the successful component first.
     run_test_in_runtime(SHARED_SYNC_CODE, |api| {
         for variant in 0..4 {
             api.create_connector("", "constructor_pair_b", ValueGroup::new_stack(vec![
                 Value::Enum(variant)
             ])).expect("create connector");
+        }
     })
+}
 #[test]
 fn test_shared_sync_failure_ring_variant_a() {
     // Only one component in the ring should fail
     const RING_SIZE: u32 = 4;
     run_test_in_runtime(SHARED_SYNC_CODE, |api| {
         for variant in 0..4 {
             api.create_connector("", "constructor_ring", ValueGroup::new_stack(vec![
                 Value::UInt32(RING_SIZE),
                 Value::UInt32(RING_SIZE / 2), Value::Enum(variant), // fail "halfway" the ring
                 Value::UInt32(RING_SIZE), Value::Enum(0), // never occurs, index is equal to ring size
             ])).expect("create connector");
+        }
     })
+}
@@ \ No newline at end of file @@

src/runtime2/component/component.rs

➞

Show inline comments

@@ @@ -546,385 +546,384 @@ pub(crate) fn default_handle_control_message( @@
     inbox_main: &mut InboxMain, inbox_backup: &mut InboxBackup
 ) -> Result<(), (PortInstruction, String)> {
     match message.content {
         ControlMessageContent::Ack => {
             default_handle_ack(exec_state, control, message.id, sched_ctx, comp_ctx, consensus, inbox_main, inbox_backup)?;
         },
         ControlMessageContent::BlockPort => {
             // One of our messages was accepted, but the port should be
             // blocked.
             let port_to_block = message.target_port_id.unwrap();
             let port_handle = comp_ctx.get_port_handle(port_to_block);
             let port_info = comp_ctx.get_port_mut(port_handle);
             debug_assert_eq!(port_info.kind, PortKind::Putter);
             port_info.state.set(PortStateFlag::BlockedDueToFullBuffers);
         },
         ControlMessageContent::ClosePort(content) => {
             // Request to close the port. We immediately comply and remove
             // the component handle as well
             let port_to_close = message.target_port_id.unwrap();
             let port_handle = comp_ctx.get_port_handle(port_to_close);
             // We're closing the port, so we will always update the peer of the
             // port (in case of error messages)
             let port_info = comp_ctx.get_port_mut(port_handle);
             port_info.peer_comp_id = message.sender_comp_id;
             port_info.close_at_sync_end = true; // might be redundant (we might set it closed now)
             let peer_comp_id = port_info.peer_comp_id;
             let peer_handle = comp_ctx.get_peer_handle(peer_comp_id);
             // One exception to sending an `Ack` is if we just closed the
             // port ourselves, meaning that the `ClosePort` messages got
             // sent to one another.
             if let Some(control_id) = control.has_close_port_entry(port_handle, comp_ctx) {
                 // The two components (sender and this component) are closing
                 // the channel at the same time. So we don't care about the
                 // content of the `ClosePort` message.
                 default_handle_ack(exec_state, control, control_id, sched_ctx, comp_ctx, consensus, inbox_main, inbox_backup)?;
             } else {
                 // Respond to the message
                 let port_info = comp_ctx.get_port(port_handle);
                 let last_instruction = port_info.last_instruction;
                 let port_has_had_message = port_info.received_message_for_sync;
                 default_send_ack(message.id, peer_handle, sched_ctx, comp_ctx);
                 comp_ctx.change_port_peer(sched_ctx, port_handle, None);
                 // Handle any possible error conditions (which boil down to: the
                 // port has been used, but the peer has died). If not in sync
                 // mode then we close the port immediately.
                 // Note that `port_was_used` does not mean that any messages
                 // were actually received. It might also mean that e.g. the
                 // component attempted a `get`, but there were no messages, so
                 // now it is in the `BlockedGet` state.
                 let port_was_used = last_instruction != PortInstruction::None;
                 if exec_state.mode.is_in_sync_block() {
                     let closed_during_sync_round = content.closed_in_sync_round && port_was_used;
                     let closed_before_sync_round = !content.closed_in_sync_round && !port_has_had_message && port_was_used;
                     if closed_during_sync_round || closed_before_sync_round {
                         return Err((
                             last_instruction,
                             format!("Peer component (id:{}) shut down, so communication cannot (have) succeed(ed)", peer_comp_id.0)
                         ));
+                    }
                 } else {
                     let port_info = comp_ctx.get_port_mut(port_handle);
                     port_info.state.set(PortStateFlag::Closed);
+                }
+            }
         },
         ControlMessageContent::UnblockPort => {
             // We were previously blocked (or already closed)
             let port_to_unblock = message.target_port_id.unwrap();
             let port_handle = comp_ctx.get_port_handle(port_to_unblock);
             let port_info = comp_ctx.get_port_mut(port_handle);
             debug_assert_eq!(port_info.kind, PortKind::Putter);
             debug_assert!(port_info.state.is_set(PortStateFlag::BlockedDueToFullBuffers));
             port_info.state.clear(PortStateFlag::BlockedDueToFullBuffers);
             default_handle_recently_unblocked_port(
                 exec_state, control, consensus, port_handle, sched_ctx,
                 comp_ctx, inbox_main, inbox_backup
             )?;
         },
         ControlMessageContent::PortPeerChangedBlock => {
             // The peer of our port has just changed. So we are asked to
             // temporarily block the port (while our original recipient is
             // potentially rerouting some of the in-flight messages) and
             // Ack. Then we wait for the `unblock` call.
             let port_to_change = message.target_port_id.unwrap();
             let port_handle = comp_ctx.get_port_handle(port_to_change);
             let port_info = comp_ctx.get_port_mut(port_handle);
             let peer_comp_id = port_info.peer_comp_id;
             port_info.state.set(PortStateFlag::BlockedDueToPeerChange);
             let peer_handle = comp_ctx.get_peer_handle(peer_comp_id);
             default_send_ack(message.id, peer_handle, sched_ctx, comp_ctx);
         },
         ControlMessageContent::PortPeerChangedUnblock(new_port_id, new_comp_id) => {
             let port_to_change = message.target_port_id.unwrap();
             let port_handle = comp_ctx.get_port_handle(port_to_change);
             let port_info = comp_ctx.get_port(port_handle);
             debug_assert!(port_info.state.is_set(PortStateFlag::BlockedDueToPeerChange));
             let port_info = comp_ctx.get_port_mut(port_handle);
             port_info.peer_port_id = new_port_id;
             port_info.state.clear(PortStateFlag::BlockedDueToPeerChange);
             comp_ctx.change_port_peer(sched_ctx, port_handle, Some(new_comp_id));
             default_handle_recently_unblocked_port(
                 exec_state, control, consensus, port_handle, sched_ctx,
                 comp_ctx, inbox_main, inbox_backup
             )?;
+        }
+    }
     return Ok(());
+}
 /// Handles a component entering the synchronous block. Will ensure that the
 /// `Consensus` and the `ComponentCtx` are initialized properly.
 pub(crate) fn default_handle_sync_start(
     exec_state: &mut CompExecState, inbox_main: &mut InboxMainRef,
     sched_ctx: &SchedulerCtx, comp_ctx: &mut CompCtx, consensus: &mut Consensus
 ) {
     sched_ctx.info("Component starting sync mode");
     // If any messages are present for this sync round, set the appropriate flag
     // and notify the consensus handler of the present messages
     consensus.notify_sync_start(comp_ctx);
     for (port_index, message) in inbox_main.iter().enumerate() {
         if let Some(message) = message {
             consensus.handle_incoming_data_message(comp_ctx, message);
             let port_info = comp_ctx.get_port_by_index_mut(port_index);
             port_info.received_message_for_sync = true;
+        }
+    }
     // Modify execution state
     debug_assert_eq!(exec_state.mode, CompMode::NonSync);
     exec_state.mode = CompMode::Sync;
+}
 /// Handles a component that has reached the end of the sync block. This does
 /// not necessarily mean that the component will go into the `NonSync` mode, as
 /// it might have to wait for the leader to finish the round for everyone (see
 /// `default_handle_sync_decision`)
 pub(crate) fn default_handle_sync_end(
     exec_state: &mut CompExecState, sched_ctx: &SchedulerCtx, comp_ctx: &mut CompCtx,
     consensus: &mut Consensus
 ) {
     sched_ctx.info("Component ending sync mode (but possibly waiting for a solution)");
     debug_assert_eq!(exec_state.mode, CompMode::Sync);
     let decision = consensus.notify_sync_end_success(sched_ctx, comp_ctx);
     exec_state.mode = CompMode::SyncEnd;
     default_handle_sync_decision(sched_ctx, exec_state, comp_ctx, decision, consensus);
+}
 /// Handles a component initiating the exiting procedure, and closing all of its
 /// ports. Should only be called once per component (which is ensured by
 /// checking and modifying the mode in the execution state).
 #[must_use]
 pub(crate) fn default_handle_start_exit(
     exec_state: &mut CompExecState, control: &mut ControlLayer,
     sched_ctx: &SchedulerCtx, comp_ctx: &mut CompCtx, consensus: &mut Consensus
 ) -> CompScheduling {
     debug_assert_eq!(exec_state.mode, CompMode::StartExit);
     for port_index in 0..comp_ctx.num_ports() {
         let port_info = comp_ctx.get_port_by_index_mut(port_index);
         if port_info.state.is_blocked() {
             return CompScheduling::Sleep;
+        }
+    }
     sched_ctx.info(&format!("Component starting exit (reason: {:?})", exec_state.exit_reason));
     exec_state.mode = CompMode::BusyExit;
     let exit_inside_sync = exec_state.exit_reason.is_in_sync();
     // If exiting while inside sync mode, report to the leader of the current
     // round that we've failed.
     if exit_inside_sync {
         let decision = consensus.notify_sync_end_failure(sched_ctx, comp_ctx);
         default_handle_sync_decision(sched_ctx, exec_state, comp_ctx, decision, consensus);
+    }
     // Iterating over ports by index to work around borrowing rules
     for port_index in 0..comp_ctx.num_ports() {
         let port = comp_ctx.get_port_by_index_mut(port_index);
         println!("DEBUG: Considering port:\n{:?}", port);
         if port.state.is_closed() || port.state.is_set(PortStateFlag::Transmitted) || port.close_at_sync_end {
             // Already closed, or in the process of being closed
             continue;
+        }
         // Mark as closed
         let port_id = port.self_id;
         port.state.set(PortStateFlag::Closed);
         // Notify peer of closing
         let port_handle = comp_ctx.get_port_handle(port_id);
         let (peer, message) = control.initiate_port_closing(port_handle, exit_inside_sync, comp_ctx);
         let peer_info = comp_ctx.get_peer(peer);
         peer_info.handle.send_message_logged(sched_ctx, Message::Control(message), true);
+    }
     return CompScheduling::Immediate; // to check if we can shut down immediately
+}
 /// Handles a component waiting until all peers are notified that it is quitting
 /// (i.e. after calling `default_handle_start_exit`).
 #[must_use]
 pub(crate) fn default_handle_busy_exit(
     exec_state: &mut CompExecState, control: &ControlLayer,
     sched_ctx: &SchedulerCtx
 ) -> CompScheduling {
     debug_assert_eq!(exec_state.mode, CompMode::BusyExit);
     if control.has_acks_remaining() {
         sched_ctx.info("Component busy exiting, still has `Ack`s remaining");
         return CompScheduling::Sleep;
     } else {
         sched_ctx.info("Component busy exiting, now shutting down");
         exec_state.mode = CompMode::Exit;
         return CompScheduling::Exit;
+    }
+}
 /// Handles a potential synchronous round decision. If there was a decision then
 /// the `Some(success)` value indicates whether the round succeeded or not.
 /// Might also end up changing the `ExecState`.
 ///
 /// Might be called in two cases:
 /// 1. The component is in regular execution mode, at the end of a sync round,
 ///     and is waiting for a solution to the round.
 /// 2. The component has encountered an error during a sync round and is
 ///     exiting, hence is waiting for a "Failure" message from the leader.
 pub(crate) fn default_handle_sync_decision(
     sched_ctx: &SchedulerCtx, exec_state: &mut CompExecState, comp_ctx: &mut CompCtx,
     decision: SyncRoundDecision, consensus: &mut Consensus
 ) -> Option<bool> {
     let success = match decision {
         SyncRoundDecision::None => return None,
         SyncRoundDecision::Solution => true,
         SyncRoundDecision::Failure => false,
     };
     debug_assert!(
         exec_state.mode == CompMode::SyncEnd || (
             exec_state.mode.is_busy_exiting() && exec_state.exit_reason.is_error()
         ) || (
             exec_state.mode.is_in_sync_block() && decision == SyncRoundDecision::Failure
+        )
     );
     sched_ctx.info(&format!("Handling decision {:?} (in mode: {:?})", decision, exec_state.mode));
     consensus.notify_sync_decision(decision);
     if success {
         // We cannot get a success message if the component has encountered an
         // error.
         for port_index in 0..comp_ctx.num_ports() {
             let port_info = comp_ctx.get_port_by_index_mut(port_index);
             if port_info.close_at_sync_end {
                 port_info.state.set(PortStateFlag::Closed);
+            }
             port_info.state.clear(PortStateFlag::Received);
+        }
         debug_assert_eq!(exec_state.mode, CompMode::SyncEnd);
         exec_state.mode = CompMode::NonSync;
         return Some(true);
     } else {
         // We may get failure both in all possible cases. But we should only
         // modify the execution state if we're not already in exit mode
         if !exec_state.mode.is_busy_exiting() {
             sched_ctx.error("failed synchronous round, initiating exit");
             exec_state.set_as_start_exit(ExitReason::ErrorNonSync);
+        }
         return Some(false);
+    }
+}
 pub(crate) fn default_start_create_component(
     exec_state: &mut CompExecState, sched_ctx: &SchedulerCtx, comp_ctx: &mut CompCtx,
     control: &mut ControlLayer, inbox_main: &mut InboxMain, inbox_backup: &mut InboxBackup,
     definition_id: ProcedureDefinitionId, type_id: TypeId, arguments: ValueGroup
 ) {
     debug_assert_eq!(exec_state.mode, CompMode::NonSync);
     let mut transferred_ports = Vec::new();
     find_ports_in_value_group(&arguments, &mut transferred_ports);
     // Set execution state as waiting until we can create the component. If we
     // can do so right away, then we will.
     exec_state.set_as_create_component_blocked(definition_id, type_id, arguments);
     if ports_not_blocked(comp_ctx, &transferred_ports) {
         perform_create_component(exec_state, sched_ctx, comp_ctx, control, inbox_main, inbox_backup);
+    }
+}
 /// Actually creates a component (and assumes that the caller made sure that
 /// none of the ports are involved in a blocking operation).
 pub(crate) fn perform_create_component(
     exec_state: &mut CompExecState, sched_ctx: &SchedulerCtx, instantiator_ctx: &mut CompCtx,
     control: &mut ControlLayer, inbox_main: &mut InboxMain, inbox_backup: &mut InboxBackup
 ) {
     // Small internal utilities
     struct PortPair {
         instantiator_id: PortId,
         instantiator_handle: LocalPortHandle,
         created_id: PortId,
         created_handle: LocalPortHandle,
         is_open: bool,
+    }
     // Retrieve ports from the arguments
     debug_assert_eq!(exec_state.mode, CompMode::NewComponentBlocked);
     let (procedure_id, procedure_type_id) = exec_state.mode_component;
     let mut arguments = exec_state.mode_value.take();
     let mut ports = Vec::new();
     find_ports_in_value_group(&arguments, &mut ports);
     debug_assert!(ports_not_blocked(instantiator_ctx, &ports));
     // Reserve a location for the new component
     let reservation = sched_ctx.runtime.start_create_component();
     let mut created_ctx = CompCtx::new(&reservation);
     let mut port_pairs = Vec::with_capacity(ports.len());
     // Go over all the ports that will be transferred. Since the ports will get
     // a new ID in the new component, we will take care of that here.
     for (port_location, instantiator_port_id) in &ports {
         // Retrieve port information from instantiator
         let instantiator_port_id = *instantiator_port_id;
         let instantiator_port_handle = instantiator_ctx.get_port_handle(instantiator_port_id);
         let instantiator_port = instantiator_ctx.get_port(instantiator_port_handle);
         // Create port at created component
         let created_port_handle = created_ctx.add_port(
             instantiator_port.peer_comp_id, instantiator_port.peer_port_id,
             instantiator_port.kind, instantiator_port.state
         );
         let created_port = created_ctx.get_port(created_port_handle);
         let created_port_id = created_port.self_id;
         // Modify port ID in the arguments to the new component and store them
         // for later access
         let is_open = instantiator_port.state.is_open();
         port_pairs.push(PortPair{
             instantiator_id: instantiator_port_id,
             instantiator_handle: instantiator_port_handle,
             created_id: created_port_id,
             created_handle: created_port_handle,
             is_open,
         });
         for location in port_location.iter().copied() {
             let value = arguments.get_value_mut(location);
             match value {
                 Value::Input(id) => *id = port_id_to_eval(created_port_id),
                 Value::Output(id) => *id = port_id_to_eval(created_port_id),
                 _ => unreachable!(),
+            }
+        }
+    }
     // For each of the ports in the newly created component we set the peer to
     // the correct value. We will not yet change the peer on the instantiator's
     // ports (as we haven't yet stored the new component in the runtime's
     // component storage)
     let mut created_component_has_remote_peers = false;
     for pair in port_pairs.iter() {
         let instantiator_port_info = instantiator_ctx.get_port(pair.instantiator_handle);
         let created_port_info = created_ctx.get_port_mut(pair.created_handle);
         if created_port_info.peer_comp_id == instantiator_ctx.id {
             // The peer of the created component's port seems to be the
             // instantiator.
             let created_port_peer_index = port_pairs.iter()
                 .position(|v| v.instantiator_id == instantiator_port_info.peer_port_id);
             match created_port_peer_index {

src/runtime2/tests/error_handling.rs

➞

Show inline comments

 use super::*;
 #[test]
 fn test_unconnected_component_error() {
     compile_and_create_component("
-    primitive interact_with_noone() {
+    comp interact_with_noone() {
         u8[] array = { 5 };
         auto value = array[1];
     }", "interact_with_noone", no_args());
+}
 #[test]
 fn test_connected_uncommunicating_component_error() {
     compile_and_create_component("
-    primitive crashing_and_burning(out<u32> unused) {
+    comp crashing_and_burning(out<u32> unused) {
         u8[] array = { 1337 };
         auto value = array[1337];
+    }
-    primitive sitting_idly_waiting(in<u32> never_providing) {
+    comp sitting_idly_waiting(in<u32> never_providing) {
         sync auto a = get(never_providing);
+    }
-    composite constructor() {
+    comp constructor() {
         // Test one way
         // channel a -> b;
         // new sitting_idly_waiting(b);
         // new crashing_and_burning(a);
         // And the other way around
         channel c -> d;
         new crashing_and_burning(c);
         new sitting_idly_waiting(d);
     }", "constructor", no_args())
+}
 #[test]
 fn test_connected_communicating_component_error() {
     compile_and_create_component("
-    primitive send_and_fail(out<u32> tx) {
+    comp send_and_fail(out<u32> tx) {
         u8[] array = {};
         sync {
             put(tx, 0);
             array[0] = 5;
+        }
+    }
-    primitive receive_once(in<u32> rx) {
+    comp receive_once(in<u32> rx) {
         sync auto a = get(rx);
+    }
-    composite constructor() {
+    comp constructor() {
         channel a -> b;
         new send_and_fail(a);
         new receive_once(b);
         channel c -> d;
         new receive_once(d);
         new send_and_fail(c);
+    }
     ", "constructor", no_args())
+}
 #[test]
 fn test_failing_after_successful_sync() {
     compile_and_create_component("
     primitive put_and_fail(out<u8> tx) { sync put(tx, 1); u8 a = {}[0]; }
     primitive get_and_fail(in<u8> rx) { sync auto a = get(rx); u8 a = {}[0]; }
     primitive put_and_exit(out<u8> tx) { sync put(tx, 2); }
     primitive get_and_exit(in<u8> rx) { sync auto a = get(rx); }
     comp put_and_fail(out<u8> tx) { sync put(tx, 1); u8 a = {}[0]; }
     comp get_and_fail(in<u8> rx) { sync auto a = get(rx); u8 a = {}[0]; }
     comp put_and_exit(out<u8> tx) { sync put(tx, 2); }
     comp get_and_exit(in<u8> rx) { sync auto a = get(rx); }
-    composite constructor() {
+    comp constructor() {
+        {
             channel a -> b;
             new put_and_fail(a);
             new get_and_exit(b);
+        }
+        {
             channel a -> b;
             new get_and_exit(b);
             new put_and_fail(a);
+        }
+        {
             channel a -> b;
             new put_and_exit(a);
             new get_and_fail(b);
+        }
+        {
             channel a -> b;
             new get_and_fail(b);
             new put_and_exit(a);
+        }
+    }
     ", "constructor", no_args());
+}
@@ \ No newline at end of file @@

src/runtime2/tests/internet.rs

➞

Show inline comments

 use super::*;
 // silly test to make sure that the PDL will never be an issue when doing TCP
 // stuff with the actual components
 #[test]
 fn test_stdlib_file() {
     compile_and_create_component("
     import std.internet as inet;
-    primitive fake_listener_once(out<inet::TcpConnection> tx) {
+    comp fake_listener_once(out<inet::TcpConnection> tx) {
         channel cmd_tx -> cmd_rx;
         channel data_tx -> data_rx;
-        new fake_client(cmd_rx, data_tx);
+        new fake_socket(cmd_rx, data_tx);
         sync put(tx, inet::TcpConnection{
             tx: cmd_tx,
             rx: data_rx,
         });
+    }
-    primitive fake_socket(in<inet::Cmd> cmds, out<u8[]> tx) {
+    comp fake_socket(in<inet::Cmd> cmds, out<u8[]> tx) {
         auto to_send = {};
         auto shutdown = false;
         while (!shutdown) {
             auto keep_going = true;
             sync {
                 while (keep_going) {
-                    let cmd = get(cmds);
+                    auto cmd = get(cmds);
                     if (let inet::Cmd::Send(data) = cmd) {
                         to_send = data;
-                    } else if (let inet::Cmd::Receive(data) = cmd) {
                     } else if (let inet::Cmd::Receive = cmd) {
                         put(tx, to_send);
                     } else if (let inet::Cmd::Finish = cmd) {
                         keep_going = false;
                     } else if (let inet::Cmd::Shutdown = cmd) {
                         keep_going = false;
                         shutdown = true;
+                    }
+                }
+            }
+        }
+    }
-    primitive fake_client(inet::TcpConnection conn) {
+    comp fake_client(inet::TcpConnection conn) {
         sync put(conn.tx, inet::Cmd::Send({1, 3, 3, 7}));
         sync {
             put(conn.tx, inet::Cmd::Receive);
             auto val = get(conn.rx);
             while (val[0] != 1 || val[1] != 3 || val[2] != 3 || val[3] != 7) {}
             put(conn.tx, inet::Cmd::Finish);
+        }
         sync put(conn.tx, inet::Cmd::Shutdown);
+    }
-    composite constructor() {
+    comp constructor() {
         channel conn_tx -> conn_rx;
         new fake_listener_once(conn_tx);
         // Same crap as before:
         channel cmd_tx -> unused_cmd_rx;
         channel unused_data_tx -> data_rx;
         auto connection = inet::TcpConnection{ tx: cmd_tx, rx: data_rx };
         sync {
             connection = get(conn_rx);
+        }
         new fake_client(connection);
+    }
     ", "constructor", no_args());
+}
@@ \ No newline at end of file @@

src/runtime2/tests/messaging.rs

➞

Show inline comments

 use super::*;
 #[test]
 fn test_component_communication() {
     let pd = ProtocolDescription::parse(b"
-    primitive sender(out<u32> o, u32 outside_loops, u32 inside_loops) {
+    comp sender(out<u32> o, u32 outside_loops, u32 inside_loops) {
         u32 outside_index = 0;
         while (outside_index < outside_loops) {
             u32 inside_index = 0;
             sync while (inside_index < inside_loops) {
                 put(o, inside_index);
                 inside_index += 1;
+            }
             outside_index += 1;
+        }
+    }
-    primitive receiver(in<u32> i, u32 outside_loops, u32 inside_loops) {
+    comp receiver(in<u32> i, u32 outside_loops, u32 inside_loops) {
         u32 outside_index = 0;
         while (outside_index < outside_loops) {
             u32 inside_index = 0;
             sync while (inside_index < inside_loops) {
                 auto val = get(i);
                 while (val != inside_index) {} // infinite loop if incorrect value is received
                 inside_index += 1;
+            }
             outside_index += 1;
+        }
+    }
-    composite constructor() {
+    comp constructor() {
         channel o_orom -> i_orom;
         channel o_mrom -> i_mrom;
         channel o_ormm -> i_ormm;
         channel o_mrmm -> i_mrmm;
         // one round, one message per round
         new sender(o_orom, 1, 1);
         new receiver(i_orom, 1, 1);
         // multiple rounds, one message per round
         new sender(o_mrom, 5, 1);
         new receiver(i_mrom, 5, 1);
         // one round, multiple messages per round
         new sender(o_ormm, 1, 5);
         new receiver(i_ormm, 1, 5);
         // multiple rounds, multiple messages per round
         new sender(o_mrmm, 5, 5);
         new receiver(i_mrmm, 5, 5);
     }").expect("compilation");
     let rt = Runtime::new(3, LOG_LEVEL, pd).unwrap();
     create_component(&rt, "", "constructor", no_args());
+}
 #[test]
 fn test_send_to_self() {
     compile_and_create_component("
-    primitive insane_in_the_membrane() {
+    comp insane_in_the_membrane() {
         channel a -> b;
         sync {
             put(a, 1);
             auto v = get(b);
             while (v != 1) {}
+        }
+    }
     ", "insane_in_the_membrane", no_args());
+}
 #[test]
 fn test_intermediate_messenger() {
     let pd = ProtocolDescription::parse(b"
-    primitive receiver<T>(in<T> rx, u32 num) {
+    comp receiver<T>(in<T> rx, u32 num) {
         auto index = 0;
         while (index < num) {
             sync { auto v = get(rx); }
             index += 1;
+        }
+    }
-    primitive middleman<T>(in<T> rx, out<T> tx, u32 num) {
+    comp middleman<T>(in<T> rx, out<T> tx, u32 num) {
         auto index = 0;
         while (index < num) {
             sync { put(tx, get(rx)); }
             index += 1;
+        }
+    }
-    primitive sender<T>(out<T> tx, u32 num) {
+    comp sender<T>(out<T> tx, u32 num) {
         auto index = 0;
         while (index < num) {
             sync put(tx, 1337);
             index += 1;
+        }
+    }
-    composite constructor_template<T>() {
+    comp constructor_template<T>() {
         auto num = 0;
         channel<T> tx_a -> rx_a;
         channel tx_b -> rx_b;
         new sender(tx_a, 3);
         new middleman(rx_a, tx_b, 3);
         new receiver(rx_b, 3);
+    }
-    composite constructor() {
+    comp constructor() {
         new constructor_template<u16>();
         new constructor_template<u32>();
         new constructor_template<u64>();
         new constructor_template<s16>();
         new constructor_template<s32>();
         new constructor_template<s64>();
+    }
     ").expect("compilation");
     let rt = Runtime::new(3, LOG_LEVEL, pd).unwrap();
     create_component(&rt, "", "constructor", no_args());
+}

src/runtime2/tests/mod.rs

➞

Show inline comments

 use crate::protocol::*;
 use crate::protocol::eval::*;
 use crate::runtime2::runtime::*;
 use crate::runtime2::component::{CompCtx, CompPDL};
 mod messaging;
 mod error_handling;
 mod transfer_ports;
 mod internet;
 const LOG_LEVEL: LogLevel = LogLevel::Debug;
 const NUM_THREADS: u32 = 1;
 pub(crate) fn compile_and_create_component(source: &str, routine_name: &str, args: ValueGroup) {
     let protocol = ProtocolDescription::parse(source.as_bytes())
         .expect("successful compilation");
     let runtime = Runtime::new(NUM_THREADS, LOG_LEVEL, protocol)
         .expect("successful runtime startup");
     create_component(&runtime, "", routine_name, args);
+}
 pub(crate) fn create_component(rt: &Runtime, module_name: &str, routine_name: &str, args: ValueGroup) {
     let prompt = rt.inner.protocol.new_component(
         module_name.as_bytes(), routine_name.as_bytes(), args
     ).expect("create prompt");
     let reserved = rt.inner.start_create_component();
     let ctx = CompCtx::new(&reserved);
     let component = Box::new(CompPDL::new(prompt, 0));
     let (key, _) = rt.inner.finish_create_component(reserved, component, ctx, false);
     rt.inner.enqueue_work(key);
+}
 pub(crate) fn no_args() -> ValueGroup { ValueGroup::new_stack(Vec::new()) }
 #[test]
 fn test_component_creation() {
     let pd = ProtocolDescription::parse(b"
-    primitive nothing_at_all() {
+    comp nothing_at_all() {
         s32 a = 5;
         auto b = 5 + a;
+    }
     ").expect("compilation");
     let rt = Runtime::new(1, LOG_LEVEL, pd).unwrap();
     for _i in 0..20 {
         create_component(&rt, "", "nothing_at_all", no_args());
+    }
+}
 #[test]
 fn test_simple_select() {
     let pd = ProtocolDescription::parse(b"
     func infinite_assert<T>(T val, T expected) -> () {
         while (val != expected) { print(\"nope!\"); }
         return ();
+    }
-    primitive receiver(in<u32> in_a, in<u32> in_b, u32 num_sends) {
+    comp receiver(in<u32> in_a, in<u32> in_b, u32 num_sends) {
         auto num_from_a = 0;
         auto num_from_b = 0;
         while (num_from_a + num_from_b < 2 * num_sends) {
             sync select {
                 auto v = get(in_a) -> {
                     print(\"got something from A\");
                     auto _ = infinite_assert(v, num_from_a);
                     num_from_a += 1;
+                }
                 auto v = get(in_b) -> {
                     print(\"got something from B\");
                     auto _ = infinite_assert(v, num_from_b);
                     num_from_b += 1;
+                }
+            }
+        }
+    }
-    primitive sender(out<u32> tx, u32 num_sends) {
+    comp sender(out<u32> tx, u32 num_sends) {
         auto index = 0;
         while (index < num_sends) {
             sync {
                 put(tx, index);
                 index += 1;
+            }
+        }
+    }
-    composite constructor() {
+    comp constructor() {
         auto num_sends = 1;
         channel tx_a -> rx_a;
         channel tx_b -> rx_b;
         new sender(tx_a, num_sends);
         new receiver(rx_a, rx_b, num_sends);
         new sender(tx_b, num_sends);
+    }
     ").expect("compilation");
     let rt = Runtime::new(3, LOG_LEVEL, pd).unwrap();
     create_component(&rt, "", "constructor", no_args());
+}
 #[test]
 fn test_unguarded_select() {
     let pd = ProtocolDescription::parse(b"
-    primitive constructor_outside_select() {
+    comp constructor_outside_select() {
         u32 index = 0;
         while (index < 5) {
             sync select { auto v = () -> print(\"hello\"); }
             index += 1;
+        }
+    }
-    primitive constructor_inside_select() {
+    comp constructor_inside_select() {
         u32 index = 0;
         while (index < 5) {
             sync select { auto v = () -> index += 1; }
+        }
+    }
     ").expect("compilation");
     let rt = Runtime::new(3, LOG_LEVEL, pd).unwrap();
     create_component(&rt, "", "constructor_outside_select", no_args());
     create_component(&rt, "", "constructor_inside_select", no_args());
+}
 #[test]
 fn test_empty_select() {
     let pd = ProtocolDescription::parse(b"
-    primitive constructor() {
+    comp constructor() {
         u32 index = 0;
         while (index < 5) {
             sync select {}
             index += 1;
+        }
+    }
     ").expect("compilation");
     let rt = Runtime::new(3, LOG_LEVEL, pd).unwrap();
     create_component(&rt, "", "constructor", no_args());
+}
 #[test]
 fn test_random_u32_temporary_thingo() {
     let pd = ProtocolDescription::parse(b"
     import std.random::random_u32;
-    primitive random_taker(in<u32> generator, u32 num_values) {
+    comp random_taker(in<u32> generator, u32 num_values) {
         auto i = 0;
         while (i < num_values) {
             sync {
                 auto a = get(generator);
+            }
             i += 1;
+        }
+    }
-    composite constructor() {
+    comp constructor() {
         channel tx -> rx;
         auto num_values = 25;
         new random_u32(tx, 1, 100, num_values);
         new random_taker(rx, num_values);
+    }
     ").expect("compilation");
     let rt = Runtime::new(1, LOG_LEVEL, pd).unwrap();
     create_component(&rt, "", "constructor", no_args());
+}
 #[test]
 fn test_tcp_socket_http_request() {
     let _pd = ProtocolDescription::parse(b"
     import std.internet::*;
-    primitive requester(out<Cmd> cmd_tx, in<u8[]> data_rx) {
+    comp requester(out<Cmd> cmd_tx, in<u8[]> data_rx) {
         print(\"*** TCPSocket: Sending request\");
         sync {
             put(cmd_tx, Cmd::Send(b\"GET / HTTP/1.1\\r\\n\\r\\n\"));
+        }
         print(\"*** TCPSocket: Receiving response\");
         auto buffer = {};
         auto done_receiving = false;
         sync while (!done_receiving) {
             put(cmd_tx, Cmd::Receive);
             auto data = get(data_rx);
             buffer @= data;
             // Completely crap detection of end-of-document. But here we go, we
             // try to detect the trailing </html>. Proper way would be to parse
             // for 'content-length' or 'content-encoding'
             s32 index = 0;
             s32 partial_length = cast(length(data) - 7);
             while (index < partial_length) {
                 // No string conversion yet, so check byte buffer one byte at
                 // a time.
                 auto c1 = data[index];
                 if (c1 == cast('<')) {
                     auto c2 = data[index + 1];
                     auto c3 = data[index + 2];
                     auto c4 = data[index + 3];
                     auto c5 = data[index + 4];
                     auto c6 = data[index + 5];
                     auto c7 = data[index + 6];
                     if ( // i.e. if (data[index..] == '</html>'
                         c2 == cast('/') && c3 == cast('h') && c4 == cast('t') &&
                         c5 == cast('m') && c6 == cast('l') && c7 == cast('>')
                     ) {
                         print(\"*** TCPSocket: Detected </html>\");
                         put(cmd_tx, Cmd::Finish);
                         done_receiving = true;
+                    }
+                }
                 index += 1;
+            }
+        }
         print(\"*** TCPSocket: Requesting shutdown\");
         sync {
             put(cmd_tx, Cmd::Shutdown);
+        }
+    }
-    composite main() {
+    comp main() {
         channel cmd_tx -> cmd_rx;
         channel data_tx -> data_rx;
         new tcp_client({142, 250, 179, 163}, 80, cmd_rx, data_tx); // port 80 of google
         new requester(cmd_tx, data_rx);
+    }
     ").expect("compilation");
     // This test is disabled because it performs a HTTP request to google.
     // let rt = Runtime::new(1, true, pd).unwrap();
     // create_component(&rt, "", "main", no_args());
+}
 #[test]
 fn test_sending_receiving_union() {
     let pd = ProtocolDescription::parse(b"
     union Cmd {
         Set(u8[]),
         Get,
         Shutdown,
+    }
-    primitive database(in<Cmd> rx, out<u8[]> tx) {
+    comp database(in<Cmd> rx, out<u8[]> tx) {
         auto stored = {};
         auto done = false;
         while (!done) {
             sync {
                 auto command = get(rx);
                 if (let Cmd::Set(bytes) = command) {
                     print(\"database: storing value\");
                     stored = bytes;
                 } else if (let Cmd::Get = command) {
                     print(\"database: returning value\");
                     put(tx, stored);
                 } else if (let Cmd::Shutdown = command) {
                     print(\"database: shutting down\");
                     done = true;
                 } else while (true) print(\"impossible\"); // no other case possible
+            }
+        }
+    }
-    primitive client(out<Cmd> tx, in<u8[]> rx, u32 num_rounds) {
+    comp client(out<Cmd> tx, in<u8[]> rx, u32 num_rounds) {
         auto round = 0;
         while (round < num_rounds) {
             auto set_value = b\"hello there\";
             print(\"client: putting a value\");
             sync put(tx, Cmd::Set(set_value));
             auto retrieved = {};
             print(\"client: retrieving what was sent\");
             sync {
                 put(tx, Cmd::Get);
                 retrieved = get(rx);
+            }
             if (set_value != retrieved) while (true) print(\"wrong!\");
             round += 1;
+        }
         sync put(tx, Cmd::Shutdown);
+    }
-    composite main() {
+    comp main() {
         auto num_rounds = 5;
         channel cmd_tx -> cmd_rx;
         channel data_tx -> data_rx;
         new database(cmd_rx, data_tx);
         new client(cmd_tx, data_rx, num_rounds);
+    }
     ").expect("compilation");
     let rt = Runtime::new(1, LOG_LEVEL, pd).unwrap();
     create_component(&rt, "", "main", no_args());
+}
@@ \ No newline at end of file @@

src/runtime2/tests/transfer_ports.rs

➞

Show inline comments

 use super::*;
 #[test]
 fn test_transfer_precreated_port_with_owned_peer() {
     compile_and_create_component("
-    primitive port_sender(out<in<u32>> tx) {
+    comp port_sender(out<in<u32>> tx) {
         channel a -> b;
         sync put(tx, b);
+    }
-    primitive port_receiver(in<in<u32>> rx) {
+    comp port_receiver(in<in<u32>> rx) {
         sync auto a = get(rx);
+    }
-    composite constructor() {
+    comp constructor() {
         channel a -> b;
         new port_sender(a);
         new port_receiver(b);
+    }
     ", "constructor", no_args());
+}
 #[test]
 fn test_transfer_precreated_in_struct_with_owned_peer() {
     compile_and_create_component("
     struct PortPair<T> {
         out<T> tx,
         in<T> rx,
+    }
     comp port_sender(out<PortPair<u32>> tx) {
         channel created_tx_a -> created_rx_a;
         channel created_tx_b -> created_rx_b;
         sync put(tx, PortPair{ tx: created_tx_a, rx: created_rx_b });
         sync {
             auto val = get(created_rx_a);
             put(created_tx_b, val);
+        }
+    }
     comp port_receiver(in<PortPair<u32>> rx) {
         channel fake_tx -> fake_rx;
         auto conn = PortPair{ tx: fake_tx, rx: fake_rx };
         sync conn = get(rx);
         sync {
             put(conn.tx, 5);
             auto val = get(conn.rx);
             while (val != 5) {}
+        }
+    }
     comp constructor() {
         channel tx -> rx;
         new port_sender(tx);
         new port_receiver(rx);
+    }
     ", "constructor", no_args());
+}
 #[test]
 fn test_transfer_precreated_port_with_foreign_peer() {
     compile_and_create_component("
-    primitive port_sender(out<in<u32>> tx, in<u32> to_send) {
+    comp port_sender(out<in<u32>> tx, in<u32> to_send) {
         sync put(tx, to_send);
+    }
-    primitive port_receiver(in<in<u32>> rx) {
+    comp port_receiver(in<in<u32>> rx) {
         sync auto a = get(rx);
+    }
-    composite constructor() {
+    comp constructor() {
         channel tx -> rx;
         channel forgotten -> to_send;
         new port_sender(tx, to_send);
         new port_receiver(rx);
+    }
     ", "constructor", no_args());
+}
 #[test]
 fn test_transfer_synccreated_port() {
     compile_and_create_component("
-    primitive port_sender(out<in<u32>> tx) {
+    comp port_sender(out<in<u32>> tx) {
         sync {
             channel a -> b;
             put(tx, b);
+        }
+    }
-    primitive port_receiver(in<in<u32>> rx) {
+    comp port_receiver(in<in<u32>> rx) {
         sync auto a = get(rx);
+    }
-    composite constructor() {
+    comp constructor() {
         channel a -> b;
         new port_sender(a);
         new port_receiver(b);
+    }
     ", "constructor", no_args());
+}
 #[test]
 fn test_transfer_precreated_port_with_owned_peer_and_communication() {
     compile_and_create_component("
-    primitive port_sender(out<in<u32>> tx) {
+    comp port_sender(out<in<u32>> tx) {
         channel a -> b;
         sync put(tx, b);
         sync put(a, 1337);
+    }
-    primitive port_receiver(in<in<u32>> rx) {
+    comp port_receiver(in<in<u32>> rx) {
         channel a -> b; // this is stupid, but we need to have a variable to use
         sync b = get(rx);
         u32 value = 0;
         sync value = get(b);
         while (value != 1337) {}
+    }
-    composite constructor() {
+    comp constructor() {
         channel a -> b;
         new port_sender(a);
         new port_receiver(b);
+    }
     ", "constructor", no_args());
+}
 #[test]
 fn test_transfer_precreated_port_with_foreign_peer_and_communication() {
     compile_and_create_component("
-    primitive port_sender(out<in<u32>> tx, in<u32> to_send) {
+    comp port_sender(out<in<u32>> tx, in<u32> to_send) {
         sync put(tx, to_send);
+    }
-    primitive message_transmitter(out<u32> tx) {
+    comp message_transmitter(out<u32> tx) {
         sync put(tx, 1337);
+    }
-    primitive port_receiver(in<in<u32>> rx) {
+    comp port_receiver(in<in<u32>> rx) {
         channel unused -> b;
         sync b = get(rx);
         u32 value = 0;
         sync value = get(b);
         while (value != 1337) {}
+    }
-    composite constructor() {
+    comp constructor() {
         channel port_tx -> port_rx;
         channel value_tx -> value_rx;
         new port_sender(port_tx, value_rx);
         new port_receiver(port_rx);
         new message_transmitter(value_tx);
+    }
     ", "constructor", no_args());
+}
 #[test]
 fn test_transfer_precreated_port_with_owned_peer_back_and_forth() {
     compile_and_create_component("
-    primitive port_send_and_receive(out<in<u32>> tx, in<in<u32>> rx) {
+    comp port_send_and_receive(out<in<u32>> tx, in<in<u32>> rx) {
         channel a -> b;
         sync {
             put(tx, b);
             b = get(rx);
+        }
+    }
-    primitive port_receive_and_send(in<in<u32>> rx, out<in<u32>> tx) {
+    comp port_receive_and_send(in<in<u32>> rx, out<in<u32>> tx) {
         channel unused -> transferred; // same problem as in different tests
         sync {
             transferred = get(rx);
             put(tx, transferred);
+        }
+    }
-    composite constructor() {
+    comp constructor() {
         channel port_tx_forward -> port_rx_forward;
         channel port_tx_backward -> port_rx_backward;
         new port_send_and_receive(port_tx_forward, port_rx_backward);
         new port_receive_and_send(port_rx_forward, port_tx_backward);
     }", "constructor", no_args());
+}
 #[test]
 fn test_transfer_precreated_port_with_foreign_peer_back_and_forth_and_communication() {
     compile_and_create_component("
-    primitive port_send_and_receive(out<in<u32>> tx, in<in<u32>> rx, in<u32> to_transfer) {
+    comp port_send_and_receive(out<in<u32>> tx, in<in<u32>> rx, in<u32> to_transfer) {
         sync {
             put(tx, to_transfer);
             to_transfer = get(rx);
+        }
         sync {
             auto value = get(to_transfer);
             while (value != 1337) {}
+        }
+    }
-    primitive port_receive_and_send(in<in<u32>> rx, out<in<u32>> tx) {
+    comp port_receive_and_send(in<in<u32>> rx, out<in<u32>> tx) {
         channel unused -> transferred;
         sync {
             transferred = get(rx);
             put(tx, transferred);
+        }
+    }
-    primitive value_sender(out<u32> tx) {
+    comp value_sender(out<u32> tx) {
         sync put(tx, 1337);
+    }
-    composite constructor() {
+    comp constructor() {
         channel port_tx_forward -> port_rx_forward;
         channel port_tx_backward -> port_rx_backward;
         channel message_tx -> message_rx;
         new port_send_and_receive(port_tx_forward, port_rx_backward, message_rx);
         new port_receive_and_send(port_rx_forward, port_tx_backward);
         new value_sender(message_tx);
+    }
     ", "constructor", no_args());
+}
@@ \ No newline at end of file @@

std/std.internet.pdl

➞

Show inline comments

 #module std.internet
 union Cmd {
     Send(u8[]),
     Receive,
     Finish,
     Shutdown,
+}
-primitive tcp_client(u8[] ip, u16 port, in<Cmd> cmds, out<u8[]> rx) {
+comp tcp_client(u8[] ip, u16 port, in<Cmd> cmds, out<u8[]> rx) {
     #builtin
+}
 struct TcpConnection {
     in<Cmd> tx,
     out<u8[]> rx,
     out<Cmd> tx,
     in<u8[]> rx,
+}
-/* primitive tcp_listener(u8[] ip, u16 port, out<TcpConnection> rx) {
+/* comp tcp_listener(u8[] ip, u16 port, out<TcpConnection> rx) {
     #builtin
 } */
@@ \ No newline at end of file @@

std/std.random.pdl

➞

Show inline comments

 #module std.random
-primitive random_u32(out<u32> generator, u32 min, u32 max, u32 num_sends) { #builtin }
+comp random_u32(out<u32> generator, u32 min, u32 max, u32 num_sends) { #builtin }

testdata/basic-modules/consumer.pdl

➞

Show inline comments

 #module consumer
-primitive consumer(in<u32> input) {
+comp consumer(in<u32> input) {
     sync {
         print("C: going to receive a value");
         auto v = get(input);
         print("C: I have received a value");
+    }
     print("C: I am now exiting");
+}
@@ \ No newline at end of file @@

testdata/basic-modules/main.pdl

➞

Show inline comments

 import consumer as c;
 import producer::producer;
-composite main() {
+comp main() {
     channel output -> input;
     new c::consumer(input);
     new producer(output);
+}
@@ \ No newline at end of file @@

testdata/basic-modules/producer.pdl

➞

Show inline comments

 #module producer
-primitive producer(out<u32> output) {
+comp producer(out<u32> output) {
     sync {
         print("P: Going to send a value!");
         put(output, 1337);
         print("P: I just sent a value!");
+    }
     print("P: I am exiting");
+}
@@ \ No newline at end of file @@

testdata/basic/testing.pdl

➞

Show inline comments

-primitive consumer(in<u32> input) {
+comp consumer(in<u32> input) {
     sync {
         print("C: going to receive a value");
         auto v = get(input);
         print("C: I have received a value");
+    }
     print("C: I am now exiting");
+}
-primitive producer(out<u32> output) {
+comp producer(out<u32> output) {
     sync {
         print("P: Going to send a value!");
         put(output, 1337);
         print("P: I just sent a value!");
+    }
     print("P: I am exiting");
+}
-composite main() {
+comp main() {
     channel output -> input;
     new consumer(input);
     new producer(output);
+}
@@ \ No newline at end of file @@

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