use of org.eclipse.n4js.ts.typeRefs.ParameterizedTypeRef in project n4js by eclipse.
the class InternalTypeSystem method typeImpl.
protected Result<TypeRef> typeImpl(final RuleEnvironment G, final RuleApplicationTrace _trace_, final TaggedTemplateString l) throws RuleFailedException {
try {
final RuleApplicationTrace _subtrace_ = newTrace(_trace_);
final Result<TypeRef> _result_ = applyRuleTypeTaggedTemplateString(G, _subtrace_, l);
addToTrace(_trace_, new Provider<Object>() {
public Object get() {
return ruleName("typeTaggedTemplateString") + stringRepForEnv(G) + " |- " + stringRep(l) + " : " + stringRep(_result_.getFirst());
}
});
addAsSubtrace(_trace_, _subtrace_);
return _result_;
} catch (Exception e_applyRuleTypeTaggedTemplateString) {
typeThrowException(ruleName("typeTaggedTemplateString") + stringRepForEnv(G) + " |- " + stringRep(l) + " : " + "ParameterizedTypeRef", TYPETAGGEDTEMPLATESTRING, e_applyRuleTypeTaggedTemplateString, l, new ErrorInformation[] { new ErrorInformation(l) });
return null;
}
}
use of org.eclipse.n4js.ts.typeRefs.ParameterizedTypeRef in project n4js by eclipse.
the class InternalTypeSystem method applyRuleUpperBoundTypeTypeRef.
protected Result<TypeRef> applyRuleUpperBoundTypeTypeRef(final RuleEnvironment G, final RuleApplicationTrace _trace_, final TypeTypeRef ct) throws RuleFailedException {
// output parameter
TypeRef T = null;
final TypeArgument typeArg = ct.getTypeArg();
if ((typeArg instanceof BoundThisTypeRef)) {
final ParameterizedTypeRef typeArgNew = TypeUtils.createResolvedThisTypeRef(((BoundThisTypeRef) typeArg));
T = TypeUtils.createTypeTypeRef(typeArgNew, ct.isConstructorRef());
} else {
T = ct;
}
return new Result<TypeRef>(T);
}
use of org.eclipse.n4js.ts.typeRefs.ParameterizedTypeRef in project n4js by eclipse.
the class InternalTypeSystem method typeImpl.
protected Result<TypeRef> typeImpl(final RuleEnvironment G, final RuleApplicationTrace _trace_, final EqualityExpression e) throws RuleFailedException {
try {
final RuleApplicationTrace _subtrace_ = newTrace(_trace_);
final Result<TypeRef> _result_ = applyRuleTypeEqualityExpression(G, _subtrace_, e);
addToTrace(_trace_, new Provider<Object>() {
public Object get() {
return ruleName("typeEqualityExpression") + stringRepForEnv(G) + " |- " + stringRep(e) + " : " + stringRep(_result_.getFirst());
}
});
addAsSubtrace(_trace_, _subtrace_);
return _result_;
} catch (Exception e_applyRuleTypeEqualityExpression) {
typeThrowException(ruleName("typeEqualityExpression") + stringRepForEnv(G) + " |- " + stringRep(e) + " : " + "ParameterizedTypeRef", TYPEEQUALITYEXPRESSION, e_applyRuleTypeEqualityExpression, e, new ErrorInformation[] { new ErrorInformation(e) });
return null;
}
}
use of org.eclipse.n4js.ts.typeRefs.ParameterizedTypeRef in project n4js by eclipse.
the class InternalTypeSystem method applyRuleTypeVariableDeclaration.
protected Result<TypeRef> applyRuleTypeVariableDeclaration(final RuleEnvironment G, final RuleApplicationTrace _trace_, final VariableDeclaration vdecl) throws RuleFailedException {
// output parameter
TypeRef T = null;
TypeRef _declaredTypeRef = vdecl.getDeclaredTypeRef();
boolean _tripleNotEquals = (_declaredTypeRef != null);
if (_tripleNotEquals) {
T = vdecl.getDeclaredTypeRef();
} else {
EObject _eContainer = vdecl.eContainer();
if ((_eContainer instanceof BindingElement)) {
Expression _expression = vdecl.getExpression();
Pair<String, Expression> _mappedTo = Pair.<String, Expression>of(RuleEnvironmentExtensions.GUARD_VARIABLE_DECLARATION, _expression);
Object _get = G.get(_mappedTo);
boolean _tripleEquals = (_get == null);
if (_tripleEquals) {
final RuleEnvironment G2 = RuleEnvironmentExtensions.wrap(G);
Expression _expression_1 = vdecl.getExpression();
Pair<String, Expression> _mappedTo_1 = Pair.<String, Expression>of(RuleEnvironmentExtensions.GUARD_VARIABLE_DECLARATION, _expression_1);
boolean _add = G2.add(_mappedTo_1, Boolean.TRUE);
/* G2.add(GUARD_VARIABLE_DECLARATION->vdecl.expression,Boolean.TRUE) */
if (!_add) {
sneakyThrowRuleFailedException("G2.add(GUARD_VARIABLE_DECLARATION->vdecl.expression,Boolean.TRUE)");
}
TypeRef _elvis = null;
TypeRef _typeOfVariableDeclarationInDestructuringPattern = this.destructureHelper.getTypeOfVariableDeclarationInDestructuringPattern(G2, vdecl);
if (_typeOfVariableDeclarationInDestructuringPattern != null) {
_elvis = _typeOfVariableDeclarationInDestructuringPattern;
} else {
ParameterizedTypeRef _anyTypeRef = RuleEnvironmentExtensions.anyTypeRef(G);
_elvis = _anyTypeRef;
}
T = _elvis;
} else {
T = RuleEnvironmentExtensions.anyTypeRef(G);
}
} else {
if (((vdecl.eContainer() instanceof ForStatement) && ((ForStatement) vdecl.eContainer()).isForOf())) {
EObject _eContainer_1 = vdecl.eContainer();
final ForStatement forOfStmnt = ((ForStatement) _eContainer_1);
EObject _eContainer_2 = vdecl.eContainer();
Pair<String, EObject> _mappedTo_2 = Pair.<String, EObject>of(RuleEnvironmentExtensions.GUARD_VARIABLE_DECLARATION, _eContainer_2);
Object _get_1 = G.get(_mappedTo_2);
boolean _tripleEquals_1 = (_get_1 == null);
if (_tripleEquals_1) {
final RuleEnvironment G2_1 = RuleEnvironmentExtensions.wrap(G);
EObject _eContainer_3 = vdecl.eContainer();
Pair<String, EObject> _mappedTo_3 = Pair.<String, EObject>of(RuleEnvironmentExtensions.GUARD_VARIABLE_DECLARATION, _eContainer_3);
boolean _add_1 = G2_1.add(_mappedTo_3, Boolean.TRUE);
/* G2.add(GUARD_VARIABLE_DECLARATION->vdecl.eContainer,Boolean.TRUE) */
if (!_add_1) {
sneakyThrowRuleFailedException("G2.add(GUARD_VARIABLE_DECLARATION->vdecl.eContainer,Boolean.TRUE)");
}
/* { G2 |- forOfStmnt.expression : var TypeRef ofPartTypeRef val elemType = destructureHelper.extractIterableElementType(G2, ofPartTypeRef) elemType!==null G2 |~ elemType /\ T } or { T = TypeRefsFactory.eINSTANCE.createUnknownTypeRef } */
{
RuleFailedException previousFailure = null;
try {
/* G2 |- forOfStmnt.expression : var TypeRef ofPartTypeRef */
Expression _expression_2 = forOfStmnt.getExpression();
TypeRef ofPartTypeRef = null;
Result<TypeRef> result = typeInternal(G2_1, _trace_, _expression_2);
checkAssignableTo(result.getFirst(), TypeRef.class);
ofPartTypeRef = (TypeRef) result.getFirst();
final TypeArgument elemType = this.destructureHelper.extractIterableElementType(G2_1, ofPartTypeRef);
/* elemType!==null */
if (!(elemType != null)) {
sneakyThrowRuleFailedException("elemType!==null");
}
/* G2 |~ elemType /\ T */
Result<TypeRef> result_1 = upperBoundInternal(G2_1, _trace_, elemType);
checkAssignableTo(result_1.getFirst(), TypeRef.class);
T = (TypeRef) result_1.getFirst();
} catch (Exception e) {
previousFailure = extractRuleFailedException(e);
T = TypeRefsFactory.eINSTANCE.createUnknownTypeRef();
}
}
} else {
T = RuleEnvironmentExtensions.anyTypeRef(G);
}
} else {
if (((vdecl.eContainer() instanceof ForStatement) && ((ForStatement) vdecl.eContainer()).isForIn())) {
T = RuleEnvironmentExtensions.stringTypeRef(G);
} else {
Expression _expression_3 = vdecl.getExpression();
boolean _tripleNotEquals_1 = (_expression_3 != null);
if (_tripleNotEquals_1) {
Expression _expression_4 = vdecl.getExpression();
Pair<String, Expression> _mappedTo_4 = Pair.<String, Expression>of(RuleEnvironmentExtensions.GUARD_VARIABLE_DECLARATION, _expression_4);
Object _get_2 = G.get(_mappedTo_4);
boolean _tripleEquals_2 = (_get_2 == null);
if (_tripleEquals_2) {
final RuleEnvironment G2_2 = RuleEnvironmentExtensions.wrap(G);
Expression _expression_5 = vdecl.getExpression();
Pair<String, Expression> _mappedTo_5 = Pair.<String, Expression>of(RuleEnvironmentExtensions.GUARD_VARIABLE_DECLARATION, _expression_5);
boolean _add_2 = G2_2.add(_mappedTo_5, Boolean.TRUE);
/* G2.add(GUARD_VARIABLE_DECLARATION->vdecl.expression,Boolean.TRUE) */
if (!_add_2) {
sneakyThrowRuleFailedException("G2.add(GUARD_VARIABLE_DECLARATION->vdecl.expression,Boolean.TRUE)");
}
/* G2 |- vdecl.expression: var TypeRef E */
Expression _expression_6 = vdecl.getExpression();
TypeRef E = null;
Result<TypeRef> result_2 = typeInternal(G2_2, _trace_, _expression_6);
checkAssignableTo(result_2.getFirst(), TypeRef.class);
E = (TypeRef) result_2.getFirst();
if (((E instanceof BoundThisTypeRef) || ((E instanceof TypeTypeRef) && (((TypeTypeRef) E).getTypeArg() instanceof BoundThisTypeRef)))) {
} else {
/* G2 |~ E /\ E */
Result<TypeRef> result_3 = upperBoundInternal(G2_2, _trace_, E);
checkAssignableTo(result_3.getFirst(), TypeRef.class);
E = (TypeRef) result_3.getFirst();
}
if ((((E.getDeclaredType() == RuleEnvironmentExtensions.undefinedType(G)) || (E.getDeclaredType() == RuleEnvironmentExtensions.nullType(G))) || (E.getDeclaredType() == RuleEnvironmentExtensions.voidType(G)))) {
T = RuleEnvironmentExtensions.anyTypeRef(G);
} else {
T = E;
}
} else {
T = RuleEnvironmentExtensions.anyTypeRef(G);
}
} else {
T = RuleEnvironmentExtensions.anyTypeRef(G);
}
}
}
}
}
boolean _enforceDynamicTypes = this.jsVariantHelper.enforceDynamicTypes(vdecl);
if (_enforceDynamicTypes) {
T = this.typeSystemHelper.makeDynamic(T);
}
return new Result<TypeRef>(T);
}
use of org.eclipse.n4js.ts.typeRefs.ParameterizedTypeRef in project n4js by eclipse.
the class InternalTypeSystem method typeImpl.
protected Result<TypeRef> typeImpl(final RuleEnvironment G, final RuleApplicationTrace _trace_, final MultiplicativeExpression e) throws RuleFailedException {
try {
final RuleApplicationTrace _subtrace_ = newTrace(_trace_);
final Result<TypeRef> _result_ = applyRuleTypeMultiplicativeExpression(G, _subtrace_, e);
addToTrace(_trace_, new Provider<Object>() {
public Object get() {
return ruleName("typeMultiplicativeExpression") + stringRepForEnv(G) + " |- " + stringRep(e) + " : " + stringRep(_result_.getFirst());
}
});
addAsSubtrace(_trace_, _subtrace_);
return _result_;
} catch (Exception e_applyRuleTypeMultiplicativeExpression) {
typeThrowException(ruleName("typeMultiplicativeExpression") + stringRepForEnv(G) + " |- " + stringRep(e) + " : " + "ParameterizedTypeRef", TYPEMULTIPLICATIVEEXPRESSION, e_applyRuleTypeMultiplicativeExpression, e, new ErrorInformation[] { new ErrorInformation(e) });
return null;
}
}
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