use of org.eclipse.titan.designer.AST.TTCN3.definitions.RunsOnScope in project titan.EclipsePlug-ins by eclipse.
the class Scope method checkRunsOnScope.
/**
* Checks that operations that can only be executed in definitions that
* have a runs on scope, are really executed in such a definition. And
* that the required runs on component is compatible with the runs on
* component of the definition.
*
* @param timestamp
* the timestamp of the actual semantic check cycle.
* @param type
* the fat type to check (used or referred to by the
* location).
* @param errorLocation
* the location to report the error to.
* @param operation
* the name of the operation.
*/
public void checkRunsOnScope(final CompilationTimeStamp timestamp, final IType type, final ILocateableNode errorLocation, final String operation) {
if (type == null) {
return;
}
Component_Type referencedComponent;
String typename;
switch(type.getTypetype()) {
case TYPE_FUNCTION:
referencedComponent = ((Function_Type) type).getRunsOnType(timestamp);
typename = "function";
break;
case TYPE_ALTSTEP:
referencedComponent = ((Altstep_Type) type).getRunsOnType(timestamp);
typename = "altstep";
break;
default:
return;
}
if (referencedComponent == null) {
return;
}
final RunsOnScope runsOnScope = getScopeRunsOn();
if (runsOnScope == null) {
errorLocation.getLocation().reportSemanticError(MessageFormat.format(RUNSONREQUIRED2, operation, typename, type.getTypename(), referencedComponent.getTypename()));
} else {
final Component_Type localType = runsOnScope.getComponentType();
if (!referencedComponent.isCompatible(timestamp, localType, null, null, null)) {
errorLocation.getLocation().reportSemanticError(MessageFormat.format(RUNSONMISSMATCH2, localType.getTypename(), operation, typename, type.getTypename(), referencedComponent.getTypename()));
}
}
}
use of org.eclipse.titan.designer.AST.TTCN3.definitions.RunsOnScope in project titan.EclipsePlug-ins by eclipse.
the class Scope method checkRunsOnScope.
/**
* Checks that operations that can only be executed in definitions that
* have a runs on scope, are really executed in such a definition. And
* that the required runs on component is compatible with the runs on
* component of the definition.
*
* @param timestamp
* the timestamp of the actual semantic check cycle.
* @param assignment
* the assignment to check (used or referred to by the
* statement).
* @param errorLocation
* the location to report the error to.
* @param operation
* the name of the operation.
*/
public void checkRunsOnScope(final CompilationTimeStamp timestamp, final Assignment assignment, final ILocateableNode errorLocation, final String operation) {
Component_Type referencedComponent;
switch(assignment.getAssignmentType()) {
case A_ALTSTEP:
referencedComponent = ((Def_Altstep) assignment).getRunsOnType(timestamp);
break;
case A_FUNCTION:
case A_FUNCTION_RVAL:
case A_FUNCTION_RTEMP:
referencedComponent = ((Def_Function) assignment).getRunsOnType(timestamp);
break;
case A_TESTCASE:
referencedComponent = ((Def_Testcase) assignment).getRunsOnType(timestamp);
break;
default:
return;
}
if (referencedComponent == null) {
return;
}
final RunsOnScope runsOnScope = getScopeRunsOn();
if (runsOnScope == null) {
errorLocation.getLocation().reportSemanticError(MessageFormat.format(RUNSONREQUIRED, operation, assignment.getDescription(), referencedComponent.getTypename()));
} else {
final Component_Type localType = runsOnScope.getComponentType();
if (!referencedComponent.isCompatible(timestamp, localType, null, null, null)) {
errorLocation.getLocation().reportSemanticError(MessageFormat.format(RUNSONMISSMATCH, localType.getTypename(), operation, assignment.getDescription(), referencedComponent.getTypename()));
}
}
}
use of org.eclipse.titan.designer.AST.TTCN3.definitions.RunsOnScope in project titan.EclipsePlug-ins by eclipse.
the class Altstep_Type method check.
@Override
public /**
* {@inheritDoc}
*/
void check(final CompilationTimeStamp timestamp) {
if (lastTimeChecked != null && !lastTimeChecked.isLess(timestamp)) {
return;
}
runsOnType = null;
lastTimeChecked = timestamp;
isErroneous = false;
parseAttributes(timestamp);
if (runsOnRef != null) {
runsOnType = runsOnRef.chkComponentypeReference(timestamp);
if (runsOnType != null) {
final Scope formalParlistPreviosScope = formalParList.getParentScope();
if (formalParlistPreviosScope instanceof RunsOnScope && ((RunsOnScope) formalParlistPreviosScope).getParentScope() == myScope) {
((RunsOnScope) formalParlistPreviosScope).setComponentType(runsOnType);
} else {
final Scope tempScope = new RunsOnScope(runsOnType, myScope);
formalParList.setMyScope(tempScope);
}
}
}
formalParList.reset();
formalParList.check(timestamp, Assignment_type.A_ALTSTEP);
formalParList.checkNoLazyParams();
checkSubtypeRestrictions(timestamp);
if (myScope != null) {
checkEncode(timestamp);
checkVariants(timestamp);
}
}
use of org.eclipse.titan.designer.AST.TTCN3.definitions.RunsOnScope in project titan.EclipsePlug-ins by eclipse.
the class Function_Type method check.
@Override
public /**
* {@inheritDoc}
*/
void check(final CompilationTimeStamp timestamp) {
if (lastTimeChecked != null && !lastTimeChecked.isLess(timestamp)) {
return;
}
runsOnType = null;
lastTimeChecked = timestamp;
isErroneous = false;
isStartable = false;
parseAttributes(timestamp);
if (runsOnRef != null) {
runsOnType = runsOnRef.chkComponentypeReference(timestamp);
if (runsOnType != null) {
final Scope formalParlistPreviosScope = formalParList.getParentScope();
if (formalParlistPreviosScope instanceof RunsOnScope && ((RunsOnScope) formalParlistPreviosScope).getParentScope() == myScope) {
((RunsOnScope) formalParlistPreviosScope).setComponentType(runsOnType);
} else {
final Scope tempScope = new RunsOnScope(runsOnType, myScope);
formalParList.setMyScope(tempScope);
}
}
}
formalParList.reset();
formalParList.check(timestamp, Assignment_type.A_FUNCTION);
formalParList.checkNoLazyParams();
isStartable = runsOnRef != null;
isStartable &= formalParList.getStartability();
if (returnType != null) {
returnType.check(timestamp);
final IType returnedType = returnType.getTypeRefdLast(timestamp);
if (Type_type.TYPE_PORT.equals(returnedType.getTypetype()) && location != null) {
location.reportSemanticError("Functions can not return ports");
}
if (isStartable && returnType.isComponentInternal(timestamp)) {
isStartable = false;
}
}
checkSubtypeRestrictions(timestamp);
if (myScope != null) {
checkEncode(timestamp);
checkVariants(timestamp);
}
}
use of org.eclipse.titan.designer.AST.TTCN3.definitions.RunsOnScope in project titan.EclipsePlug-ins by eclipse.
the class Function_Type method checkThisValue.
@Override
public /**
* {@inheritDoc}
*/
boolean checkThisValue(final CompilationTimeStamp timestamp, final IValue value, final Assignment lhs, final ValueCheckingOptions valueCheckingOptions) {
final boolean selfReference = super.checkThisValue(timestamp, value, lhs, valueCheckingOptions);
final IValue last = value.getValueRefdLast(timestamp, valueCheckingOptions.expected_value, null);
if (last == null || last.getIsErroneous(timestamp)) {
return selfReference;
}
last.setMyGovernor(this);
// already handled ones
switch(value.getValuetype()) {
case OMIT_VALUE:
case REFERENCED_VALUE:
return selfReference;
case UNDEFINED_LOWERIDENTIFIER_VALUE:
if (Value_type.REFERENCED_VALUE.equals(last.getValuetype())) {
return selfReference;
}
break;
default:
break;
}
Assignment assignment = null;
switch(last.getValuetype()) {
case FUNCTION_REFERENCE_VALUE:
assignment = ((Function_Reference_Value) last).getReferredFunction();
if (assignment == null) {
value.setIsErroneous(true);
return selfReference;
}
assignment.check(timestamp);
break;
case TTCN3_NULL_VALUE:
value.setValuetype(timestamp, Value_type.FAT_NULL_VALUE);
return selfReference;
case EXPRESSION_VALUE:
case MACRO_VALUE:
// already checked
return selfReference;
default:
value.getLocation().reportSemanticError(FUNCTIONREFERENCEVALUEEXPECTED);
value.setIsErroneous(true);
return selfReference;
}
// external functions do not have runs on clauses
if (assignment instanceof Def_Function) {
formalParList.checkCompatibility(timestamp, ((Def_Function) assignment).getFormalParameterList(), value.getLocation());
final IType tempRunsOnType = ((Def_Function) assignment).getRunsOnType(timestamp);
if (tempRunsOnType != null) {
if (runsOnSelf) {
// check against the runs on component type of the scope of the value
final Scope valueScope = value.getMyScope();
if (valueScope == null) {
value.setIsErroneous(true);
value.setLastTimeChecked(timestamp);
return selfReference;
}
final RunsOnScope runsOnScope = valueScope.getScopeRunsOn();
if (runsOnScope != null) {
final Component_Type componentType = runsOnScope.getComponentType();
if (!tempRunsOnType.isCompatible(timestamp, componentType, null, null, null)) {
value.getLocation().reportSemanticError(MessageFormat.format("Runs on clause mismatch: type `{0}'' has a `runs on self'' clause and the current scope expects " + "component type `{1}'', but {2} runs on `{3}''", getTypename(), componentType.getTypename(), assignment.getDescription(), tempRunsOnType.getTypename()));
}
} else {
// compatibility using this component type as the scope
if (valueScope instanceof ComponentTypeBody) {
final ComponentTypeBody body = (ComponentTypeBody) valueScope;
if (!tempRunsOnType.isCompatible(timestamp, body.getMyType(), null, null, null)) {
value.getLocation().reportSemanticError(MessageFormat.format("Runs on clause mismatch: type `{0}'' has a `runs on self'' clause and the current component definition " + "is of type `{1}'', but {2} runs on `{3}''", getTypename(), body.getMyType().getTypename(), assignment.getDescription(), tempRunsOnType.getTypename()));
}
} else {
value.getLocation().reportSemanticError(MessageFormat.format("Type `{0}'' has a `runs on self'' " + "clause and the current scope does not have a `runs on'' clause, but {1} runs on `{2}''", getTypename(), assignment.getDescription(), tempRunsOnType.getTypename()));
}
}
} else {
if (runsOnRef == null) {
value.getLocation().reportSemanticError(MessageFormat.format(RUNSONLESSEXPECTED, getTypename(), assignment.getAssignmentName(), tempRunsOnType.getTypename()));
value.setIsErroneous(true);
} else {
if (runsOnType != null && !tempRunsOnType.isCompatible(timestamp, runsOnType, null, null, null)) {
value.getLocation().reportSemanticError(MessageFormat.format(INCOMPATIBLERUNSONTYPESERROR, getTypename(), runsOnType.getTypename(), assignment.getAssignmentName(), tempRunsOnType.getTypename()));
value.setIsErroneous(true);
}
}
}
}
}
switch(assignment.getAssignmentType()) {
case A_FUNCTION:
case A_EXT_FUNCTION:
if (returnType != null) {
value.getLocation().reportSemanticError(MessageFormat.format("Type `{0}'' expects a function or external function that returns a {1} of type `{2}'', but {3} does not have a return type", getTypename(), returnsTemplate ? "template" : "value", returnType.getTypename(), assignment.getDescription()));
}
break;
case A_FUNCTION_RTEMP:
{
final Restriction_type restriction = ((Def_Function) assignment).getTemplateRestriction();
if (!templateRestriction.equals(restriction)) {
value.getLocation().reportSemanticError(MessageFormat.format("Type `{0}'' expects a function or external function that returns a template with {1} restriction, " + "but {2} returns a template with {3} restriction", getTypename(), Restriction_type.TR_NONE.equals(templateRestriction) ? "no" : templateRestriction.getDisplayName(), assignment.getDescription(), Restriction_type.TR_NONE.equals(restriction) ? "no" : restriction.getDisplayName()));
}
if (returnType != null) {
final IType tempReturnType = assignment.getType(timestamp);
if (!returnType.isIdentical(timestamp, tempReturnType)) {
value.getLocation().reportSemanticError(MessageFormat.format("Return type mismatch: type `{0}'' expects a function or external function that returns a {1} of type `{2}'', " + "but {3} returns a template of type `{3}''", getTypename(), returnsTemplate ? "template" : "value", returnType.getTypename(), assignment.getDescription(), tempReturnType.getTypename()));
} else if (!returnsTemplate) {
value.getLocation().reportSemanticError(MessageFormat.format("Type `{0}'' expects a function or external function that returns a value of type `{1}'', but {2} returns a template", getTypename(), returnType.getTypename(), assignment.getDescription()));
}
} else {
value.getLocation().reportSemanticError(MessageFormat.format("Type `{0}'' expects a function or external function without return type, but {1} returns a template of type `{2}''", getTypename(), assignment.getDescription(), assignment.getType(timestamp).getTypename()));
}
break;
}
case A_EXT_FUNCTION_RTEMP:
{
final Restriction_type restriction = ((Def_Extfunction) assignment).getTemplateRestriction();
if (!templateRestriction.equals(restriction)) {
value.getLocation().reportSemanticError(MessageFormat.format("Type `{0}'' expects a function or external function that returns a template with {1} restriction, " + "but {2} returns a template with {3} restriction", getTypename(), Restriction_type.TR_NONE.equals(templateRestriction) ? "no" : templateRestriction.getDisplayName(), assignment.getDescription(), Restriction_type.TR_NONE.equals(restriction) ? "no" : restriction.getDisplayName()));
}
if (returnType != null) {
final IType tempReturnType = assignment.getType(timestamp);
if (!returnType.isIdentical(timestamp, tempReturnType)) {
value.getLocation().reportSemanticError(MessageFormat.format("Return type mismatch: type `{0}'' expects a function or external function that returns a {1} of type `{2}'', " + "but {3} returns a template of type `{3}''", getTypename(), returnsTemplate ? "template" : "value", returnType.getTypename(), assignment.getDescription(), tempReturnType.getTypename()));
} else if (!returnsTemplate) {
value.getLocation().reportSemanticError(MessageFormat.format("Type `{0}'' expects a function or external function that returns a value of type `{1}'', but {2} returns a template", getTypename(), returnType.getTypename(), assignment.getDescription()));
}
} else {
value.getLocation().reportSemanticError(MessageFormat.format("Type `{0}'' expects a function or external function without return type, but {1} returns a template of type `{2}''", getTypename(), assignment.getDescription(), assignment.getType(timestamp).getTypename()));
}
break;
}
case A_FUNCTION_RVAL:
case A_EXT_FUNCTION_RVAL:
if (returnType != null) {
final IType tempReturnType = assignment.getType(timestamp);
if (!returnType.isIdentical(timestamp, tempReturnType)) {
value.getLocation().reportSemanticError(MessageFormat.format("Return type mismatch: type `{0}'' expects a function or external function that returns a {1} of type `{2}''," + " but {3} returns a value of type `{3}''", getTypename(), returnsTemplate ? "template" : "value", returnType.getTypename(), assignment.getDescription(), tempReturnType.getTypename()));
} else if (returnsTemplate) {
value.getLocation().reportSemanticError(MessageFormat.format("Type `{0}'' expects a function or external function that returns a template of type `{1}'', but {2} returns a value", getTypename(), returnType.getTypename(), assignment.getDescription()));
}
} else {
value.getLocation().reportSemanticError(MessageFormat.format("Type `{0}'' expects a function or external function without return type, but {1} returns a value of type `{2}''", getTypename(), assignment.getDescription(), assignment.getType(timestamp).getTypename()));
}
break;
default:
break;
}
if (valueCheckingOptions.sub_check) {
// there is no parent type to check
if (subType != null) {
subType.checkThisValue(timestamp, last);
}
}
value.setLastTimeChecked(timestamp);
return selfReference;
}
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