/* uncommented because we have to overhaul this and unify it with the other functional representation
* and it must be an unittest
* static void interpreterTest0() {
* PrimitiveInstructionInterpreter interpreter = new PrimitiveInstructionInterpreter();
*
* PrimitiveInterpretationContext interpreterContext = new PrimitiveInterpretationContext();
* interpreterContext.registers = new Register[3];
* interpreterContext.registers[0] = new Register();
* interpreterContext.registers[1] = new Register();
* interpreterContext.registers[2] = new Register();
*
* ImmutableNodeReferer rootnode0 = ImmutableNodeReferer.makeBranch();
* rootnode0.children = new ImmutableNodeReferer[4];
*
* rootnode0.children[0] = ImmutableNodeReferer.makeBranch();
* rootnode0.children[0].children = new ImmutableNodeReferer[4];
* rootnode0.children[0].children[0] = Node.makeInstr(Node.EnumType.INSTR_ADD_INT);
* rootnode0.children[0].children[1] = Node.makeAtomic(Variant.makeInt(0));
* rootnode0.children[0].children[2] = Node.makeAtomic(Variant.makeInt(1));
* rootnode0.children[0].children[3] = Node.makeAtomic(Variant.makeInt(2));
*
*
* rootnode0.children[1] = ImmutableNodeReferer.makeBranch();
* rootnode0.children[1].children = new ImmutableNodeReferer[2];
* rootnode0.children[1].children[0] = Node.makeInstr(Node.EnumType.INSTR_GOTO);
* rootnode0.children[1].children[1] = Node.makeAtomic(Variant.makeInt(0));
*
*
*
*
* interpreter.interpret(interpreterContext, rootnode0.children[0], new List<ImmutableNodeReferer>(), new List<string>());
* }
**/
static void parsedTest0()
{
Functional.ParseTreeElement parseTree = Functional.parseRecursive("(bAnd (shl value i) 1)");
NodeRefererEntry node = FunctionalToParseTreeTranslator.translateRecursive(parseTree);
int debugHere = 1;
}
static void parseInterpretSurrogateTest0()
{
FunctionalInterpreter functionalInterpreter = new FunctionalInterpreter();
functionalInterpreter.tracer = new NullFunctionalInterpreterTracer();
FunctionalInterpretationContext functionalInterpretationContext = new FunctionalInterpretationContext();
dispatch.FunctionalInterpreterSurrogate interpreterSurrogate = new dispatch.FunctionalInterpreterSurrogate(functionalInterpreter, functionalInterpretationContext);
// dispatcher which dispatches hidden function calls to the interpreter
dispatch.SurrogateProvider surrogateProvider = new dispatch.SurrogateProvider();
// dispatcher which can shadow calls (to the surrogate provider)
dispatch.ShadowableHiddenDispatcher shadowableHiddenDispatcher = new dispatch.ShadowableHiddenDispatcher(surrogateProvider);
// dispatcher which calls another dispatcher and a number of observers,
// which is in this case our instrumentation observer
dispatch.InstrumentationHiddenDispatcher instrHiddenDispatcher = new dispatch.InstrumentationHiddenDispatcher(shadowableHiddenDispatcher);
dispatch.TimingAndCountHiddenDispatchObserver instrObserver = new dispatch.TimingAndCountHiddenDispatchObserver();
instrObserver.resetCountersAndSetEnableTimingInstrumentation(true);
instrHiddenDispatcher.dispatchObservers.Add(instrObserver);
dispatch.ArgumentBasedDispatcher publicDispatcherByArguments = new dispatch.ArgumentBasedDispatcher(instrHiddenDispatcher);
// dispatcher which accepts function names
dispatch.PublicCallDispatcher callDispatcher = new dispatch.PublicCallDispatcher(publicDispatcherByArguments);
Functional.ParseTreeElement parseTree = Functional.parseRecursive("(let [value 4 i 1 read2 (bAnd (shl value (+ i 1)) 1)] read2)");
NodeRefererEntry rootNode = FunctionalToParseTreeTranslator.translateRecursive(parseTree);
{ // set descriptor to route all public function id's 0 to hidden function id 0
dispatch.ArgumentBasedDispatcher.FunctionDescriptor fnDescriptor = new dispatch.ArgumentBasedDispatcher.FunctionDescriptor();
fnDescriptor.wildcardHiddenFunctionId = dispatch.HiddenFunctionId.make(0);
publicDispatcherByArguments.setFunctionDescriptor(dispatch.PublicFunctionId.make(0), fnDescriptor);
}
surrogateProvider.updateSurrogateByFunctionId(dispatch.HiddenFunctionId.make(0), interpreterSurrogate);
interpreterSurrogate.updateFunctionBody(dispatch.HiddenFunctionId.make(0), rootNode.entry);
interpreterSurrogate.updateParameterNames(dispatch.HiddenFunctionId.make(0), new List <string>());
callDispatcher.setFunctionId("test", dispatch.PublicFunctionId.make(0));
for (int i = 0; i < 100; i++)
{
callDispatcher.dispatchCallByFunctionName("test", new List <Variant>());
}
System.Console.WriteLine(instrObserver.getInstrumentation(dispatch.HiddenFunctionId.make(0)).calltimeMaxInNs);
System.Console.WriteLine(instrObserver.getInstrumentation(dispatch.HiddenFunctionId.make(0)).calltimeMinInNs);
System.Console.WriteLine(instrObserver.getInstrumentation(dispatch.HiddenFunctionId.make(0)).calltimeSumInNs);
//Statistics statistics = new Statistics(instrObserver);
//statistics.doIt();
int debugMe = 0;
}
public static ImmutableNodeReferer translateRecursiveInternal(Functional.ParseTreeElement entry, ImmutableNodeReferer parent)
{
if (entry.type == Functional.ParseTreeElement.EnumType.SCOPE)
{
ImmutableNodeReferer resultNode = ImmutableNodeReferer.makeBranch();
Functional.ScopeParseTreeElement castedEntry = (Functional.ScopeParseTreeElement)entry;
foreach (Functional.ParseTreeElement iterationChildren in castedEntry.children)
{
ImmutableNodeReferer translatedNode = translateRecursiveInternal(iterationChildren, resultNode);
resultNode.children = resultNode.children.Add(translatedNode);
}
return(resultNode);
}
else if (entry.type == Functional.ParseTreeElement.EnumType.IDENTIFIER)
{
Functional.IdentifierParseTreeElement castedEntry = (Functional.IdentifierParseTreeElement)entry;
return(ImmutableNodeRefererManipulatorHelper.makeString(castedEntry.identifier));
}
else if (entry.type == Functional.ParseTreeElement.EnumType.NUMBER)
{
Functional.NumberParseTreeElement castedEntry = (Functional.NumberParseTreeElement)entry;
switch (castedEntry.numberType)
{
case Functional.NumberParseTreeElement.EnumNumberType.FLOAT:
return(ImmutableNodeReferer.makeNonbranch(ValueNode.makeAtomic(Variant.makeFloat(castedEntry.valueFloat))));
case Functional.NumberParseTreeElement.EnumNumberType.INTEGER:
return(ImmutableNodeReferer.makeNonbranch(ValueNode.makeAtomic(Variant.makeInt(castedEntry.valueInt))));
}
throw new Exception("Internal error!"); // hard internal error
}
else if (entry.type == Functional.ParseTreeElement.EnumType.ARRAY)
{
// an array gets transated to an branch with array as the operation
ImmutableNodeReferer resultNode = ImmutableNodeReferer.makeBranch();
resultNode.children = resultNode.children.Add(ImmutableNodeRefererManipulatorHelper.makeString("array")); // pseudo operation "array" which indicates an array
Functional.ArrayParseTreeElement castedEntry = (Functional.ArrayParseTreeElement)entry;
foreach (Functional.ParseTreeElement iterationChildren in castedEntry.children)
{
ImmutableNodeReferer translatedNode = translateRecursiveInternal(iterationChildren, resultNode);
resultNode.children = resultNode.children.Add(translatedNode);
}
return(resultNode);
}
else
{
throw new Exception("Not supported parse node!");
}
}
public static NodeRefererEntry translateRecursive(Functional.ParseTreeElement entry)
{
return(new NodeRefererEntry(translateRecursiveInternal(entry, null)));
}
