public void ExecuteTypedTest()
{
var engine = new ILInstructionEngine();
var rwl_0 = Resolve(Console.WriteLine);
engine.ExecuteTyped(rwl_0);
Assert.ThrowsException <TargetParameterCountException>(() => engine.ExecuteTyped(rwl_0, "someArg"));
var rwl_2 = Resolve <string>(() => Console.WriteLine);
Assert.ThrowsException <TargetParameterCountException>(() => engine.ExecuteTyped(rwl_2));
engine.ExecuteTyped(rwl_2, $"Executed: " + nameof(rwl_2));
var rwl_3 = Resolve <string, object>(() => Console.WriteLine);
Assert.ThrowsException <TargetParameterCountException>(() => engine.ExecuteTyped(rwl_3));
Assert.ThrowsException <TargetParameterCountException>(() => engine.ExecuteTyped(rwl_3, "Executed: {0}"));
engine.ExecuteTyped(rwl_3, "Executed: {0}", nameof(rwl_3));
Assert.ThrowsException <TargetParameterCountException>(() => engine.ExecuteTyped(rwl_3, "Executed: {0}", nameof(rwl_3), "somearg"));
var rwl_4 = Resolve <string, object, object>(() => Console.WriteLine);
Assert.ThrowsException <TargetParameterCountException>(() => engine.ExecuteTyped(rwl_4));
Assert.ThrowsException <TargetParameterCountException>(() => engine.ExecuteTyped(rwl_4, "Executed: {0} {1}"));
Assert.ThrowsException <TargetParameterCountException>(() => engine.ExecuteTyped(rwl_4, "Executed: {0} {1}", nameof(rwl_4)));
engine.ExecuteTyped(rwl_4, "Executed: {0} {1}", nameof(rwl_4), "arg1");
var rwl_5 = Resolve <string, object, object, object>(() => Console.WriteLine);
Assert.ThrowsException <TargetParameterCountException>(() => engine.ExecuteTyped(rwl_5));
Assert.ThrowsException <TargetParameterCountException>(() => engine.ExecuteTyped(rwl_5, "Executed: {0} {1}"));
Assert.ThrowsException <TargetParameterCountException>(() => engine.ExecuteTyped(rwl_5, "Executed: {0} {1}", nameof(rwl_5)));
Assert.ThrowsException <TargetParameterCountException>(() => engine.ExecuteTyped(rwl_5, "Executed: {0} {1}", nameof(rwl_5), "arg2"));
engine.ExecuteTyped(rwl_5, "Executed: {0} {1} {2}", nameof(rwl_5), "arg1", "arg2");
var rwl_6 = Resolve <string, object, object, object, object>(() => Console.WriteLine);
Assert.ThrowsException <NotSupportedException>(() =>
engine.ExecuteTyped(rwl_6, "Executed: {0} {1} {2} {3}", nameof(rwl_6), "arg1", "arg2", "arg3")
);
var rwl_7 = Resolve <string, object[]>(() => Console.WriteLine);
engine.ExecuteTyped(rwl_7, "Executed: {0} {1} {2} {3} {4}", new object[] { nameof(rwl_7), "arg1", "arg2", "arg3", "arg4" });
engine.ExecuteTyped(rwl_7, "Executed: {0} {1} {2} {3} {4}", nameof(rwl_7), "arg1", "arg2", "arg3", "arg4");
}
/// <summary>
/// After the quality matrix has been computed,
/// it can be used to find an optimal path from any starting state to the goal state.
/// the method assumes that the goal state is reachable from the starting state
/// </summary>
/// <param name="qMaze"></param>
/// <param name="quality"></param>
private static void Walk(QMaze qMaze, double[][] quality)
{
int curr = qMaze.Start; int next;
/* original algorithm assumed fixed start. removed due to needing random sequence.
* this however prevents the ability to walk the maze after the solution is found because.
* the alogrithm does not set quality values for the starting rank.
* instead, will use no-op as the fixed staring pointing*/
/*
* int maxI = 0;
* int maxK = 0;
* var bestQ = double.MinValue;
* for (var i = 0; i < quality.Length; i++)
* {
* for (var k = 0; k < quality[i].Length; k++)
* {
* if (quality[i][k] > bestQ)
* {
* bestQ = quality[i][k];
* maxI = i;
* maxK = k;
* }
* }
* }
* var opCodeI = QOpCodeLearingGenerator.OpCodes[maxI];
* var opCodeK = QOpCodeLearingGenerator.OpCodes[maxK];
*/
var opCode = QOpCodeLearingGenerator.OpCodes[curr];
List <OpCode> solution = new List <OpCode>();
solution.Add(opCode);
Console.Write(opCode + "->");
while (curr != qMaze.Goal)
{
next = ArgMax(quality[curr]);
opCode = QOpCodeLearingGenerator.OpCodes[next];
solution.Add(opCode);
Console.Write(opCode + "->");
curr = next;
}
var writer = new ILInstructionWriter(solution);
List <ILInstruction> ilInstructions = writer.GetInstructionStream();
var engine = new ILInstructionEngine();
dynamic[] args = new dynamic[] { 1 };
var result = engine.ExecuteTyped(ilInstructions, args: args);
Console.WriteLine("done");
}
private static void ExecuteInstructions(object obj)
{
var state = (ExecutionState)obj;
var engine = new ILInstructionEngine();
try
{
state.Result = engine.ExecuteTyped(state.ilInstructions, args: state.Arguments);
}
catch (Exception ex)
{
state.Error = ex;
//throw new ExecutionEngineException("Engine execution failed", ex, state);
}
}
public void ExecuteTypedNetIO()
{
Func <string> downloadGoogle = () =>
{
var wc = new System.Net.WebClient();
var s = wc.DownloadString("http://www.google.com");
return(s);
};
var dfn_1 = ResolveFn(downloadGoogle);
var engine = new ILInstructionEngine();
var r_0 = engine.ExecuteTyped(dfn_1, this);
Assert.IsNotNull(r_0);
Assert.IsTrue(r_0 is string);
Assert.IsInstanceOfType(r_0, typeof(string));
var staticDl = ResolveFn(NetIOTestClass.DLGoogleStatic);
var r_1 = engine.ExecuteTyped(dfn_1, this);
Assert.IsTrue(r_1 is string);
Func <NetIOTestClass> ioctor = () => new NetIOTestClass();
var r1_ctor = ResolveFn(ioctor);
var invoked = (NetIOTestClass)engine.ExecuteTyped(ResolveFn(() => new NetIOTestClass()), this);
var r1_fn1 = ResolveFn(invoked.Download);
var r1_fn2 = ResolveFn(invoked.DownloadWithDefaultChars);
var r1_fn3 = ResolveFn <char[], string>(invoked.DownloadWithChars);
var r1_r1 = engine.ExecuteTyped(r1_fn1, invoked);
var r1_r2 = engine.ExecuteTyped(r1_fn2, invoked);
var r1_r3 = engine.ExecuteTyped(r1_fn3, invoked, "http://google.com".ToCharArray());
}
public void ExecuteNativeTests()
{
var engine = new ILInstructionEngine();
Func <int, short> fnA = (x) => (short)x;
object objOne = 1;
Action <int> rsSwitch = (i) =>
{
var iLOpCodeValues = (ILOpCodeValues)i;
switch (iLOpCodeValues)
{
case ILOpCodeValues.Nop:
Console.WriteLine("Parsed NoOp");
break;
case ILOpCodeValues.Add:
Console.WriteLine("Parsed Add");
break;
default:
Console.WriteLine("Invalid value");
break;
}
var ilShort = (short)i;
switch (ilShort)
{
case 0:
Console.WriteLine("Parsed NoOp");
break;
case 0x58:
Console.WriteLine("Parsed Add");
break;
default:
Console.WriteLine("Invalid value");
break;
}
};
var rsMi = Resolve <int>(() => rsSwitch);
engine.ExecuteTyped(rsMi, this, 0);
engine.ExecuteTyped(ResolveFn <int, short>((x) => (short)x), this, (object)1);
engine.ExecuteTyped(ResolveFn <int, short>((x) => (short)x), this, (object)1);
var intType = typeof(int);
var token = intType.MetadataToken;
//-> 33554683
var res_00 = engine.ExecuteTyped <int>(ResolveFn <object, int>((x) => (int)x), this, (object)1);
engine.ExecuteTyped(ResolveFn <object, short>((x) => (short)x), this, (object)1);
engine.ExecuteTyped(ResolveFn(() => 1 + int.Parse("1")), this);
engine.ExecuteTyped(ResolveFn(() => 1 - int.Parse("1")), this);
engine.ExecuteTyped(ResolveFn(() => 1 * int.Parse("1")), this);
engine.ExecuteTyped(ResolveFn(() => 1 / int.Parse("1")), this);
engine.ExecuteTyped(ResolveFn(() => 1 % int.Parse("1")), this);
engine.ExecuteTyped(ResolveFn(() => 1 < int.Parse("1")), this);
engine.ExecuteTyped(ResolveFn(() => 1 <= int.Parse("1")), this);
engine.ExecuteTyped(ResolveFn(() => 1 >= int.Parse("1")), this);
engine.ExecuteTyped(ResolveFn(() => 1 > int.Parse("1")), this);
engine.ExecuteTyped(ResolveFn(() => 1ul + double.Parse("1.0")), this);
engine.ExecuteTyped(ResolveFn(() => 1ul - double.Parse("1.0")), this);
engine.ExecuteTyped(ResolveFn(() => 1ul * double.Parse("1.0")), this);
engine.ExecuteTyped(ResolveFn(() => 1ul / double.Parse("1.0")), this);
engine.ExecuteTyped(ResolveFn(() => 1ul % double.Parse("1.0")), this);
engine.ExecuteTyped(ResolveFn(() => 1ul < double.Parse("1.0")), this);
engine.ExecuteTyped(ResolveFn(() => 1ul <= double.Parse("1.0")), this);
engine.ExecuteTyped(ResolveFn(() => 1ul >= double.Parse("1.0")), this);
engine.ExecuteTyped(ResolveFn(() => 1ul > double.Parse("1.0")), this);
engine.ExecuteTyped(ResolveFn(() => 1ul + float.Parse("1.0")), this);
engine.ExecuteTyped(ResolveFn(() => 1ul - float.Parse("1.0")), this);
engine.ExecuteTyped(ResolveFn(() => 1ul * float.Parse("1.0")), this);
engine.ExecuteTyped(ResolveFn(() => 1ul / float.Parse("1.0")), this);
engine.ExecuteTyped(ResolveFn(() => 1ul % float.Parse("1.0")), this);
engine.ExecuteTyped(ResolveFn(() => 1ul < float.Parse("1.0")), this);
engine.ExecuteTyped(ResolveFn(() => 1ul <= float.Parse("1.0")), this);
engine.ExecuteTyped(ResolveFn(() => 1ul >= float.Parse("1.0")), this);
engine.ExecuteTyped(ResolveFn(() => 1ul > float.Parse("1.0")), this);
engine.ExecuteTyped(ResolveFn(() => 1ul + decimal.Parse("1.0")), this);
engine.ExecuteTyped(ResolveFn(() => 1ul - decimal.Parse("1.0")), this);
engine.ExecuteTyped(ResolveFn(() => 1ul * decimal.Parse("1.0")), this);
engine.ExecuteTyped(ResolveFn(() => 1ul / decimal.Parse("1.0")), this);
engine.ExecuteTyped(ResolveFn(() => 1ul % decimal.Parse("1.0")), this);
engine.ExecuteTyped(ResolveFn(() => 1ul < decimal.Parse("1.0")), this);
engine.ExecuteTyped(ResolveFn(() => 1ul <= decimal.Parse("1.0")), this);
engine.ExecuteTyped(ResolveFn(() => 1ul >= decimal.Parse("1.0")), this);
engine.ExecuteTyped(ResolveFn(() => 1ul > decimal.Parse("1.0")), this);
engine.ExecuteTyped(ResolveFn(() => float.Parse("1.0000") > (double)decimal.Parse("1.0")), this);
}
