public void TestInheritedInterfaces()
{
var factory = new AdaptiveFactory <Base>();
factory.ImplementMethods().UsingSharedExecuter("Init", "Exec");
Type ibase = factory.Implement(typeof(IBase));
Type iderived = factory.Implement(typeof(IDerived));
Assert.AreNotSame(ibase, iderived);
Assert.IsTrue(typeof(IDisposable).IsAssignableFrom(ibase));
Assert.IsTrue(typeof(IBase).IsAssignableFrom(ibase));
Assert.IsTrue(typeof(IBase).IsAssignableFrom(iderived));
Assert.IsTrue(typeof(IDerived).IsAssignableFrom(iderived));
using (IBase b = (IBase)Activator.CreateInstance(ibase))
{
Assert.IsNotNull(b.DoSomething());
Assert.AreEqual("DoSomething", b.DoSomething().Name);
}
using (IDerived d = (IDerived)Activator.CreateInstance(iderived))
{
Assert.AreEqual("DoSomething", d.DoSomething().Name);
Assert.AreEqual("DoMore", d.DoMore().Name);
}
}
static void Main()
{
var funky = new FunkyImpl();
IBase b = funky;
IDerived d = funky;
b.Process();
d.Process();
}
private Game( GameState gameState )
{
this.gameState = gameState;
currentPlayer = Cell.Derived( DeriveCurrentPlayer );
board = new Grid<Square>( gameState.Board.Width, gameState.Board.Height, p => new Square( this, p ) );
stoneCounts = new IDerived<int>[] { Cell.Derived( () => gameState.StoneCount( Player.ONE ) ), Cell.Derived( () => gameState.StoneCount( Player.TWO ) ) };
isGameOver = Cell.Derived( () => gameState.IsGameOver );
playerWithMostStones = Cell.Derived( () => gameState.PlayerWithMostStones );
}
public void Should_BeAbleTo_Create_NullObjectOf_DerivedInterface_With_BaseMembers()
{
IDerived testDerivedInterface = Null.Of <IDerived>();
Assert.True(testDerivedInterface is IDerived, "Wrong interface generated.");
testDerivedInterface.String = "Test";
testDerivedInterface.Integer = default(int);
testDerivedInterface.Test();
}
static void Main(string[] args)
{
var a = new MyClass();
IDerived b = a;
b.Dima();
////
///
var d = new DateTimeProp();
var newDate = d.MyProperty.AddDays(2.0);
Console.WriteLine(d.MyProperty + " old date");
Console.WriteLine(newDate + " new date");
}
public static Test.InitialPrx allTests(global::Test.TestHelper helper)
{
Ice.Communicator communicator = helper.communicator();
communicator.getValueFactoryManager().add(MyValueFactory, "::Test::B");
communicator.getValueFactoryManager().add(MyValueFactory, "::Test::C");
communicator.getValueFactoryManager().add(MyValueFactory, "::Test::D");
communicator.getValueFactoryManager().add(MyValueFactory, "::Test::E");
communicator.getValueFactoryManager().add(MyValueFactory, "::Test::F");
communicator.getValueFactoryManager().add(MyValueFactory, "::Test::I");
communicator.getValueFactoryManager().add(MyValueFactory, "::Test::J");
communicator.getValueFactoryManager().add(MyValueFactory, "::Test::H");
// Disable Obsolete warning/error
#pragma warning disable 612, 618
communicator.addObjectFactory(new MyObjectFactory(), "TestOF");
#pragma warning restore 612, 618
var output = helper.getWriter();
output.Write("testing stringToProxy... ");
output.Flush();
String @ref = "initial:" + helper.getTestEndpoint(0);
Ice.ObjectPrx @base = communicator.stringToProxy(@ref);
test(@base != null);
output.WriteLine("ok");
output.Write("testing checked cast... ");
output.Flush();
var initial = Test.InitialPrxHelper.checkedCast(@base);
test(initial != null);
test(initial.Equals(@base));
output.WriteLine("ok");
output.Write("getting B1... ");
output.Flush();
B b1 = initial.getB1();
test(b1 != null);
output.WriteLine("ok");
output.Write("getting B2... ");
output.Flush();
B b2 = initial.getB2();
test(b2 != null);
output.WriteLine("ok");
output.Write("getting C... ");
output.Flush();
C c = initial.getC();
test(c != null);
output.WriteLine("ok");
output.Write("getting D... ");
output.Flush();
D d = initial.getD();
test(d != null);
output.WriteLine("ok");
output.Write("checking consistency... ");
output.Flush();
test(b1 != b2);
//test(b1 != c);
//test(b1 != d);
//test(b2 != c);
//test(b2 != d);
//test(c != d);
test(b1.theB == b1);
test(b1.theC == null);
test(b1.theA is B);
test(((B)b1.theA).theA == b1.theA);
test(((B)b1.theA).theB == b1);
//test(((B)b1.theA).theC is C); // Redundant -- theC is always of type C
test(((C)(((B)b1.theA).theC)).theB == b1.theA);
test(b1.preMarshalInvoked);
test(b1.postUnmarshalInvoked);
test(b1.theA.preMarshalInvoked);
test(b1.theA.postUnmarshalInvoked);
test(((B)b1.theA).theC.preMarshalInvoked);
test(((B)b1.theA).theC.postUnmarshalInvoked);
// More tests possible for b2 and d, but I think this is already
// sufficient.
test(b2.theA == b2);
test(d.theC == null);
output.WriteLine("ok");
output.Write("getting B1, B2, C, and D all at once... ");
output.Flush();
B b1out;
B b2out;
C cout;
D dout;
initial.getAll(out b1out, out b2out, out cout, out dout);
test(b1out != null);
test(b2out != null);
test(cout != null);
test(dout != null);
output.WriteLine("ok");
output.Write("checking consistency... ");
output.Flush();
test(b1out != b2out);
test(b1out.theA == b2out);
test(b1out.theB == b1out);
test(b1out.theC == null);
test(b2out.theA == b2out);
test(b2out.theB == b1out);
test(b2out.theC == cout);
test(cout.theB == b2out);
test(dout.theA == b1out);
test(dout.theB == b2out);
test(dout.theC == null);
test(dout.preMarshalInvoked);
test(dout.postUnmarshalInvoked);
test(dout.theA.preMarshalInvoked);
test(dout.theA.postUnmarshalInvoked);
test(dout.theB.preMarshalInvoked);
test(dout.theB.postUnmarshalInvoked);
test(dout.theB.theC.preMarshalInvoked);
test(dout.theB.theC.postUnmarshalInvoked);
output.WriteLine("ok");
output.Write("testing protected members... ");
output.Flush();
EI e = (EI)initial.getE();
test(e != null && e.checkValues());
System.Reflection.BindingFlags flags = System.Reflection.BindingFlags.NonPublic |
System.Reflection.BindingFlags.Public |
System.Reflection.BindingFlags.Instance;
test(!typeof(E).GetField("i", flags).IsPublic&& !typeof(E).GetField("i", flags).IsPrivate);
test(!typeof(E).GetField("s", flags).IsPublic&& !typeof(E).GetField("s", flags).IsPrivate);
FI f = (FI)initial.getF();
test(f.checkValues());
test(((EI)f.e2).checkValues());
test(!typeof(F).GetField("e1", flags).IsPublic&& !typeof(F).GetField("e1", flags).IsPrivate);
test(typeof(F).GetField("e2", flags).IsPublic&& !typeof(F).GetField("e2", flags).IsPrivate);
output.WriteLine("ok");
output.Write("getting I, J and H... ");
output.Flush();
var i = initial.getI();
test(i != null);
var j = initial.getJ();
test(j != null);
var h = initial.getH();
test(h != null);
output.WriteLine("ok");
output.Write("getting K... ");
{
output.Flush();
var k = initial.getK();
var l = k.value as L;
test(l != null);
test(l.data.Equals("l"));
}
output.WriteLine("ok");
output.Write("testing Value as parameter... ");
output.Flush();
{
Ice.Value v1 = new L("l");
Ice.Value v2;
Ice.Value v3 = initial.opValue(v1, out v2);
test(((L)v2).data.Equals("l"));
test(((L)v3).data.Equals("l"));
}
{
L l = new L("l");
Ice.Value[] v1 = new Ice.Value[] { l };
Ice.Value[] v2;
Ice.Value[] v3 = initial.opValueSeq(v1, out v2);
test(((L)v2[0]).data.Equals("l"));
test(((L)v3[0]).data.Equals("l"));
}
{
L l = new L("l");
Dictionary <string, Ice.Value> v1 = new Dictionary <string, Ice.Value> {
{ "l", l }
};
Dictionary <string, Ice.Value> v2;
Dictionary <string, Ice.Value> v3 = initial.opValueMap(v1, out v2);
test(((L)v2["l"]).data.Equals("l"));
test(((L)v3["l"]).data.Equals("l"));
}
output.WriteLine("ok");
output.Write("getting D1... ");
output.Flush();
D1 d1 = new D1(new A1("a1"), new A1("a2"), new A1("a3"), new A1("a4"));
d1 = initial.getD1(d1);
test(d1.a1.name.Equals("a1"));
test(d1.a2.name.Equals("a2"));
test(d1.a3.name.Equals("a3"));
test(d1.a4.name.Equals("a4"));
output.WriteLine("ok");
output.Write("throw EDerived... ");
output.Flush();
try
{
initial.throwEDerived();
test(false);
}
catch (EDerived ederived)
{
test(ederived.a1.name.Equals("a1"));
test(ederived.a2.name.Equals("a2"));
test(ederived.a3.name.Equals("a3"));
test(ederived.a4.name.Equals("a4"));
}
output.WriteLine("ok");
output.Write("setting G... ");
output.Flush();
try
{
initial.setG(new G(new S("hello"), "g"));
}
catch (Ice.OperationNotExistException)
{
}
output.WriteLine("ok");
output.Write("setting I... ");
output.Flush();
initial.setI(i);
initial.setI(j);
initial.setI(h);
output.WriteLine("ok");
output.Write("testing sequences...");
output.Flush();
try
{
Base[] inS = new Test.Base[0];
Base[] outS;
Base[] retS;
retS = initial.opBaseSeq(inS, out outS);
inS = new Test.Base[1];
inS[0] = new Test.Base(new S(), "");
retS = initial.opBaseSeq(inS, out outS);
test(retS.Length == 1 && outS.Length == 1);
}
catch (Ice.OperationNotExistException)
{
}
output.WriteLine("ok");
output.Write("testing recursive type... ");
output.Flush();
var top = new Test.Recursive();
var p = top;
int depth = 0;
try
{
for (; depth <= 1000; ++depth)
{
p.v = new Test.Recursive();
p = p.v;
if ((depth < 10 && (depth % 10) == 0) ||
(depth < 1000 && (depth % 100) == 0) ||
(depth < 10000 && (depth % 1000) == 0) ||
(depth % 10000) == 0)
{
initial.setRecursive(top);
}
}
test(!initial.supportsClassGraphDepthMax());
}
catch (Ice.UnknownLocalException)
{
// Expected marshal exception from the server(max class graph depth reached)
}
catch (Ice.UnknownException)
{
// Expected stack overflow from the server(Java only)
}
initial.setRecursive(new Test.Recursive());
output.WriteLine("ok");
output.Write("testing compact ID...");
output.Flush();
try
{
test(initial.getCompact() != null);
}
catch (Ice.OperationNotExistException)
{
}
output.WriteLine("ok");
output.Write("testing marshaled results...");
output.Flush();
b1 = initial.getMB();
test(b1 != null && b1.theB == b1);
b1 = initial.getAMDMBAsync().Result;
test(b1 != null && b1.theB == b1);
output.WriteLine("ok");
output.Write("testing UnexpectedObjectException...");
output.Flush();
@ref = "uoet:" + helper.getTestEndpoint(0);
@base = communicator.stringToProxy(@ref);
test(@base != null);
var uoet = Test.UnexpectedObjectExceptionTestPrxHelper.uncheckedCast(@base);
test(uoet != null);
try
{
uoet.op();
test(false);
}
catch (Ice.UnexpectedObjectException ex)
{
test(ex.type.Equals("::Test::AlsoEmpty"));
test(ex.expectedType.Equals("::Test::Empty"));
}
catch (System.Exception ex)
{
output.WriteLine(ex.ToString());
test(false);
}
output.WriteLine("ok");
// Disable Obsolete warning/error
#pragma warning disable 612, 618
output.Write("testing getting ObjectFactory...");
output.Flush();
test(communicator.findObjectFactory("TestOF") != null);
output.WriteLine("ok");
output.Write("testing getting ObjectFactory as ValueFactory...");
output.Flush();
test(communicator.getValueFactoryManager().find("TestOF") != null);
output.WriteLine("ok");
#pragma warning restore 612, 618
output.Write("testing partial ice_initialize...");
output.Flush();
var ib1 = new IBase();
test(ib1.id.Equals("My id"));
var id1 = new IDerived();
test(id1.id.Equals("My id"));
test(id1.name.Equals("My name"));
var id2 = new Test.IDerived2();
test(id2.id.Equals("My id"));
var i2 = new I2();
test(i2.called);
var s1 = new S1();
// The struct default constructor do not call ice_initialize
test(s1.id == 0);
s1 = new S1(2);
// The id should have the value set by ice_initialize and not 2
test(s1.id == 1);
var sc1 = new SC1();
test(sc1.id.Equals("My id"));
output.WriteLine("ok");
output.Write("testing class containing complex dictionary... ");
output.Flush();
{
var m = new Test.M();
m.v = new Dictionary <StructKey, L>();
var k1 = new StructKey(1, "1");
m.v[k1] = new L("one");
var k2 = new StructKey(2, "2");
m.v[k2] = new L("two");
Test.M m1;
var m2 = initial.opM(m, out m1);
test(m1.v.Count == 2);
test(m2.v.Count == 2);
test(m1.v[k1].data.Equals("one"));
test(m2.v[k1].data.Equals("one"));
test(m1.v[k2].data.Equals("two"));
test(m2.v[k2].data.Equals("two"));
}
output.WriteLine("ok");
output.Write("testing forward declared types... ");
output.Flush();
{
F1 f12;
F1 f11 = initial.opF1(new F1("F11"), out f12);
test(f11.name.Equals("F11"));
test(f12.name.Equals("F12"));
F2Prx f22;
F2Prx f21 = initial.opF2(
F2PrxHelper.uncheckedCast(communicator.stringToProxy("F21:" + helper.getTestEndpoint())),
out f22);
test(f21.ice_getIdentity().name.Equals("F21"));
f21.op();
test(f22.ice_getIdentity().name.Equals("F22"));
if (initial.hasF3())
{
F3 f32;
F3 f31 = initial.opF3(new F3(new F1("F11"),
F2PrxHelper.uncheckedCast(communicator.stringToProxy("F21"))),
out f32);
test(f31.f1.name.Equals("F11"));
test(f31.f2.ice_getIdentity().name.Equals("F21"));
test(f32.f1.name.Equals("F12"));
test(f32.f2.ice_getIdentity().name.Equals("F22"));
}
}
output.WriteLine("ok");
output.Write("testing sending class cycle... ");
output.Flush();
{
var rec = new Test.Recursive();
rec.v = rec;
var acceptsCycles = initial.acceptsClassCycles();
try
{
initial.setCycle(rec);
test(acceptsCycles);
}
catch (Ice.UnknownLocalException)
{
test(!acceptsCycles);
}
}
output.WriteLine("ok");
return(initial);
}
public static InitialPrx allTests(TestCommon.Application app)
{
Ice.Communicator communicator = app.communicator();
communicator.getValueFactoryManager().add(MyValueFactory, "::Test::B");
communicator.getValueFactoryManager().add(MyValueFactory, "::Test::C");
communicator.getValueFactoryManager().add(MyValueFactory, "::Test::D");
communicator.getValueFactoryManager().add(MyValueFactory, "::Test::E");
communicator.getValueFactoryManager().add(MyValueFactory, "::Test::F");
communicator.getValueFactoryManager().add(MyValueFactory, "::Test::I");
communicator.getValueFactoryManager().add(MyValueFactory, "::Test::J");
communicator.getValueFactoryManager().add(MyValueFactory, "::Test::H");
// Disable Obsolete warning/error
#pragma warning disable 612, 618
communicator.addObjectFactory(new MyObjectFactory(), "TestOF");
#pragma warning restore 612, 618
Write("testing stringToProxy... ");
Flush();
String @ref = "initial:" + app.getTestEndpoint(0);
Ice.ObjectPrx @base = communicator.stringToProxy(@ref);
test(@base != null);
WriteLine("ok");
Write("testing checked cast... ");
Flush();
InitialPrx initial = InitialPrxHelper.checkedCast(@base);
test(initial != null);
test(initial.Equals(@base));
WriteLine("ok");
Write("getting B1... ");
Flush();
B b1 = initial.getB1();
test(b1 != null);
WriteLine("ok");
Write("getting B2... ");
Flush();
B b2 = initial.getB2();
test(b2 != null);
WriteLine("ok");
Write("getting C... ");
Flush();
C c = initial.getC();
test(c != null);
WriteLine("ok");
Write("getting D... ");
Flush();
D d = initial.getD();
test(d != null);
WriteLine("ok");
Write("checking consistency... ");
Flush();
test(b1 != b2);
//test(b1 != c);
//test(b1 != d);
//test(b2 != c);
//test(b2 != d);
//test(c != d);
test(b1.theB == b1);
test(b1.theC == null);
test(b1.theA is B);
test(((B)b1.theA).theA == b1.theA);
test(((B)b1.theA).theB == b1);
//test(((B)b1.theA).theC is C); // Redundant -- theC is always of type C
test(((C)(((B)b1.theA).theC)).theB == b1.theA);
test(b1.preMarshalInvoked);
test(b1.postUnmarshalInvoked);
test(b1.theA.preMarshalInvoked);
test(b1.theA.postUnmarshalInvoked);
test(((B)b1.theA).theC.preMarshalInvoked);
test(((B)b1.theA).theC.postUnmarshalInvoked);
// More tests possible for b2 and d, but I think this is already
// sufficient.
test(b2.theA == b2);
test(d.theC == null);
WriteLine("ok");
Write("getting B1, B2, C, and D all at once... ");
Flush();
B b1out;
B b2out;
C cout;
D dout;
initial.getAll(out b1out, out b2out, out cout, out dout);
test(b1out != null);
test(b2out != null);
test(cout != null);
test(dout != null);
WriteLine("ok");
Write("checking consistency... ");
Flush();
test(b1out != b2out);
test(b1out.theA == b2out);
test(b1out.theB == b1out);
test(b1out.theC == null);
test(b2out.theA == b2out);
test(b2out.theB == b1out);
test(b2out.theC == cout);
test(cout.theB == b2out);
test(dout.theA == b1out);
test(dout.theB == b2out);
test(dout.theC == null);
test(dout.preMarshalInvoked);
test(dout.postUnmarshalInvoked);
test(dout.theA.preMarshalInvoked);
test(dout.theA.postUnmarshalInvoked);
test(dout.theB.preMarshalInvoked);
test(dout.theB.postUnmarshalInvoked);
test(dout.theB.theC.preMarshalInvoked);
test(dout.theB.theC.postUnmarshalInvoked);
WriteLine("ok");
Write("testing protected members... ");
Flush();
EI e = (EI)initial.getE();
test(e != null && e.checkValues());
System.Reflection.BindingFlags flags = System.Reflection.BindingFlags.NonPublic |
System.Reflection.BindingFlags.Public |
System.Reflection.BindingFlags.Instance;
test(!typeof(E).GetField("i", flags).IsPublic&& !typeof(E).GetField("i", flags).IsPrivate);
test(!typeof(E).GetField("s", flags).IsPublic&& !typeof(E).GetField("s", flags).IsPrivate);
FI f = (FI)initial.getF();
test(f.checkValues());
test(((EI)f.e2).checkValues());
test(!typeof(F).GetField("e1", flags).IsPublic&& !typeof(F).GetField("e1", flags).IsPrivate);
test(typeof(F).GetField("e2", flags).IsPublic&& !typeof(F).GetField("e2", flags).IsPrivate);
WriteLine("ok");
Write("getting I, J and H... ");
Flush();
var i = initial.getI();
test(i != null);
var j = initial.getJ();
test(j != null);
var h = initial.getH();
test(h != null);
WriteLine("ok");
Write("getting D1... ");
Flush();
D1 d1 = new D1(new A1("a1"), new A1("a2"), new A1("a3"), new A1("a4"));
d1 = initial.getD1(d1);
test(d1.a1.name.Equals("a1"));
test(d1.a2.name.Equals("a2"));
test(d1.a3.name.Equals("a3"));
test(d1.a4.name.Equals("a4"));
WriteLine("ok");
Write("throw EDerived... ");
Flush();
try
{
initial.throwEDerived();
test(false);
}
catch (EDerived ederived)
{
test(ederived.a1.name.Equals("a1"));
test(ederived.a2.name.Equals("a2"));
test(ederived.a3.name.Equals("a3"));
test(ederived.a4.name.Equals("a4"));
}
WriteLine("ok");
Write("setting G... ");
Flush();
try
{
initial.setG(new G(new S("hello"), "g"));
}
catch (Ice.OperationNotExistException)
{
}
WriteLine("ok");
Write("setting I... ");
Flush();
initial.setI(i);
initial.setI(j);
initial.setI(h);
WriteLine("ok");
Write("testing sequences...");
Flush();
try
{
Base[] inS = new Base[0];
Base[] outS;
Base[] retS;
retS = initial.opBaseSeq(inS, out outS);
inS = new Base[1];
inS[0] = new Base(new S(), "");
retS = initial.opBaseSeq(inS, out outS);
test(retS.Length == 1 && outS.Length == 1);
}
catch (Ice.OperationNotExistException)
{
}
WriteLine("ok");
Write("testing recursive type... ");
Flush();
Recursive top = new Recursive();
Recursive p = top;
int depth = 0;
try
{
for (; depth <= 1000; ++depth)
{
p.v = new Recursive();
p = p.v;
if ((depth < 10 && (depth % 10) == 0) ||
(depth < 1000 && (depth % 100) == 0) ||
(depth < 10000 && (depth % 1000) == 0) ||
(depth % 10000) == 0)
{
initial.setRecursive(top);
}
}
test(!initial.supportsClassGraphDepthMax());
}
catch (Ice.UnknownLocalException)
{
// Expected marshal exception from the server (max class graph depth reached)
}
catch (Ice.UnknownException)
{
// Expected stack overflow from the server (Java only)
}
initial.setRecursive(new Recursive());
WriteLine("ok");
Write("testing compact ID...");
Flush();
try
{
test(initial.getCompact() != null);
}
catch (Ice.OperationNotExistException)
{
}
WriteLine("ok");
Write("testing marshaled results...");
Flush();
b1 = initial.getMB();
test(b1 != null && b1.theB == b1);
b1 = initial.getAMDMBAsync().Result;
test(b1 != null && b1.theB == b1);
WriteLine("ok");
Write("testing UnexpectedObjectException...");
Flush();
@ref = "uoet:" + app.getTestEndpoint(0);
@base = communicator.stringToProxy(@ref);
test(@base != null);
UnexpectedObjectExceptionTestPrx uoet = UnexpectedObjectExceptionTestPrxHelper.uncheckedCast(@base);
test(uoet != null);
try
{
uoet.op();
test(false);
}
catch (Ice.UnexpectedObjectException ex)
{
test(ex.type.Equals("::Test::AlsoEmpty"));
test(ex.expectedType.Equals("::Test::Empty"));
}
catch (System.Exception ex)
{
WriteLine(ex.ToString());
test(false);
}
WriteLine("ok");
// Disable Obsolete warning/error
#pragma warning disable 612, 618
Write("testing getting ObjectFactory...");
Flush();
test(communicator.findObjectFactory("TestOF") != null);
WriteLine("ok");
Write("testing getting ObjectFactory as ValueFactory...");
Flush();
test(communicator.getValueFactoryManager().find("TestOF") != null);
WriteLine("ok");
#pragma warning restore 612, 618
Write("testing partial ice_initialize...");
Flush();
var ib1 = new IBase();
test(ib1.id.Equals("My id"));
var id1 = new IDerived();
test(id1.id.Equals("My id"));
test(id1.name.Equals("My name"));
var id2 = new IDerived2();
test(id2.id.Equals("My id"));
var i2 = new I2();
test(i2.called);
var s1 = new S1();
// The struct default constructor do not call ice_initialize
test(s1.id == 0);
s1 = new S1(2);
// The id should have the value set by ice_initialize and not 2
test(s1.id == 1);
var sc1 = new SC1();
test(sc1.id.Equals("My id"));
WriteLine("ok");
return(initial);
}
public static Test.IInitialPrx allTests(global::Test.TestHelper helper)
{
Ice.Communicator communicator = helper.communicator();
var output = helper.getWriter();
var initial = IInitialPrx.Parse($"initial:{helper.getTestEndpoint(0)}", communicator);
output.Write("getting B1... ");
output.Flush();
B b1 = initial.getB1();
test(b1 != null);
output.WriteLine("ok");
output.Write("getting B2... ");
output.Flush();
B b2 = initial.getB2();
test(b2 != null);
output.WriteLine("ok");
output.Write("getting C... ");
output.Flush();
C c = initial.getC();
test(c != null);
output.WriteLine("ok");
output.Write("getting D... ");
output.Flush();
D d = initial.getD();
test(d != null);
output.WriteLine("ok");
output.Write("checking consistency... ");
output.Flush();
test(b1 != b2);
//test(b1 != c);
//test(b1 != d);
//test(b2 != c);
//test(b2 != d);
//test(c != d);
test(b1.theB == b1);
test(b1.theC == null);
test(b1.theA is B);
test(((B)b1.theA).theA == b1.theA);
test(((B)b1.theA).theB == b1);
//test(((B)b1.theA).theC is C); // Redundant -- theC is always of type C
test(((C)(((B)b1.theA).theC)).theB == b1.theA);
// More tests possible for b2 and d, but I think this is already
// sufficient.
test(b2.theA == b2);
test(d.theC == null);
output.WriteLine("ok");
output.Write("getting B1, B2, C, and D all at once... ");
output.Flush();
var(b1out, b2out, cout, dout) = initial.getAll();
test(b1out != null);
test(b2out != null);
test(cout != null);
test(dout != null);
output.WriteLine("ok");
output.Write("checking consistency... ");
output.Flush();
test(b1out != b2out);
test(b1out.theA == b2out);
test(b1out.theB == b1out);
test(b1out.theC == null);
test(b2out.theA == b2out);
test(b2out.theB == b1out);
test(b2out.theC == cout);
test(cout.theB == b2out);
test(dout.theA == b1out);
test(dout.theB == b2out);
test(dout.theC == null);
output.WriteLine("ok");
output.Write("getting K... ");
{
output.Flush();
var k = initial.getK();
var l = k.value as L;
test(l != null);
test(l.data.Equals("l"));
}
output.WriteLine("ok");
output.Write("testing AnyClass as parameter... ");
output.Flush();
{
AnyClass v1 = new L("l");
var(v3, v2) = initial.opClass(v1);
test(((L)v2).data.Equals("l"));
test(((L)v3).data.Equals("l"));
}
{
L l = new L("l");
AnyClass[] v1 = new AnyClass[] { l };
var(v3, v2) = initial.opClassSeq(v1);
test(((L)v2[0]).data.Equals("l"));
test(((L)v3[0]).data.Equals("l"));
}
{
L l = new L("l");
Dictionary <string, AnyClass> v1 = new Dictionary <string, AnyClass> {
{ "l", l }
};
var(v3, v2) = initial.opClassMap(v1);
test(((L)v2["l"]).data.Equals("l"));
test(((L)v3["l"]).data.Equals("l"));
}
output.WriteLine("ok");
output.Write("getting D1... ");
output.Flush();
D1 d1 = new D1(new A1("a1"), new A1("a2"), new A1("a3"), new A1("a4"));
d1 = initial.getD1(d1);
test(d1.a1.name.Equals("a1"));
test(d1.a2.name.Equals("a2"));
test(d1.a3.name.Equals("a3"));
test(d1.a4.name.Equals("a4"));
output.WriteLine("ok");
output.Write("throw EDerived... ");
output.Flush();
try
{
initial.throwEDerived();
test(false);
}
catch (EDerived ederived)
{
test(ederived.a1.name.Equals("a1"));
test(ederived.a2.name.Equals("a2"));
test(ederived.a3.name.Equals("a3"));
test(ederived.a4.name.Equals("a4"));
}
output.WriteLine("ok");
output.Write("setting G... ");
output.Flush();
try
{
initial.setG(new G(new S("hello"), "g"));
}
catch (Ice.OperationNotExistException)
{
}
output.WriteLine("ok");
output.Write("testing sequences...");
output.Flush();
try
{
Base[] inS = new Base[0];
var(retS, outS) = initial.opBaseSeq(inS);
inS = new Base[1];
inS[0] = new Base(new S(""), "");
(retS, outS) = initial.opBaseSeq(inS);
test(retS.Length == 1 && outS.Length == 1);
}
catch (Ice.OperationNotExistException)
{
}
output.WriteLine("ok");
output.Write("testing recursive type... ");
output.Flush();
var top = new Test.Recursive();
var p = top;
int depth = 0;
try
{
for (; depth <= 1000; ++depth)
{
p.v = new Test.Recursive();
p = p.v;
if ((depth < 10 && (depth % 10) == 0) ||
(depth < 1000 && (depth % 100) == 0) ||
(depth < 10000 && (depth % 1000) == 0) ||
(depth % 10000) == 0)
{
initial.setRecursive(top);
}
}
test(!initial.supportsClassGraphDepthMax());
}
catch (Ice.UnknownLocalException)
{
// Expected marshal exception from the server(max class graph depth reached)
}
catch (Ice.UnknownException)
{
// Expected stack overflow from the server(Java only)
}
initial.setRecursive(new Test.Recursive());
output.WriteLine("ok");
output.Write("testing compact ID...");
output.Flush();
try
{
test(initial.getCompact() != null);
}
catch (Ice.OperationNotExistException)
{
}
output.WriteLine("ok");
output.Write("testing marshaled results...");
output.Flush();
b1 = initial.getMB();
test(b1 != null && b1.theB == b1);
b1 = initial.getAMDMBAsync().Result;
test(b1 != null && b1.theB == b1);
output.WriteLine("ok");
output.Write("testing UnexpectedObjectException...");
output.Flush();
var uoet = IUnexpectedObjectExceptionTestPrx.Parse($"uoet:{helper.getTestEndpoint(0)}", communicator);
try
{
uoet.op();
test(false);
}
catch (UnexpectedObjectException ex)
{
test(ex.Type.Equals("::Test::AlsoEmpty"));
test(ex.ExpectedType.Equals("::Test::Empty"));
}
catch (System.Exception ex)
{
output.WriteLine(ex.ToString());
test(false);
}
output.WriteLine("ok");
output.Write("testing partial ice_initialize...");
output.Flush();
var ib1 = new IBase();
test(ib1.id.Equals("My id"));
var id1 = new IDerived();
test(id1.id.Equals("My id"));
test(id1.name.Equals("My name"));
var id2 = new Test.IDerived2();
test(id2.id.Equals("My id"));
var i2 = new I2();
test(i2.called);
var s1 = new S1();
// The struct default constructor do not call ice_initialize
test(s1.id == 0);
s1 = new S1(2);
// The id should have the value set by ice_initialize and not 2
test(s1.id == 1);
output.WriteLine("ok");
output.Write("testing class containing complex dictionary... ");
output.Flush();
{
var m = new Test.M();
m.v = new Dictionary <StructKey, L>();
var k1 = new StructKey(1, "1");
m.v[k1] = new L("one");
var k2 = new StructKey(2, "2");
m.v[k2] = new L("two");
var(m2, m1) = initial.opM(m);
test(m1.v.Count == 2);
test(m2.v.Count == 2);
test(m1.v[k1].data.Equals("one"));
test(m2.v[k1].data.Equals("one"));
test(m1.v[k2].data.Equals("two"));
test(m2.v[k2].data.Equals("two"));
}
output.WriteLine("ok");
output.Write("testing forward declared types... ");
output.Flush();
{
var(f11, f12) = initial.opF1(new F1("F11"));
test(f11.name.Equals("F11"));
test(f12.name.Equals("F12"));
var(f21, f22) = initial.opF2(IF2Prx.Parse($"F21:{helper.getTestEndpoint()}", communicator));
test(f21.Identity.Name.Equals("F21"));
f21.op();
test(f22.Identity.Name.Equals("F22"));
if (initial.hasF3())
{
var(f31, f32) = initial.opF3(new F3(new F1("F11"), IF2Prx.Parse("F21", communicator)));
test(f31.f1.name.Equals("F11"));
test(f31.f2.Identity.Name.Equals("F21"));
test(f32.f1.name.Equals("F12"));
test(f32.f2.Identity.Name.Equals("F22"));
}
}
output.WriteLine("ok");
return(initial);
}
public static void TestUniversalGenericThatDerivesFromBaseInstantiatedOverArray()
{
string s = null;
// Root derived types (these types cause the virtual methods to not be in the sealed vtable)
new OtherDerivedType <string>().BaseMethod(new string[] { "s" }, ref s);
new OtherDerivedType <string>().MiddleMethod("s", ref s);
new OtherDerivedTypeLeadingToNonSharedGenerics <short>().BaseMethod(123, ref s);
new OtherDerivedTypeLeadingToNonSharedGenerics <short>().MiddleMethod(123, ref s);
new OtherDerivedTypeWithTwoArgs <string, string>().BaseMethod(new string[] { "s" }, ref s);
new OtherDerivedTypeWithTwoArgs <string, string>().MiddleMethod("s", ref s);
new OtherDerivedTypeWithTwoArgsLeadingToPartialAndNonShared <string, string>().BaseMethod(11, ref s);
new OtherDerivedTypeWithTwoArgsLeadingToPartialAndNonShared <string, string>().MiddleMethod("s", ref s);
Assert.AreEqual(typeof(PartialUniversalGen.DerivedWithArray <>).Name, TypeOf.PUG_DerivedWithArray.Name);
{
var t = TypeOf.PUG_DerivedWithArray.MakeGenericType(TypeOf.Short);
IBase <short[]> b = (IBase <short[]>)Activator.CreateInstance(t);
IMiddle <short> m = (IMiddle <short>)b;
IDerived <short> d = (IDerived <short>)b;
Assert.AreEqual(typeof(short[][]), b.BaseMethod(new short[0], ref s).GetType());
Assert.AreEqual("BaseMethod", s);
Assert.AreEqual(typeof(short[]), m.MiddleMethod(2, ref s).GetType());
Assert.AreEqual("MiddleMethod", s);
Assert.AreEqual(typeof(short[]), d.DerivedMethod(1, ref s).GetType());
Assert.AreEqual("DerivedMethod", s);
}
{
var t = typeof(DerivedWithNonSharedGenerics <>).MakeGenericType(TypeOf.Long);
IBase <int> b = (IBase <int>)Activator.CreateInstance(t);
IMiddle <long> m = (IMiddle <long>)b;
IDerived <long> d = (IDerived <long>)b;
Assert.AreEqual(typeof(int[]), b.BaseMethod(123, ref s).GetType());
Assert.AreEqual("BaseMethod", s);
Assert.AreEqual(typeof(long[]), m.MiddleMethod(2, ref s).GetType());
Assert.AreEqual("MiddleMethod", s);
Assert.AreEqual(typeof(long[]), d.DerivedMethod(1, ref s).GetType());
Assert.AreEqual("DerivedMethod", s);
}
{
var t = typeof(DerivedWithArrayWithTwoArgs <,>).MakeGenericType(TypeOf.Float, TypeOf.Float);
IBase <float[]> b = (IBase <float[]>)Activator.CreateInstance(t);
IMiddle <float> m = (IMiddle <float>)b;
IDerived <float> d = (IDerived <float>)b;
Assert.AreEqual(typeof(float[][]), b.BaseMethod(new float[0], ref s).GetType());
Assert.AreEqual("BaseMethod", s);
Assert.AreEqual(typeof(float[]), m.MiddleMethod(2.0f, ref s).GetType());
Assert.AreEqual("MiddleMethod", s);
Assert.AreEqual(typeof(float[]), d.DerivedMethod(1.0f, ref s).GetType());
Assert.AreEqual("DerivedMethod", s);
}
{
var t = typeof(DerivedWithArrayWithTwoArgsLeadingToPartialAndNonShared <,>).MakeGenericType(TypeOf.Double, TypeOf.Double);
IBase <int> b = (IBase <int>)Activator.CreateInstance(t);
IMiddle <double> m = (IMiddle <double>)b;
IDerived <double> d = (IDerived <double>)b;
Assert.AreEqual(typeof(int[]), b.BaseMethod(11, ref s).GetType());
Assert.AreEqual("BaseMethod", s);
Assert.AreEqual(typeof(double[]), m.MiddleMethod(2.0, ref s).GetType());
Assert.AreEqual("MiddleMethod", s);
Assert.AreEqual(typeof(double[]), d.DerivedMethod(1.0, ref s).GetType());
Assert.AreEqual("DerivedMethod", s);
}
}
public static int TransformID2(IDerived obj)
{
return obj.ID * obj.ID2;
}
public Square( Game game, Vector2D position )
{
this.game = game;
this.position = position;
this.owner = Cell.Derived( () => game.GetOwnerAt( position ) );
this.isValidMove = Cell.Derived( () => game.IsValidMove( position ) );
}
static void M(IDerived obj)
{
obj.Y(); // allowed; IDerived has two Y, but one hides the other
}
static void Main(string[] args)
{
// Create an IDerived reference to a Thing.
// IDerived is an interface that "inherits" from IBase via
// interface inheritance.
Console.WriteLine("Pass a derived interface object "
+ "through a base interface parameter: ");
IDerived id = (IDerived) new Thing();
// Now try to pass id through a reference to IBase (not IDerived).
TestInheritedInterfacePassing(id);
Console.WriteLine("\nYou can add an IDerived object to an IBase collection.");
List <IBase> bases = new List <IBase>();
bases.Add(id);
Console.WriteLine("After adding an IDerived item, collection length is {0}.",
bases.Count);
Console.WriteLine();
// "Polymorphic" behavior is different for classes and interfaces.
Console.WriteLine("\nDemonstrating class polymorphism.");
Thing t = new Thing();
// Install an instance of the derived class in t.
t = new ThingDerived();
// OK to call Thing method through Thing reference
// even though the reference points to a ThingDerived object.
// ThingDerived inherits Thing.SayHello().
Console.Write("Calling base method through base class reference: ");
t.SayHello();
// Also OK to call ThingDerived method through Thing
// reference.
Console.WriteLine("Calling derived method through base class reference: {0}",
t.GetValue());
ThingDerived td = new ThingDerived();
Console.Write("Calling base method through derived object: ");
td.SayHello();
Console.WriteLine("Calling derived method through derived object: {0}",
td.GetValue());
Console.WriteLine("\nDemonstrating interface 'polymorphism.'");
// Thing implements IBase, so this cast is fine.
IBase ib = (IBase) new Thing();
// OK to call SayHello() through the interface because
// Thing implements IBase's SayHello() method.
Console.Write("Calling base method through derived interface reference: ");
ib.SayHello();
// Install an IDerived in the IBase reference.
ib = (IDerived)ib;
Console.Write("Attempting to call derived method through base reference ...");
// The following doesn't compile because
// ib knows nothing about IDerived.GetValue().
//ib.GetValue();
Console.WriteLine(" fails.");
// Cast the base reference to a derived reference.
IDerived id2 = (IDerived)ib;
// However, this works because IDerived defines GetValue().
Console.WriteLine("Calling derived method through converted base reference: {0}",
id2.GetValue());
Console.WriteLine("Press Enter to terminate...");
Console.Read();
}
public EitherDerived(IDerived derived)
{
this.derived = derived;
this.isComplex = false;
}
public static void TakeDerivedRef(ref IDerived argument)
{
}
public static void TakeDerived(IDerived argument)
{
}