override protected EndpointI readWithUnderlying(EndpointI underlying, Ice.InputStream s)
{
return(new WSEndpoint(instance_, underlying, s));
}
private static void printReply(System.IO.StringWriter s, Ice.InputStream str)
{
int requestId = str.readInt();
s.Write("\nrequest id = " + requestId);
byte replyStatus = str.readByte();
s.Write("\nreply status = " + (int)replyStatus + ' ');
switch (replyStatus)
{
case ReplyStatus.replyOK:
{
s.Write("(ok)");
break;
}
case ReplyStatus.replyUserException:
{
s.Write("(user exception)");
break;
}
case ReplyStatus.replyObjectNotExist:
case ReplyStatus.replyFacetNotExist:
case ReplyStatus.replyOperationNotExist:
{
switch (replyStatus)
{
case ReplyStatus.replyObjectNotExist:
{
s.Write("(object not exist)");
break;
}
case ReplyStatus.replyFacetNotExist:
{
s.Write("(facet not exist)");
break;
}
case ReplyStatus.replyOperationNotExist:
{
s.Write("(operation not exist)");
break;
}
default:
{
Debug.Assert(false);
break;
}
}
printIdentityFacetOperation(s, str);
break;
}
case ReplyStatus.replyUnknownException:
case ReplyStatus.replyUnknownLocalException:
case ReplyStatus.replyUnknownUserException:
{
switch (replyStatus)
{
case ReplyStatus.replyUnknownException:
{
s.Write("(unknown exception)");
break;
}
case ReplyStatus.replyUnknownLocalException:
{
s.Write("(unknown local exception)");
break;
}
case ReplyStatus.replyUnknownUserException:
{
s.Write("(unknown user exception)");
break;
}
default:
{
Debug.Assert(false);
break;
}
}
string unknown = str.readString();
s.Write("\nunknown = " + unknown);
break;
}
default:
{
s.Write("(unknown)");
break;
}
}
if (replyStatus == ReplyStatus.replyOK || replyStatus == ReplyStatus.replyUserException)
{
Ice.EncodingVersion v = str.skipEncapsulation();
if (!v.Equals(Ice.Util.Encoding_1_0))
{
s.Write("\nencoding = ");
s.Write(Ice.Util.encodingVersionToString(v));
}
}
}
public TcpEndpointI(ProtocolInstance instance, Ice.InputStream s) :
base(instance, s)
{
_timeout = s.readInt();
_compress = s.readBool();
}
public EndpointI create(string str, bool oaEndpoint)
{
string[] arr = IceUtilInternal.StringUtil.splitString(str, " \t\r\n");
if (arr == null)
{
Ice.EndpointParseException e = new Ice.EndpointParseException();
e.str = "mismatched quote";
throw e;
}
if (arr.Length == 0)
{
Ice.EndpointParseException e = new Ice.EndpointParseException();
e.str = "value has no non-whitespace characters";
throw e;
}
List <string> v = new List <string>(arr);
string protocol = v[0];
v.RemoveAt(0);
if (protocol.Equals("default"))
{
protocol = instance_.defaultsAndOverrides().defaultProtocol;
}
EndpointFactory factory = null;
lock (this)
{
for (int i = 0; i < _factories.Count; i++)
{
EndpointFactory f = _factories[i];
if (f.protocol().Equals(protocol))
{
factory = f;
}
}
}
if (factory != null)
{
EndpointI e = factory.create(v, oaEndpoint);
if (v.Count > 0)
{
Ice.EndpointParseException ex = new Ice.EndpointParseException();
ex.str = "unrecognized argument `" + v[0] + "' in endpoint `" + str + "'";
throw ex;
}
return(e);
// Code below left in place for debugging.
/*
* EndpointI e = f.create(s.Substring(m.Index + m.Length), oaEndpoint);
* BasicStream bs = new BasicStream(instance_, true);
* e.streamWrite(bs);
* Buffer buf = bs.getBuffer();
* buf.b.position(0);
* short type = bs.readShort();
* EndpointI ue = new IceInternal.OpaqueEndpointI(type, bs);
* System.Console.Error.WriteLine("Normal: " + e);
* System.Console.Error.WriteLine("Opaque: " + ue);
* return e;
*/
}
//
// If the stringified endpoint is opaque, create an unknown endpoint,
// then see whether the type matches one of the known endpoints.
//
if (protocol.Equals("opaque"))
{
EndpointI ue = new OpaqueEndpointI(v);
if (v.Count > 0)
{
Ice.EndpointParseException ex = new Ice.EndpointParseException();
ex.str = "unrecognized argument `" + v[0] + "' in endpoint `" + str + "'";
throw ex;
}
factory = get(ue.type());
if (factory != null)
{
//
// Make a temporary stream, write the opaque endpoint data into the stream,
// and ask the factory to read the endpoint data from that stream to create
// the actual endpoint.
//
Ice.OutputStream os = new Ice.OutputStream(instance_, Ice.Util.currentProtocolEncoding);
os.writeShort(ue.type());
ue.streamWrite(os);
Ice.InputStream iss =
new Ice.InputStream(instance_, Ice.Util.currentProtocolEncoding, os.getBuffer(), true);
iss.pos(0);
iss.readShort(); // type
iss.startEncapsulation();
EndpointI e = factory.read(iss);
iss.endEncapsulation();
return(e);
}
return(ue); // Endpoint is opaque, but we don't have a factory for its type.
}
return(null);
}
public virtual void read__(Ice.InputStream inS__)
{
inS__.startObject();
readImpl__(inS__);
inS__.endObject(false);
}
public Reference create(Ice.Identity ident, Ice.InputStream s)
{
//
// Don't read the identity here. Operations calling this
// constructor read the identity, and pass it as a parameter.
//
if (ident.name.Length == 0 && ident.category.Length == 0)
{
return(null);
}
//
// For compatibility with the old FacetPath.
//
string[] facetPath = s.readStringSeq();
string facet;
if (facetPath.Length > 0)
{
if (facetPath.Length > 1)
{
throw new Ice.ProxyUnmarshalException();
}
facet = facetPath[0];
}
else
{
facet = "";
}
int mode = s.readByte();
if (mode < 0 || mode > (int)Reference.Mode.ModeLast)
{
throw new Ice.ProxyUnmarshalException();
}
bool secure = s.readBool();
Ice.ProtocolVersion protocol;
Ice.EncodingVersion encoding;
if (!s.getEncoding().Equals(Ice.Util.Encoding_1_0))
{
protocol = new Ice.ProtocolVersion();
protocol.ice_readMembers(s);
encoding = new Ice.EncodingVersion();
encoding.ice_readMembers(s);
}
else
{
protocol = Ice.Util.Protocol_1_0;
encoding = Ice.Util.Encoding_1_0;
}
EndpointI[] endpoints = null;
string adapterId = "";
int sz = s.readSize();
if (sz > 0)
{
endpoints = new EndpointI[sz];
for (int i = 0; i < sz; i++)
{
endpoints[i] = _instance.endpointFactoryManager().read(s);
}
}
else
{
adapterId = s.readString();
}
return(create(ident, facet, (Reference.Mode)mode, secure, protocol, encoding, endpoints, adapterId, null));
}
readWithUnderlying(IceInternal.EndpointI underlying, Ice.InputStream s)
{
return(new EndpointI(_instance, underlying));
}
internal static void traceSend(Ice.OutputStream str, Ice.Logger logger, TraceLevels tl)
{
if(tl.protocol >= 1)
{
int p = str.pos();
Ice.InputStream iss = new Ice.InputStream(str.instance(), str.getEncoding(), str.getBuffer(), false);
iss.pos(0);
using(System.IO.StringWriter s = new System.IO.StringWriter(CultureInfo.CurrentCulture))
{
byte type = printMessage(s, iss);
logger.trace(tl.protocolCat, "sending " + getMessageTypeAsString(type) + " " + s.ToString());
}
str.pos(p);
}
}
static public int allTests(global::Test.TestHelper helper)
{
var communicator = helper.communicator();
MyClassFactoryWrapper factoryWrapper = new MyClassFactoryWrapper();
communicator.getValueFactoryManager().add(factoryWrapper.create, Test.MyClass.ice_staticId());
communicator.getValueFactoryManager().add((id) =>
{
return(new Ice.InterfaceByValue("::Test::MyInterface"));
},
"::Test::MyInterface");
Ice.InputStream inS;
Ice.OutputStream outS;
var output = helper.getWriter();
output.Write("testing primitive types... ");
output.Flush();
{
byte[] data = new byte[0];
inS = new Ice.InputStream(communicator, data);
}
{
outS = new Ice.OutputStream(communicator);
outS.startEncapsulation();
outS.writeBool(true);
outS.endEncapsulation();
var data = outS.finished();
inS = new Ice.InputStream(communicator, data);
inS.startEncapsulation();
test(inS.readBool());
inS.endEncapsulation();
inS = new Ice.InputStream(communicator, data);
inS.startEncapsulation();
test(inS.readBool());
inS.endEncapsulation();
}
{
var data = new byte[0];
inS = new Ice.InputStream(communicator, data);
try
{
inS.readBool();
test(false);
}
catch (Ice.UnmarshalOutOfBoundsException)
{
}
}
{
outS = new Ice.OutputStream(communicator);
outS.writeBool(true);
var data = outS.finished();
inS = new Ice.InputStream(communicator, data);
test(inS.readBool());
}
{
outS = new Ice.OutputStream(communicator);
outS.writeByte(1);
var data = outS.finished();
inS = new Ice.InputStream(communicator, data);
test(inS.readByte() == 1);
}
{
outS = new Ice.OutputStream(communicator);
outS.writeShort(2);
var data = outS.finished();
inS = new Ice.InputStream(communicator, data);
test(inS.readShort() == 2);
}
{
outS = new Ice.OutputStream(communicator);
outS.writeInt(3);
var data = outS.finished();
inS = new Ice.InputStream(communicator, data);
test(inS.readInt() == 3);
}
{
outS = new Ice.OutputStream(communicator);
outS.writeLong(4);
var data = outS.finished();
inS = new Ice.InputStream(communicator, data);
test(inS.readLong() == 4);
}
{
outS = new Ice.OutputStream(communicator);
outS.writeFloat((float)5.0);
var data = outS.finished();
inS = new Ice.InputStream(communicator, data);
test(inS.readFloat() == (float)5.0);
}
{
outS = new Ice.OutputStream(communicator);
outS.writeDouble(6.0);
var data = outS.finished();
inS = new Ice.InputStream(communicator, data);
test(inS.readDouble() == 6.0);
}
{
outS = new Ice.OutputStream(communicator);
outS.writeString("hello world");
var data = outS.finished();
inS = new Ice.InputStream(communicator, data);
test(inS.readString().Equals("hello world"));
}
output.WriteLine("ok");
output.Write("testing constructed types... ");
output.Flush();
{
outS = new Ice.OutputStream(communicator);
Test.MyEnumHelper.write(outS, Test.MyEnum.enum3);
var data = outS.finished();
inS = new Ice.InputStream(communicator, data);
var e = Test.MyEnumHelper.read(inS);
test(e == Test.MyEnum.enum3);
}
{
outS = new Ice.OutputStream(communicator);
var s = new Test.SmallStruct();
s.bo = true;
s.by = 1;
s.sh = 2;
s.i = 3;
s.l = 4;
s.f = 5.0f;
s.d = 6.0;
s.str = "7";
s.e = Test.MyEnum.enum2;
s.p = Test.MyInterfacePrxHelper.uncheckedCast(communicator.stringToProxy("test:default"));
Test.SmallStruct.ice_write(outS, s);
var data = outS.finished();
var s2 = Test.SmallStruct.ice_read(new Ice.InputStream(communicator, data));
test(s2.Equals(s));
}
{
outS = new Ice.OutputStream(communicator);
var o = new Test.OptionalClass();
o.bo = true;
o.by = 5;
o.sh = 4;
o.i = 3;
outS.writeValue(o);
outS.writePendingValues();
var data = outS.finished();
inS = new Ice.InputStream(communicator, data);
TestReadValueCallback cb = new TestReadValueCallback();
inS.readValue(cb.invoke);
inS.readPendingValues();
var o2 = (Test.OptionalClass)cb.obj;
test(o2.bo == o.bo);
test(o2.by == o.by);
if (communicator.getProperties().getProperty("Ice.Default.EncodingVersion").Equals("1.0"))
{
test(!o2.sh.HasValue);
test(!o2.i.HasValue);
}
else
{
test(o2.sh.Value == o.sh.Value);
test(o2.i.Value == o.i.Value);
}
}
{
outS = new Ice.OutputStream(communicator, Ice.Util.Encoding_1_0);
var o = new Test.OptionalClass();
o.bo = true;
o.by = 5;
o.sh = 4;
o.i = 3;
outS.writeValue(o);
outS.writePendingValues();
byte[] data = outS.finished();
inS = new Ice.InputStream(communicator, Ice.Util.Encoding_1_0, data);
var cb = new TestReadValueCallback();
inS.readValue(cb.invoke);
inS.readPendingValues();
var o2 = (Test.OptionalClass)cb.obj;
test(o2.bo == o.bo);
test(o2.by == o.by);
test(!o2.sh.HasValue);
test(!o2.i.HasValue);
}
{
bool[] arr = { true, false, true, false };
outS = new Ice.OutputStream(communicator);
Ice.BoolSeqHelper.write(outS, arr);
var data = outS.finished();
inS = new Ice.InputStream(communicator, data);
var arr2 = Ice.BoolSeqHelper.read(inS);
test(Compare(arr2, arr));
bool[][] arrS = { arr, new bool[0], arr };
outS = new Ice.OutputStream(communicator);
Test.BoolSSHelper.write(outS, arrS);
data = outS.finished();
inS = new Ice.InputStream(communicator, data);
var arr2S = Test.BoolSSHelper.read(inS);
test(Compare(arr2S, arrS));
}
{
byte[] arr = { 0x01, 0x11, 0x12, 0x22 };
outS = new Ice.OutputStream(communicator);
Ice.ByteSeqHelper.write(outS, arr);
var data = outS.finished();
inS = new Ice.InputStream(communicator, data);
var arr2 = Ice.ByteSeqHelper.read(inS);
test(Compare(arr2, arr));
byte[][] arrS = { arr, new byte[0], arr };
outS = new Ice.OutputStream(communicator);
Test.ByteSSHelper.write(outS, arrS);
data = outS.finished();
inS = new Ice.InputStream(communicator, data);
var arr2S = Test.ByteSSHelper.read(inS);
test(Compare(arr2S, arrS));
}
{
Serialize.Small small = new Serialize.Small();
small.i = 99;
outS = new Ice.OutputStream(communicator);
outS.writeSerializable(small);
var data = outS.finished();
inS = new Ice.InputStream(communicator, data);
var small2 = (Serialize.Small)inS.readSerializable();
test(small2.i == 99);
}
{
short[] arr = { 0x01, 0x11, 0x12, 0x22 };
outS = new Ice.OutputStream(communicator);
Ice.ShortSeqHelper.write(outS, arr);
var data = outS.finished();
inS = new Ice.InputStream(communicator, data);
var arr2 = Ice.ShortSeqHelper.read(inS);
test(Compare(arr2, arr));
short[][] arrS = { arr, new short[0], arr };
outS = new Ice.OutputStream(communicator);
Test.ShortSSHelper.write(outS, arrS);
data = outS.finished();
inS = new Ice.InputStream(communicator, data);
var arr2S = Test.ShortSSHelper.read(inS);
test(Compare(arr2S, arrS));
}
{
int[] arr = { 0x01, 0x11, 0x12, 0x22 };
outS = new Ice.OutputStream(communicator);
Ice.IntSeqHelper.write(outS, arr);
var data = outS.finished();
inS = new Ice.InputStream(communicator, data);
var arr2 = Ice.IntSeqHelper.read(inS);
test(Compare(arr2, arr));
int[][] arrS = { arr, new int[0], arr };
outS = new Ice.OutputStream(communicator);
Test.IntSSHelper.write(outS, arrS);
data = outS.finished();
inS = new Ice.InputStream(communicator, data);
var arr2S = Test.IntSSHelper.read(inS);
test(Compare(arr2S, arrS));
}
{
long[] arr = { 0x01, 0x11, 0x12, 0x22 };
outS = new Ice.OutputStream(communicator);
Ice.LongSeqHelper.write(outS, arr);
var data = outS.finished();
inS = new Ice.InputStream(communicator, data);
var arr2 = Ice.LongSeqHelper.read(inS);
test(Compare(arr2, arr));
long[][] arrS = { arr, new long[0], arr };
outS = new Ice.OutputStream(communicator);
Test.LongSSHelper.write(outS, arrS);
data = outS.finished();
inS = new Ice.InputStream(communicator, data);
var arr2S = Test.LongSSHelper.read(inS);
test(Compare(arr2S, arrS));
}
{
float[] arr = { 1, 2, 3, 4 };
outS = new Ice.OutputStream(communicator);
Ice.FloatSeqHelper.write(outS, arr);
byte[] data = outS.finished();
inS = new Ice.InputStream(communicator, data);
float[] arr2 = Ice.FloatSeqHelper.read(inS);
test(Compare(arr2, arr));
float[][] arrS = { arr, new float[0], arr };
outS = new Ice.OutputStream(communicator);
Test.FloatSSHelper.write(outS, arrS);
data = outS.finished();
inS = new Ice.InputStream(communicator, data);
var arr2S = Test.FloatSSHelper.read(inS);
test(Compare(arr2S, arrS));
}
{
double[] arr =
{
1,
2,
3,
4
};
outS = new Ice.OutputStream(communicator);
Ice.DoubleSeqHelper.write(outS, arr);
var data = outS.finished();
inS = new Ice.InputStream(communicator, data);
var arr2 = Ice.DoubleSeqHelper.read(inS);
test(Compare(arr2, arr));
double[][] arrS = { arr, new double[0], arr };
outS = new Ice.OutputStream(communicator);
Test.DoubleSSHelper.write(outS, arrS);
data = outS.finished();
inS = new Ice.InputStream(communicator, data);
var arr2S = Test.DoubleSSHelper.read(inS);
test(Compare(arr2S, arrS));
}
{
string[] arr = { "string1", "string2", "string3", "string4" };
outS = new Ice.OutputStream(communicator);
Ice.StringSeqHelper.write(outS, arr);
var data = outS.finished();
inS = new Ice.InputStream(communicator, data);
var arr2 = Ice.StringSeqHelper.read(inS);
test(Compare(arr2, arr));
string[][] arrS = { arr, new string[0], arr };
outS = new Ice.OutputStream(communicator);
Test.StringSSHelper.write(outS, arrS);
data = outS.finished();
inS = new Ice.InputStream(communicator, data);
var arr2S = Test.StringSSHelper.read(inS);
test(Compare(arr2S, arrS));
}
{
Test.MyEnum[] arr =
{
Test.MyEnum.enum3,
Test.MyEnum.enum2,
Test.MyEnum.enum1,
Test.MyEnum.enum2
};
outS = new Ice.OutputStream(communicator);
Test.MyEnumSHelper.write(outS, arr);
var data = outS.finished();
inS = new Ice.InputStream(communicator, data);
var arr2 = Test.MyEnumSHelper.read(inS);
test(Compare(arr2, arr));
Test.MyEnum[][] arrS = { arr, new Test.MyEnum[0], arr };
outS = new Ice.OutputStream(communicator);
Test.MyEnumSSHelper.write(outS, arrS);
data = outS.finished();
inS = new Ice.InputStream(communicator, data);
var arr2S = Test.MyEnumSSHelper.read(inS);
test(Compare(arr2S, arrS));
}
var smallStructArray = new Test.SmallStruct[3];
for (int i = 0; i < smallStructArray.Length; ++i)
{
smallStructArray[i] = new Test.SmallStruct();
smallStructArray[i].bo = true;
smallStructArray[i].by = 1;
smallStructArray[i].sh = 2;
smallStructArray[i].i = 3;
smallStructArray[i].l = 4;
smallStructArray[i].f = 5.0f;
smallStructArray[i].d = 6.0;
smallStructArray[i].str = "7";
smallStructArray[i].e = Test.MyEnum.enum2;
smallStructArray[i].p = Test.MyInterfacePrxHelper.uncheckedCast(communicator.stringToProxy("test:default"));
}
var myClassArray = new Test.MyClass[4];
for (int i = 0; i < myClassArray.Length; ++i)
{
myClassArray[i] = new Test.MyClass();
myClassArray[i].c = myClassArray[i];
myClassArray[i].o = myClassArray[i];
myClassArray[i].s = new Test.SmallStruct();
myClassArray[i].s.e = Test.MyEnum.enum2;
myClassArray[i].seq1 = new bool[] { true, false, true, false };
myClassArray[i].seq2 = new byte[] { 1, 2, 3, 4 };
myClassArray[i].seq3 = new short[] { 1, 2, 3, 4 };
myClassArray[i].seq4 = new int[] { 1, 2, 3, 4 };
myClassArray[i].seq5 = new long[] { 1, 2, 3, 4 };
myClassArray[i].seq6 = new float[] { 1, 2, 3, 4 };
myClassArray[i].seq7 = new double[] { 1, 2, 3, 4 };
myClassArray[i].seq8 = new string[] { "string1", "string2", "string3", "string4" };
myClassArray[i].seq9 = new Test.MyEnum[] { Test.MyEnum.enum3, Test.MyEnum.enum2, Test.MyEnum.enum1 };
myClassArray[i].seq10 = new Test.MyClass[4]; // null elements.
myClassArray[i].d = new Dictionary <string, Test.MyClass>();
myClassArray[i].d["hi"] = myClassArray[i];
}
var myInterfaceArray = new Ice.Value[4];
for (int i = 0; i < myInterfaceArray.Length; ++i)
{
myInterfaceArray[i] = new Ice.InterfaceByValue("::Test::MyInterface");
}
{
outS = new Ice.OutputStream(communicator);
Test.MyClassSHelper.write(outS, myClassArray);
outS.writePendingValues();
var data = outS.finished();
inS = new Ice.InputStream(communicator, data);
var arr2 = Test.MyClassSHelper.read(inS);
inS.readPendingValues();
test(arr2.Length == myClassArray.Length);
for (int i = 0; i < arr2.Length; ++i)
{
test(arr2[i] != null);
test(arr2[i].c == arr2[i]);
test(arr2[i].o == arr2[i]);
test(arr2[i].s.e == Test.MyEnum.enum2);
test(Compare(arr2[i].seq1, myClassArray[i].seq1));
test(Compare(arr2[i].seq2, myClassArray[i].seq2));
test(Compare(arr2[i].seq3, myClassArray[i].seq3));
test(Compare(arr2[i].seq4, myClassArray[i].seq4));
test(Compare(arr2[i].seq5, myClassArray[i].seq5));
test(Compare(arr2[i].seq6, myClassArray[i].seq6));
test(Compare(arr2[i].seq7, myClassArray[i].seq7));
test(Compare(arr2[i].seq8, myClassArray[i].seq8));
test(Compare(arr2[i].seq9, myClassArray[i].seq9));
test(arr2[i].d["hi"].Equals(arr2[i]));
}
Test.MyClass[][] arrS = { myClassArray, new Test.MyClass[0], myClassArray };
outS = new Ice.OutputStream(communicator);
Test.MyClassSSHelper.write(outS, arrS);
outS.writePendingValues();
data = outS.finished();
inS = new Ice.InputStream(communicator, data);
var arr2S = Test.MyClassSSHelper.read(inS);
inS.readPendingValues();
test(arr2S.Length == arrS.Length);
test(arr2S[0].Length == arrS[0].Length);
test(arr2S[1].Length == arrS[1].Length);
test(arr2S[2].Length == arrS[2].Length);
for (int j = 0; j < arr2S.Length; ++j)
{
for (int k = 0; k < arr2S[j].Length; ++k)
{
test(arr2S[j][k].c == arr2S[j][k]);
test(arr2S[j][k].o == arr2S[j][k]);
test(arr2S[j][k].s.e == Test.MyEnum.enum2);
test(Compare(arr2S[j][k].seq1, myClassArray[k].seq1));
test(Compare(arr2S[j][k].seq2, myClassArray[k].seq2));
test(Compare(arr2S[j][k].seq3, myClassArray[k].seq3));
test(Compare(arr2S[j][k].seq4, myClassArray[k].seq4));
test(Compare(arr2S[j][k].seq5, myClassArray[k].seq5));
test(Compare(arr2S[j][k].seq6, myClassArray[k].seq6));
test(Compare(arr2S[j][k].seq7, myClassArray[k].seq7));
test(Compare(arr2S[j][k].seq8, myClassArray[k].seq8));
test(Compare(arr2S[j][k].seq9, myClassArray[k].seq9));
test(arr2S[j][k].d["hi"].Equals(arr2S[j][k]));
}
}
}
{
outS = new Ice.OutputStream(communicator);
Test.MyInterfaceSHelper.write(outS, myInterfaceArray);
outS.writePendingValues();
var data = outS.finished();
inS = new Ice.InputStream(communicator, data);
var arr2 = Test.MyInterfaceSHelper.read(inS);
inS.readPendingValues();
test(arr2.Length == myInterfaceArray.Length);
Ice.Value[][] arrS = { myInterfaceArray, new Ice.Value[0], myInterfaceArray };
outS = new Ice.OutputStream(communicator);
Test.MyInterfaceSSHelper.write(outS, arrS);
outS.writePendingValues();
data = outS.finished();
inS = new Ice.InputStream(communicator, data);
var arr2S = Test.MyInterfaceSSHelper.read(inS);
inS.readPendingValues();
test(arr2S.Length == arrS.Length);
test(arr2S[0].Length == arrS[0].Length);
test(arr2S[1].Length == arrS[1].Length);
test(arr2S[2].Length == arrS[2].Length);
}
{
outS = new Ice.OutputStream(communicator);
var obj = new Test.MyClass();
obj.s = new Test.SmallStruct();
obj.s.e = Test.MyEnum.enum2;
var writer = new TestValueWriter(obj);
outS.writeValue(writer);
outS.writePendingValues();
var data = outS.finished();
test(writer.called);
factoryWrapper.setFactory(TestObjectFactory);
inS = new Ice.InputStream(communicator, data);
var cb = new TestReadValueCallback();
inS.readValue(cb.invoke);
inS.readPendingValues();
test(cb.obj != null);
test(cb.obj is TestValueReader);
var reader = (TestValueReader)cb.obj;
test(reader.called);
test(reader.obj != null);
test(reader.obj.s.e == Test.MyEnum.enum2);
factoryWrapper.setFactory(null);
}
{
outS = new Ice.OutputStream(communicator);
var ex = new Test.MyException();
var c = new Test.MyClass();
c.c = c;
c.o = c;
c.s = new Test.SmallStruct();
c.s.e = Test.MyEnum.enum2;
c.seq1 = new bool[] { true, false, true, false };
c.seq2 = new byte[] { 1, 2, 3, 4 };
c.seq3 = new short[] { 1, 2, 3, 4 };
c.seq4 = new int[] { 1, 2, 3, 4 };
c.seq5 = new long[] { 1, 2, 3, 4 };
c.seq6 = new float[] { 1, 2, 3, 4 };
c.seq7 = new double[] { 1, 2, 3, 4 };
c.seq8 = new string[] { "string1", "string2", "string3", "string4" };
c.seq9 = new Test.MyEnum[] { Test.MyEnum.enum3, Test.MyEnum.enum2, Test.MyEnum.enum1 };
c.seq10 = new Test.MyClass[4]; // null elements.
c.d = new Dictionary <string, Test.MyClass>();
c.d.Add("hi", c);
ex.c = c;
outS.writeException(ex);
var data = outS.finished();
inS = new Ice.InputStream(communicator, data);
try
{
inS.throwException();
test(false);
}
catch (Test.MyException ex1)
{
test(ex1.c.s.e == c.s.e);
test(Compare(ex1.c.seq1, c.seq1));
test(Compare(ex1.c.seq2, c.seq2));
test(Compare(ex1.c.seq3, c.seq3));
test(Compare(ex1.c.seq4, c.seq4));
test(Compare(ex1.c.seq5, c.seq5));
test(Compare(ex1.c.seq6, c.seq6));
test(Compare(ex1.c.seq7, c.seq7));
test(Compare(ex1.c.seq8, c.seq8));
test(Compare(ex1.c.seq9, c.seq9));
}
catch (Ice.UserException)
{
test(false);
}
}
{
var dict = new Dictionary <byte, bool>();
dict.Add(4, true);
dict.Add(1, false);
outS = new Ice.OutputStream(communicator);
Test.ByteBoolDHelper.write(outS, dict);
var data = outS.finished();
inS = new Ice.InputStream(communicator, data);
var dict2 = Test.ByteBoolDHelper.read(inS);
test(Ice.CollectionComparer.Equals(dict2, dict));
}
{
var dict = new Dictionary <short, int>();
dict.Add(1, 9);
dict.Add(4, 8);
outS = new Ice.OutputStream(communicator);
Test.ShortIntDHelper.write(outS, dict);
var data = outS.finished();
inS = new Ice.InputStream(communicator, data);
var dict2 = Test.ShortIntDHelper.read(inS);
test(Ice.CollectionComparer.Equals(dict2, dict));
}
{
var dict = new Dictionary <long, float>();
dict.Add(123809828, 0.51f);
dict.Add(123809829, 0.56f);
outS = new Ice.OutputStream(communicator);
Test.LongFloatDHelper.write(outS, dict);
var data = outS.finished();
inS = new Ice.InputStream(communicator, data);
var dict2 = Test.LongFloatDHelper.read(inS);
test(Ice.CollectionComparer.Equals(dict2, dict));
}
{
var dict = new Dictionary <string, string>();
dict.Add("key1", "value1");
dict.Add("key2", "value2");
outS = new Ice.OutputStream(communicator);
Test.StringStringDHelper.write(outS, dict);
var data = outS.finished();
inS = new Ice.InputStream(communicator, data);
var dict2 = Test.StringStringDHelper.read(inS);
test(Ice.CollectionComparer.Equals(dict2, dict));
}
{
var dict = new Dictionary <string, Test.MyClass>();
var c = new Test.MyClass();
c.s = new Test.SmallStruct();
c.s.e = Test.MyEnum.enum2;
dict.Add("key1", c);
c = new Test.MyClass();
c.s = new Test.SmallStruct();
c.s.e = Test.MyEnum.enum3;
dict.Add("key2", c);
outS = new Ice.OutputStream(communicator);
Test.StringMyClassDHelper.write(outS, dict);
outS.writePendingValues();
var data = outS.finished();
inS = new Ice.InputStream(communicator, data);
var dict2 = Test.StringMyClassDHelper.read(inS);
inS.readPendingValues();
test(dict2.Count == dict.Count);
test(dict2["key1"].s.e == Test.MyEnum.enum2);
test(dict2["key2"].s.e == Test.MyEnum.enum3);
}
{
bool[] arr = { true, false, true, false };
outS = new Ice.OutputStream(communicator);
var l = new List <bool>(arr);
Test.BoolListHelper.write(outS, l);
var data = outS.finished();
inS = new Ice.InputStream(communicator, data);
var l2 = Test.BoolListHelper.read(inS);
test(Compare(l, l2));
}
{
byte[] arr = { 0x01, 0x11, 0x12, 0x22 };
outS = new Ice.OutputStream(communicator);
var l = new List <byte>(arr);
Test.ByteListHelper.write(outS, l);
var data = outS.finished();
inS = new Ice.InputStream(communicator, data);
var l2 = Test.ByteListHelper.read(inS);
test(Compare(l2, l));
}
{
Test.MyEnum[] arr = { Test.MyEnum.enum3, Test.MyEnum.enum2, Test.MyEnum.enum1, Test.MyEnum.enum2 };
outS = new Ice.OutputStream(communicator);
var l = new List <Test.MyEnum>(arr);
Test.MyEnumListHelper.write(outS, l);
var data = outS.finished();
inS = new Ice.InputStream(communicator, data);
var l2 = Test.MyEnumListHelper.read(inS);
test(Compare(l2, l));
}
{
outS = new Ice.OutputStream(communicator);
var l = new List <Test.SmallStruct>(smallStructArray);
Test.SmallStructListHelper.write(outS, l);
var data = outS.finished();
inS = new Ice.InputStream(communicator, data);
var l2 = Test.SmallStructListHelper.read(inS);
test(l2.Count == l.Count);
for (int i = 0; i < l2.Count; ++i)
{
test(l2[i].Equals(smallStructArray[i]));
}
}
{
outS = new Ice.OutputStream(communicator);
var l = new List <Test.MyClass>(myClassArray);
Test.MyClassListHelper.write(outS, l);
outS.writePendingValues();
var data = outS.finished();
inS = new Ice.InputStream(communicator, data);
var l2 = Test.MyClassListHelper.read(inS);
inS.readPendingValues();
test(l2.Count == l.Count);
for (int i = 0; i < l2.Count; ++i)
{
test(l2[i] != null);
test(l2[i].c == l2[i]);
test(l2[i].o == l2[i]);
test(l2[i].s.e == Test.MyEnum.enum2);
test(Compare(l2[i].seq1, l[i].seq1));
test(Compare(l2[i].seq2, l[i].seq2));
test(Compare(l2[i].seq3, l[i].seq3));
test(Compare(l2[i].seq4, l[i].seq4));
test(Compare(l2[i].seq5, l[i].seq5));
test(Compare(l2[i].seq6, l[i].seq6));
test(Compare(l2[i].seq7, l[i].seq7));
test(Compare(l2[i].seq8, l[i].seq8));
test(Compare(l2[i].seq9, l[i].seq9));
test(l2[i].d["hi"].Equals(l2[i]));
}
}
{
var arr = new Ice.ObjectPrx[2];
arr[0] = communicator.stringToProxy("zero");
arr[1] = communicator.stringToProxy("one");
outS = new Ice.OutputStream(communicator);
var l = new List <Ice.ObjectPrx>(arr);
Test.MyClassProxyListHelper.write(outS, l);
byte[] data = outS.finished();
inS = new Ice.InputStream(communicator, data);
var l2 = Test.MyClassProxyListHelper.read(inS);
test(Compare(l2, l));
}
{
var arr = new Test.MyInterfacePrx[2];
arr[0] = Test.MyInterfacePrxHelper.uncheckedCast(communicator.stringToProxy("zero"));
arr[1] = Test.MyInterfacePrxHelper.uncheckedCast(communicator.stringToProxy("one"));
outS = new Ice.OutputStream(communicator);
var l = new List <Test.MyInterfacePrx>(arr);
Test.MyInterfaceProxyListHelper.write(outS, l);
byte[] data = outS.finished();
inS = new Ice.InputStream(communicator, data);
var l2 = Test.MyInterfaceProxyListHelper.read(inS);
test(Compare(l2, l));
}
{
short[] arr = { 0x01, 0x11, 0x12, 0x22 };
outS = new Ice.OutputStream(communicator);
var l = new LinkedList <short>(arr);
Test.ShortLinkedListHelper.write(outS, l);
var data = outS.finished();
inS = new Ice.InputStream(communicator, data);
var l2 = Test.ShortLinkedListHelper.read(inS);
test(Compare(l2, l));
}
{
int[] arr = { 0x01, 0x11, 0x12, 0x22 };
outS = new Ice.OutputStream(communicator);
LinkedList <int> l = new LinkedList <int>(arr);
Test.IntLinkedListHelper.write(outS, l);
byte[] data = outS.finished();
inS = new Ice.InputStream(communicator, data);
LinkedList <int> l2 = Test.IntLinkedListHelper.read(inS);
test(Compare(l2, l));
}
{
Test.MyEnum[] arr = { Test.MyEnum.enum3, Test.MyEnum.enum2, Test.MyEnum.enum1, Test.MyEnum.enum2 };
outS = new Ice.OutputStream(communicator);
LinkedList <Test.MyEnum> l = new LinkedList <Test.MyEnum>(arr);
Test.MyEnumLinkedListHelper.write(outS, l);
byte[] data = outS.finished();
inS = new Ice.InputStream(communicator, data);
LinkedList <Test.MyEnum> l2 = Test.MyEnumLinkedListHelper.read(inS);
test(Compare(l2, l));
}
{
outS = new Ice.OutputStream(communicator);
var l = new LinkedList <Test.SmallStruct>(smallStructArray);
Test.SmallStructLinkedListHelper.write(outS, l);
var data = outS.finished();
inS = new Ice.InputStream(communicator, data);
var l2 = Test.SmallStructLinkedListHelper.read(inS);
test(l2.Count == l.Count);
var e = l.GetEnumerator();
var e2 = l2.GetEnumerator();
while (e.MoveNext() && e2.MoveNext())
{
test(e.Current.Equals(e2.Current));
}
}
{
long[] arr = { 0x01, 0x11, 0x12, 0x22 };
outS = new Ice.OutputStream(communicator);
var l = new Stack <long>(arr);
Test.LongStackHelper.write(outS, l);
var data = outS.finished();
inS = new Ice.InputStream(communicator, data);
var l2 = Test.LongStackHelper.read(inS);
test(Compare(l2, l));
}
{
float[] arr = { 1, 2, 3, 4 };
outS = new Ice.OutputStream(communicator);
var l = new Stack <float>(arr);
Test.FloatStackHelper.write(outS, l);
byte[] data = outS.finished();
inS = new Ice.InputStream(communicator, data);
var l2 = Test.FloatStackHelper.read(inS);
test(Compare(l2, l));
}
{
outS = new Ice.OutputStream(communicator);
var l = new Stack <Test.SmallStruct>(smallStructArray);
Test.SmallStructStackHelper.write(outS, l);
byte[] data = outS.finished();
inS = new Ice.InputStream(communicator, data);
var l2 = Test.SmallStructStackHelper.read(inS);
test(l2.Count == l.Count);
var e = l.GetEnumerator();
var e2 = l2.GetEnumerator();
while (e.MoveNext() && e2.MoveNext())
{
test(e.Current.Equals(e2.Current));
}
}
{
var arr = new Ice.ObjectPrx[2];
arr[0] = communicator.stringToProxy("zero");
arr[1] = communicator.stringToProxy("one");
outS = new Ice.OutputStream(communicator);
var l = new Stack <Ice.ObjectPrx>(arr);
Test.MyClassProxyStackHelper.write(outS, l);
var data = outS.finished();
inS = new Ice.InputStream(communicator, data);
var l2 = Test.MyClassProxyStackHelper.read(inS);
test(Compare(l2, l));
}
{
var arr = new Test.MyInterfacePrx[2];
arr[0] = Test.MyInterfacePrxHelper.uncheckedCast(communicator.stringToProxy("zero"));
arr[1] = Test.MyInterfacePrxHelper.uncheckedCast(communicator.stringToProxy("one"));
outS = new Ice.OutputStream(communicator);
var l = new Stack <Test.MyInterfacePrx>(arr);
Test.MyInterfaceProxyStackHelper.write(outS, l);
var data = outS.finished();
inS = new Ice.InputStream(communicator, data);
var l2 = Test.MyInterfaceProxyStackHelper.read(inS);
test(Compare(l2, l));
}
{
double[] arr = { 1, 2, 3, 4 };
outS = new Ice.OutputStream(communicator);
var l = new Queue <double>(arr);
Test.DoubleQueueHelper.write(outS, l);
var data = outS.finished();
inS = new Ice.InputStream(communicator, data);
var l2 = Test.DoubleQueueHelper.read(inS);
test(Compare(l2, l));
}
{
string[] arr = { "string1", "string2", "string3", "string4" };
outS = new Ice.OutputStream(communicator);
var l = new Queue <string>(arr);
Test.StringQueueHelper.write(outS, l);
var data = outS.finished();
inS = new Ice.InputStream(communicator, data);
var l2 = Test.StringQueueHelper.read(inS);
test(Compare(l2, l));
}
{
outS = new Ice.OutputStream(communicator);
var l = new Queue <Test.SmallStruct>(smallStructArray);
Test.SmallStructQueueHelper.write(outS, l);
var data = outS.finished();
inS = new Ice.InputStream(communicator, data);
var l2 = Test.SmallStructQueueHelper.read(inS);
test(l2.Count == l.Count);
var e = l.GetEnumerator();
var e2 = l2.GetEnumerator();
while (e.MoveNext() && e2.MoveNext())
{
test(e.Current.Equals(e2.Current));
}
}
{
string[] arr = { "string1", "string2", "string3", "string4" };
string[][] arrS = { arr, new string[0], arr };
outS = new Ice.OutputStream(communicator);
var l = new List <string[]>(arrS);
Test.StringSListHelper.write(outS, l);
byte[] data = outS.finished();
inS = new Ice.InputStream(communicator, data);
var l2 = Test.StringSListHelper.read(inS);
test(Compare(l2, l));
}
{
string[] arr = { "string1", "string2", "string3", "string4" };
string[][] arrS = { arr, new string[0], arr };
outS = new Ice.OutputStream(communicator);
var l = new Stack <string[]>(arrS);
Test.StringSStackHelper.write(outS, l);
var data = outS.finished();
inS = new Ice.InputStream(communicator, data);
var l2 = Test.StringSStackHelper.read(inS);
test(Compare(l2, l));
}
{
var dict = new SortedDictionary <string, string>();
dict.Add("key1", "value1");
dict.Add("key2", "value2");
outS = new Ice.OutputStream(communicator);
Test.SortedStringStringDHelper.write(outS, dict);
var data = outS.finished();
inS = new Ice.InputStream(communicator, data);
var dict2 = Test.SortedStringStringDHelper.read(inS);
test(Ice.CollectionComparer.Equals(dict2, dict));
}
output.WriteLine("ok");
return(0);
}
public override void read(Ice.InputStream inS)
{
obj = new Test.MyClass();
obj.iceRead(inS);
called = true;
}
public InputStreamWrapper(int size, Ice.InputStream s)
{
s_ = s;
pos_ = 0;
length_ = size;
}
private static byte printHeader(System.IO.StringWriter s, Ice.InputStream str)
{
try
{
str.readByte(); // Don't bother printing the magic number
str.readByte();
str.readByte();
str.readByte();
/* byte pMajor = */
str.readByte();
/* byte pMinor = */
str.readByte();
//s.Write("\nprotocol version = " + (int)pMajor + "." + (int)pMinor);
/* byte eMajor = */
str.readByte();
/* byte eMinor = */
str.readByte();
//s.Write("\nencoding version = " + (int)eMajor + "." + (int)eMinor);
byte type = str.readByte();
s.Write("\nmessage type = " + (int)type + " (" + getMessageTypeAsString(type) + ')');
byte compress = str.readByte();
s.Write("\ncompression status = " + (int)compress + ' ');
switch (compress)
{
case 0:
{
s.Write("(not compressed; do not compress response, if any)");
break;
}
case 1:
{
s.Write("(not compressed; compress response, if any)");
break;
}
case 2:
{
s.Write("(compressed; compress response, if any)");
break;
}
default:
{
s.Write("(unknown)");
break;
}
}
int size = str.readInt();
s.Write("\nmessage size = " + size);
return(type);
}
catch (System.IO.IOException)
{
Debug.Assert(false);
return(0);
}
}
public static string[] read(Ice.InputStream istr)
{
string[] v;
v = istr.readStringSeq();
return(v);
}
public override void read__(Ice.InputStream istr)
{
read(istr);
}
internal UdpEndpoint(TransportInstance instance, Ice.InputStream s)
: base(instance, s)
{
_connect = false;
HasCompressionFlag = s.ReadBool();
}
private void invokeAll(Ice.OutputStream os, int requestId, int batchRequestNum)
{
if(_traceLevels.protocol >= 1)
{
fillInValue(os, 10, os.size());
if(requestId > 0)
{
fillInValue(os, Protocol.headerSize, requestId);
}
else if(batchRequestNum > 0)
{
fillInValue(os, Protocol.headerSize, batchRequestNum);
}
TraceUtil.traceSend(os, _logger, _traceLevels);
}
Ice.InputStream iss = new Ice.InputStream(os.instance(), os.getEncoding(), os.getBuffer(), false);
if(batchRequestNum > 0)
{
iss.pos(Protocol.requestBatchHdr.Length);
}
else
{
iss.pos(Protocol.requestHdr.Length);
}
int invokeNum = batchRequestNum > 0 ? batchRequestNum : 1;
ServantManager servantManager = _adapter.getServantManager();
try
{
while(invokeNum > 0)
{
//
// Increase the direct count for the dispatch. We increase it again here for
// each dispatch. It's important for the direct count to be > 0 until the last
// collocated request response is sent to make sure the thread pool isn't
// destroyed before.
//
try
{
_adapter.incDirectCount();
}
catch(Ice.ObjectAdapterDeactivatedException ex)
{
handleException(requestId, ex, false);
break;
}
Incoming @in = new Incoming(_reference.getInstance(), this, null, _adapter, _response, (byte)0,
requestId);
@in.invoke(servantManager, iss);
--invokeNum;
}
}
catch(Ice.LocalException ex)
{
invokeException(requestId, ex, invokeNum, false); // Fatal invocation exception
}
_adapter.decDirectCount();
}
public Endpoint Read(Ice.InputStream s) => new UdpEndpoint(_instance, s);
public InputStreamWrapper(int size, Ice.InputStream s)
{
s_ = s;
pos_ = 0;
length_ = size;
}
ice_invoke(byte[] inParams, out byte[] outParams, Ice.Current current)
{
Ice.Communicator communicator = current.adapter.getCommunicator();
Ice.InputStream inS = new Ice.InputStream(communicator, inParams);
inS.startEncapsulation();
Ice.OutputStream outS = new Ice.OutputStream(communicator);
outS.startEncapsulation();
if (current.operation.Equals("opOneway"))
{
outParams = new byte[0];
return(true);
}
else if (current.operation.Equals("opString"))
{
string s = inS.readString();
outS.writeString(s);
outS.writeString(s);
outS.endEncapsulation();
outParams = outS.finished();
return(true);
}
else if (current.operation.Equals("opException"))
{
if (current.ctx.ContainsKey("raise"))
{
throw new Test.MyException();
}
var ex = new Test.MyException();
outS.writeException(ex);
outS.endEncapsulation();
outParams = outS.finished();
return(false);
}
else if (current.operation.Equals("shutdown"))
{
communicator.shutdown();
outParams = null;
return(true);
}
else if (current.operation.Equals("ice_isA"))
{
string s = inS.readString();
if (s.Equals("::Test::MyClass"))
{
outS.writeBool(true);
}
else
{
outS.writeBool(false);
}
outS.endEncapsulation();
outParams = outS.finished();
return(true);
}
else
{
Ice.OperationNotExistException ex = new Ice.OperationNotExistException();
ex.id = current.id;
ex.facet = current.facet;
ex.operation = current.operation;
throw ex;
}
}
public BaseServiceHelper(Ice.InputStream inS__)
{
_in = inS__;
_pp = new IceInternal.ParamPatcher <minie.irpc.BaseService>("::minie::irpc::BaseService");
}
public void invoke(ServantManager servantManager, Ice.InputStream stream)
{
_is = stream;
int start = _is.pos();
//
// Read the current.
//
current_.id.read__(_is);
//
// For compatibility with the old FacetPath.
//
string[] facetPath = _is.readStringSeq();
if (facetPath.Length > 0)
{
if (facetPath.Length > 1)
{
throw new Ice.MarshalException();
}
current_.facet = facetPath[0];
}
else
{
current_.facet = "";
}
current_.operation = _is.readString();
current_.mode = (Ice.OperationMode)(int) _is.readByte();
current_.ctx = new Dictionary <string, string>();
int sz = _is.readSize();
while (sz-- > 0)
{
string first = _is.readString();
string second = _is.readString();
current_.ctx[first] = second;
}
Ice.Instrumentation.CommunicatorObserver obsv = instance_.initializationData().observer;
if (obsv != null)
{
// Read the encapsulation size.
int size = _is.readInt();
_is.pos(_is.pos() - 4);
observer_ = obsv.getDispatchObserver(current_, _is.pos() - start + size);
if (observer_ != null)
{
observer_.attach();
}
}
//
// Don't put the code above into the try block below. Exceptions
// in the code above are considered fatal, and must propagate to
// the caller of this operation.
//
if (servantManager != null)
{
servant_ = servantManager.findServant(current_.id, current_.facet);
if (servant_ == null)
{
locator_ = servantManager.findServantLocator(current_.id.category);
if (locator_ == null && current_.id.category.Length > 0)
{
locator_ = servantManager.findServantLocator("");
}
if (locator_ != null)
{
try
{
servant_ = locator_.locate(current_, out cookie_);
}
catch (Ice.UserException ex)
{
Ice.EncodingVersion encoding = _is.skipEncapsulation(); // Required for batch requests.
if (observer_ != null)
{
observer_.userException();
}
if (response_)
{
os_.writeByte(ReplyStatus.replyUserException);
os_.startEncapsulation(encoding, Ice.FormatType.DefaultFormat);
os_.writeException(ex);
os_.endEncapsulation();
if (observer_ != null)
{
observer_.reply(os_.size() - Protocol.headerSize - 4);
}
responseHandler_.sendResponse(current_.requestId, os_, compress_, false);
}
else
{
responseHandler_.sendNoResponse();
}
if (observer_ != null)
{
observer_.detach();
observer_ = null;
}
responseHandler_ = null;
return;
}
catch (System.Exception ex)
{
_is.skipEncapsulation(); // Required for batch requests.
handleException__(ex, false);
return;
}
}
}
}
try
{
if (servant_ != null)
{
//
// DispatchAsync is a "pseudo dispatch status", used internally only
// to indicate async dispatch.
//
if (servant_.dispatch__(this, current_) == Ice.DispatchStatus.DispatchAsync)
{
//
// If this was an asynchronous dispatch, we're done here.
//
return;
}
if (locator_ != null && !servantLocatorFinished__(false))
{
return;
}
}
else
{
//
// Skip the input parameters, this is required for reading
// the next batch request if dispatching batch requests.
//
_is.skipEncapsulation();
if (servantManager != null && servantManager.hasServant(current_.id))
{
throw new Ice.FacetNotExistException(current_.id, current_.facet, current_.operation);
}
else
{
throw new Ice.ObjectNotExistException(current_.id, current_.facet, current_.operation);
}
}
}
catch (System.Exception ex)
{
if (servant_ != null && locator_ != null && !servantLocatorFinished__(false))
{
return;
}
handleException__(ex, false);
return;
}
//
// Don't put the code below into the try block above. Exceptions
// in the code below are considered fatal, and must propagate to
// the caller of this operation.
//
Debug.Assert(responseHandler_ != null);
if (response_)
{
if (observer_ != null)
{
observer_.reply(os_.size() - Protocol.headerSize - 4);
}
responseHandler_.sendResponse(current_.requestId, os_, compress_, false);
}
else
{
responseHandler_.sendNoResponse();
}
if (observer_ != null)
{
observer_.detach();
observer_ = null;
}
responseHandler_ = null;
}
public override void read__(Ice.InputStream istr)
{
Debug.Assert(false);
}
protected override Endpoint ReadWithUnderlying(Endpoint underlying, Ice.InputStream s) => new WSEndpoint(Instance, underlying, s);
public EndpointI read(Ice.InputStream s)
{
return(new TcpEndpointI(_instance, s));
}
protected abstract EndpointI readWithUnderlying(EndpointI underlying, Ice.InputStream s);
public void invoke(ServantManager servantManager, Ice.InputStream stream)
{
_is = stream;
int start = _is.pos();
//
// Read the current.
//
_current.id.ice_readMembers(_is);
//
// For compatibility with the old FacetPath.
//
string[] facetPath = _is.readStringSeq();
if (facetPath.Length > 0)
{
if (facetPath.Length > 1)
{
throw new Ice.MarshalException();
}
_current.facet = facetPath[0];
}
else
{
_current.facet = "";
}
_current.operation = _is.readString();
_current.mode = (Ice.OperationMode)_is.readByte();
_current.ctx = new Dictionary <string, string>();
int sz = _is.readSize();
while (sz-- > 0)
{
string first = _is.readString();
string second = _is.readString();
_current.ctx[first] = second;
}
Ice.Instrumentation.CommunicatorObserver obsv = _instance.initializationData().observer;
if (obsv != null)
{
// Read the encapsulation size.
int size = _is.readInt();
_is.pos(_is.pos() - 4);
_observer = obsv.getDispatchObserver(_current, _is.pos() - start + size);
if (_observer != null)
{
_observer.attach();
}
}
//
// Don't put the code above into the try block below. Exceptions
// in the code above are considered fatal, and must propagate to
// the caller of this operation.
//
if (servantManager != null)
{
_servant = servantManager.findServant(_current.id, _current.facet);
if (_servant == null)
{
_locator = servantManager.findServantLocator(_current.id.category);
if (_locator == null && _current.id.category.Length > 0)
{
_locator = servantManager.findServantLocator("");
}
if (_locator != null)
{
Debug.Assert(_locator != null);
try
{
_servant = _locator.locate(_current, out _cookie);
}
catch (Exception ex)
{
skipReadParams(); // Required for batch requests.
handleException(ex, false);
return;
}
}
}
}
if (_servant == null)
{
try
{
if (servantManager != null && servantManager.hasServant(_current.id))
{
throw new Ice.FacetNotExistException(_current.id, _current.facet, _current.operation);
}
else
{
throw new Ice.ObjectNotExistException(_current.id, _current.facet, _current.operation);
}
}
catch (Exception ex)
{
skipReadParams(); // Required for batch requests
handleException(ex, false);
return;
}
}
try
{
Task <Ice.OutputStream> task = _servant.iceDispatch(this, _current);
if (task == null)
{
completed(null, false);
}
else
{
if (task.IsCompleted)
{
_os = task.GetAwaiter().GetResult(); // Get the response
completed(null, false);
}
else
{
task.ContinueWith((Task <Ice.OutputStream> t) =>
{
try
{
_os = t.GetAwaiter().GetResult();
completed(null, true); // true = asynchronous
}
catch (Exception ex)
{
completed(ex, true); // true = asynchronous
}
}, TaskContinuationOptions.ExecuteSynchronously);
}
}
}
catch (Exception ex)
{
completed(ex, false);
}
}
public IceInternal.EndpointI read(Ice.InputStream s)
{
return(new EndpointI(_instance, s));
}
public EndpointI read(Ice.InputStream s)
{
return(new WSEndpoint(_instance, _delegate.read(s), s));
}
public InputStreamWrapper(int size, Ice.InputStream s)
{
_s = s;
_pos = 0;
_length = size;
}
public abstract void read(Ice.InputStream istr);
private void invokeAll(Ice.OutputStream os, int requestId, int batchRequestNum)
{
if (_traceLevels.protocol >= 1)
{
fillInValue(os, 10, os.size());
if (requestId > 0)
{
fillInValue(os, Protocol.headerSize, requestId);
}
else if (batchRequestNum > 0)
{
fillInValue(os, Protocol.headerSize, batchRequestNum);
}
TraceUtil.traceSend(os, _logger, _traceLevels);
}
Ice.InputStream iss = new Ice.InputStream(os.instance(), os.getEncoding(), os.getBuffer(), false);
if (batchRequestNum > 0)
{
iss.pos(Protocol.requestBatchHdr.Length);
}
else
{
iss.pos(Protocol.requestHdr.Length);
}
int invokeNum = batchRequestNum > 0 ? batchRequestNum : 1;
ServantManager servantManager = _adapter.getServantManager();
try
{
while (invokeNum > 0)
{
//
// Increase the direct count for the dispatch. We increase it again here for
// each dispatch. It's important for the direct count to be > 0 until the last
// collocated request response is sent to make sure the thread pool isn't
// destroyed before.
//
try
{
_adapter.incDirectCount();
}
catch (Ice.ObjectAdapterDeactivatedException ex)
{
handleException(requestId, ex, false);
break;
}
Incoming inS = new Incoming(_reference.getInstance(), this, null, _adapter, _response, (byte)0,
requestId);
inS.invoke(servantManager, iss);
--invokeNum;
}
}
catch (Ice.LocalException ex)
{
invokeException(requestId, ex, invokeNum, false); // Fatal invocation exception
}
_adapter.decDirectCount();
}
public void sendResponse(int requestId, Ice.OutputStream os, byte status, bool amd)
{
Ice.AsyncCallback cb = null;
OutgoingAsyncBase outAsync;
lock(this)
{
Debug.Assert(_response);
if(_traceLevels.protocol >= 1)
{
fillInValue(os, 10, os.size());
}
// Adopt the OutputStream's buffer.
Ice.InputStream iss = new Ice.InputStream(os.instance(), os.getEncoding(), os.getBuffer(), true);
iss.pos(Protocol.replyHdr.Length + 4);
if(_traceLevels.protocol >= 1)
{
TraceUtil.traceRecv(iss, _logger, _traceLevels);
}
if(_asyncRequests.TryGetValue(requestId, out outAsync))
{
_asyncRequests.Remove(requestId);
outAsync.getIs().swap(iss);
cb = outAsync.completed();
}
}
if(cb != null)
{
if(amd)
{
outAsync.invokeCompletedAsync(cb);
}
else
{
outAsync.invokeCompleted(cb);
}
}
_adapter.decDirectCount();
}
protected override void readImpl__(Ice.InputStream inS__)
{
inS__.startSlice();
inS__.endSlice();
base.readImpl__(inS__);
}
public void invoke(ServantManager servantManager, Ice.InputStream stream)
{
_is = stream;
int start = _is.pos();
//
// Read the current.
//
current_.id.read__(_is);
//
// For compatibility with the old FacetPath.
//
string[] facetPath = _is.readStringSeq();
if(facetPath.Length > 0)
{
if(facetPath.Length > 1)
{
throw new Ice.MarshalException();
}
current_.facet = facetPath[0];
}
else
{
current_.facet = "";
}
current_.operation = _is.readString();
current_.mode = (Ice.OperationMode)(int)_is.readByte();
current_.ctx = new Dictionary<string, string>();
int sz = _is.readSize();
while(sz-- > 0)
{
string first = _is.readString();
string second = _is.readString();
current_.ctx[first] = second;
}
Ice.Instrumentation.CommunicatorObserver obsv = instance_.initializationData().observer;
if(obsv != null)
{
// Read the encapsulation size.
int size = _is.readInt();
_is.pos(_is.pos() - 4);
observer_ = obsv.getDispatchObserver(current_, _is.pos() - start + size);
if(observer_ != null)
{
observer_.attach();
}
}
//
// Don't put the code above into the try block below. Exceptions
// in the code above are considered fatal, and must propagate to
// the caller of this operation.
//
if(servantManager != null)
{
servant_ = servantManager.findServant(current_.id, current_.facet);
if(servant_ == null)
{
locator_ = servantManager.findServantLocator(current_.id.category);
if(locator_ == null && current_.id.category.Length > 0)
{
locator_ = servantManager.findServantLocator("");
}
if(locator_ != null)
{
try
{
servant_ = locator_.locate(current_, out cookie_);
}
catch(Ice.UserException ex)
{
Ice.EncodingVersion encoding = _is.skipEncapsulation(); // Required for batch requests.
if(observer_ != null)
{
observer_.userException();
}
if(response_)
{
os_.writeByte(ReplyStatus.replyUserException);
os_.startEncapsulation(encoding, Ice.FormatType.DefaultFormat);
os_.writeException(ex);
os_.endEncapsulation();
if(observer_ != null)
{
observer_.reply(os_.size() - Protocol.headerSize - 4);
}
responseHandler_.sendResponse(current_.requestId, os_, compress_, false);
}
else
{
responseHandler_.sendNoResponse();
}
if(observer_ != null)
{
observer_.detach();
observer_ = null;
}
responseHandler_ = null;
return;
}
catch(System.Exception ex)
{
_is.skipEncapsulation(); // Required for batch requests.
handleException__(ex, false);
return;
}
}
}
}
try
{
if(servant_ != null)
{
//
// DispatchAsync is a "pseudo dispatch status", used internally only
// to indicate async dispatch.
//
if(servant_.dispatch__(this, current_) == Ice.DispatchStatus.DispatchAsync)
{
//
// If this was an asynchronous dispatch, we're done here.
//
return;
}
if(locator_ != null && !servantLocatorFinished__(false))
{
return;
}
}
else
{
//
// Skip the input parameters, this is required for reading
// the next batch request if dispatching batch requests.
//
_is.skipEncapsulation();
if(servantManager != null && servantManager.hasServant(current_.id))
{
throw new Ice.FacetNotExistException(current_.id, current_.facet, current_.operation);
}
else
{
throw new Ice.ObjectNotExistException(current_.id, current_.facet, current_.operation);
}
}
}
catch(System.Exception ex)
{
if(servant_ != null && locator_ != null && !servantLocatorFinished__(false))
{
return;
}
handleException__(ex, false);
return;
}
//
// Don't put the code below into the try block above. Exceptions
// in the code below are considered fatal, and must propagate to
// the caller of this operation.
//
Debug.Assert(responseHandler_ != null);
if(response_)
{
if(observer_ != null)
{
observer_.reply(os_.size() - Protocol.headerSize - 4);
}
responseHandler_.sendResponse(current_.requestId, os_, compress_, false);
}
else
{
responseHandler_.sendNoResponse();
}
if(observer_ != null)
{
observer_.detach();
observer_ = null;
}
responseHandler_ = null;
}
public SessionHelper(Ice.InputStream inS__)
{
_in = inS__;
_pp = new IceInternal.ParamPatcher <minie.irpc.Session>("::minie::irpc::Session");
}
internal static void trace(string heading, Ice.OutputStream str, Ice.Logger logger, TraceLevels tl)
{
if(tl.protocol >= 1)
{
int p = str.pos();
Ice.InputStream iss = new Ice.InputStream(str.instance(), str.getEncoding(), str.getBuffer(), false);
iss.pos(0);
using(System.IO.StringWriter s = new System.IO.StringWriter(CultureInfo.CurrentCulture))
{
s.Write(heading);
printMessage(s, iss);
logger.trace(tl.protocolCat, s.ToString());
}
str.pos(p);
}
}
public EndpointI create(string str, bool oaEndpoint)
{
string[] arr = IceUtilInternal.StringUtil.splitString(str, " \t\r\n");
if(arr == null)
{
Ice.EndpointParseException e = new Ice.EndpointParseException();
e.str = "mismatched quote";
throw e;
}
if(arr.Length == 0)
{
Ice.EndpointParseException e = new Ice.EndpointParseException();
e.str = "value has no non-whitespace characters";
throw e;
}
List<string> v = new List<string>(arr);
string protocol = v[0];
v.RemoveAt(0);
if(protocol.Equals("default"))
{
protocol = instance_.defaultsAndOverrides().defaultProtocol;
}
EndpointFactory factory = null;
lock(this)
{
for(int i = 0; i < _factories.Count; i++)
{
EndpointFactory f = _factories[i];
if(f.protocol().Equals(protocol))
{
factory = f;
}
}
}
if(factory != null)
{
EndpointI e = factory.create(v, oaEndpoint);
if(v.Count > 0)
{
Ice.EndpointParseException ex = new Ice.EndpointParseException();
ex.str = "unrecognized argument `" + v[0] + "' in endpoint `" + str + "'";
throw ex;
}
return e;
// Code below left in place for debugging.
/*
EndpointI e = f.create(s.Substring(m.Index + m.Length), oaEndpoint);
BasicStream bs = new BasicStream(instance_, true);
e.streamWrite(bs);
Buffer buf = bs.getBuffer();
buf.b.position(0);
short type = bs.readShort();
EndpointI ue = new IceInternal.OpaqueEndpointI(type, bs);
System.Console.Error.WriteLine("Normal: " + e);
System.Console.Error.WriteLine("Opaque: " + ue);
return e;
*/
}
//
// If the stringified endpoint is opaque, create an unknown endpoint,
// then see whether the type matches one of the known endpoints.
//
if(protocol.Equals("opaque"))
{
EndpointI ue = new OpaqueEndpointI(v);
if(v.Count > 0)
{
Ice.EndpointParseException ex = new Ice.EndpointParseException();
ex.str = "unrecognized argument `" + v[0] + "' in endpoint `" + str + "'";
throw ex;
}
factory = get(ue.type());
if(factory != null)
{
//
// Make a temporary stream, write the opaque endpoint data into the stream,
// and ask the factory to read the endpoint data from that stream to create
// the actual endpoint.
//
Ice.OutputStream os = new Ice.OutputStream(instance_, Ice.Util.currentProtocolEncoding);
os.writeShort(ue.type());
ue.streamWrite(os);
Ice.InputStream iss =
new Ice.InputStream(instance_, Ice.Util.currentProtocolEncoding, os.getBuffer(), true);
iss.pos(0);
iss.readShort(); // type
iss.startEncapsulation();
EndpointI e = factory.read(iss);
iss.endEncapsulation();
return e;
}
return ue; // Endpoint is opaque, but we don't have a factory for its type.
}
return null;
}