void Slave::HandleEnableUnsolicited(const APDU& arRequest, bool aIsEnable)
{
mResponse.Set(FC_RESPONSE);
if (mConfig.mDisableUnsol) {
mRspIIN.SetFuncNotSupported(true);
}
else {
if (aIsEnable) {
this->mDeferredUnsol = true;
}
for (HeaderReadIterator hdr = arRequest.BeginRead(); !hdr.IsEnd(); ++hdr) {
switch (MACRO_DNP_RADIX(hdr->GetGroup(), hdr->GetVariation())) {
case (MACRO_DNP_RADIX(60, 2)):
mConfig.mUnsolMask.class1 = aIsEnable;
break;
case (MACRO_DNP_RADIX(60, 3)):
mConfig.mUnsolMask.class2 = aIsEnable;
break;
case (MACRO_DNP_RADIX(60, 4)):
mConfig.mUnsolMask.class3 = aIsEnable;
break;
default:
mRspIIN.SetFuncNotSupported(true);
LOG_BLOCK(LEV_WARNING, "Cannot enable/disable unsol for " << hdr->GetBaseObject()->Name());
break;
}
}
}
}
void Slave::HandleWrite(const APDU& arRequest)
{
for (HeaderReadIterator hdr = arRequest.BeginRead(); !hdr.IsEnd(); ++hdr) {
switch (hdr->GetGroup()) {
case 112:
this->HandleWriteVto(hdr);
continue;
}
switch (MACRO_DNP_RADIX(hdr->GetGroup(), hdr->GetVariation())) {
case (MACRO_DNP_RADIX(80, 1)):
this->HandleWriteIIN(hdr);
break;
case (MACRO_DNP_RADIX(50, 1)):
this->HandleWriteTimeDate(hdr);
break;
default:
mRspIIN.SetFuncNotSupported(true);
ERROR_BLOCK(LEV_WARNING, "Object/Function mismatch", SERR_OBJ_FUNC_MISMATCH);
break;
}
}
}
void Slave::HandleOperate(const APDU& arRequest, SequenceInfo aSeqInfo)
{
if (aSeqInfo == SI_PREV && mLastRequest == arRequest) {
return;
}
mResponse.Set(FC_RESPONSE);
for (HeaderReadIterator hdr = arRequest.BeginRead(); !hdr.IsEnd(); ++hdr) {
ObjectReadIterator i = hdr.BeginRead();
switch (MACRO_DNP_RADIX(hdr->GetGroup(), hdr->GetVariation())) {
case (MACRO_DNP_RADIX(12, 1)):
this->RespondToCommands<BinaryOutput>(Group12Var1::Inst(), i, boost::bind(&Slave::Operate<BinaryOutput>, this, _1, _2, false, hdr.info(), aSeqInfo, arRequest.GetControl().SEQ));
break;
case (MACRO_DNP_RADIX(41, 1)):
this->RespondToCommands<Setpoint>(Group41Var1::Inst(), i, boost::bind(&Slave::Operate<Setpoint>, this, _1, _2, false, hdr.info(), aSeqInfo, arRequest.GetControl().SEQ));
break;
case (MACRO_DNP_RADIX(41, 2)):
this->RespondToCommands<Setpoint>(Group41Var2::Inst(), i, boost::bind(&Slave::Operate<Setpoint>, this, _1, _2, false, hdr.info(), aSeqInfo, arRequest.GetControl().SEQ));
break;
case (MACRO_DNP_RADIX(41, 3)):
this->RespondToCommands<Setpoint>(Group41Var3::Inst(), i, boost::bind(&Slave::Operate<Setpoint>, this, _1, _2, false, hdr.info(), aSeqInfo, arRequest.GetControl().SEQ));
break;
case (MACRO_DNP_RADIX(41, 4)):
this->RespondToCommands<Setpoint>(Group41Var4::Inst(), i, boost::bind(&Slave::Operate<Setpoint>, this, _1, _2, false, hdr.info(), aSeqInfo, arRequest.GetControl().SEQ));
break;
default:
mRspIIN.SetFuncNotSupported(true);
ERROR_BLOCK(LEV_WARNING, "Object/Function mismatch", SERR_OBJ_FUNC_MISMATCH);
break;
}
}
}
void ResponseLoader::ProcessData(HeaderReadIterator& arIter, int aGrp, int aVar)
{
switch(MACRO_DNP_RADIX(aGrp, aVar))
{
// Control Status
case(MACRO_DNP_RADIX(10,2)): this->Read(arIter, Group10Var2::Inst()); break;
// Binary
case(MACRO_DNP_RADIX(1,1)): this->ReadBitfield<Group1Var1>(arIter); break;
case(MACRO_DNP_RADIX(1,2)): this->Read(arIter, Group1Var2::Inst()); break;
case(MACRO_DNP_RADIX(2,1)): this->Read(arIter, Group2Var1::Inst()); break;
case(MACRO_DNP_RADIX(2,2)): this->Read(arIter, Group2Var2::Inst()); break;
case(MACRO_DNP_RADIX(2,3)): this->Read(arIter, Group2Var3::Inst()); break;
// Counters
case(MACRO_DNP_RADIX(20,1)): this->Read(arIter, Group20Var1::Inst()); break;
case(MACRO_DNP_RADIX(20,2)): this->Read(arIter, Group20Var2::Inst()); break;
case(MACRO_DNP_RADIX(20,3)): this->Read(arIter, Group20Var3::Inst()); break;
case(MACRO_DNP_RADIX(20,4)): this->Read(arIter, Group20Var4::Inst()); break;
case(MACRO_DNP_RADIX(20,5)): this->Read(arIter, Group20Var5::Inst()); break;
case(MACRO_DNP_RADIX(20,6)): this->Read(arIter, Group20Var6::Inst()); break;
case(MACRO_DNP_RADIX(20,7)): this->Read(arIter, Group20Var7::Inst()); break;
case(MACRO_DNP_RADIX(20,8)): this->Read(arIter, Group20Var8::Inst()); break;
case(MACRO_DNP_RADIX(22,1)): this->Read(arIter, Group22Var1::Inst()); break;
case(MACRO_DNP_RADIX(22,2)): this->Read(arIter, Group22Var2::Inst()); break;
case(MACRO_DNP_RADIX(22,3)): this->Read(arIter, Group22Var3::Inst()); break;
case(MACRO_DNP_RADIX(22,4)): this->Read(arIter, Group22Var4::Inst()); break;
// Analogs
case(MACRO_DNP_RADIX(30,1)): this->Read(arIter, Group30Var1::Inst()); break;
case(MACRO_DNP_RADIX(30,2)): this->Read(arIter, Group30Var2::Inst()); break;
case(MACRO_DNP_RADIX(30,3)): this->Read(arIter, Group30Var3::Inst()); break;
case(MACRO_DNP_RADIX(30,4)): this->Read(arIter, Group30Var4::Inst()); break;
case(MACRO_DNP_RADIX(30,5)): this->Read(arIter, Group30Var5::Inst()); break;
case(MACRO_DNP_RADIX(30,6)): this->Read(arIter, Group30Var6::Inst()); break;
case(MACRO_DNP_RADIX(32,1)): this->Read(arIter, Group32Var1::Inst()); break;
case(MACRO_DNP_RADIX(32,2)): this->Read(arIter, Group32Var2::Inst()); break;
case(MACRO_DNP_RADIX(32,3)): this->Read(arIter, Group32Var3::Inst()); break;
case(MACRO_DNP_RADIX(32,4)): this->Read(arIter, Group32Var4::Inst()); break;
case(MACRO_DNP_RADIX(32,5)): this->Read(arIter, Group32Var5::Inst()); break;
case(MACRO_DNP_RADIX(32,6)): this->Read(arIter, Group32Var6::Inst()); break;
case(MACRO_DNP_RADIX(32,7)): this->Read(arIter, Group32Var7::Inst()); break;
case(MACRO_DNP_RADIX(32,8)): this->Read(arIter, Group32Var8::Inst()); break;
// Setpoint Status
case(MACRO_DNP_RADIX(40,1)): this->Read(arIter, Group40Var1::Inst()); break;
case(MACRO_DNP_RADIX(40,2)): this->Read(arIter, Group40Var2::Inst()); break;
case(MACRO_DNP_RADIX(40,3)): this->Read(arIter, Group40Var3::Inst()); break;
case(MACRO_DNP_RADIX(40,4)): this->Read(arIter, Group40Var4::Inst()); break;
// CTO
case(MACRO_DNP_RADIX(51,1)): this->ReadCTO<Group51Var1>(arIter); break;
case(MACRO_DNP_RADIX(51,2)): this->ReadCTO<Group51Var2>(arIter); break;
default:
LOG_BLOCK(LEV_WARNING, "Group: " << aGrp << " Var: " << aVar << " does not map to a data type");
break;
}
}
void ResponseLoader::ProcessData(HeaderReadIterator& arIter, int aGrp, int aVar)
{
/*
* These objects require matching on both the aGrp and aVar fields.
*/
switch (MACRO_DNP_RADIX(aGrp, aVar)) {
// Control Status
case (MACRO_DNP_RADIX(10, 2)): this->Read(arIter, Group10Var2::Inst()); break;
// Binary
case (MACRO_DNP_RADIX(1, 1)): this->ReadBitfield<Group1Var1>(arIter); break;
case (MACRO_DNP_RADIX(1, 2)): this->Read(arIter, Group1Var2::Inst()); break;
case (MACRO_DNP_RADIX(2, 1)): this->Read(arIter, Group2Var1::Inst()); break;
case (MACRO_DNP_RADIX(2, 2)): this->Read(arIter, Group2Var2::Inst()); break;
case (MACRO_DNP_RADIX(2, 3)): this->Read(arIter, Group2Var3::Inst()); break;
// Counters
case (MACRO_DNP_RADIX(20, 1)): this->Read(arIter, Group20Var1::Inst()); break;
case (MACRO_DNP_RADIX(20, 2)): this->Read(arIter, Group20Var2::Inst()); break;
case (MACRO_DNP_RADIX(20, 3)): this->Read(arIter, Group20Var3::Inst()); break;
case (MACRO_DNP_RADIX(20, 4)): this->Read(arIter, Group20Var4::Inst()); break;
case (MACRO_DNP_RADIX(20, 5)): this->Read(arIter, Group20Var5::Inst()); break;
case (MACRO_DNP_RADIX(20, 6)): this->Read(arIter, Group20Var6::Inst()); break;
case (MACRO_DNP_RADIX(20, 7)): this->Read(arIter, Group20Var7::Inst()); break;
case (MACRO_DNP_RADIX(20, 8)): this->Read(arIter, Group20Var8::Inst()); break;
case (MACRO_DNP_RADIX(22, 1)): this->Read(arIter, Group22Var1::Inst()); break;
case (MACRO_DNP_RADIX(22, 2)): this->Read(arIter, Group22Var2::Inst()); break;
case (MACRO_DNP_RADIX(22, 3)): this->Read(arIter, Group22Var3::Inst()); break;
case (MACRO_DNP_RADIX(22, 4)): this->Read(arIter, Group22Var4::Inst()); break;
// Analogs
case (MACRO_DNP_RADIX(30, 1)): this->Read(arIter, Group30Var1::Inst()); break;
case (MACRO_DNP_RADIX(30, 2)): this->Read(arIter, Group30Var2::Inst()); break;
case (MACRO_DNP_RADIX(30, 3)): this->Read(arIter, Group30Var3::Inst()); break;
case (MACRO_DNP_RADIX(30, 4)): this->Read(arIter, Group30Var4::Inst()); break;
case (MACRO_DNP_RADIX(30, 5)): this->Read(arIter, Group30Var5::Inst()); break;
case (MACRO_DNP_RADIX(30, 6)): this->Read(arIter, Group30Var6::Inst()); break;
case (MACRO_DNP_RADIX(32, 1)): this->Read(arIter, Group32Var1::Inst()); break;
case (MACRO_DNP_RADIX(32, 2)): this->Read(arIter, Group32Var2::Inst()); break;
case (MACRO_DNP_RADIX(32, 3)): this->Read(arIter, Group32Var3::Inst()); break;
case (MACRO_DNP_RADIX(32, 4)): this->Read(arIter, Group32Var4::Inst()); break;
case (MACRO_DNP_RADIX(32, 5)): this->Read(arIter, Group32Var5::Inst()); break;
case (MACRO_DNP_RADIX(32, 6)): this->Read(arIter, Group32Var6::Inst()); break;
case (MACRO_DNP_RADIX(32, 7)): this->Read(arIter, Group32Var7::Inst()); break;
case (MACRO_DNP_RADIX(32, 8)): this->Read(arIter, Group32Var8::Inst()); break;
// Setpoint Status
case (MACRO_DNP_RADIX(40, 1)): this->Read(arIter, Group40Var1::Inst()); break;
case (MACRO_DNP_RADIX(40, 2)): this->Read(arIter, Group40Var2::Inst()); break;
case (MACRO_DNP_RADIX(40, 3)): this->Read(arIter, Group40Var3::Inst()); break;
case (MACRO_DNP_RADIX(40, 4)): this->Read(arIter, Group40Var4::Inst()); break;
// CTO
case (MACRO_DNP_RADIX(51, 1)): this->ReadCTO<Group51Var1>(arIter); break;
case (MACRO_DNP_RADIX(51, 2)): this->ReadCTO<Group51Var2>(arIter); break;
default:
this->ProcessSizeByVariation(arIter, aGrp, aVar);
break;
}
}