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/**
* Licensed to the Apache Software Foundation (ASF) under one
* or more contributor license agreements. See the NOTICE file
* distributed with this work for additional information
* regarding copyright ownership. The ASF licenses this file
* to you under the Apache License, Version 2.0 (the
* "License"); you may not use this file except in compliance
* with the License. You may obtain a copy of the License at
*
* https://www.apache.org/licenses/LICENSE-2.0
*
* Unless required by applicable law or agreed to in writing, software
* distributed under the License is distributed on an "AS IS" BASIS,
* WITHOUT WARRANTIES OR CONDITIONS OF ANY KIND, either express or implied.
* See the License for the specific language governing permissions and
* limitations under the License.
*/
#pragma once
#include <sstream>
#include "boost/any.hpp"
#include <Specific.hh>
#include <Encoder.hh>
#include <Decoder.hh>
#include <Base_Packet.h>
namespace C14 {
static const int NUM_PDM = 37;
static const int LOW_GAINS_SIZE = 64;
static const int HIGH_GAINS_SIZE = 64;
static const int TIME_TRIGGERS_SIZE = 64;
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struct PDMBlock {
bool pdmVal;
bool trgEnb;
bool trgPdm;
bool evtVal;
int32_t spare_3;
int32_t pdmID;
std::vector<int32_t > highgains;
std::vector<int32_t > lowgains;
std::vector<int32_t > timeTriggers;
int64_t hitRegister;
int64_t triggerMask;
int32_t sipmTemp1;
int32_t sipmTemp2;
int32_t sipmTemp3;
int32_t sipmHighVoltage;
int32_t sipmCurrent;
PDMBlock() :
pdmVal(bool()),
trgEnb(bool()),
trgPdm(bool()),
evtVal(bool()),
spare_3(int32_t()),
pdmID(int32_t()),
highgains(std::vector<int32_t >()),
lowgains(std::vector<int32_t >()),
timeTriggers(std::vector<int32_t >()),
hitRegister(int64_t()),
triggerMask(int64_t()),
sipmTemp1(int32_t()),
sipmTemp2(int32_t()),
sipmTemp3(int32_t()),
sipmHighVoltage(int32_t()),
sipmCurrent(int32_t())
{ }
};
struct C14 {
int32_t telescopeID;
int32_t type;
int32_t subType;
int32_t ssc;
int32_t packetLength;
int32_t year;
int32_t month;
int32_t day;
int32_t hours;
int32_t minutes;
int32_t seconds;
bool validTime;
int32_t timeTagNanosec;
int32_t eventCounter;
bool lid;
bool fibSt;
bool fibCont;
bool fibPuls;
int32_t rgbCont;
int32_t rgbPuls;
int32_t spare_0;
int32_t pixelTriggerDiscriminatorThreshold;
int32_t pixelTriggerChargeDiscriminatorThreshold;
bool ptm;
int32_t triggerPixelId;
int32_t triggerType;
int32_t triggerConfig;
int32_t spare_1;
int32_t extTriggerType;
int32_t extTriggerFrequency;
int32_t spare_2;
std::vector<PDMBlock > PDMs;
C14() :
telescopeID(int32_t()),
type(int32_t()),
subType(int32_t()),
ssc(int32_t()),
packetLength(int32_t()),
year(int32_t()),
month(int32_t()),
day(int32_t()),
hours(int32_t()),
minutes(int32_t()),
seconds(int32_t()),
validTime(bool()),
timeTagNanosec(int32_t()),
eventCounter(int32_t()),
lid(bool()),
fibSt(bool()),
fibCont(bool()),
fibPuls(bool()),
rgbCont(int32_t()),
rgbPuls(int32_t()),
spare_0(int32_t()),
pixelTriggerDiscriminatorThreshold(int32_t()),
pixelTriggerChargeDiscriminatorThreshold(int32_t()),
ptm(bool()),
triggerPixelId(int32_t()),
triggerType(int32_t()),
triggerConfig(int32_t()),
spare_1(int32_t()),
extTriggerType(int32_t()),
extTriggerFrequency(int32_t()),
spare_2(int32_t()),
PDMs(std::vector<PDMBlock >())
{ }
};
}
namespace avro {
template<> struct codec_traits<C14::PDMBlock> {
static void encode(Encoder& e, const C14::PDMBlock& v) {
avro::encode(e, v.pdmVal);
avro::encode(e, v.trgEnb);
avro::encode(e, v.trgPdm);
avro::encode(e, v.evtVal);
avro::encode(e, v.spare_3);
avro::encode(e, v.pdmID);
avro::encode(e, v.highgains);
avro::encode(e, v.lowgains);
avro::encode(e, v.timeTriggers);
avro::encode(e, v.hitRegister);
avro::encode(e, v.triggerMask);
avro::encode(e, v.sipmTemp1);
avro::encode(e, v.sipmTemp2);
avro::encode(e, v.sipmTemp3);
avro::encode(e, v.sipmHighVoltage);
avro::encode(e, v.sipmCurrent);
}
static void decode(Decoder& d, C14::PDMBlock& v) {
if (avro::ResolvingDecoder *rd =
dynamic_cast<avro::ResolvingDecoder *>(&d)) {
const std::vector<size_t> fo = rd->fieldOrder();
for (std::vector<size_t>::const_iterator it = fo.begin();
it != fo.end(); ++it) {
switch (*it) {
case 0:
avro::decode(d, v.pdmVal);
break;
case 1:
avro::decode(d, v.trgEnb);
break;
case 2:
avro::decode(d, v.trgPdm);
break;
case 3:
avro::decode(d, v.evtVal);
break;
case 4:
avro::decode(d, v.spare_3);
break;
case 5:
avro::decode(d, v.pdmID);
break;
case 6:
avro::decode(d, v.highgains);
break;
case 7:
avro::decode(d, v.lowgains);
break;
case 8:
avro::decode(d, v.timeTriggers);
break;
case 9:
avro::decode(d, v.hitRegister);
break;
case 10:
avro::decode(d, v.triggerMask);
break;
case 11:
avro::decode(d, v.sipmTemp1);
break;
case 12:
avro::decode(d, v.sipmTemp2);
break;
case 13:
avro::decode(d, v.sipmTemp3);
break;
case 14:
avro::decode(d, v.sipmHighVoltage);
break;
case 15:
avro::decode(d, v.sipmCurrent);
break;
default:
break;
}
}
} else {
avro::decode(d, v.pdmVal);
avro::decode(d, v.trgEnb);
avro::decode(d, v.trgPdm);
avro::decode(d, v.evtVal);
avro::decode(d, v.spare_3);
avro::decode(d, v.pdmID);
avro::decode(d, v.highgains);
avro::decode(d, v.lowgains);
avro::decode(d, v.timeTriggers);
avro::decode(d, v.hitRegister);
avro::decode(d, v.triggerMask);
avro::decode(d, v.sipmTemp1);
avro::decode(d, v.sipmTemp2);
avro::decode(d, v.sipmTemp3);
avro::decode(d, v.sipmHighVoltage);
avro::decode(d, v.sipmCurrent);
}
}
};
template<> struct codec_traits<C14::C14> {
static void encode(Encoder& e, const C14::C14& v) {
avro::encode(e, v.telescopeID);
avro::encode(e, v.type);
avro::encode(e, v.subType);
avro::encode(e, v.ssc);
avro::encode(e, v.packetLength);
avro::encode(e, v.year);
avro::encode(e, v.month);
avro::encode(e, v.day);
avro::encode(e, v.hours);
avro::encode(e, v.minutes);
avro::encode(e, v.seconds);
avro::encode(e, v.validTime);
avro::encode(e, v.timeTagNanosec);
avro::encode(e, v.eventCounter);
avro::encode(e, v.lid);
avro::encode(e, v.fibSt);
avro::encode(e, v.fibCont);
avro::encode(e, v.fibPuls);
avro::encode(e, v.rgbCont);
avro::encode(e, v.rgbPuls);
avro::encode(e, v.spare_0);
avro::encode(e, v.pixelTriggerDiscriminatorThreshold);
avro::encode(e, v.pixelTriggerChargeDiscriminatorThreshold);
avro::encode(e, v.ptm);
avro::encode(e, v.triggerPixelId);
avro::encode(e, v.triggerType);
avro::encode(e, v.triggerConfig);
avro::encode(e, v.spare_1);
avro::encode(e, v.extTriggerType);
avro::encode(e, v.extTriggerFrequency);
avro::encode(e, v.spare_2);
avro::encode(e, v.PDMs);
}
static void decode(Decoder& d, C14::C14& v) {
if (avro::ResolvingDecoder *rd =
dynamic_cast<avro::ResolvingDecoder *>(&d)) {
const std::vector<size_t> fo = rd->fieldOrder();
for (std::vector<size_t>::const_iterator it = fo.begin();
it != fo.end(); ++it) {
switch (*it) {
case 0:
avro::decode(d, v.telescopeID);
break;
case 1:
avro::decode(d, v.type);
break;
case 2:
avro::decode(d, v.subType);
break;
case 3:
avro::decode(d, v.ssc);
break;
case 4:
avro::decode(d, v.packetLength);
break;
case 5:
avro::decode(d, v.year);
break;
case 6:
avro::decode(d, v.month);
break;
case 7:
avro::decode(d, v.day);
break;
case 8:
avro::decode(d, v.hours);
break;
case 9:
avro::decode(d, v.minutes);
break;
case 10:
avro::decode(d, v.seconds);
break;
case 11:
avro::decode(d, v.validTime);
break;
case 12:
avro::decode(d, v.timeTagNanosec);
break;
case 13:
avro::decode(d, v.eventCounter);
break;
case 14:
avro::decode(d, v.lid);
break;
case 15:
avro::decode(d, v.fibSt);
break;
case 16:
avro::decode(d, v.fibCont);
break;
case 17:
avro::decode(d, v.fibPuls);
break;
case 18:
avro::decode(d, v.rgbCont);
break;
case 19:
avro::decode(d, v.rgbPuls);
break;
case 20:
avro::decode(d, v.spare_0);
break;
case 21:
avro::decode(d, v.pixelTriggerDiscriminatorThreshold);
break;
case 22:
avro::decode(d, v.pixelTriggerChargeDiscriminatorThreshold);
break;
case 23:
avro::decode(d, v.ptm);
break;
case 24:
avro::decode(d, v.triggerPixelId);
break;
case 25:
avro::decode(d, v.triggerType);
break;
case 26:
avro::decode(d, v.triggerConfig);
break;
case 27:
avro::decode(d, v.spare_1);
break;
case 28:
avro::decode(d, v.extTriggerType);
break;
case 29:
avro::decode(d, v.extTriggerFrequency);
break;
case 30:
avro::decode(d, v.spare_2);
break;
case 31:
avro::decode(d, v.PDMs);
break;
default:
break;
}
}
} else {
avro::decode(d, v.telescopeID);
avro::decode(d, v.type);
avro::decode(d, v.subType);
avro::decode(d, v.ssc);
avro::decode(d, v.packetLength);
avro::decode(d, v.year);
avro::decode(d, v.month);
avro::decode(d, v.day);
avro::decode(d, v.hours);
avro::decode(d, v.minutes);
avro::decode(d, v.seconds);
avro::decode(d, v.validTime);
avro::decode(d, v.timeTagNanosec);
avro::decode(d, v.eventCounter);
avro::decode(d, v.lid);
avro::decode(d, v.fibSt);
avro::decode(d, v.fibCont);
avro::decode(d, v.fibPuls);
avro::decode(d, v.rgbCont);
avro::decode(d, v.rgbPuls);
avro::decode(d, v.spare_0);
avro::decode(d, v.pixelTriggerDiscriminatorThreshold);
avro::decode(d, v.pixelTriggerChargeDiscriminatorThreshold);
avro::decode(d, v.ptm);
avro::decode(d, v.triggerPixelId);
avro::decode(d, v.triggerType);
avro::decode(d, v.triggerConfig);
avro::decode(d, v.spare_1);
avro::decode(d, v.extTriggerType);
avro::decode(d, v.extTriggerFrequency);
avro::decode(d, v.spare_2);
avro::decode(d, v.PDMs);
}
}
};
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void encodeC14(Encoder &avroencoder,
inaf::oasbo::PacketLib::BasePacket &packet) {
// PACKET HEADER
int offset;
for (offset = 0; offset < 11; offset++)
avro::encode(avroencoder, (int32_t) packet[offset].value());
avro::encode(avroencoder, (bool) packet[11].value());
avro::encode(avroencoder, (int32_t) packet[12].value());
avro::encode(avroencoder, (int32_t) packet[13].value());
avro::encode(avroencoder, (bool) packet[14].value());
avro::encode(avroencoder, (bool) packet[15].value());
avro::encode(avroencoder, (bool) packet[16].value());
avro::encode(avroencoder, (bool) packet[17].value());
// PACKET DATA FIELD HEADER EXTENSION
for (offset = 18; offset < 23; offset++)
avro::encode(avroencoder, (int32_t) packet[offset].value());
avro::encode(avroencoder, (bool) packet[23].value());
for (offset = 24; offset < 31; offset++)
avro::encode(avroencoder, (int32_t) packet[offset].value());
// PACKET SOURCE DATA FIELD
avroencoder.arrayStart();
avroencoder.setItemCount(C14::NUM_PDM);
for (int i = 0; i < C14::NUM_PDM; i++) {
avroencoder.startItem();
avro::encode(avroencoder, (bool) packet[offset++].value());
avro::encode(avroencoder, (bool) packet[offset++].value());
avro::encode(avroencoder, (bool) packet[offset++].value());
avro::encode(avroencoder, (bool) packet[offset++].value());
avro::encode(avroencoder, (int32_t) packet[offset++].value());
avro::encode(avroencoder, (int32_t) packet[offset++].value());
avroencoder.arrayStart();
avroencoder.setItemCount(C14::HIGH_GAINS_SIZE);
for(int i = 0; i < C14::HIGH_GAINS_SIZE; i++){
avroencoder.startItem();
avro::encode(avroencoder, (int32_t) packet[offset+i].value());
}
offset += C14::HIGH_GAINS_SIZE;
avroencoder.arrayEnd();
avroencoder.arrayStart();
avroencoder.setItemCount(C14::LOW_GAINS_SIZE);
for(int i = 0; i < C14::LOW_GAINS_SIZE; i++){
avroencoder.startItem();
avro::encode(avroencoder, (int32_t) packet[offset+i].value());
}
offset += C14::LOW_GAINS_SIZE;
avroencoder.arrayEnd();
avroencoder.arrayStart();
avroencoder.setItemCount(C14::TIME_TRIGGERS_SIZE);
for(int i = 0; i < C14::TIME_TRIGGERS_SIZE; i++){
avroencoder.startItem();
avro::encode(avroencoder, (int32_t) packet[offset+i].value());
}
offset += C14::TIME_TRIGGERS_SIZE;
avroencoder.arrayEnd();
avro::encode(avroencoder, (long) packet[offset++].value());
avro::encode(avroencoder, (long) packet[offset++].value());
avro::encode(avroencoder, (int32_t) packet[offset++].value());
avro::encode(avroencoder, (int32_t) packet[offset++].value());
avro::encode(avroencoder, (int32_t) packet[offset++].value());
avro::encode(avroencoder, (int32_t) packet[offset++].value());
avro::encode(avroencoder, (int32_t) packet[offset++].value());
}
avroencoder.arrayEnd();
}