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MARTe2-isttok/DataSources/AtcaIop/AtcaIopADC.cpp
Bernardo Carvalho 361ab6880c Moved to Signal Arrays 
Signed-off-by: Bernardo Carvalho <bernardo.carvalho@tecnico.ulisboa.pt>
2024-12-14 00:27:44 +00:00

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/**
* @file AtcaIopADC.cpp
* @brief Source file for class AtcaIopADC
* @date 19/09/2020
* @author Andre Neto / Bernardo Carvalho
*
* @copyright Copyright 2015 F4E | European Joint Undertaking for ITER and
* the Development of Fusion Energy ('Fusion for Energy').
* Licensed under the EUPL, Version 1.1 or - as soon they will be approved
* by the European Commission - subsequent versions of the EUPL (the "Licence")
* You may not use this work except in compliance with the Licence.
* You may obtain a copy of the Licence at: http://ec.europa.eu/idabc/eupl
*
* @warning Unless required by applicable law or agreed to in writing,
* software distributed under the Licence is distributed on an "AS IS"
* basis, WITHOUT WARRANTIES OR CONDITIONS OF ANY KIND, either express
* or implied. See the Licence permissions and limitations under the Licence.
* @details This source file contains the definition of all the methods for
* the class AtcaIopADC (public, protected, and private). Be aware that some
* methods, such as those inline could be defined on the header file, instead.
*/
//#define DLL_API
/*---------------------------------------------------------------------------*/
/* Standard header includes */
/*---------------------------------------------------------------------------*/
//#include <math.h>
#include <fcntl.h>
#include <sys/mman.h> // For mmap()
#include <unistd.h> // for close()
/*---------------------------------------------------------------------------*/
/* Project header includes */
/*---------------------------------------------------------------------------*/
#include "AdvancedErrorManagement.h"
#include "MemoryMapSynchronisedInputBroker.h"
#include "AtcaIopADC.h"
#include "atca-v6-iop-ioctl.h"
#define DEBUG_POLL 32768
/*---------------------------------------------------------------------------*/
/* Static definitions */
/*---------------------------------------------------------------------------*/
namespace MARTe {
const uint32 POLL_EXTRA_WAIT = 50000u; // 50 us
//const float64 ADC_SIMULATOR_PI = 3.14159265359;
const uint32 IOP_ADC_OFFSET = 2u; // in DMA Data packet in 32b. First 2 are counter.
const uint32 IOP_ADC_INTEG_OFFSET = 16u; // in 64 bit words
const uint32 RT_PCKT_SIZE = 1024u;
const uint32 RT_PCKT64_SIZE = 512u; // In 64 bit words
/* 256 + 3840 = 4096 B (PAGE_SIZE) data packet
typedef struct _DMA_CH1_PCKT {
uint32 head_time_cnt;
uint32 header; // h5431BACD
int32 channel[60]; // 24 56
uint32 foot_time_cnt;
uint32 footer; // h9876ABDC
uint8 page_fill[3840];
} DMA_CH1_PCKT;
*/
#define DMA_RT_PCKT_SIZE 256
/* 256 Bytes RT data packet */
typedef struct _DMA_CH1_PCKT {
volatile uint32_t head_time_cnt;
volatile uint32_t header; // h5431BACD
volatile int32_t adc_decim_data[ADC_CHANNELS];
volatile uint64_t _fill64_0; // 00
volatile int64_t adc_integ_data[ADC_CHANNELS];
volatile int64_t _fill64_1[4]; // 00
volatile uint32_t sample_cnt;
volatile uint32_t _fill32; // hAAAABBBB
volatile uint32_t foot_time_cnt;
volatile uint32_t footer; // h9876ABDC
} DMA_CH1_PCKT;
struct atca_eo_config {
int32_t offset[ATCA_IOP_N_ADCs];
};
struct atca_wo_config {
int32_t offset[ATCA_IOP_N_ADCs];
};
//}
/*---------------------------------------------------------------------------*/
/* Method definitions */
/*---------------------------------------------------------------------------*/
AtcaIopADC::AtcaIopADC() :
DataSourceI(), MessageI(), EmbeddedServiceMethodBinderI(), executor(*this) {
deviceName = "";
boardId = 2u;
//deviceDmaName = "";
boardFileDescriptor = -1;
boardDmaDescriptor = -1;
mappedDmaBase = NULL;
mappedDmaSize = 0u;
isMaster = 0u;
oldestBufferIdx = 0u;
lastTimeTicks = 0u;
sleepTimeTicks = 0u;
timerPeriodUsecTime = 0u;
counterAndTimer[0] = 0u;
counterAndTimer[1] = 0u;
timeoutCount = 0u;
timeoutMax = 0u;
sleepNature = Busy;
sleepPercentage = 0u;
//execCounter = 0u;
//pollTimout = 0u;
adcPeriod = 0.;
uint32 k;
adcValues = NULL_PTR(int32 *);
for (k=0u; k < ATCA_IOP_N_ADCs; k++) {
electricalOffsets[k] = 0u;
wiringOffsets[k] = 0.0;
}
for (k=0u; k < ATCA_IOP_N_INTEGRALS; k++) {
adcIntegralValues[k] = 0u;
}
if (!synchSem.Create()) {
REPORT_ERROR(ErrorManagement::FatalError, "Could not create EventSem.");
}
}
/*lint -e{1551} the destructor must guarantee that the Timer SingleThreadService is stopped.*/
AtcaIopADC::~AtcaIopADC() {
if (boardFileDescriptor != -1) {
// Synchronize DMA before accessing board registers
oldestBufferIdx = GetOldestBufferIdx();
PollDmaBuff(2000000u); // wait max 2ms
ioctl(boardFileDescriptor, ATCA_PCIE_IOPT_STREAM_DISABLE);
ioctl(boardFileDescriptor, ATCA_PCIE_IOPT_DMA_DISABLE);
uint32 statusReg = 0;
ioctl(boardFileDescriptor, ATCA_PCIE_IOPG_STATUS, &statusReg);
//rc = ioctl(boardFileDescriptor, ATCA_PCIE_IOPT_DMA_RESET);
close(boardFileDescriptor);
REPORT_ERROR(ErrorManagement::Information, "Close device %d OK. Status Reg 0x%x,", boardFileDescriptor, statusReg);
}
if (!synchSem.Post()) {
REPORT_ERROR(ErrorManagement::Warning, "Could not post EventSem.");
}
if (!executor.Stop()) {
if (!executor.Stop()) {
REPORT_ERROR(ErrorManagement::Warning, "Could not stop SingleThreadService.");
}
}
// some waiting..
//float32 sleepTime = static_cast<float32>(static_cast<float64>(1000) * HighResolutionTimer::Period());
//Sleep::NoMore(sleepTime);
if (boardDmaDescriptor != -1) {
close(boardDmaDescriptor);
REPORT_ERROR(ErrorManagement::Information, "Close device %d OK", boardDmaDescriptor);
}
adcValues = NULL_PTR(int32 *);
//uint32 k;
}
bool AtcaIopADC::AllocateMemory() {
return true;
}
bool AtcaIopADC::Initialise(StructuredDataI& data) {
bool ok = DataSourceI::Initialise(data);
if (ok) {
ok = data.Read("DeviceName", deviceName);
if (!ok) {
REPORT_ERROR(ErrorManagement::ParametersError, "The DeviceName shall be specified");
}
}
if (ok) {
ok = data.Read("BoardId", boardId);
if (!ok) {
REPORT_ERROR(ErrorManagement::ParametersError, "The BoardId shall be specified");
}
}
numberOfChannels = 0u;
if (ok) {
ok = data.Read("NumberOfChannels", numberOfChannels);
if (!ok) {
REPORT_ERROR(ErrorManagement::ParametersError, "The NumberOfChannels shall be specified");
}
if (numberOfChannels > ATCA_IOP_N_ADCs ) {
numberOfChannels = ATCA_IOP_N_ADCs;
}
}
if (ok) {
ok = data.Read("RTDecimation", rtDecimation);
if (!ok) {
REPORT_ERROR(ErrorManagement::ParametersError, "The RTDecimation shall be specified");
}
if (rtDecimation > 2000000u) {
rtDecimation = 2000000u;
}
}
StreamString sleepNatureStr;
if (!data.Read("SleepNature", sleepNatureStr)) {
REPORT_ERROR(ErrorManagement::Information, "SleepNature was not set. Using Default.");
sleepNatureStr = "Default";
}
if (sleepNatureStr == "Default") {
sleepNature = Default;
}
else if (sleepNatureStr == "Busy") {
sleepNature = Busy;
if (!data.Read("SleepPercentage", sleepPercentage)) {
sleepPercentage = 0u;
REPORT_ERROR(ErrorManagement::Information, "SleepPercentage was not set. Using Default %d.", sleepPercentage);
}
if (sleepPercentage > 100u) {
sleepPercentage = 100u;
}
}
else {
REPORT_ERROR(ErrorManagement::ParametersError, "Unsupported SleepNature.");
ok = false;
}
AnyType arrayDescription = data.GetType("ElectricalOffsets");
uint32 numberOfElements = 0u;
if (ok) {
ok = arrayDescription.GetDataPointer() != NULL_PTR(void *);
}
if (ok) {
numberOfElements = arrayDescription.GetNumberOfElements(0u);
ok = (numberOfElements == numberOfChannels);
if (!ok) {
REPORT_ERROR(ErrorManagement::ParametersError, "Exactly %d elements shall be defined in the array ElectricalOffsets", numberOfChannels);
}
}
if (ok) {
Vector<int32> readVector(&electricalOffsets[0u], numberOfElements);
ok = data.Read("ElectricalOffsets", readVector);
}
arrayDescription = data.GetType("WiringOffsets");
numberOfElements = 0u;
if (ok) {
ok = arrayDescription.GetDataPointer() != NULL_PTR(void *);
}
if (ok) {
numberOfElements = arrayDescription.GetNumberOfElements(0u);
ok = (numberOfElements == numberOfChannels);
if (!ok) {
REPORT_ERROR(ErrorManagement::ParametersError, "Exactly %d elements shall be defined in the array WiringOffsets", numberOfChannels);
}
}
if (ok) {
Vector<float32> readVector(&wiringOffsets[0u], numberOfElements);
ok = data.Read("WiringOffsets", readVector);
}
chopperPeriod = 1000;
if (!data.Read("ChopperPeriod", chopperPeriod)) {
REPORT_ERROR(ErrorManagement::Warning, "ChopperPeriod not specified. Using default: %d", chopperPeriod);
}
if (!data.Read("IsMaster", isMaster)) {
REPORT_ERROR(ErrorManagement::Warning, "IsMaster not specified. Using default: %d", isMaster);
}
adcFrequency = 2e5;
if (!data.Read("ADCFrequency", adcFrequency)) {
REPORT_ERROR(ErrorManagement::Warning, "ADCFrequency not specified. Using default: %d", adcFrequency);
}
adcPeriod = 1./adcFrequency;
if (ok) {
uint32 cpuMaskIn;
if (!data.Read("CPUMask", cpuMaskIn)) {
cpuMaskIn = 0xFFu;
REPORT_ERROR(ErrorManagement::Warning, "CPUMask not specified using: %d", cpuMaskIn);
}
cpuMask = cpuMaskIn;
}
if (ok) {
if (!data.Read("StackSize", stackSize)) {
stackSize = THREADS_DEFAULT_STACKSIZE;
REPORT_ERROR(ErrorManagement::Warning, "StackSize not specified using: %d", stackSize);
}
}
if (ok) {
ok = (stackSize > 0u);
if (!ok) {
REPORT_ERROR(ErrorManagement::ParametersError, "StackSize shall be > 0u");
}
}
if (ok) {
executor.SetCPUMask(cpuMask);
executor.SetStackSize(stackSize);
}
return ok;
}
bool AtcaIopADC::SetConfiguredDatabase(StructuredDataI& data) {
bool ok = DataSourceI::SetConfiguredDatabase(data);
struct atca_eo_config eo_conf;
struct atca_wo_config wo_conf;
//The DataSource shall have N signals.
//
if (ok) {
ok = (GetNumberOfSignals() == ATCA_IOP_N_SIGNALS);
}
if (!ok) {
REPORT_ERROR(ErrorManagement::ParametersError, "Exactly %d signals shall be configured", ATCA_IOP_N_SIGNALS);
}
uint32 i, startPos, endPos;
startPos = 0u;
endPos = ATCA_IOP_N_TIMCNT;
for (i=startPos; (i < endPos) && (ok); i++) {
ok = (GetSignalType(i).type == UnsignedInteger);
if (!ok) {
REPORT_ERROR(ErrorManagement::ParametersError, "The signal %d shall be of type UnsignedInteger", i);
}
ok = (GetSignalType(i).numberOfBits == 32u);
if (!ok) {
REPORT_ERROR(ErrorManagement::ParametersError, "The signal in position %d shall have 32 bits and %d were specified", i, uint16(GetSignalType(i).numberOfBits));
}
}
ok = (GetSignalType(4u).type == SignedInteger);
if (!ok) {
REPORT_ERROR(ErrorManagement::ParametersError, "The signal 4 shall be of type SignedInteger");
}
ok = (GetSignalType(4u).numberOfBits == 32u);
if (!ok) {
REPORT_ERROR(ErrorManagement::ParametersError, "The signal in position %d shall have 32 bits and %d were specified", i, uint16(GetSignalType(i).numberOfBits));
}
uint8 nDimensions = 0u;
uint32 nElements = 0u;
ok = GetSignalNumberOfDimensions(4u, nDimensions);
if (ok) {
ok = GetSignalNumberOfElements(4u, nElements);
REPORT_ERROR(ErrorManagement::Information, "The signal 4 shall has %d Elements", nElements);
}
startPos = endPos;
endPos = startPos + ATCA_IOP_N_ADCs;
if (ok) {
ok = (GetSignalType(5u).type == SignedInteger);
}
if (!ok) {
REPORT_ERROR(ErrorManagement::ParametersError, "The signal 4 shall be of type SignedInteger");
}
ok = (GetSignalType(5u).numberOfBits == 64u);
if (!ok) {
REPORT_ERROR(ErrorManagement::ParametersError, "The signal in position 5 shall have 64 bits and %d were specified", uint16(GetSignalType(i).numberOfBits));
}
nDimensions = 0u;
nElements = 0u;
if (!ok) {
ok = GetSignalNumberOfDimensions(5u, nDimensions);
}
if (ok) {
ok = GetSignalNumberOfElements(5u, nElements);
}
StreamString fullDeviceName;
//Configure the board
if (ok) {
ok = fullDeviceName.Printf("%s_%d", deviceName.Buffer(), boardId);
}
if (ok) {
ok = fullDeviceName.Seek(0LLU);
}
if (ok) {
boardFileDescriptor = open(fullDeviceName.Buffer(), O_RDWR);
ok = (boardFileDescriptor > -1);
if (!ok) {
REPORT_ERROR_PARAMETERS(ErrorManagement::ParametersError, "Could not open device %s", fullDeviceName);
}
else
REPORT_ERROR(ErrorManagement::Information, "Open device %s OK", fullDeviceName);
}
ok = fullDeviceName.Seek(0LLU);
if (ok) {
ok = fullDeviceName.Printf("%s_dmart_%d", deviceName.Buffer(), boardId);
}
if (ok) {
ok = fullDeviceName.Seek(0LLU);
}
if (ok) {
boardDmaDescriptor = open(fullDeviceName.Buffer(), O_RDWR);
ok = (boardDmaDescriptor > -1);
if (!ok) {
REPORT_ERROR_PARAMETERS(ErrorManagement::ParametersError, "Could not open DMA device %s", fullDeviceName);
}
else
REPORT_ERROR(ErrorManagement::Information, "Open DMA device %s OK", fullDeviceName);
}
//mappedDmaBase = (int32 *) mmap(0, getpagesize() * NUMBER_OF_BUFFERS,
mappedDmaSize = getpagesize();
mappedDmaBase = mmap(0, mappedDmaSize, //4096u, // * NUMBER_OF_BUFFERS,
PROT_READ, MAP_SHARED, boardDmaDescriptor, 0);
if (mappedDmaBase == MAP_FAILED){
ok = false;
REPORT_ERROR(ErrorManagement::FatalError, "Error Mapping DMA Memory Device %s", fullDeviceName);
}
uint32 statusReg = 0;
int rc = ioctl(boardFileDescriptor, ATCA_PCIE_IOPT_DMA_RESET);
//rc = ioctl(boardFileDescriptor, ATCA_PCIE_IOPT_STREAM_DISABLE);
if (chopperPeriod > 0)
{
uint32 chopCounter = (chopperPeriod) << 16;
chopCounter &= 0xFFFF0000;
chopCounter |= chopperPeriod / 2;
rc = ioctl(boardFileDescriptor, ATCA_PCIE_IOPS_CHOP_COUNTERS, &chopCounter);
//read chopper
chopCounter = 0;
rc = ioctl(boardFileDescriptor, ATCA_PCIE_IOPG_CHOP_COUNTERS, &chopCounter);
rc = ioctl(boardFileDescriptor, ATCA_PCIE_IOPT_CHOP_ON);
REPORT_ERROR(ErrorManagement::Information, "Chop ON 0x%x", chopCounter);
}
else
rc = ioctl(boardFileDescriptor, ATCA_PCIE_IOPT_CHOP_OFF);
for (i=0u; i < ATCA_IOP_N_ADCs ; i++) {
eo_conf.offset[i] = 0u;
wo_conf.offset[i] = 0.0;
}
for (i=0u; i < ATCA_IOP_N_ADCs ; i++) {
eo_conf.offset[i] = electricalOffsets[i];
wo_conf.offset[i] = static_cast<int32>(wiringOffsets[i] * 65536);
// REPORT_ERROR(ErrorManagement::Information, "WiringOffset %d: %d", i, wo_conf.offset[i]);
}
rc = ioctl(boardFileDescriptor, ATCA_PCIE_IOPS_EO_OFFSETS, &eo_conf);
rc = ioctl(boardFileDescriptor, ATCA_PCIE_IOPS_WO_OFFSETS, &wo_conf);
rc = ioctl(boardFileDescriptor, ATCA_PCIE_IOPG_STATUS, &statusReg);
if (rc) {
ok = false;
REPORT_ERROR(ErrorManagement::FatalError, "Device Status Reg %d, 0x%x", rc, statusReg);
}
// rc = ioctl(boardFileDescriptor, ATCA_PCIE_IOPT_ACQ_ENABLE);
//rc = ioctl(boardFileDescriptor, ATCA_PCIE_IOPT_DMA_DISABLE);
//Sleep::Busy(0.001); // in Sec
//rc = ioctl(boardFileDescriptor, ATCA_PCIE_IOPT_ACQ_DISABLE);
rc = ioctl(boardFileDescriptor, ATCA_PCIE_IOPT_IRQ_DISABLE);
rc = ioctl(boardFileDescriptor, ATCA_PCIE_IOPT_STREAM_ENABLE);
//rc = ioctl(boardFileDescriptor, ATCA_PCIE_IOPG_STATUS, &statusReg);
Sleep::Busy(0.0011); // in Sec
int32 currentDMA = 0u;// = CurrentBufferIndex(200);
for (i = 0u; i < 1; i++) {
oldestBufferIdx = GetOldestBufferIdx();
currentDMA = PollDmaBuff(2000000u); // wait max 2ms
REPORT_ERROR(ErrorManagement::Information, "AtcaIopADC::CurrentBufferIndex: %d, Idx: %d", currentDMA, oldestBufferIdx);
}
REPORT_ERROR(ErrorManagement::Information, "AtcaIopADC::CurrentBufferIndex: %d", currentDMA);
//REPORT_ERROR(ErrorManagement::Warning, "SleepTime %d, count:0x%x", sleepTime, pdma[3].head_time_cnt);
uint32 nOfFunctions = GetNumberOfFunctions();
float32 cycleFrequency = -1.0F;
bool frequencyFound = false;
uint32 functionIdx;
//How many GAMs (functions) are interacting with this DataSource?
for (functionIdx = 0u; (functionIdx < nOfFunctions) && (ok); functionIdx++) {
uint32 nOfSignals = 0u;
ok = GetFunctionNumberOfSignals(InputSignals, functionIdx, nOfSignals);
uint32 i;
for (i = 0u; (i < nOfSignals) && (ok); i++) {
if (!frequencyFound) {
ok = GetFunctionSignalReadFrequency(InputSignals, functionIdx, i, cycleFrequency);
//Found a GAM that wants to synchronise on this DataSourceI. We need to have one and exactly one GAM asking to synchronise in this DataSource.
frequencyFound = (cycleFrequency > 0.F);
}
bool isCounter = false;
bool isTime = false;
bool isAdc = false;
// bool isAdcDecim = false;
//bool isAdcSim = false;
uint32 signalIdx = 0u;
uint32 nSamples = 0u;
uint32 nElements = 0u;
ok = GetFunctionSignalSamples(InputSignals, functionIdx, i, nSamples);
//Is the counter or the time signal?
StreamString signalAlias;
if (ok) {
ok = GetFunctionSignalAlias(InputSignals, functionIdx, i, signalAlias);
}
if (ok) {
ok = GetSignalIndex(signalIdx, signalAlias.Buffer());
}
if (ok) {
isCounter = (signalIdx == 0u);
isTime = (signalIdx == 1u);
isAdc = (signalIdx < ATCA_IOP_N_TIMCNT + ATCA_IOP_N_ADCs + ATCA_IOP_N_INTEGRALS);
if (isCounter) {
if (nSamples > 1u) {
ok = false;
REPORT_ERROR(ErrorManagement::ParametersError, "The first signal (counter) shall have one and only one sample");
}
}
else if (isTime) {
if (nSamples > 1u) {
ok = false;
REPORT_ERROR(ErrorManagement::ParametersError, "The second signal (time) shall have one and only one sample");
}
}
/*
else if (isAdcDecim) {
ok = GetSignalNumberOfElements(signalIdx, nElements);
REPORT_ERROR(ErrorManagement::Information, "The ADC decim Signal Elements %d", nElements);
// if (nSamples > 1u) {
// ok = false;
// REPORT_ERROR(ErrorManagement::ParametersError, "The second signal (time) shall have one and only one sample");
//}
}
*/
else if (isAdc) {
if (nSamples > 1u) {
ok = false;
REPORT_ERROR(ErrorManagement::ParametersError, "The ATCA-IOP signals shall have one and only one sample");
}
}
else {}
}
}
}
if (ok) {
ok = frequencyFound;
if (!ok) {
REPORT_ERROR(ErrorManagement::ParametersError, "No frequency > 0 was set (i.e. no signal synchronises on this AtcaIopADC).");
}
}
if (ok) {
REPORT_ERROR(ErrorManagement::Information, "The timer will be set using a cycle frequency of %f Hz", cycleFrequency);
float64 periodUsec = (1e6 / cycleFrequency);
timerPeriodUsecTime = static_cast<uint32>(periodUsec);
float64 sleepTimeT = (static_cast<float64>(HighResolutionTimer::Frequency()) / cycleFrequency);
sleepTimeTicks = static_cast<uint64>(sleepTimeT);
/*
* [Information - AtcaIopADC.cpp:548]: The timer will be set using a cycle frequency of 10000.000000 Hz
* [Information - AtcaIopADC.cpp:554]: The timer will be set using a sleepTimeTicks of 100000 (ns)
*/
REPORT_ERROR(ErrorManagement::Information,
"The timer will be set using a sleepTimeTicks of %d (ns)", sleepTimeTicks);
}
if (ok) {
//float32 totalNumberOfSamplesPerSecond = (static_cast<float32>(adcSamplesPerCycle) * cycleFrequency);
float32 totalNumberOfSamplesPerSecond = (static_cast<float32>(rtDecimation) * cycleFrequency);
ok = (adcFrequency == static_cast<uint32>(totalNumberOfSamplesPerSecond));
if (!ok) {
REPORT_ERROR(ErrorManagement::ParametersError,
"The adcSamplesPerCycle * cycleFrequency (%u) shall be equal to the ADCs acquisition frequency (%u)",
totalNumberOfSamplesPerSecond, adcFrequency);
}
}
if (ok) {
adcValues = new int32[numberOfChannels];
}
return ok;
}
uint32 AtcaIopADC::GetNumberOfMemoryBuffers() {
return 1u;
}
/*lint -e{715} [MISRA C++ Rule 0-1-11], [MISRA C++ Rule 0-1-12]. Justification: The memory buffer is independent of the bufferIdx.*/
bool AtcaIopADC::GetSignalMemoryBuffer(const uint32 signalIdx, const uint32 bufferIdx, void*& signalAddress) {
bool ok = true;
if (signalIdx == 0u) {
signalAddress = &counterAndTimer[0];
}
else if (signalIdx == 1u) {
signalAddress = &counterAndTimer[1];
}
else if (signalIdx == 2u) {
signalAddress = &timeoutCount;
}
else if (signalIdx == 3u) {
signalAddress = &timeoutMax;
}
else if (signalIdx == 4u) {
signalAddress = &adcValues[0]; //signalIdx - ATCA_IOP_N_TIMCNT]cwtimeoutMax;
}
else if (signalIdx == 5u) {
signalAddress = &adcIntegralValues[0]; //signalIdx - ATCA_IOP_N_TIMCNT]cwtimeoutMax;
}
/*
else if (signalIdx < ATCA_IOP_N_TIMCNT + ATCA_IOP_N_ADCs ) {
signalAddress = &adcValues[signalIdx - ATCA_IOP_N_TIMCNT];
}
else if (signalIdx < ATCA_IOP_N_TIMCNT + ATCA_IOP_N_ADCs + ATCA_IOP_N_INTEGRALS) {
signalAddress = &adcIntegralValues[signalIdx -
(ATCA_IOP_N_TIMCNT + ATCA_IOP_N_ADCs)];
}
*/
else {
ok = false;
}
return ok;
}
const char8* AtcaIopADC::GetBrokerName(StructuredDataI& data, const SignalDirection direction) {
const char8 *brokerName = NULL_PTR(const char8 *);
if (direction == InputSignals) {
float32 frequency = 0.F;
if (!data.Read("Frequency", frequency)) {
frequency = -1.F;
}
if (frequency > 0.F) {
brokerName = "MemoryMapSynchronisedInputBroker";
}
else {
brokerName = "MemoryMapInputBroker";
}
}
else {
REPORT_ERROR(ErrorManagement::ParametersError, "DataSource not compatible with OutputSignals");
}
return brokerName;
}
bool AtcaIopADC::Synchronise() {
ErrorManagement::ErrorType err;
err = synchSem.ResetWait(TTInfiniteWait);
return err.ErrorsCleared();
}
/*lint -e{715} [MISRA C++ Rule 0-1-11], [MISRA C++ Rule 0-1-12]. Justification: the counter and the timer are always reset irrespectively of the states being changed.*/
bool AtcaIopADC::PrepareNextState(const char8* const currentStateName, const char8* const nextStateName) {
bool ok = true;
if (executor.GetStatus() == EmbeddedThreadI::OffState) {
ok = executor.Start();
REPORT_ERROR(ErrorManagement::Information, "Executor Start");
}
/*
if (executor.GetStatus() == EmbeddedThreadI::RunningState) {
REPORT_ERROR(ErrorManagement::Information, " ADC currentStateName %s, nextStateName %s", currentStateName, nextStateName);
}
*/
counterAndTimer[0] = 0u;
//counterAndTimer[1] = 0u;
return ok;
}
/*lint -e{715} [MISRA C++ Rule 0-1-11], [MISRA C++ Rule 0-1-12]. Justification: the method sleeps for the given period irrespectively of the input info.*/
ErrorManagement::ErrorType AtcaIopADC::Execute(ExecutionInfo& info) {
DMA_CH1_PCKT *pdma = (DMA_CH1_PCKT *) mappedDmaBase;
if (lastTimeTicks == 0u) {
lastTimeTicks = HighResolutionTimer::Counter();
}
uint64 startTicks = HighResolutionTimer::Counter();
//If we lose cycle, rephase to a multiple of the period.
uint32 nCycles = 0u;
while (lastTimeTicks < startTicks) {
lastTimeTicks += sleepTimeTicks;
nCycles++;
}
lastTimeTicks -= sleepTimeTicks;
//Sleep until the next period. Cannot be < 0 due to while(lastTimeTicks < startTicks) above
uint64 sleepTicksCorrection = (startTicks - lastTimeTicks);
//uint64 deltaTicks = sleepTimeTicks - (startTicks - lastTimeTicks);
uint64 deltaTicks = sleepTimeTicks - sleepTicksCorrection;
timeoutMax = deltaTicks; // debug
//volatile int32 currentDMA = 0u;
oldestBufferIdx = GetOldestBufferIdx();
float32 totalSleepTime = static_cast<float32>(static_cast<float64>(deltaTicks) * HighResolutionTimer::Period());
if (sleepNature == Busy) {
if (sleepPercentage > 0u) {
//float32 sleepTime = totalSleepTime * 0.5;
float32 sleepTime = totalSleepTime * (static_cast<float32>(sleepPercentage) / 100.F);
Sleep::NoMore(sleepTime);
//if(PollDmaBuff(startTicks + deltaTicks + 100000u) < 0)
}
if(PollDmaBuff(deltaTicks + POLL_EXTRA_WAIT) < 0){
//pollTimout++; // TODO check max wait
timeoutCount++; //
}
/*
else {
float32 totalSleepTime = static_cast<float32>(static_cast<float64>(deltaTicks) * HighResolutionTimer::Period());
uint32 busyPercentage = (100u - sleepPercentage);
float32 busyTime = totalSleepTime * (static_cast<float32>(busyPercentage) / 100.F);
Sleep::SemiBusy(totalSleepTime, busyTime);
}
*/
}
else {
float32 sleepTime = static_cast<float32>(static_cast<float64>(deltaTicks) * HighResolutionTimer::Period());
Sleep::NoMore(sleepTime);
}
lastTimeTicks = HighResolutionTimer::Counter();
ErrorManagement::ErrorType err = synchSem.Post();
counterAndTimer[0] += nCycles;
//counterAndTimer[1] = mappedDmaBase[oldestBufferIdx * RT_PCKT_SIZE] * timerPeriodUsecTime;
counterAndTimer[1] = pdma[oldestBufferIdx].head_time_cnt * timerPeriodUsecTime;
// Get adc data from DMA packet
uint32 k;
uint32 s;
for (k=0u; k < ATCA_IOP_N_ADCs ; k++) {
//adcValues[k] = (mappedDmaBase[oldestBufferIdx * RT_PCKT_SIZE +
// IOP_ADC_OFFSET + k] ) / (1<<14);
adcValues[k] = pdma[oldestBufferIdx].adc_decim_data[k] / (1<<14);
}
//int64 * mappedDmaBase64 = (int64 *) mappedDmaBase;
for (k=0u; k < ATCA_IOP_N_INTEGRALS ; k++) {
adcIntegralValues[k] = pdma[oldestBufferIdx].adc_integ_data[k];
//mappedDmaBase64[oldestBufferIdx * RT_PCKT64_SIZE + IOP_ADC_INTEG_OFFSET + k];
}
float64 t = counterAndTimer[1];
t /= 1e6;
// Compute simulated Sinus Signals
return err;
}
const ProcessorType& AtcaIopADC::GetCPUMask() const {
return cpuMask;
}
uint32 AtcaIopADC::GetStackSize() const {
return stackSize;
}
uint32 AtcaIopADC::GetSleepPercentage() const {
return sleepPercentage;
}
/*
* waitLimitTicks in ns
* */
int32 AtcaIopADC::PollDmaBuff(uint64 maxWaitTicks) const {
DMA_CH1_PCKT *pdma = (DMA_CH1_PCKT *) mappedDmaBase;
uint32 oldBufferFooter = pdma[oldestBufferIdx].foot_time_cnt;
volatile uint32 freshBufferFooter = oldBufferFooter;
uint64 actualTime = HighResolutionTimer::Counter();
uint64 waitLimitTicks = actualTime + maxWaitTicks;
while (freshBufferFooter == oldBufferFooter) {
if(actualTime > waitLimitTicks) {
return -1; // Timeout
}
actualTime = HighResolutionTimer::Counter();
freshBufferFooter = pdma[oldestBufferIdx].foot_time_cnt;
}
//uint32 headTimeMark = mappedDmaBase[buffIdx * RT_PCKT_SIZE];
uint32 headTimeMark = pdma[oldestBufferIdx].head_time_cnt ;
if(headTimeMark != freshBufferFooter)
{
return -2; // Error in Head/Foot data
}
return 0; //oldestBufferIdx;
}
uint32 AtcaIopADC::GetOldestBufferIdx() const {
DMA_CH1_PCKT *pdma = (DMA_CH1_PCKT *) mappedDmaBase;
uint32 buffIdx = 0u;
volatile uint32 header = pdma[buffIdx].head_time_cnt;
volatile uint32 oldestBufferHeader = header;
for (uint32 dmaIndex = 1u; dmaIndex < NUMBER_OF_BUFFERS; dmaIndex++) {
header = pdma[dmaIndex].head_time_cnt;
if (header < oldestBufferHeader) {
oldestBufferHeader = header;
buffIdx = dmaIndex;
}
}
return buffIdx;
}
CLASS_REGISTER(AtcaIopADC, "1.0")
}
// vim: syntax=cpp ts=4 sw=4 sts=4 sr et
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