300TC 机载系统 完整功能,(1)采集影像(2)采集和解析惯导数据(3)惯导磁场校正

This commit is contained in:
tangchao0503
2022-06-13 12:01:30 +08:00
commit 1452bcc2b9
21 changed files with 4316 additions and 0 deletions

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#include "Header_Files/fileoperation.h"
FileOperation::FileOperation()
{
m_copyFileStatus = 0;
}
bool FileOperation::copyFileToPath(QString sourceDir ,QString toDir, bool coverFileIfExist)
{
toDir.replace("\\","/");
if (sourceDir == toDir){
return true;
}
if (!QFile::exists(sourceDir)){
return false;
}
QDir *createfile = new QDir;
bool exist = createfile->exists(toDir);
if (exist){
if(coverFileIfExist){
createfile->remove(toDir);
}
}//end if
if(!QFile::copy(sourceDir, toDir))
{
return false;
}
return true;
}
QStringList FileOperation::getSubfolders(QDir parentFolder)
{
QStringList entryList= parentFolder.entryList();
QStringList result;
//
for(int i=0;i<entryList.size();i++)
{
auto element=entryList.at(i).toLocal8Bit().constData();
QString tmp=entryList.at(i);
if(!strcmp(element,".") || !strcmp(element,".."))//QString::compare()
{
//std::cout<<"11111111111111111111111111111"<<std::endl;
continue;
}
result.append(entryList.at(i));
//std::cout<<""<<entryList.at(i).toLocal8Bit().constData()<<std::endl;
}
return result;
}
QString FileOperation::getFlashDrivePath()
{
//获取u盘路径
QDir flashDrivePath("/media");
QStringList subfolders=getSubfolders(flashDrivePath);
flashDrivePath.cd(subfolders.at(0));
QStringList result=getSubfolders(flashDrivePath);
if(result.isEmpty())
{
//std::cout<<"FileOperation::getFlashDrivePath--------------------------: 请插入u盘!"<<std::endl;
return "";
}
if(!flashDrivePath.cd(result.at(0)))
{
std::cout<<"进入u盘失败!"<<std::endl;
return "";
}
if(!flashDrivePath.exists("ximeaImageData"))
{
flashDrivePath.mkdir("ximeaImageData");
}
flashDrivePath.cd("ximeaImageData");
QString destinationFolder=flashDrivePath.absolutePath();
std::cout<<"进入u盘成功:"<<destinationFolder.toStdString()<<std::endl;
return destinationFolder;
}
QDir FileOperation::getSourcePath()
{
//获取源数据文件夹
QDir sourcePath("/media/nvme");
// QString homePath=QDir::homePath();
// QDir sourcePath(homePath);
// bool re=sourcePath.exists("ximeaImageData");
// if(!re)
// {
// std::cout<<"No data!"<<std::endl;
// sourcePath.mkdir("ximeaImageData");
// }
//
// sourcePath.cd("ximeaImageData");
return sourcePath;
}
void FileOperation::copyFile()
{
QString destinationFolder= getFlashDrivePath();
QDir sourcePath= getSourcePath();
if(destinationFolder.isEmpty())
{
m_copyFileStatus = 3;
emit copyFileStatus(m_copyFileStatus);
return;
}
QStringList timesFilter,sbgFilter,hdrFilter,datFilter;
timesFilter<<"*.times";
sbgFilter<<"*.sbg";
hdrFilter<<"*.hdr";
datFilter<<"*.dat";
QStringList timesEntryList=sourcePath.entryList(timesFilter,QDir::Files);
QStringList sbgEntryList=sourcePath.entryList(sbgFilter,QDir::Files);
QStringList hdrEntryList=sourcePath.entryList(hdrFilter,QDir::Files);
QStringList datEntryList=sourcePath.entryList(datFilter,QDir::Files);
if(timesEntryList.isEmpty() && sbgEntryList.isEmpty() && hdrEntryList.isEmpty() && datEntryList.isEmpty())
{
m_copyFileStatus = 2;
emit copyFileStatus(m_copyFileStatus);
return;
}
m_copyFileStatus = 1;
emit copyFileStatus(m_copyFileStatus);
//copy times file
std::cout<<"copy times file"<<std::endl;
for(int i=0;i<timesEntryList.size();i++)
{
// std::cout<<"------"<<timesEntryList.at(i).toLocal8Bit().constData()<<std::endl;
// std::cout<<"------"<<timesEntryList.at(i).<<std::endl;
QString source=sourcePath.absolutePath()+"/"+timesEntryList.at(i);
QString destination=destinationFolder+"/"+timesEntryList.at(i);
copyFileToPath(source,destination,false);
}
//copy sbg file
std::cout<<"copy sbg file"<<std::endl;
for(int i=0;i<sbgEntryList.size();i++)
{
QString source=sourcePath.absolutePath()+"/"+sbgEntryList.at(i);
QString destination=destinationFolder+"/"+sbgEntryList.at(i);
copyFileToPath(source,destination,false);
}
//copy hdr file
std::cout<<"copy hdr file"<<std::endl;
for(int i=0;i<hdrEntryList.size();i++)
{
QString source=sourcePath.absolutePath()+"/"+hdrEntryList.at(i);
QString destination=destinationFolder+"/"+hdrEntryList.at(i);
copyFileToPath(source,destination,false);
}
//copy image file
std::cout<<"copy image file"<<std::endl;
for(int i=0;i<datEntryList.size();i++)
{
QString source=sourcePath.absolutePath()+"/"+datEntryList.at(i);
QString destination=destinationFolder+"/"+datEntryList.at(i);
copyFileToPath(source,destination,false);
}
m_copyFileStatus = 0;
emit copyFileStatus(m_copyFileStatus);
}
void FileOperation::deleteFile()
{
QDir sourcePath= getSourcePath();
sourcePath.removeRecursively();
}

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Source_Files/main.cpp Normal file
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#include <QCoreApplication>
#include "Header_Files/udpserver.h"
int main(int argc, char *argv[])
{
QCoreApplication a(argc, argv);
//UdpServer* x=new UdpServer();
QString str="234234";
UdpServer x;
return a.exec();
}

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Source_Files/sbgbuffer.cpp Normal file
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#include "Header_Files/sbgbuffer.h"
using namespace sbgtc;
rawBuffer sbgtc::initRawBuffer(QByteArray * sbgMessage)
{
rawBuffer tmp;
tmp.rxBuffer=(uint8_t *)sbgMessage->data();
tmp.rxBufferSize=sbgMessage->size();
return tmp;
}
SbgErrorCode sbgtc::sbgStreamBufferInitForRead(SbgStreamBuffer *pHandle, const void *pLinkedBuffer, size_t bufferSize)
{
//
// Check input parameters
//
// assert(pHandle);
// assert(pLinkedBuffer);
//
// Initialize stream parameters
//
pHandle->bufferSize = bufferSize;
pHandle->errorCode = SBG_NO_ERROR;
//
// Initialize the buffer
//
pHandle->pBufferPtr = (uint8_t*)pLinkedBuffer;
pHandle->pCurrentPtr = (uint8_t*)pLinkedBuffer;
//
// For now, we don't handle any error, maybe we could add checks in debug mode only
//
return SBG_NO_ERROR;
}
SbgErrorCode sbgtc::sbgStreamBufferSeek(SbgStreamBuffer *pHandle, size_t offset, SbgSBSeekOrigin origin)
{
//
// Check input parameters
//
//assert(pHandle);
//
// Test if we haven't already an error
//
if (pHandle->errorCode == SBG_NO_ERROR)
{
//
// According to the origin reference point
//
switch (origin)
{
case SB_SEEK_SET:
pHandle->pCurrentPtr = pHandle->pBufferPtr + offset;
break;
case SB_SEEK_CUR_INC:
pHandle->pCurrentPtr += offset;
break;
case SB_SEEK_CUR_DEC:
pHandle->pCurrentPtr -= offset;
break;
case SB_SEEK_END:
pHandle->pCurrentPtr = pHandle->pBufferPtr + (pHandle->bufferSize - offset);
break;
default:
pHandle->errorCode = SBG_INVALID_PARAMETER;
//SBG_LOG_ERROR(pHandle->errorCode, "Invalid origin parameter");
}
//
// Make sure that no error has occurred
//
if (pHandle->errorCode == SBG_NO_ERROR)
{
//
// Test if the current ptr is still within the buffer bounds
//
if (pHandle->pCurrentPtr < pHandle->pBufferPtr)
{
//
// We are before the buffer so clamp to the begining of the buffer and raise an error
//
pHandle->pCurrentPtr = pHandle->pBufferPtr;
pHandle->errorCode = SBG_BUFFER_OVERFLOW;
//
// Stream buffer underflow
//
//SBG_LOG_ERROR(pHandle->errorCode, "Trying to seek before the buffer");
}
else if (pHandle->pCurrentPtr > pHandle->pBufferPtr + pHandle->bufferSize)
{
//
// We are after the buffer so clamp to the end of the buffer and raise an error
//
pHandle->pCurrentPtr = pHandle->pBufferPtr + pHandle->bufferSize;
pHandle->errorCode = SBG_BUFFER_OVERFLOW;
//
// Stream buffer overflow
//
//SBG_LOG_ERROR(pHandle->errorCode, "Trying to seek after the buffer");
}
}
}
return pHandle->errorCode;
}
size_t sbgtc::sbgStreamBufferTell(SbgStreamBuffer *pHandle)
{
//
// Check input parameters
//
//assert(pHandle);
return (size_t)pHandle->pCurrentPtr - (size_t)pHandle->pBufferPtr;
}
void * sbgtc::sbgStreamBufferGetCursor(SbgStreamBuffer *pHandle)
{
//
// Check input parameters
//
//assert(pHandle);
return pHandle->pCurrentPtr;
}
uint8_t sbgtc::sbgStreamBufferReadUint8LE(SbgStreamBuffer *pHandle)
{
//
// Check input parameters
//
//assert(pHandle);
//
// Test if we haven't already an error
//
if (pHandle->errorCode == SBG_NO_ERROR)
{
//
// Test if we can access this item
//
if (sbgStreamBufferGetSpace(pHandle) >= sizeof(uint8_t))
{
//
// Read the byte
//
return *((uint8_t*)(pHandle->pCurrentPtr++));
}
else
{
//
// We have a buffer overflow
//
pHandle->errorCode = SBG_BUFFER_OVERFLOW;
}
}
//
// If we are here, it means we have an error so return 0
//
return 0;
}
uint16_t sbgtc::sbgStreamBufferReadUint16LE(SbgStreamBuffer *pHandle)
{
uint16_t bytesValues[2];
//
// Check input parameters
//
//assert(pHandle);
//
// Test if we haven't already an error
//
if (pHandle->errorCode == SBG_NO_ERROR)
{
//
// Test if we can access this item
//
if (sbgStreamBufferGetSpace(pHandle) >= sizeof(uint16_t))
{
//
// Test if the platform supports un-aligned access and if the endianness is the same
//
#if (SBG_CONFIG_UNALIGNED_ACCESS_AUTH == 1) && (SBG_CONFIG_BIG_ENDIAN == 0)
//
// Read the current value
//
bytesValues[0] = *((uint16_t*)pHandle->pCurrentPtr);
//
// Increment the current pointer
//
pHandle->pCurrentPtr += sizeof(uint16_t);
return bytesValues[0];
#else
//
// Read the each bytes
//
bytesValues[0] = *(pHandle->pCurrentPtr++);
bytesValues[1] = *(pHandle->pCurrentPtr++);
//
// Store data according to platform endianness
//
#if (SBG_CONFIG_BIG_ENDIAN == 1)
return bytesValues[1] | (bytesValues[0] << 8);
#else
return bytesValues[0] | (bytesValues[1] << 8);
#endif
#endif
}
else
{
//
// We have a buffer overflow so return 0
//
pHandle->errorCode = SBG_BUFFER_OVERFLOW;
}
}
//
// If we are here, it means we have an error so return 0
//
return 0;
}
uint32_t sbgtc::sbgStreamBufferReadUint32LE(SbgStreamBuffer *pHandle)
{
uint32_t bytesValues[4];
//
// Check input parameters
//
//assert(pHandle);
//
// Test if we haven't already an error
//
if (pHandle->errorCode == SBG_NO_ERROR)
{
//
// Test if we can access this item
//
if (sbgStreamBufferGetSpace(pHandle) >= sizeof(uint32_t))
{
//
// Test if the platform supports un-aligned access and if the endianness is the same
//
#if (SBG_CONFIG_UNALIGNED_ACCESS_AUTH == 1) && (SBG_CONFIG_BIG_ENDIAN == 0)
//
// Read the current value
//
bytesValues[0] = *((uint32_t*)pHandle->pCurrentPtr);
//
// Increment the current pointer
//
pHandle->pCurrentPtr += sizeof(uint32_t);
return bytesValues[0];
#else
//
// Read the each bytes
//
bytesValues[0] = *(pHandle->pCurrentPtr++);
bytesValues[1] = *(pHandle->pCurrentPtr++);
bytesValues[2] = *(pHandle->pCurrentPtr++);
bytesValues[3] = *(pHandle->pCurrentPtr++);
//
// Store data according to platform endianness
//
#if (SBG_CONFIG_BIG_ENDIAN == 1)
return bytesValues[3] | (bytesValues[2] << 8) | (bytesValues[1] << 16) | (bytesValues[0] << 24);
#else
return bytesValues[0] | (bytesValues[1] << 8) | (bytesValues[2] << 16) | (bytesValues[3] << 24);
#endif
#endif
}
else
{
//
// We have a buffer overflow so return 0
//
pHandle->errorCode = SBG_BUFFER_OVERFLOW;
}
}
//
// If we are here, it means we have an error so return 0
//
return 0;
}
/*!
* Read an uint64_t from a stream buffer (Little endian version).
* \param[in] pHandle Valid stream buffer handle that supports read operations.
* \return The read value or 0 if we have an error.
*/
uint64_t sbgtc::sbgStreamBufferReadUint64LE(SbgStreamBuffer *pHandle)
{
uint64_t lowPart;
uint64_t highPart;
//
// Check input parameters
//
// assert(pHandle);
//
// Test if we haven't already an error
//
if (pHandle->errorCode == SBG_NO_ERROR)
{
//
// Test if we can access this item
//
if (sbgStreamBufferGetSpace(pHandle) >= sizeof(uint64_t))
{
//
// Test if the platform supports un-aligned access and if the endianness is the same
//
#if (SBG_CONFIG_UNALIGNED_ACCESS_AUTH == 1) && (SBG_CONFIG_BIG_ENDIAN == 0)
//
// Read the current value
//
lowPart = *((uint64_t*)pHandle->pCurrentPtr);
//
// Increment the current pointer
//
pHandle->pCurrentPtr += sizeof(uint64_t);
return lowPart;
#else
//
// Read 64 bit value using two 32 bits read to avoid too much 64 bits operations
//
lowPart = sbgStreamBufferReadUint32LE(pHandle);
highPart = sbgStreamBufferReadUint32LE(pHandle);
//
// Store data according to platform endianness
//
#if (SBG_CONFIG_BIG_ENDIAN == 1)
return (lowPart << 32) | highPart;
#else
return lowPart | (highPart << 32);
#endif
#endif
}
else
{
//
// We have a buffer overflow so return 0
//
pHandle->errorCode = SBG_BUFFER_OVERFLOW;
}
}
//
// If we are here, it means we have an error so return 0
//
return 0ull;
}
int8_t sbgtc::sbgStreamBufferReadInt8LE(SbgStreamBuffer *pHandle)
{
//
// Check input parameters
//
//assert(pHandle);
//
// Test if we haven't already an error
//
if (pHandle->errorCode == SBG_NO_ERROR)
{
//
// Test if we can access this item
//
if (sbgStreamBufferGetSpace(pHandle) >= sizeof(int8_t))
{
//
// Read the byte
//
return *((int8_t*)(pHandle->pCurrentPtr++));
}
else
{
//
// We have a buffer overflow
//
pHandle->errorCode = SBG_BUFFER_OVERFLOW;
}
}
//
// If we are here, it means we have an error so return 0
//
return 0;
}
int32_t sbgtc::sbgStreamBufferReadInt32LE(SbgStreamBuffer *pHandle)
{
int32_t bytesValues[4];
//
// Check input parameters
//
//assert(pHandle);
//
// Test if we haven't already an error
//
if (pHandle->errorCode == SBG_NO_ERROR)
{
//
// Test if we can access this item
//
if (sbgStreamBufferGetSpace(pHandle) >= sizeof(int32_t))
{
//
// Test if the platform supports un-aligned access and if the endianness is the same
//
#if (SBG_CONFIG_UNALIGNED_ACCESS_AUTH == 1) && (SBG_CONFIG_BIG_ENDIAN == 0)
//
// Read the current value
//
bytesValues[0] = *((int32_t*)pHandle->pCurrentPtr);
//
// Increment the current pointer
//
pHandle->pCurrentPtr += sizeof(int32_t);
return bytesValues[0];
#else
//
// Read the each bytes
//
bytesValues[0] = *(pHandle->pCurrentPtr++);
bytesValues[1] = *(pHandle->pCurrentPtr++);
bytesValues[2] = *(pHandle->pCurrentPtr++);
bytesValues[3] = *(pHandle->pCurrentPtr++);
//
// Store data according to platform endianness
//
#if (SBG_CONFIG_BIG_ENDIAN == 1)
return bytesValues[3] | (bytesValues[2] << 8) | (bytesValues[1] << 16) | (bytesValues[0] << 24);
#else
return bytesValues[0] | (bytesValues[1] << 8) | (bytesValues[2] << 16) | (bytesValues[3] << 24);
#endif
#endif
}
else
{
//
// We have a buffer overflow so return 0
//
pHandle->errorCode = SBG_BUFFER_OVERFLOW;
}
}
//
// If we are here, it means we have an error so return 0
//
return 0;
}
float sbgtc::sbgStreamBufferReadFloatLE(SbgStreamBuffer *pHandle)
{
FloatNint floatInt;
//
// Check input parameters
//
//assert(pHandle);
//
// Test if we haven't already an error
//
if (pHandle->errorCode == SBG_NO_ERROR)
{
//
// Test if we can access this item
//
if (sbgStreamBufferGetSpace(pHandle) >= sizeof(float))
{
//
// Read the float as an uint32_t
//
floatInt.valU = sbgStreamBufferReadUint32LE(pHandle);
//
// Return the float using an union to avoid compiler cast
//
return floatInt.valF;
}
else
{
//
// We have a buffer overflow so return 0
//
pHandle->errorCode = SBG_BUFFER_OVERFLOW;
}
}
//
// If we are here, it means we have an error so return 0
//
return 0.0f;
}
/*!
* Read an double from a stream buffer (Little endian version).
* \param[in] pHandle Valid stream buffer handle that supports read operations.
* \return The read value or 0 if we have an error.
*/
double sbgtc::sbgStreamBufferReadDoubleLE(SbgStreamBuffer *pHandle)
{
DoubleNint doubleInt;
//
// Check input parameters
//
// assert(pHandle);
//
// Test if we haven't already an error
//
if (pHandle->errorCode == SBG_NO_ERROR)
{
//
// Test if we can access this item
//
if (sbgStreamBufferGetSpace(pHandle) >= sizeof(double))
{
//
// Read the float as an uint64_t
//
doubleInt.valU = sbgStreamBufferReadUint64LE(pHandle);
//
// Return the double using an union to avoid compiler cast
//
return doubleInt.valF;
}
else
{
//
// We have a buffer overflow so return 0
//
pHandle->errorCode = SBG_BUFFER_OVERFLOW;
}
}
//
// If we are here, it means we have an error so return 0
//
return 0.0;
}
SbgErrorCode sbgtc::sbgStreamBufferGetLastError(SbgStreamBuffer *pHandle)
{
//
// Check input parameters
//
//assert(pHandle);
//
// Return error code
//
return pHandle->errorCode;
}
size_t sbgtc::sbgStreamBufferGetSpace(SbgStreamBuffer *pHandle)
{
//
// Check input parameters
//
//assert(pHandle);
//
// Return the space left in bytes
//
return sbgStreamBufferGetSize(pHandle) - sbgStreamBufferGetLength(pHandle);
}
size_t sbgtc::sbgStreamBufferGetSize(SbgStreamBuffer *pHandle)
{
//
// Check input parameters
//
//assert(pHandle);
//
// Return the linked buffer size
//
return pHandle->bufferSize;
}
size_t sbgtc::sbgStreamBufferGetLength(SbgStreamBuffer *pHandle)
{
//
// Check input parameters
//
//assert(pHandle);
//
// Return the number of bytes between the begin of the stream and the current pointer
//
return ((size_t)pHandle->pCurrentPtr - (size_t)pHandle->pBufferPtr);
}
void * sbgtc::sbgStreamBufferGetLinkedBuffer(SbgStreamBuffer *pHandle)
{
//
// Check input parameters
//
//assert(pHandle);
return pHandle->pBufferPtr;
}

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#include "Header_Files/sbgcrc.h"
uint16_t sbgtc::sbgCrc16Compute(const void *pData, size_t dataSize)
{
SbgCrc16 crcInst;
//
// Initialize the CRC system
//
sbgCrc16Initialize(&crcInst);
//
// Compute the CRC
//
sbgCrc16Update(&crcInst, pData, dataSize);
//
// Return it
//
return sbgCrc16Get(&crcInst);
}
void sbgtc::sbgCrc16Initialize(SbgCrc16 *pInstance)
{
//
// Test input argument
//
//assert(pInstance);
*pInstance = 0;
}
void sbgtc::sbgCrc16Update(SbgCrc16 *pInstance, const void *pData, size_t dataSize)
{
const uint8_t *pBuffer = (const uint8_t*)pData;
uint8_t index;
size_t i;
//
// Test input arguments
//
//assert(pInstance);
//assert(pData);
//
// For each byte in our buffer
//
for (i = 0; i < dataSize; i++)
{
//
// Update the current CRC
//
index = (pBuffer[i] ^ *pInstance) & 0xFF;
*pInstance = crc16LookupTable[index] ^ (*pInstance >> 8);
}
}
uint16_t sbgtc::sbgCrc16Get(const SbgCrc16 *pInstance)
{
return *pInstance;
}
uint32_t sbgtc::sbgCrc32Get(const SbgCrc32 *pInstance)
{
return *pInstance;
}

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#include "Header_Files/sbglogparse.h"
using namespace sbgtc;
SbgErrorCode sbgtc::sbgEComBinaryLogParseEkfEulerData(SbgStreamBuffer *pInputStream, SbgLogEkfEulerData *pOutputData)
{
//assert(pInputStream);
//assert(pOutputData);
//
// Read the frame payload
//
pOutputData->timeStamp = sbgStreamBufferReadUint32LE(pInputStream);
pOutputData->euler[0] = sbgStreamBufferReadFloatLE(pInputStream);
pOutputData->euler[1] = sbgStreamBufferReadFloatLE(pInputStream);
pOutputData->euler[2] = sbgStreamBufferReadFloatLE(pInputStream);
pOutputData->eulerStdDev[0] = sbgStreamBufferReadFloatLE(pInputStream);
pOutputData->eulerStdDev[1] = sbgStreamBufferReadFloatLE(pInputStream);
pOutputData->eulerStdDev[2] = sbgStreamBufferReadFloatLE(pInputStream);
pOutputData->status = sbgStreamBufferReadUint32LE(pInputStream);
//
// Return if any error has occurred while parsing the frame
//
return sbgStreamBufferGetLastError(pInputStream);
}
SbgErrorCode sbgtc::sbgEComBinaryLogParseUtcData(SbgStreamBuffer *pInputStream, SbgLogUtcData *pOutputData)
{
// assert(pInputStream);
// assert(pOutputData);
//
// Read the frame payload
//
pOutputData->timeStamp = sbgStreamBufferReadUint32LE(pInputStream);
pOutputData->status = sbgStreamBufferReadUint16LE(pInputStream);
pOutputData->year = sbgStreamBufferReadUint16LE(pInputStream);
pOutputData->month = sbgStreamBufferReadInt8LE(pInputStream);
pOutputData->day = sbgStreamBufferReadInt8LE(pInputStream);
pOutputData->hour = sbgStreamBufferReadInt8LE(pInputStream);
pOutputData->minute = sbgStreamBufferReadInt8LE(pInputStream);
pOutputData->second = sbgStreamBufferReadInt8LE(pInputStream);
pOutputData->nanoSecond = sbgStreamBufferReadInt32LE(pInputStream);
pOutputData->gpsTimeOfWeek = sbgStreamBufferReadUint32LE(pInputStream);
//
// Return if any error has occurred while parsing the frame
//
return sbgStreamBufferGetLastError(pInputStream);
}
/*!
* \param[in] pInputStream Input stream buffer to read the payload from.
* \param[out] pOutputData Pointer on the output structure that stores parsed data.
* \return SBG_NO_ERROR if the payload has been parsed.
*/
SbgErrorCode sbgtc::sbgEComBinaryLogParseGpsPosData(SbgStreamBuffer *pInputStream, SbgLogGpsPos *pOutputData)
{
//
// Read the frame payload
//
pOutputData->timeStamp = sbgStreamBufferReadUint32LE(pInputStream);
pOutputData->status = sbgStreamBufferReadUint32LE(pInputStream);
pOutputData->timeOfWeek = sbgStreamBufferReadUint32LE(pInputStream);
pOutputData->latitude = sbgStreamBufferReadDoubleLE(pInputStream);
pOutputData->longitude = sbgStreamBufferReadDoubleLE(pInputStream);
pOutputData->altitude = sbgStreamBufferReadDoubleLE(pInputStream);
pOutputData->undulation = sbgStreamBufferReadFloatLE(pInputStream);
pOutputData->latitudeAccuracy = sbgStreamBufferReadFloatLE(pInputStream);
pOutputData->longitudeAccuracy = sbgStreamBufferReadFloatLE(pInputStream);
pOutputData->altitudeAccuracy = sbgStreamBufferReadFloatLE(pInputStream);
//
// Test if we have a additional information such as base station id (since version 1.4)
//
if (sbgStreamBufferGetSpace(pInputStream) >= 5)
{
//
// Read the additional information
//
pOutputData->numSvUsed = sbgStreamBufferReadUint8LE(pInputStream);
pOutputData->baseStationId = sbgStreamBufferReadUint16LE(pInputStream);
pOutputData->differentialAge = sbgStreamBufferReadUint16LE(pInputStream);
}
else
{
//
// Default the additional information
//
pOutputData->numSvUsed = 0;
pOutputData->baseStationId = 0xFFFF;
pOutputData->differentialAge = 0xFFFF;
}
//
// Return if any error has occurred while parsing the frame
//
return sbgStreamBufferGetLastError(pInputStream);
}

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@ -0,0 +1,845 @@
#include "Header_Files/sbgrecorder.h"
#include <iostream>
#include <string.h>
#include <QDebug>
typedef unsigned char BYTE;
using namespace sbgtc;
sbgtc::SbgRecorder::SbgRecorder()
{
connect(this, SIGNAL(sbgReady(double,QString)),this, SLOT(onSbgReady(double,QString)));
m_bIsSbgReady = false;
m_bIsRecordHyperspecatralImage = false;
m_bIsNAV_POSITION_MODE = false;
m_bIsAccuracyLessThan7 = false;
m_bIsSyncSystemTimeBaseGpstime = false;
m_iSolutionMode=SBG_ECOM_SOL_MODE_UNINITIALIZED;
m_iSolutionModeCounter=0;
m_iSbgState=0;
std::cout<<"SbgRecorder::SbgRecorder(construction) run!"<<std::endl;
}
void sbgtc::SbgRecorder::openSerialPort()
{
QList<QSerialPortInfo> infos = QSerialPortInfo::availablePorts();
//std::cout<<"number of availablePorts:"<<infos.size()<<std::endl;
//只能是大疆psdk程序发送命令给本程序, 而大疆子自己需要一个串口, 所以当只有一个串口时, sbg的就没有串口可用
// if(infos.size()==0||infos.size()==1)
// {
// m_iSbgState=0;
// emit serialPortStatus(m_iSbgState);
// return;
// }
//如果在构造函数中创建m_serial就会出现错误:
//QObject: Cannot create children for a parent that is in a different thread.
//(Parent is QSerialPort(0x2e31b20), parent's thread is QThread(0x2e2f130), current thread is QThread(0x2e31110)
m_serial=new QSerialPort();
if(m_serial->isOpen())//如果串口已经打开了 先给他关闭了
{
m_serial->clear();
m_serial->close();
}
// QString portname = "sbg_serial_port";
QString portname = "ttyS4";
m_serial->setPortName(portname);
m_serial->open(QIODevice::ReadWrite);
bool x=m_serial->setBaudRate(921600);//
if(x)
{
std::cout<<"波特率被成功设置为:"<<m_serial->baudRate()<<std::endl;
}
else
{
std::cout<<"波特率设置失败!"<<std::endl;
m_iSbgState=1;
emit serialPortStatus(m_iSbgState);
return;
}
m_iSbgState=2;
emit serialPortStatus(m_iSbgState);
}
void sbgtc::SbgRecorder::closeSerialPort()
{
if(m_iSbgState>0)
{
if(m_iSbgState==3)
stopRecordSbg();
m_serial->close();
m_iSbgState=0;
emit serialPortStatus(m_iSbgState);
}
}
void sbgtc::SbgRecorder::onSbgReady(double second,QString baseFileName)
{
m_bIsSbgReady=true;
m_bIsRecordHyperspecatralImage=false;
}
QByteArray sbgtc::SbgRecorder::merge(QByteArray sbgMessage)
{
// BYTE mC = 0x0C;
// BYTE mD = 0x0D;
// BYTE mOut = 0x0C<<4|0x0D;
// BYTE mOut1 = mC<<4|mD;
QByteArray x;
QByteArray y;
x.resize(sbgMessage.size()/2);
y.resize(sbgMessage.size()/2);
for(int i=0;i<sbgMessage.size()/2;i++)
{
char tmp=sbgMessage.at(i*2);
char tmp2=tmp<<4;
x[i]=sbgMessage[i*2]<<4|sbgMessage[i*2+1];
y[i]=sbgMessage[i*2]<<4;
}
return x;
}
bool sbgtc::SbgRecorder::verify(int index, QByteArray sbgMessage)
{
if(index<0)
{
return false;
}
else
{
//std::cout<<"index:"<<index<<std::endl;
//std::cout<<"count:"<<count<<std::endl;
//return;
}
int scale=2;
QByteArray msgId=sbgMessage.mid(index+2*scale,2);
QByteArray classId=sbgMessage.mid(index+3*scale,2);
QByteArray lengthOfData=sbgMessage.mid(index+4*scale,4);
std::reverse(lengthOfData.begin(), lengthOfData.end());
int tmp=lengthOfData.toInt();//?????????????
QByteArray crc=sbgMessage.mid(index+(6+tmp)*scale,4);
QByteArray etx=sbgMessage.mid(index+(6+tmp+2)*scale,2);//end of frame
if(etx=="33")
{
std::cout<<"结尾符正确!"<<std::endl;
return true;
}
else
{
std::cout<<"结尾符不正确!--------"<<std::endl;
return false;
}
}
sbgtc::SbgErrorCode sbgtc::SbgRecorder::extractOneValidFrame(rawBuffer *pHandle, uint8_t *pMsgClass, uint8_t *pMsg, void *pData, size_t *pSize, size_t maxSize)
{
SbgErrorCode errorCode = SBG_NOT_READY;
SbgStreamBuffer inputStream;
bool syncFound;
size_t payloadSize = 0;
uint16_t frameCrc;//
uint16_t computedCrc;//
//size_t i;
uint8_t receivedMsgClass;
uint8_t receivedMsg;
size_t payloadOffset;
while (pHandle->rxBufferSize > 0)
{
//
// For now, we haven't found any start of frame
//
syncFound = false;
//
// To find a valid start of frame we need at least 2 bytes in the reception buffer
//
if (pHandle->rxBufferSize >= 2)
{
//
// Try to find a valid start of frame by looking for SYNC_1 and SYNC_2 chars
//
for (int i = 0; i < pHandle->rxBufferSize-1; i++)
{
//
// A valid start of frame should begin with SYNC and when STX chars
//
if ( (pHandle->rxBuffer[i] == SBG_ECOM_SYNC_1) && (pHandle->rxBuffer[i+1] == SBG_ECOM_SYNC_2) )
{
//
// We have found the sync char, test if we have dummy bytes at the begining of the frame
//
if (i > 0)
{
//
// Remove all dumy received bytes before the begining of the frame
//
memmove(pHandle->rxBuffer, pHandle->rxBuffer+i, pHandle->rxBufferSize-i);
pHandle->rxBufferSize = pHandle->rxBufferSize-i;
}
//
// The sync has been found
//
syncFound = true;
break;
}
}
}
//
// Check if a valid start of frame has been found
//
if (syncFound)
{
//
// A valid start of frame has been found, try to extract the frame if we have at least a whole frame.
//
if (pHandle->rxBufferSize < 8)
{
//
// Don't have enough data for a valid frame
//
return SBG_NOT_READY;
}
//
// Initialize an input stream buffer to parse the received frame
//
sbgStreamBufferInitForRead(&inputStream, pHandle->rxBuffer, pHandle->rxBufferSize);
//
// Skip both the Sync 1 and Sync 2 chars
//
sbgStreamBufferSeek(&inputStream, sizeof(uint8_t)*2, SB_SEEK_CUR_INC);
//
// Read the command
//
receivedMsg = sbgStreamBufferReadUint8LE(&inputStream);
receivedMsgClass = sbgStreamBufferReadUint8LE(&inputStream);
//
// Read the payload size
//
payloadSize = (uint16_t)sbgStreamBufferReadUint16LE(&inputStream);
//
// Check that the payload size is valid
//
if (payloadSize <= SBG_ECOM_MAX_PAYLOAD_SIZE)
{
//
// Check if we have received the whole frame
//
if (pHandle->rxBufferSize < payloadSize+9)
{
//
// Don't have received the whole frame
//
return SBG_NOT_READY;
}
//
// We should have the whole frame so for now, skip the payload part but before store the current cursor
//
payloadOffset = sbgStreamBufferTell(&inputStream);
sbgStreamBufferSeek(&inputStream, payloadSize, SB_SEEK_CUR_INC);
//
// Read the frame CRC
//
frameCrc = sbgStreamBufferReadUint16LE(&inputStream);
//
// Read and test the frame ETX
//
if (sbgStreamBufferReadUint8LE(&inputStream) == SBG_ECOM_ETX)//
{
//
// Go back at the beginning of the payload part
//
sbgStreamBufferSeek(&inputStream, payloadOffset, SB_SEEK_SET);
//
// We have a frame so return the received command if needed even if the CRC is still not validated
//
if (pMsg)
{
*pMsg = receivedMsg;
}
if (pMsgClass)
{
*pMsgClass = receivedMsgClass;
}
//
// Compute the CRC of the received frame (Skip SYNC 1 and SYNC 2 chars)
//
computedCrc = sbgCrc16Compute(((uint8_t*)sbgStreamBufferGetLinkedBuffer(&inputStream)) + 2, payloadSize + 4);//??????????????????????????????????????????????????????????????????
//
// Check if the received frame has a valid CRC
//
if (frameCrc == computedCrc)//frameCrc == computedCrc??????????????????????????????????????????????????????????????????????????????????????????????????????
{
//
// Extract the payload if needed
//
if (payloadSize > 0)
{
//
// Check if input parameters are valid
//
if ( (pData) && (pSize) )
{
//
// Check if we have enough space to store the payload
//
if (payloadSize <= maxSize)
{
//
// Copy the payload and return the payload size
//
*pSize = payloadSize;
memcpy(pData, sbgStreamBufferGetCursor(&inputStream), payloadSize);
errorCode = SBG_NO_ERROR;
//std::cout<<"receive valid frame!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!"<<std::endl;
}
else
{
//
// Not enough space to store the payload, we will just drop the received data
//
errorCode = SBG_BUFFER_OVERFLOW;
}
}
else
{
errorCode = SBG_NULL_POINTER;
}
}
else
{
//
// No payload but the frame has been read successfully
//
errorCode = SBG_NO_ERROR;
}
}
else
{
//
// We have an invalid frame CRC and we will directly return this error
//
errorCode = SBG_INVALID_CRC;
}
//
// We have read a whole valid frame so remove it from the buffer
// First, test if the reception buffer contains more than just the current frame
//
if (pHandle->rxBufferSize > payloadSize+9)
{
//
// We remove the read frame but we keep the remaining data
//
pHandle->rxBufferSize = pHandle->rxBufferSize-(payloadSize+9);
memmove(pHandle->rxBuffer, pHandle->rxBuffer+payloadSize+9, pHandle->rxBufferSize);
}
else
{
//
// We have parsed the whole received buffer so just empty it
//
pHandle->rxBufferSize = 0;
}
//
// We have at least found a complete frame
//
return errorCode;
}
else
{
//
// The ETX char hasn't been found where it should be
//
errorCode = SBG_INVALID_FRAME;
}
}
else
{
//
// The payload size isn't valid
//
errorCode = SBG_INVALID_FRAME;
}
//
// Frame size invalid or the found frame is invalid so we should have incorrectly detected a start of frame.
// Remove the SYNC 1 and SYNC 2 chars to retry to find a new frame
//
pHandle->rxBufferSize -= 2;
memmove(pHandle->rxBuffer, pHandle->rxBuffer+2, pHandle->rxBufferSize);
}
else
{
//
// Unable to find a valid start of frame so check if the last byte is a SYNC char in order to keep it for next time
//
if (pHandle->rxBuffer[pHandle->rxBufferSize-1] == SBG_ECOM_SYNC_1)
{
//
// Report the SYNC char and discard all other bytes in the buffer
//
pHandle->rxBuffer[0] = SBG_ECOM_SYNC_1;
pHandle->rxBufferSize = 1;
}
else
{
//
// Discard the whole buffer
//
pHandle->rxBufferSize = 0;
}
//
// Unable to find a frame
//
return SBG_NOT_READY;//
}
}
//
// The whole buffer has been paresed and no valid frame has been found
//
return SBG_NOT_READY;
}
sbgtc::SbgErrorCode sbgtc::SbgRecorder::sbgBinaryLogParse(SbgEComClass msgClass, SbgEComMsgId msg, const void *pPayload, size_t payloadSize, SbgBinaryLogData *pOutputData)
{
SbgErrorCode errorCode = SBG_NO_ERROR;
SbgStreamBuffer inputStream;
// assert(pPayload);
// assert(payloadSize > 0);
// assert(pOutputData);
//
// Create an input stream buffer that points to the frame payload so we can easily parse it's content
//
sbgStreamBufferInitForRead(&inputStream, pPayload, payloadSize);
//
// Handle the different classes of messages differently
//
if (msgClass == SBG_ECOM_CLASS_LOG_ECOM_0)
{
//
// Parse the incoming log according to its type
//
switch (msg)
{
case SBG_ECOM_LOG_STATUS:
// errorCode = sbgEComBinaryLogParseStatusData(&inputStream, &pOutputData->statusData);
break;
case SBG_ECOM_LOG_IMU_DATA:
// errorCode = sbgEComBinaryLogParseImuData(&inputStream, &pOutputData->imuData);
break;
case SBG_ECOM_LOG_IMU_SHORT:
// errorCode = sbgEComBinaryLogParseImuShort(&inputStream, &pOutputData->imuShort);
break;
case SBG_ECOM_LOG_EKF_EULER:
errorCode = sbgEComBinaryLogParseEkfEulerData(&inputStream, &pOutputData->ekfEulerData);
break;
case SBG_ECOM_LOG_EKF_QUAT:
// errorCode = sbgEComBinaryLogParseEkfQuatData(&inputStream, &pOutputData->ekfQuatData);
break;
case SBG_ECOM_LOG_EKF_NAV:
// errorCode = sbgEComBinaryLogParseEkfNavData(&inputStream, &pOutputData->ekfNavData);
break;
case SBG_ECOM_LOG_SHIP_MOTION:
case SBG_ECOM_LOG_SHIP_MOTION_HP:
// errorCode = sbgEComBinaryLogParseShipMotionData(&inputStream, &pOutputData->shipMotionData);
break;
case SBG_ECOM_LOG_ODO_VEL:
// errorCode = sbgEComBinaryLogParseOdometerData(&inputStream, &pOutputData->odometerData);
break;
case SBG_ECOM_LOG_UTC_TIME:
errorCode = sbgEComBinaryLogParseUtcData(&inputStream, &pOutputData->utcData);
break;
case SBG_ECOM_LOG_GPS1_VEL:
case SBG_ECOM_LOG_GPS2_VEL:
// errorCode = sbgEComBinaryLogParseGpsVelData(&inputStream, &pOutputData->gpsVelData);
break;
case SBG_ECOM_LOG_GPS1_POS:
case SBG_ECOM_LOG_GPS2_POS:
errorCode = sbgEComBinaryLogParseGpsPosData(&inputStream, &pOutputData->gpsPosData);
break;
case SBG_ECOM_LOG_GPS1_HDT:
case SBG_ECOM_LOG_GPS2_HDT:
// errorCode = sbgEComBinaryLogParseGpsHdtData(&inputStream, &pOutputData->gpsHdtData);
break;
case SBG_ECOM_LOG_GPS1_RAW:
case SBG_ECOM_LOG_GPS2_RAW:
// errorCode = sbgEComBinaryLogParseGpsRawData(&inputStream, &pOutputData->gpsRawData);
break;
case SBG_ECOM_LOG_MAG:
// errorCode = sbgEComBinaryLogParseMagData(&inputStream, &pOutputData->magData);
break;
case SBG_ECOM_LOG_MAG_CALIB:
// errorCode = sbgEComBinaryLogParseMagCalibData(&inputStream, &pOutputData->magCalibData);
break;
case SBG_ECOM_LOG_DVL_BOTTOM_TRACK:
// errorCode = sbgEComBinaryLogParseDvlData(&inputStream, &pOutputData->dvlData);
break;
case SBG_ECOM_LOG_DVL_WATER_TRACK:
// errorCode = sbgEComBinaryLogParseDvlData(&inputStream, &pOutputData->dvlData);
break;
case SBG_ECOM_LOG_AIR_DATA:
// errorCode = sbgEComBinaryLogParseAirData(&inputStream, &pOutputData->airData);
break;
case SBG_ECOM_LOG_USBL:
// errorCode = sbgEComBinaryLogParseUsblData(&inputStream, &pOutputData->usblData);
break;
case SBG_ECOM_LOG_DEPTH:
// errorCode = sbgEComBinaryLogParseDepth(&inputStream, &pOutputData->depthData);
break;
case SBG_ECOM_LOG_EVENT_A:
case SBG_ECOM_LOG_EVENT_B:
case SBG_ECOM_LOG_EVENT_C:
case SBG_ECOM_LOG_EVENT_D:
case SBG_ECOM_LOG_EVENT_E:
case SBG_ECOM_LOG_EVENT_OUT_A:
case SBG_ECOM_LOG_EVENT_OUT_B:
// errorCode = sbgEComBinaryLogParseEvent(&inputStream, &pOutputData->eventMarker);
break;
case SBG_ECOM_LOG_DIAG:
// errorCode = sbgEComBinaryLogParseDiagData(&inputStream, &pOutputData->diagData);
break;
default:
errorCode = SBG_ERROR;
}
}
// else if (msgClass == SBG_ECOM_CLASS_LOG_ECOM_1)
// {
// //
// // Parse the message depending on the message ID
// //
// switch ((SbgEComLog1)msg)
// {
// case SBG_ECOM_LOG_FAST_IMU_DATA:
// errorCode = sbgEComBinaryLogParseFastImuData(&inputStream, &pOutputData->fastImuData);
// break;
// default:
// errorCode = SBG_ERROR;
// }
// }
else
{
//
// Un-handled message class
//
errorCode = SBG_ERROR;
}
return errorCode;
}
void sbgtc::SbgRecorder::parseSbgMessage(QByteArray * sbgMessage)
{
rawBuffer pHandleTmp=initRawBuffer(sbgMessage);
rawBuffer * pHandle=&pHandleTmp;
uint8_t receivedMsgClass;
uint8_t receivedMsg;
size_t payloadSize;
uint8_t pData[SBG_ECOM_MAX_PAYLOAD_SIZE]={0};//payloadData
//重要的第1步提取有效帧
SbgErrorCode errorCode = extractOneValidFrame(pHandle,&receivedMsgClass,&receivedMsg,pData,&payloadSize,sizeof(pData));
//SBG_INVALID_CRC,SBG_NO_ERROR,SBG_NOT_READY
if(errorCode==SBG_NOT_READY)
return;
if(errorCode==SBG_INVALID_CRC)
std::cout<<"SBG_INVALID_CRC: ------------------------------------------------------"<<std::endl;
//重要的第2步解析有效帧
SbgBinaryLogData logData;
memset(&logData,0,sizeof(logData));
sbgBinaryLogParse((SbgEComClass)receivedMsgClass,(SbgEComMsgId)receivedMsg,pData,payloadSize,&logData);
//判断模式是否为: NAV_POSITION
if(receivedMsgClass==SBG_ECOM_CLASS_LOG_ECOM_0 && receivedMsg==SBG_ECOM_LOG_EKF_EULER)
{
m_iSolutionModeCounter++;//
uint32_t status=logData.ekfEulerData.status;
uint32_t mode=status>>24;//?????????????????????????????????????
// uint32_t mode=status;//这是错的
//一秒钟发射一次mode
if(m_iSolutionModeCounter%200 == 0)
{
emit sbgSolutionModeSignal(mode);
switch (mode)
{
case SBG_ECOM_SOL_MODE_UNINITIALIZED:
std::cout<<"此刻模式为: "<<"UNINITIALIZED"<<std::endl;
break;
case SBG_ECOM_SOL_MODE_VERTICAL_GYRO:
std::cout<<"此刻模式为: "<<"VERTICAL_GYRO"<<std::endl;
break;
case SBG_ECOM_SOL_MODE_AHRS:
std::cout<<"此刻模式为: "<<"AHRS"<<std::endl;
break;
case SBG_ECOM_SOL_MODE_NAV_VELOCITY:
std::cout<<"此刻模式为: "<<"NAV_VELOCITY"<<std::endl;
break;
case SBG_ECOM_SOL_MODE_NAV_POSITION:
std::cout<<"此刻模式为: "<<"NAV_POSITION"<<std::endl;
break;
default:
break;
}
}
switch (mode)
{
case SBG_ECOM_SOL_MODE_UNINITIALIZED:
// std::cout<<"此刻模式为: "<<"UNINITIALIZED"<<std::endl;
m_bIsNAV_POSITION_MODE=false;
break;
case SBG_ECOM_SOL_MODE_VERTICAL_GYRO:
// std::cout<<"此刻模式为: "<<"VERTICAL_GYRO"<<std::endl;
m_bIsNAV_POSITION_MODE=false;
break;
case SBG_ECOM_SOL_MODE_AHRS:
// std::cout<<"此刻模式为: "<<"AHRS"<<std::endl;
m_bIsNAV_POSITION_MODE=false;
break;
case SBG_ECOM_SOL_MODE_NAV_VELOCITY:
// std::cout<<"此刻模式为: "<<"NAV_VELOCITY"<<std::endl;
m_bIsNAV_POSITION_MODE=false;
break;
case SBG_ECOM_SOL_MODE_NAV_POSITION:
// std::cout<<"此刻模式为: "<<"NAV_POSITION"<<std::endl;
m_bIsNAV_POSITION_MODE=true;
break;
default:
break;
}
}
else if(receivedMsgClass==SBG_ECOM_CLASS_LOG_ECOM_0 && receivedMsg==SBG_ECOM_LOG_GPS1_POS)
{
// std::cout<<"纬度精度为:"<<logData.gpsPosData.latitudeAccuracy<<std::endl;
float maximal=0;
float latitudeAccuracy=logData.gpsPosData.latitudeAccuracy;
float longitudeAccuracy=logData.gpsPosData.longitudeAccuracy;
float altitudeAccuracy=logData.gpsPosData.altitudeAccuracy;
if(latitudeAccuracy<longitudeAccuracy)
maximal = longitudeAccuracy;
else
maximal = latitudeAccuracy;
if(maximal<altitudeAccuracy)
maximal = altitudeAccuracy;
emit sbgAccuracySignal(static_cast<int>(maximal));
if(maximal<7)
{
m_bIsAccuracyLessThan7=true;
}
}
else if(receivedMsgClass==SBG_ECOM_CLASS_LOG_ECOM_0 && receivedMsg==SBG_ECOM_LOG_UTC_TIME && m_bIsAccuracyLessThan7 && !m_bIsSbgReady)
{
//std::cout<<"0pen time:"<<(long)logData.utcData.timeStamp/1000000<<std::endl;
uint16_t year = logData.utcData.year;
int month = logData.utcData.month;
int day = logData.utcData.day;
int hour = logData.utcData.hour;
int minute = logData.utcData.minute;
int second = logData.utcData.second;
// int32_t nanoSecond = logData.utcData.nanoSecond;
// std::cout<<"gps时间为"<<year<<","<<month<<","<<day<<","<<hour<<","<<minute<<","<<second<<","<<nanoSecond<<std::endl;
char setGpsTimeCommand[256];
sprintf(setGpsTimeCommand,"date --set=\"%d%02d%02d %02d:%02d:%02d\"",year,month,day,hour,minute,second);//02中的2代表2位数字0代表以0补全
system(setGpsTimeCommand);//
m_bIsSyncSystemTimeBaseGpstime=true;
}
else if(receivedMsgClass==SBG_ECOM_CLASS_LOG_ECOM_0 && receivedMsg==SBG_ECOM_LOG_EKF_EULER)
{
// std::cout<<"1111111111111"<<"UTC time:"<<(int)logData.utcData.year<<","<<(int)logData.utcData.month<<","<<(int)logData.utcData.day<<","<<(int)logData.utcData.hour<<","<<(int)logData.utcData.minute<<","<<(int)(int)logData.utcData.second<<std::endl;
// std::cout<<"receivedMsg:"<<(int)receivedMsg<<std::endl;
}
else if(receivedMsgClass!=SBG_ECOM_CLASS_LOG_ECOM_0 && receivedMsg==SBG_ECOM_LOG_EKF_QUAT)
{
//std::cout<<"1111111111111------"<<"UTC time:"<<(int)logData.utcData.year<<","<<(int)logData.utcData.month<<","<<(int)logData.utcData.day<<","<<(int)logData.utcData.hour<<","<<(int)logData.utcData.minute<<","<<(int)(int)logData.utcData.second<<std::endl;
}
else if(receivedMsgClass!=SBG_ECOM_CLASS_LOG_ECOM_0 && receivedMsg==SBG_ECOM_LOG_EKF_NAV)
{
//std::cout<<"0000000000000"<<"UTC time:"<<(int)logData.utcData.year<<","<<(int)logData.utcData.month<<","<<(int)logData.utcData.day<<","<<(int)logData.utcData.hour<<","<<(int)logData.utcData.minute<<","<<(int)(int)logData.utcData.second<<std::endl;
}
//控制开始采集高光谱影像,m_bIsNAV_POSITION_MODE &&
if(m_bIsRecordHyperspecatralImage && m_bIsSyncSystemTimeBaseGpstime && receivedMsgClass==SBG_ECOM_CLASS_LOG_ECOM_0 && receivedMsg==SBG_ECOM_LOG_UTC_TIME)
{
m_baseFileName=getFileNameBaseOnTime();
emit sbgReady(calculateTimeDifferenceBetweenSystemAndSbg(logData),m_baseFileName);
}
}
double sbgtc::SbgRecorder::calculateTimeDifferenceBetweenSystemAndSbg(SbgBinaryLogData logData)//
{
std::cout<<"SbgRecorder::calculateTimeDifferenceBetweenSystemAndSbg UTC time:"<<(int)logData.utcData.year<<","<<(int)logData.utcData.month<<","<<(int)logData.utcData.day<<","<<(int)logData.utcData.hour<<","<<(int)logData.utcData.minute<<","<<(int)logData.utcData.second<<","<<(int)logData.utcData.nanoSecond<<std::endl;
//获取sbg(gps)时间(纳秒)
double year=logData.utcData.year;
double month=logData.utcData.month;
double day=logData.utcData.day;
double hour=logData.utcData.hour;//+8
double minute=logData.utcData.minute;
double second=logData.utcData.second;
double nanoSecond=logData.utcData.nanoSecond;
double timeTemp=day*24*60*60+hour*60*60+minute*60+second;//(day-1)
double time=timeTemp+nanoSecond/1000000000;
printf("SbgRecorder::calculateTimeDifferenceBetweenSystemAndSbg--secocnd: %f\n", time);
//std::cout<<"SbgRecorder::calculateTimeDifferenceBetweenSystemAndSbg: "<< time <<std::endl;
//获取系统时间(纳秒)
struct timespec systemTime;
clock_gettime(CLOCK_REALTIME,&systemTime);
tm systemTime_rili;
localtime_r(&systemTime.tv_sec, &systemTime_rili);
double secondSystem=(systemTime_rili.tm_mday-1)*24*60*60+systemTime_rili.tm_hour*60*60+systemTime_rili.tm_min*60+systemTime_rili.tm_sec;
double nanosecondSystem=secondSystem+static_cast<double>(systemTime.tv_nsec)/1000000000;
//计算系统时间和gps时间之间的差距
double TimeDifferenceBetweenSystemAndSbg = nanosecondSystem - time;
return TimeDifferenceBetweenSystemAndSbg;
}
int sbgtc::SbgRecorder::getSbgState() const
{
return m_iSbgState;
}
void sbgtc::SbgRecorder::startRecordSbg()
{
openSerialPort();
if(m_iSbgState!=2)
{
return;
}
m_iSbgState=3;
emit serialPortStatus(m_iSbgState);
m_baseFileName=getFileNameBaseOnTime();
QString sbgFileName=m_baseFileName+".sbg";
FILE * fileHandle=fopen(sbgFileName.toStdString().c_str(),"w+b");
QByteArray requestData;
m_bRecordControl=true;
while (m_bRecordControl)
{
//std::cout<<"SbgRecorder::startRecordSbg--------------:"<<std::endl;
if(m_serial->waitForReadyRead())
{
//requestData.resize(m_serial->size());
requestData = m_serial->readAll();
fwrite(requestData.data(),requestData.size(),1,fileHandle);//????????????
// if(!m_bIsSbgReady)
// {
// parseSbgMessage(&requestData);
// }
parseSbgMessage(&requestData);//边采集惯导数据边解析,并不会导致惯导漏帧
}
else
{
std::cout<<"SbgRecorder::startRecordSbg----:Wait write response timeout"<<std::endl;
}
}
m_bIsSbgReady=false;//确保每次执行函数SbgRecorder::startRecordSbg,都会执行parseSbgMessage(&requestData);
fclose(fileHandle);
m_iSbgState=2;
emit serialPortStatus(m_iSbgState);
}
void sbgtc::SbgRecorder::stopRecordSbg()
{
m_bRecordControl=false;
}
void SbgRecorder::startRecordHyperspectral()
{
m_bIsRecordHyperspecatralImage=true;
std::cout<<"SbgRecorder::startRecordHyperspectral----m_bIsRecordHyperspecatralImage设置为true!"<<std::endl;
}
void SbgRecorder::stopRecordHyperspectral()
{
m_bIsRecordHyperspecatralImage=false;
}

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#include "Header_Files/udpserver.h"
//using namespace sbgtc;
UdpServer::UdpServer()
{
m_udpSocket = new QUdpSocket(this);
m_udpSocket->bind(45454, QUdpSocket::ShareAddress);
connect(m_udpSocket, SIGNAL(readyRead()),this, SLOT(processPendingDatagrams()));
m_sbgMagCibWorkThread = new sbgMagCibWorkThread();
m_RecordSbgThread=new QThread();
m_sbgRecorder=new sbgtc::SbgRecorder();
m_sbgRecorder->moveToThread(m_RecordSbgThread);
m_RecordSbgThread->start();
m_RecordThread=new QThread();
m_imager=new XimeaImager();
m_imager->moveToThread(m_RecordThread);
m_RecordThread->start();
m_CopyFileThread=new QThread();
m_copyFile=new FileOperation();
m_copyFile->moveToThread(m_CopyFileThread);
m_CopyFileThread->start();
//系统采集步骤1:打开sbg串口并采集数据打开光谱仪
// connect(this, SIGNAL(systemStart()),m_sbgRecorder, SLOT(startRecordSbg()));
connect(this, SIGNAL(systemStart()),m_imager, SLOT(openImger()));
connect(this, SIGNAL(systemStop()),m_sbgRecorder, SLOT(closeSerialPort()));//
connect(this, SIGNAL(systemStop()),m_imager, SLOT(closeImger()));
//系统采集步骤2:开始采集高光谱影像
connect(this, SIGNAL(startRecordHyperspectralSignal()),m_sbgRecorder, SLOT(startRecordHyperspectral()));
connect(m_sbgRecorder, SIGNAL(sbgReady(double,QString)),m_imager, SLOT(startRecord(double,QString)));
connect(this, SIGNAL(recordXimeaOnlySignal(double,QString)),m_imager, SLOT(startRecord(double,QString)));
//系统采集步骤3:停止采集
connect(m_imager, SIGNAL(recordFinished()),this, SLOT(onRecordFinished()));
//系统采集步骤4:拷贝文件
connect(this, SIGNAL(startCopyFileSignal()),m_copyFile, SLOT(copyFile()));
connect(this, SIGNAL(startDeleteFileSignal()),m_copyFile, SLOT(deleteFile()));
//系统采集步骤5:进程间通讯
connect(m_sbgRecorder, SIGNAL(serialPortStatus(int)),this, SLOT(sendSerialPortStatus(int)));
connect(m_sbgRecorder, SIGNAL(sbgSolutionModeSignal(int)),this, SLOT(sendSbgSolutionModeState(int)));
connect(m_sbgRecorder, SIGNAL(sbgAccuracySignal(int)),this, SLOT(sendSbgAccuracyState(int)));
connect(m_imager, SIGNAL(ximeaImageStatus(int)),this, SLOT(sendXimeaImageStatus(int)));
connect(m_sbgMagCibWorkThread, SIGNAL(magCalibStateSignal(int)),this, SLOT(sendSbgMagCalibState(int)));
connect(m_copyFile, SIGNAL(copyFileStatus(int)),this, SLOT(sendCopyFileStatus(int)));
//当软件不正常关闭并且重启后通知其他psdk程序
m_clientIpAddress=QHostAddress(QHostAddress::LocalHost);
sendSerialPortStatus(0);
sendXimeaImageStatus(0);
sendSbgMagCalibState(0);
sendCopyFileStatus(0);
std::cout<<"UdpServer::UdpServer--------:System ready!"<<std::endl;
}
void UdpServer::processPendingDatagrams()
{
using namespace std;
while (m_udpSocket->hasPendingDatagrams())
{
QByteArray datagram;
datagram.resize(m_udpSocket->pendingDatagramSize());
m_udpSocket->readDatagram(datagram.data(), datagram.size(),&m_clientIpAddress, &m_clientPort);
printf("接收数据字节数: %d.\n",datagram.size());
QList<QByteArray> datagramList=datagram.split(',');
printf("有多少个list: %d.\n",datagramList.size());
QString instruction=datagramList[0].data();// QByteArray转QString方法1
switch (instruction.toInt())
{
case 1://启动系统: 打开sbg串口并采集数据打开光谱仪
{
std::cout<<"1代表启动系统!"<<std::endl;
emit systemStart();
break;
}
case 2://关闭系统:关闭相机和sbg串口,关闭软件
{
std::cout<<"2代表关闭系统!"<<std::endl;
if(m_sbgRecorder->getSbgState()>=1)
{
m_sbgRecorder->stopRecordSbg();
}
if(m_imager->getImagerState()>=1)
{
m_imager->stopRecord();
}
emit systemStop();
//QCoreApplication::quit();
break;
}
case 3://系统开始采集高光谱影像
{
//emit startRecordHyperspectralSignal();//真实的影像开始采集通过惯导中的信号(sbgReady)触发
m_sbgRecorder->startRecordHyperspectral();
// if(m_sbgRecorder->getSbgState()==2)//开始采集前还需要判断相机的状态??????????????????????????????????????????
// {
// }
// else if(m_sbgRecorder->getSbgState()==3)
// {
// std::cout<<"系统已经开始采集!"<<std::endl;
// }
break;
}
case 4://系统停止采集高光谱影像
{
std::cout<<"4代表系统停止采集高光谱影像!"<<std::endl;
if(m_imager->getImagerState()>=1 && m_imager->getImagerState()<=4)
{
m_imager->stopRecord();
}
break;
}
case 5://
{
if(m_imager->getImagerState()>=1 && m_imager->getImagerState()<=3)
{
std::cout<<"5代表设置帧率!"<<std::endl;
m_imager->setFramerate(datagramList[1].toFloat());
}
break;
}
case 6://
{
if(m_imager->getImagerState()>=1 && m_imager->getImagerState()<=3)
{
std::cout<<"6代表自动曝光!"<<std::endl;
m_imager->autoExposure();
}
break;
}
case 7:
{
if(datagramList[1].toInt()==1)
{
std::cout<<"拷贝数据!"<<std::endl;
emit startCopyFileSignal();
}
else if(datagramList[1].toInt()==0)
{
std::cout<<"删除数据!"<<std::endl;
emit startDeleteFileSignal();
}
break;
}
case 8:
{
std::cout<<"8代表磁场矫正!"<<std::endl;
if(datagramList[1].toInt()==1)
{
//magCalib();
std::cout<<"8-1: 开始磁场矫正!"<<std::endl;
m_sbgMagCibWorkThread->start();
}
else if(datagramList[1].toInt()==0)
{
std::cout<<"8-0: 停止磁场矫正!"<<std::endl;
m_sbgMagCibWorkThread->m_iMagCalibStopControl=0;
}
break;
}
case 9:
{
std::cout<<"9代表仅采集影像!"<<std::endl;
if(datagramList[1].toInt()==1)
{
QString xx = getFileNameBaseOnTime();
xx = xx + "testImage";
emit recordXimeaOnlySignal(1000.0,xx);
// emit recordXimeaOnlySignal(1000.0,"testImage");
}
else if(datagramList[1].toInt()==0)
{
m_imager->stopRecord();
}
break;
}
default:
std::cout<<">=9没有意义!"<<std::endl;
break;
}
}
}
double UdpServer::getTimeDifferenceBetweenSystemAndSbg(double secondSbg)
{
// time_t timer;//time_t就是long int 类型
// struct tm *tblock;
// timer = time(NULL);//返回秒数(精度为秒)从1970-1-1,00:00:00 可以当成整型输出或用于其它函数
// tblock = localtime(&timer);
// printf("Local time is: %s\n", asctime(tblock));
//https://blog.csdn.net/FUN6367/article/details/89787566
struct timespec systemTime;
clock_gettime(CLOCK_REALTIME,&systemTime);
tm systemTime_rili;
localtime_r(&systemTime.tv_sec, &systemTime_rili);
// std::cout<<"systemTime_rili--年: "<<systemTime_rili.tm_year+1900<<std::endl;
// std::cout<<"systemTime_rili--月: "<<systemTime_rili.tm_mon+1<<std::endl;
// std::cout<<"systemTime_rili--日: "<<systemTime_rili.tm_mday<<std::endl;
// std::cout<<"systemTime_rili--时: "<<systemTime_rili.tm_hour<<std::endl;
// std::cout<<"systemTime_rili--分: "<<systemTime_rili.tm_min<<std::endl;
// std::cout<<"systemTime_rili--秒: "<<systemTime_rili.tm_sec<<std::endl;
// printf("Local time is: %s\n", asctime(&systemTime_rili));
double secondSystem=(systemTime_rili.tm_mday-1)*24*60*60+systemTime_rili.tm_hour*60*60+systemTime_rili.tm_min*60+systemTime_rili.tm_sec;
double nanosecondSystem=secondSystem+static_cast<double>(systemTime.tv_nsec)/1000000000;
printf("UdpServer::getTimeDifferenceBetweenSystemAndSbg------%f\n", nanosecondSystem-secondSbg);
return nanosecondSystem-secondSbg;
}
void UdpServer::sender(int status)
{
QByteArray datagram2send;
datagram2send.operator =(QString::number(status).toStdString().c_str());
m_udpSocket->writeDatagram(datagram2send.data(),datagram2send.size(),m_clientIpAddress, m_clientPort+1);
}
void UdpServer::sendSerialPortStatus(int serialPortStatus)
{
std::cout<<"UdpServer::sendSerialPortStatus---------------------:"<< serialPortStatus <<std::endl;
std::cout<<"UdpServer::sendSerialPortStatus---------------------:"<< m_clientIpAddress.AnyIPv4 <<std::endl;
QByteArray datagram2send;
QString status = "sbg," + QString::number(serialPortStatus);
datagram2send.operator =(status.toStdString().c_str());
m_udpSocket->writeDatagram(datagram2send.data(),datagram2send.size(),m_clientIpAddress, 45455);
}
void UdpServer::sendSbgMagCalibState(int SbgMagCalibState)
{
std::cout<<"UdpServer::sendSbgMagCalibState---------------------:"<< SbgMagCalibState <<std::endl;
QByteArray datagram2send;
QString status = "mag," + QString::number(SbgMagCalibState);
datagram2send.operator =(status.toStdString().c_str());
m_udpSocket->writeDatagram(datagram2send.data(),datagram2send.size(),m_clientIpAddress, 45455);
}
void UdpServer::sendSbgSolutionModeState(int SolutionMode)
{
std::cout<<"UdpServer::sendSbgSolutionModeState---------------------:"<< SolutionMode <<std::endl;
QByteArray datagram2send;
QString status = "SolutionMode," + QString::number(SolutionMode);
datagram2send.operator =(status.toStdString().c_str());
m_udpSocket->writeDatagram(datagram2send.data(),datagram2send.size(),m_clientIpAddress, 45455);
}
void UdpServer::sendSbgAccuracyState(int Accuracy)
{
// std::cout<<"UdpServer::sendSbgAccuracyState---------------------:"<< Accuracy <<std::endl;
QByteArray datagram2send;
QString status = "Accuracy," + QString::number(Accuracy);
datagram2send.operator =(status.toStdString().c_str());
m_udpSocket->writeDatagram(datagram2send.data(),datagram2send.size(),m_clientIpAddress, 45455);
}
void UdpServer::sendXimeaImageStatus(int ximeaImageStatus)
{
std::cout<<"UdpServer::sendXimeaImageStatus---------------------:"<< ximeaImageStatus <<std::endl;
QByteArray datagram2send;
QString status = "ximea," + QString::number(ximeaImageStatus);
datagram2send.operator =(status.toStdString().c_str());
m_udpSocket->writeDatagram(datagram2send.data(),datagram2send.size(),m_clientIpAddress, 45455);
}
void UdpServer::sendCopyFileStatus(int fileStatus)
{
std::cout<<"UdpServer::sendCopyFileStatus---------------------:"<< fileStatus <<std::endl;
QByteArray datagram2send;
QString status = "file," + QString::number(fileStatus);
datagram2send.operator =(status.toStdString().c_str());
m_udpSocket->writeDatagram(datagram2send.data(),datagram2send.size(),m_clientIpAddress, 45455);
}
void UdpServer::onRecordFinished()
{
std::cout<<"UdpServer::onRecordFinished----------------:影像停止采集"<<std::endl;
}
sbgMagCibWorkThread::sbgMagCibWorkThread()
{
}
void sbgMagCibWorkThread::displayMagCalibResults(SbgEComMagCalibMode mode, const SbgEComMagCalibResults *pMagCalibResults)
{
//
// Display the magnetic calibration results
//
printf("\n\n======== Magnetic calibration report ========\n");
//
// Convert the quality indicator to human readable output
//
switch (pMagCalibResults->quality)
{
case SBG_ECOM_MAG_CALIB_QUAL_OPTIMAL:
{
printf("Quality:\t\toptimal\n");
signalWrap(7);
break;
}
case SBG_ECOM_MAG_CALIB_QUAL_GOOD:
{
printf("Quality:\t\tgood\n");
signalWrap(6);
break;
}
case SBG_ECOM_MAG_CALIB_QUAL_POOR:
{
printf("Quality:\t\tpoor\n");
signalWrap(5);
break;
}
default:
printf("Quality:\t\tundefined\n");
}
//
// Convert the confidence indicator to human readable output
//
switch (pMagCalibResults->confidence)
{
case SBG_ECOM_MAG_CALIB_TRUST_HIGH:
printf("Confidence:\t\thigh\n");
break;
case SBG_ECOM_MAG_CALIB_TRUST_MEDIUM:
printf("Confidence:\t\tmedium\n");
break;
case SBG_ECOM_MAG_CALIB_TRUST_LOW:
printf("Confidence:\t\tlow\n");
break;
default:
printf("Confidence:\t\tundefined\n");
}
//
// Print advanced status
//
printf("Advanced Status:\n");
if (pMagCalibResults->advancedStatus & SBG_ECOM_MAG_CALIB_NOT_ENOUGH_POINTS)
{
printf("\t- Not enough valid points. Maybe you are moving too fast.\n");
}
if (pMagCalibResults->advancedStatus & SBG_ECOM_MAG_CALIB_TOO_MUCH_DISTORTIONS)
{
printf("\t- Unable to find a calibration solution. Maybe there are too much non static distortions.\n");
}
if (pMagCalibResults->advancedStatus & SBG_ECOM_MAG_CALIB_ALIGNMENT_ISSUE)
{
printf("\t- The magnetic calibration has troubles to correct the magnetometers and inertial frame alignment.\n");
}
//
// Test if we have a 2D or 3D calibration mode
//
if (mode == SBG_ECOM_MAG_CALIB_MODE_2D)
{
//
// In 2D mode, a X or Y motion issue means we have too much motion
//
if (pMagCalibResults->advancedStatus & SBG_ECOM_MAG_CALIB_X_MOTION_ISSUE)
{
printf("\t- Too much roll motion for a 2D magnetic calibration.\n");
}
if (pMagCalibResults->advancedStatus & SBG_ECOM_MAG_CALIB_Y_MOTION_ISSUE)
{
printf("\t- Too much pitch motion for a 2D magnetic calibration.\n");
}
}
else
{
//
// In 3D mode, a X or Y motion issue means we have not enough motion
//
if (pMagCalibResults->advancedStatus & SBG_ECOM_MAG_CALIB_X_MOTION_ISSUE)
{
printf("\t- Not enough roll motion for a 3D magnetic calibration.\n");
}
if (pMagCalibResults->advancedStatus & SBG_ECOM_MAG_CALIB_Y_MOTION_ISSUE)
{
printf("\t- Not enough pitch motion for a 3D magnetic calibration.\n");
}
}
//
// Test if we had enough yaw motion to compute a calibration
//
if (pMagCalibResults->advancedStatus & SBG_ECOM_MAG_CALIB_Z_MOTION_ISSUE)
{
//
// Test if we are in
printf("\t- Not enough yaw motion to compute a valid magnetic calibration.\n");
}
//
// Display the number of points used to compute the magnetic calibration
//
printf("\n\n");
printf("Used Points:\t%u\n", pMagCalibResults->numPoints);
printf("Max Points:\t%u\n", pMagCalibResults->maxNumPoints);
//
// Display magnetic field deviation errors
//
printf("\n\n-------------------------------------\n");
printf("Magnetic field deviation report\n");
printf("-------------------------------------\n");
printf("\t\tMean\tStd\tMax\n");
printf("Before\t\t%0.2f\t%0.2f\t%0.2f\n", pMagCalibResults->beforeMeanError, pMagCalibResults->beforeStdError, pMagCalibResults->beforeMaxError);
printf("After\t\t%0.2f\t%0.2f\t%0.2f\n", pMagCalibResults->afterMeanError, pMagCalibResults->afterStdError, pMagCalibResults->afterMaxError);
printf("Accuracy (deg)\t%0.2f\t%0.2f\t%0.2f\n", sbgRadToDegF(pMagCalibResults->meanAccuracy), sbgRadToDegF(pMagCalibResults->stdAccuracy), sbgRadToDegF(pMagCalibResults->maxAccuracy));
printf("\n\n\n");
}
void sbgMagCibWorkThread::run()
{
m_iMagCalibStopControl = 1;
SbgEComHandle comHandle;
SbgErrorCode errorCode;
SbgInterface sbgInterface;
int32 retValue = 0;
SbgEComDeviceInfo deviceInfo;
SbgEComMagCalibResults magCalibResults;
SbgEComMagCalibMode mode;
//
// Create an interface:
// We can choose either a serial for real time operation, or file for previously logged data parsing
// Note interface closing is also differentiated !
//
errorCode = sbgInterfaceSerialCreate(&sbgInterface, "/dev/sbg_serial_port", 460800); // Example for Unix using a FTDI Usb2Uart converter
//errorCode = sbgInterfaceSerialCreate(&sbgInterface, "COM23", 115200); // Example for Windows serial communication
//
// Test that the interface has been created
//
if (errorCode == SBG_NO_ERROR)
{
//
// Create the sbgECom library and associate it with the created interfaces
//
errorCode = sbgEComInit(&comHandle, &sbgInterface);
//
// Test that the sbgECom has been initialized
//
if (errorCode == SBG_NO_ERROR)
{
printf("sbgECom properly Initialized.\n");
printf("sbgECom version %s\n\n", SBG_E_COM_VERSION_STR);
//
// Get device information
//
errorCode = sbgEComCmdGetInfo(&comHandle, &deviceInfo);
//
// Display device information if no error
//
if (errorCode == SBG_NO_ERROR)
{
printf("Device : %0.9u found\n", deviceInfo.serialNumber);
}
else
{
fprintf(stderr, "ellipseOnboardMagCalib: Unable to get device information.\n");
}
//
// Define the calibration mode to perform
//
mode = SBG_ECOM_MAG_CALIB_MODE_3D;
//
// Start / reset the acquisition of magnetic field data
// Each time this command is called, the device is prepared to acquire a new set of magnetic field data
// You have to specify here if the magnetic field data acquisition will be used to compute a 2D or 3D calibration
//
errorCode = sbgEComCmdMagStartCalib(&comHandle, mode, SBG_ECOM_MAG_CALIB_HIGH_BW);
//
// Make sure that the magnetic calibration has started
//
if (errorCode == SBG_NO_ERROR)
{
//
// The device is now acquiring some magnetic field data.
// Wait for a user input before computing the magnetic calibration
//
printf("The device is acquiring magnetic field data.\n\nPress enter to stop the magnetic field acquisition.\n");
//fgetc(stdin);//-------------------------------------------------------------------------------------------------------------------------------------------
while (m_iMagCalibStopControl)
{
printf("h");
}
printf("kkkkkkkkkkkkkkkkkkkkkkkkkkkk\n");
//
// Try to compute a magnetic calibration and get the results
//
errorCode = sbgEComCmdMagComputeCalib(&comHandle, &magCalibResults);
//
// Make sure that we were able to get magnetic calibration results
//
if (errorCode == SBG_NO_ERROR)
{
//
// Test if the device has computed a valid magnetic calibration
//
if (magCalibResults.quality != SBG_ECOM_MAG_CALIB_QUAL_INVALID)
{
//
// Send the new magnetic calibration data
//
errorCode = sbgEComCmdMagSetCalibData(&comHandle, magCalibResults.offset, magCalibResults.matrix);
//
// Make sure that the new magnetic calibration data has been updated
//
if (errorCode == SBG_NO_ERROR)
{
printf("The new magnetic calibration has been applied.\n");
//
// Display the magnetic calibration status
//
displayMagCalibResults(mode, &magCalibResults);
}
else
{
fprintf(stderr, "ellipseOnboardMagCalib: Unable to upload new magnetic calibration data.\n");
signalWrap(4);
}
}
else
{
//
// Unable to compute a valid magnetic calibration
//
fprintf(stderr, "ellipseOnboardMagCalib: Unable to compute a valid magnetic calibration.\n");
signalWrap(3);
}
}
else
{
fprintf(stderr, "ellipseOnboardMagCalib: Unable to get onboard magnetic calibration results.\n");
signalWrap(2);
}
}
else
{
fprintf(stderr, "ellipseOnboardMagCalib: Unable to start the onboard magnetic calibration.\n");
signalWrap(1);
}
//
// Close the sbgEcom library
//
sbgEComClose(&comHandle);
}
else
{
//
// Unable to initialize the sbgECom
//
fprintf(stderr, "ellipseOnboardMagCalib: Unable to initialize the sbgECom library.\n");
retValue = -1;
signalWrap(0);
}
//
// Close the interface
//
sbgInterfaceSerialDestroy(&sbgInterface);
}
else
{
//
// Unable to create the interface
//
fprintf(stderr, "ellipseOnboardMagCalib: Unable to create the interface.\n");
retValue = -1;
signalWrap(0);
}
printf("magCalib process complete!\n");
//fgetc(stdin);
}
void sbgMagCibWorkThread::signalWrap(int state)
{
std::cout<<"sbgMagCibWorkThread::signalWrap---------------------:"<< state <<std::endl;
m_iMagCalibState=state;
emit magCalibStateSignal(m_iMagCalibState);
}

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#include "Header_Files/utility_tc.h"
#include <QDir>
QString getFileNameBaseOnTime()
{
using namespace std;
//获取系统时间
time_t timer;//time_t就是long int 类型
struct tm *tblock;
timer = time(NULL);//返回秒数(精度为秒)从1970-1-1,00:00:00 可以当成整型输出或用于其它函数
tblock = localtime(&timer);
//printf("Local time is: %s\n", asctime(tblock));
//格式化时间为需要的格式
char fileNameTmp[256] = { 0 };
char dirNameTmp[256] = { 0 };
strftime(fileNameTmp, sizeof(fileNameTmp), "%Y%m%d_%H%M%S", tblock);
strftime(dirNameTmp, sizeof(dirNameTmp), "%Y%m%d", tblock);
QString fileName(fileNameTmp);
QString dirName(dirNameTmp);
// QString fileName=QString::number(tblock->tm_year+1900)+QString::number(tblock->tm_mon+1)+QString::number(tblock->tm_mday)+"_"+QString::number(tblock->tm_hour)+QString::number(tblock->tm_min);//
//设置文件绝对路径
QDir path("/media/nvme");
if(!path.exists(dirName))
{
path.mkdir(dirName);
}
path.cd(dirName);
QString absoluteFilePath=path.path()+"/"+fileName;
// printf("absoluteFilePath is: %s\n", absoluteFilePath.c_str());
// qDebug() << "absoluteFilePath is:" << absoluteFilePath;
return absoluteFilePath;
}
void bubbleSort(unsigned short * a, int n)
{
// //排序实现1
// for(int i=0;i<numberOfPixel;i++)
// for(int j=1;j<numberOfPixel-i;j++)
// if(a[j-1]>a[j])
// swap(a+j-1,a+j);
//排序实现2
int j,k,flag;
flag = n;
while(flag>0)
{
k=flag;
flag=0;
for(j=1;j<k;j++)
if(a[j-1]>a[j])
{
swap(a+j-1,a+j);
flag=j;
}
}
}
void swap(unsigned short * a, unsigned short * b)
{
int tmp;
tmp=*a;
*a=*b;
*b=tmp;
}

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#include "Header_Files/ximeaimager.h"
XimeaImager::XimeaImager()
{
m_buffer=nullptr;
m_bRecordControl=false;
m_iFrameCounter=0;
m_iImagerState=0;
//connect(this, SIGNAL(recordFinished()),this, SLOT());
}
void XimeaImager::openImger()
{
if(m_iImagerState>0)
{
emit ximeaImageStatus(m_iImagerState);
return;
}
try
{
//std::cout<<"XimeaImager::openImger111111111111111111111:正在打开相机!"<<std::endl;
m_imager.connect();
// bool haha = m_imager.setSpectralBin(2);
// bool haha2 = m_imager.setSpatialBin(2);
//sn008_bin1
float a=1.999564;
float b=-279.893;
// //sn008_bin2
// float a = 3.99912794;
// float b = -278.89317732225084;
m_imager.setGainOffset(a, b);
//SN=008自己修改
// int OffsetX=272;
// int width=1392;
//
// int OffsetY=338;
// int height=302;
//
// //SN=008标准
// int OffsetX=288;//272
// int width=1360;//是16的整数倍
//
// int OffsetY=340;
// int height=300;//302
// m_imager.setRoi(288,1360,348,300);//sn0098
m_imager.setRoi(288,1360,340,300);//sn008,corning410bin1
// m_imager.setRoi(144,680,170,151);//sn008,corning410bin2
setFramerate(100);
int frameSizeManual = m_imager.get_band_count()*m_imager.get_sample_count()*2;
int frameSizeAuto = m_imager.getBufferSizeOfOneFrame();
m_iFrameSizeInByte = frameSizeAuto;
m_buffer = new unsigned short[m_iFrameSizeInByte];
m_iImagerState = 1;
emit ximeaImageStatus(m_iImagerState);
}
catch(int xiApiErrorCodes)
{
std::cout<<"XimeaImager::openImger----------------:ERROR!"<<std::endl;
processXiApiErrorCodes(xiApiErrorCodes);
}
catch(char const* e1)
{
std::cout<<"char *e---------!"<<std::endl;
}
}
void XimeaImager::closeImger()
{
if(m_iImagerState==0)
{
emit ximeaImageStatus(m_iImagerState);
return;
}
try
{
m_imager.disconnect();
m_iImagerState=0;
emit ximeaImageStatus(m_iImagerState);
}
catch(int xiApiErrorCodes)
{
std::cout<<"XimeaImager::closeImger-------------------!"<<std::endl;
processXiApiErrorCodes(xiApiErrorCodes);
}
}
void XimeaImager::setFramerate(double framerate)
{
try
{
m_imager.set_framerate(framerate);
int maxExposureTimeInUs=1/framerate*1000000*0.8;
setExposureTime(maxExposureTimeInUs);
// setExposureTime(1000);
m_iImagerState=2;
emit ximeaImageStatus(m_iImagerState);
}
catch(int xiApiErrorCodes)
{
processXiApiErrorCodes(xiApiErrorCodes);
}
}
double XimeaImager::getExposureTime()
{
double exposureTime;
try
{
exposureTime=m_imager.get_integration_time();
}
catch(int xiApiErrorCodes)
{
processXiApiErrorCodes(xiApiErrorCodes);
}
return exposureTime;
}
double XimeaImager::setExposureTime(float exposureTime_in_us)
{
double integrationTime2Return;
try
{
//计算最大积分时间
float currentFramerate=getFramerate();
float maxExposureTime_in_us=1/currentFramerate*1000000;
//确保设置的积分时间比最大积分时间小
if(exposureTime_in_us<maxExposureTime_in_us)
{
m_imager.set_integration_time(exposureTime_in_us);
}
else
{
m_imager.set_integration_time(maxExposureTime_in_us);
}
//返回设置的积分时间
integrationTime2Return=m_imager.get_integration_time();
}
catch(int xiApiErrorCodes)
{
processXiApiErrorCodes(xiApiErrorCodes);
}
return integrationTime2Return;
}
double XimeaImager::autoExposure()
{
double exposureTime;
try
{
//方式1:在曝光时的帧率前提下,从最大曝光时间开始循环采集
int maxValueOfOneFrame;
float suitableMaxValue=4095 * 0.8;
double framerate = m_imager.get_framerate();
double maxExposureTime = 1/framerate*1000000;
exposureTime=setExposureTime(maxExposureTime);
bool bIsAutoExposureOk=false;
while(!bIsAutoExposureOk)
{
m_imager.start();
m_imager.get_frame(m_buffer);
m_imager.stop();
maxValueOfOneFrame=getMaxValueOfOneFrame(m_buffer,m_imager.get_band_count()*m_imager.get_sample_count());
if(maxValueOfOneFrame <= suitableMaxValue)
{
bIsAutoExposureOk=true;
}
else
{
exposureTime = exposureTime*0.95;
exposureTime=setExposureTime(exposureTime);
}
}
// //方式2
// int baseExposureTime_in_us=5000;
// float suitableMaxValue=4095 * 0.8;
// int maxValueOfOneFrame;
// setExposureTime(baseExposureTime_in_us);
// m_imager.start();
// m_imager.get_frame(m_buffer);
// m_imager.stop();
// std::cout<<"1111111111111111111111111111111111!"<<std::endl;
// maxValueOfOneFrame=getMaxValueOfOneFrame(m_buffer,m_imager.get_band_count()*m_imager.get_sample_count());
// std::cout<<"2222222222222222222222222222222222!"<<std::endl;
// float scale=suitableMaxValue/maxValueOfOneFrame;
// float suitableExposureTime=baseExposureTime_in_us * scale;
// exposureTime=setExposureTime(suitableExposureTime);
m_iImagerState=3;
emit ximeaImageStatus(m_iImagerState);
}
catch(int xiApiErrorCodes)
{
processXiApiErrorCodes(xiApiErrorCodes);
}
std::cout<<"自动曝光完成!"<<std::endl;
return exposureTime;
}
double XimeaImager::getFramerate()
{
double framerate;
try
{
framerate=m_imager.get_framerate();
}
catch(int xiApiErrorCodes)
{
processXiApiErrorCodes(xiApiErrorCodes);
}
return framerate;
}
void XimeaImager::setGain(double gain)
{
try
{
m_imager.set_gain(gain);
}
catch(int xiApiErrorCodes)
{
processXiApiErrorCodes(xiApiErrorCodes);
}
}
double XimeaImager::getGain()
{
try
{
return m_imager.get_gain();
}
catch(int xiApiErrorCodes)
{
processXiApiErrorCodes(xiApiErrorCodes);
}
}
int XimeaImager::getSampleCount()
{
int sampleCount;
try
{
sampleCount=m_imager.get_sample_count();
}
catch(int xiApiErrorCodes)
{
processXiApiErrorCodes(xiApiErrorCodes);
}
return sampleCount;
}
int XimeaImager::getBandCount()
{
int bandCount;
try
{
bandCount=m_imager.get_band_count();
}
catch(int xiApiErrorCodes)
{
processXiApiErrorCodes(xiApiErrorCodes);
}
return bandCount;
}
int XimeaImager::getWindowStartBand()
{
int windowStartBand;
try
{
windowStartBand=m_imager.get_start_band();
}
catch(int xiApiErrorCodes)
{
processXiApiErrorCodes(xiApiErrorCodes);
}
return windowStartBand;
}
int XimeaImager::getWindowEndBand()
{
int windowEndBand;
try
{
windowEndBand=m_imager.get_end_band();
}
catch(int xiApiErrorCodes)
{
processXiApiErrorCodes(xiApiErrorCodes);
}
return windowEndBand;
}
double XimeaImager::geWavelengthAtBand(int x)
{
double wavelengthAtBand;
try
{
wavelengthAtBand=m_imager.get_wavelength_at_band(x);
}
catch(int xiApiErrorCodes)
{
processXiApiErrorCodes(xiApiErrorCodes);
}
return wavelengthAtBand;
}
int XimeaImager::getMaxValueOfOneFrame(unsigned short * data, int numberOfPixel)
{
//排序
//bubbleSort(data,1000);
//计算出最大的10%值的平均值
unsigned short maxValue=0;
for(int i=0;i<numberOfPixel;i++)
{
if (data[i]>maxValue)
{
maxValue=data[i];
}
}
printf("本帧最大值为: %d.\n",maxValue);
return maxValue;
}
int XimeaImager::getImagerState() const
{
return m_iImagerState;
}
void XimeaImager::startRecord(double TimeDifferenceBetweensOSAndSbg,QString baseFileName)
{
try
{
if(m_iImagerState==4 || m_iImagerState==0 || m_iImagerState>=21)
{
emit ximeaImageStatus(m_iImagerState);
return;
}
m_iImagerStateTemp=m_iImagerState;
m_iImagerState=4;
emit ximeaImageStatus(m_iImagerState);
printf("开始采集!\n");
m_iFrameCounter=0;
m_bRecordControl=true;
m_imager.start();
m_baseFileName=baseFileName;
QString imageFileName=m_baseFileName+".bil";
QString timesFileName=m_baseFileName+".times";
//
FILE *hFile=fopen(imageFileName.toStdString().c_str(),"w+b");
FILE *hHimesFile=fopen(timesFileName.toStdString().c_str(),"w+");
using namespace std;
ofstream timesFileHandle(timesFileName.toStdString()+"_ofstream");
struct timeval timeStart, timeEnd;
double runTime=0;
gettimeofday(&timeStart, NULL);
while (m_bRecordControl)
{
unsigned short *x=m_imager.get_frame(m_buffer);
//fwrite(m_buffer,2,getBandCount()*getSampleCount(),hFile);
fwrite(m_buffer,1,m_iFrameSizeInByte,hFile);//*********************************
//fflush(hFile);//只保证了将IO缓冲写入系统缓冲中使IO读操作能成功但系统什么时候写入磁盘由系统决定一般是达到一定量时系统他就写入磁盘。
//sync();//强制系统将系统文件缓冲的内容写入磁盘
m_iFrameCounter+=1;
double sbgTime=getSbgTime(TimeDifferenceBetweensOSAndSbg);
fprintf(hHimesFile,"%f\n",sbgTime);
//fwrite(&sbgTime,sizeof(double),1,hHimesFile);
timesFileHandle << sbgTime << "\n";
// std::cout<<"XimeaImager::startRecord---std::cout: "<<sbgTime<<std::endl;
// //用于测试是否漏帧
// if(m_iFrameCounter==getFramerate()*20)
// {
// break;
// }
// unsigned char pixel = *(unsigned char*)image.bp;//Default value: XI_MONO8
// unsigned short pixel =*(unsigned short*)image.bp;//XI_RAW16
// printf("Image %d (%dx%d) received from camera. First pixel value: %d\n", m_iFrameCounter, (int)image.width, (int)image.height, pixel);
}
gettimeofday(&timeEnd, NULL);
runTime = (timeEnd.tv_sec - timeStart.tv_sec ) + (double)(timeEnd.tv_usec -timeStart.tv_usec)/1000000;
double frameInTheory=runTime * getFramerate();
double frameLossed=frameInTheory - m_iFrameCounter;
double frameLossRate=frameLossed / frameInTheory;
std::cout<<"当前采集文件为: "<<baseFileName.toStdString()<<std::endl;
std::cout<<"采集时间为: "<<runTime<<std::endl;
std::cout<<"理论采集帧数为: "<<frameInTheory<<std::endl;
std::cout<<"实际采集帧数为:"<<m_iFrameCounter<<std::endl;
std::cout<<"丢失帧数为: "<<frameLossed<<std::endl;
std::cout<<"丢帧率为: "<<frameLossRate<<std::endl;
fclose(hFile);
fclose(hHimesFile);
timesFileHandle.close();
printf("Stopping acquisition...\n");
m_imager.stop();
writeHdr();
m_iImagerState=m_iImagerStateTemp;
emit ximeaImageStatus(m_iImagerState);
emit recordFinished();
}
catch(int xiApiErrorCodes)
{
processXiApiErrorCodes(xiApiErrorCodes);
}
}
void XimeaImager::writeHdr()
{
using namespace std;
QString hdrPath=m_baseFileName+".hdr";
ofstream hdrFileHandle(hdrPath.toStdString());
hdrFileHandle << "ENVI\n";
hdrFileHandle << "interleave = bil\n";
hdrFileHandle << "byte order = 0\n";
hdrFileHandle << "data type = 2\n";
//hdrFileHandle << "bit depth = 12\n";
hdrFileHandle << "samples = " << getSampleCount() << "\n";
hdrFileHandle << "bands = " << getBandCount() << "\n";
hdrFileHandle << "lines = " << m_iFrameCounter << "\n";
hdrFileHandle << "sample binning = " << m_imager.getSpatialBin() << "\n";
hdrFileHandle << "spectral binning = " << m_imager.getSpectralBin() << "\n";
hdrFileHandle << "framerate = " << getFramerate() << "\n";
hdrFileHandle << "shutter = " << getExposureTime()/1000 << "\n";
hdrFileHandle << "shutter units = milliseconds\n";
hdrFileHandle << "gain = " << getGain() << "\n";
hdrFileHandle << "wavelength units = nanometers\n";
hdrFileHandle << "wavelength = {";
//hdrFileHandle << std::setprecision(5);
for (int i = getWindowStartBand(); i < getWindowEndBand(); i++)
{
hdrFileHandle << geWavelengthAtBand(i);
if (i < getWindowEndBand() - 1)
hdrFileHandle << ", ";
else
{
printf("头文件中写入了多少个波段:%d\n",i-getWindowStartBand()+1);//???????????????
}
}
hdrFileHandle << "}\n";
hdrFileHandle.close();
}
void XimeaImager::processXiApiErrorCodes(int xiApiErrorCodes)
{
using namespace std;
switch (xiApiErrorCodes)
{
case 1:
std::cout<<"XimeaImager::processXiApiErrorCodes-----------:Invalid handle!"<<std::endl;
m_iImagerState=0;
emit ximeaImageStatus(m_iImagerState);
break;
case 56:
std::cout<<"XimeaImager::processXiApiErrorCodes-----------:NO_DEVICES_FOUND!"<<std::endl;
m_iImagerState=0;
emit ximeaImageStatus(m_iImagerState);
break;
case 57:
std::cout<<"XimeaImager::processXiApiErrorCodes-----------:RESOURCE_OR_FUNCTION_LOCKED!"<<std::endl;
m_iImagerState=22;
emit ximeaImageStatus(m_iImagerState);
break;
default:
QString ximeaError="ximeaError.txt";
ofstream ximeaErrorFile(ximeaError.toStdString().c_str(),ios::app);
ximeaErrorFile<< xiApiErrorCodes << "\n";
ximeaErrorFile.close();
m_iImagerState=21;
emit ximeaImageStatus(m_iImagerState);
break;
}
}
void XimeaImager::stopRecord()
{
//printf("Stop record!\n");
m_bRecordControl=false;
}
int XimeaImager::getFrameCounter()
{
return m_iFrameCounter;
}