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#ifndef COMMONDEFINE_H
#define COMMONDEFINE_H
#include <QString>
#include <vector>
//设备管理信息
#define MAX_IP_LEN 16
#define MAX_LOGIN_LEN 256
//#define MAX_SHOW_WINDOW_NUM (64) //最大显示窗口数
//#define MAX_DEV_NUM (18) //最大设备个数
//#define MAX_SHOW_WINDOW_NUM (8) //最大显示窗口数
//#define MAX_DEV_NUM (8) //最大设备个数
#define MAX_SHOW_WINDOW_NUM (9) //最大显示窗口数
#define MAX_DEV_NUM (9) //最大设备个数
#define IS_OLD_7215 (0) //是否为旧7215程序1为是0为不是
#define GUIDEANGLERATIO_FLOAT (0.0003017485)
/*
* @brief: 1
*/
#pragma pack(push,1)
/*
* @breif:
*
* 1
*
*/
struct telemetryData
{
/*
* @brief:
*
* unsigned int32()
* bit
*/
struct telemFlags
{
public:
/*
* @brief: telemFlags
*/
telemFlags():mTimeStamp(0),
mPlatformType(0),
mPlatformID(0),
mPlatformRotation(0),
mPlatformPosition(0),
mPlatformSpeed(0),
mSensorType(0),
mSensorID(0),
mSensorSelectionCB(0),
mSensorFOV(0),
mSensorMod(0),
mSensorRotation(0),
mLaserDistance(0),
mMarkPosition(0),
mComposedAngle(0),
mInnerNavigation(0)
{}
/*
* @brief:
*
*/
inline bool isTimeStamp() const { return mTimeStamp == 1; }
inline bool isPlatformType() const { return mPlatformType == 1; }
inline bool isPlatformID() const { return mPlatformID == 1; }
inline bool isPlatformRotation() const { return mPlatformRotation == 1; }
inline bool isPlatformPosition() const { return mPlatformPosition == 1; }
inline bool isPlatformSpeed() const { return mPlatformSpeed == 1; }
inline bool isSensorType() const { return mSensorType == 1; }
inline bool isSensorID() const { return mSensorID == 1; }
inline bool isSensorSelectionCB() const { return mSensorSelectionCB == 1; }
inline bool isSensorFOV() const { return mSensorFOV == 1; }
inline bool isSensorMod() const { return mSensorMod == 1; }
inline bool isSensorRotation() const { return mSensorRotation == 1; }
inline bool isLaserDistance() const { return mLaserDistance == 1; }
inline bool isMarkPosition() const { return mMarkPosition == 1; }
inline bool isFrameRotation() const { return mFrameRotation == 1; }
inline bool isComposedAngle() const { return mComposedAngle == 1; }
inline bool isInnerNavigation() const { return mInnerNavigation == 1; }
/*
* @brief:
*/
inline void setTimestamp(bool value)
{
mTimeStamp = value ? 1 : 0;
}
inline void setPlatformType(bool value)
{
mPlatformType = value ? 1 : 0;
}
inline void setPlatformID(bool value)
{
mPlatformID = value ? 1 : 0;
}
inline void setPlatformRotation(bool value)
{
mPlatformRotation = value ? 1 : 0;
}
inline void setPlatformPosition(bool value)
{
mPlatformPosition = value ? 1 : 0;
}
inline void setPlatformSpeed(bool value)
{
mPlatformSpeed = value ? 1 : 0;
}
inline void setSensorType(bool value)
{
mSensorType = value ? 1 : 0;
}
inline void setSensorID(bool value)
{
mSensorID = value ? 1 : 0;
}
inline void setSensorSelectionCB(bool value)
{
mSensorSelectionCB = value ? 1 : 0;
}
inline void setSensorFOV(bool value)
{
mSensorFOV = value ? 1 : 0;
}
inline void setSensorMod(bool value)
{
mSensorMod = value ? 1 : 0;
}
inline void setSensorRotation(bool value)
{
mSensorRotation = value ? 1 : 0;
}
inline void setLaserDistance(bool value)
{
mLaserDistance = value ? 1 : 0;
}
inline void setMarkPosition(bool value)
{
mMarkPosition = value ? 1 : 0;
}
inline void setFrameRotation(bool value)
{
mFrameRotation = value ? 1 : 0;
}
inline void setComposedAngle(bool value)
{
mComposedAngle = value ? 1 : 0;
}
inline void setInnerNavigation(bool value)
{
mInnerNavigation = value ? 1 : 0;
}
protected:
unsigned int mTimeStamp : 1; ///< 测控数据中是否存在时间标签用1个bit标识
unsigned int mPlatformType : 1; ///< 测控数据中是否存在平台类型用1个bit标识
unsigned int mPlatformID : 1; ///< 测控数据中是否存在平台编号用1个bit标识
unsigned int mPlatformRotation : 1; ///< 测控数据中是否存在平台旋转角度信息用1个bit标识
unsigned int mPlatformPosition : 1; ///< 测控数据中是否存在平台的位置信息用1个bit标识
unsigned int mPlatformSpeed : 1; ///< 测控数据中是否存在平台速度信息用1个bit标识
unsigned int mSensorType : 1; ///< 测控数据中是否存在传感器类型用1个bit标识
unsigned int mSensorID : 1; ///< 测控数据中是否存在传感器编号用1个bit标识
unsigned int mSensorSelectionCB : 1; ///< 测控数据中是否存在传感器选择回报用1个bit标识
unsigned int mSensorFOV : 1; ///< 测控数据中是否存在传感器FOV信息用1个bit标识
unsigned int mSensorMod : 1; ///< 测控数据中是否存在传感器工作模式信息用1个bit标识
unsigned int mSensorRotation : 1; ///< 测控数据中是否存在传感器旋转角度信息用1个bit标识
unsigned int mLaserDistance : 1; ///< 测控数据中是否存在激光测距信息用1个bit标识
unsigned int mMarkPosition : 1; ///< 测控数据中是否存在Mark经纬高用1个bit标识
unsigned int mFrameRotation : 1; ///< 测控数据中是否存在框架角用1个bit标识
unsigned int mComposedAngle : 1; ///< 测控数据中是否存在综合光轴角用1个bit标识
unsigned int mInnerNavigation : 1; ///< 测控数据中是否存在内置惯导的角度用1个bit标识
private:
unsigned int mReserved : 15; ///< 标志位为32个bit已用17个保留15个bit
};
/*
* @brief:
*/
telemetryData() { memset(this, 0, sizeof(telemetryData)); }
public:
telemFlags mFlags; ///< 测控参数标识
///< 时间采用UTC时间
unsigned short mYear; ///< 必填项生成飞控参数时对应的年LSB=1有效范围[2000,5000]
unsigned char mMonth; ///< 必填项生成飞控参数时对应的月LSB=1有效范围[1,12]
unsigned char mDay; ///< 必填项生成飞控参数时对应的日LSB=1有效范围[1,31]
unsigned char mHour; ///< 必填值,生成飞控参数时对应的时,24小时制LSB=1有效范围[0,24)
unsigned char mMinute; ///< 必填值生成飞控参数时对应的分LSB=1有效范围[0,59]
unsigned char mSecond; ///< 必填值生成飞控参数时对应的秒LSB=1有效范围[0,59]
unsigned short mMillSecond; ///< 必填值生成飞控参数时对应的毫秒LSB=1有效范围[0,999]
unsigned char mDroneType; ///< 选填值平台类型代号LSB=1由其他协议确定代号含义
unsigned short mDroneNum; ///< 必填值平台编号LSB=1由平台提供具体含义由其他协议确定
float mDroneYaw; ///< 必填值平台航向角默认为0表示平台在头部朝北时北东地右手坐标系下的旋转角度
///< 角度定义为欧拉角单位为度0度为北90度为东180度为南270度为西
///< LSB=360.0/ 65535.0即360.0/(2^16 - 1)编码转换为unsigned short型有效范围[0.0,360.0)
float mDronePitch; ///< 必填值平台俯仰角默认为0表示平台在北东地右手坐标系下的旋转角度
///< 角度定义为欧拉角单位为度规定头部水平时俯仰角为0度并且向上为正向下为负
///< LSB=180.0/ 32767.0即360.0/(2^15 - 1)编码转换为short型有效范围[-180.0,180.0]
float mDroneRoll; ///< 必填值平台滚转角默认为0表示平台在北东地右手坐标系下的旋转角度
///< 角度定义为欧拉角单位为度规定从平台尾部看向头部时右翼水平为0并且向下为正向上为负
///< LSB=180.0/ 32767.0即360.0/(2^15 - 1)编码转换为short型有效范围[-180.0,180.0]
double mDroneLongtitude; ///< 必填值平台经度WGS84椭球参考系。当传感器自带卫星导航设备时
///< 该值为传感器自身携带的卫星导航设备位置值,单位用度表示,
///< LSB=180.0/2147483647.0即180.0/(2^31 - 1)编码转换为int型有效范围为[-180.0,180.0]
double mDroneLatitude; ///< 必填值平台纬度WGS84椭球参考系。当传感器自带卫星导航设备时
///< 该值为传感器自身携带的卫星导航设备位置值,单位用度表示,
///< LSB=90.0/2147483647.0即90.0/(2^31 - 1)编码转换为int型有效范围为[-90.0,90.0]
float mDroneAltitude; ///< 必填值,平台高度,用大地高度(卫星导航系统测量得到的高度)表示,单位为米,
///< LSB=15000.0/32767.0即15000.0/(2^15-1)编码转换为short型之后的有效范围为[-100.0,15000]
float mDroneSpeedEast; ///< 必填值平台东向速度分量默认为0表示东北地坐标系下平台东向速度分量
///< 向东为正,向西为负,单位为米/秒LSB=1024.0/32767.0即1024/(2^15-1)
///< 编码转换为short型有效范围为[-1024.0,1024.0]
float mDroneSpeedNorth; ///< 必填值平台北向速度分量默认为0表示东北地坐标系下平台北向速度分量
///< 向北为正,向南为负,单位为米/秒LSB=1024.0/32767.0即1024/(2^15-1)
///< 编码转换为short型有效范围为[-1024.0,1024.0]
float mDroneSpeedSky; ///< 必填值平台天向速度分量默认为0表示东北地坐标系下平台天向速度分量
///< 向天为负,向地为正,单位为米/秒LSB=1024.0/32767.0即1024/(2^15-1)
///< 编码转换为short型有效范围为[-1024.0,1024.0]
unsigned char mSensorType; ///< 必填值传感器类型代号LSB=1由其他协议确定代号含义
unsigned short mSensorID; ///< 必填项传感器编号LSB=1由其他协议确定编号含义
unsigned char mSensorSelectionCB; ///< 选填值传感器选择回报代号LSB=1由其他协议确定代号含义
float mSensorHFOV; ///< 必填值传感器水平视场角用度表示LSB=180.0/65535.0即180.0/(2^16 - 1)
///< 编码转换为short型有效范围为[0.0,180.0]当传感器调整焦距时需要更新水平和垂直FOV
float mSensorVFOV; ///< 必填值传感器垂直视场角用度表示LSB=180.0/65535.0即180.0/(2^16 - 1)
///< 编码转换为short型有效范围为[0.0,180.0]当传感器调整焦距时需要更新水平和垂直FOV
unsigned char mSensorMod; ///< 必填值传感器工作模式代号LSB=1由其他协议确定代号含义
float mFrameYaw; ///< 必填值,特指搜索相机稳定平台的框架角中用于补偿平台航向角偏转的角度,若没有
///< 补偿平台航向角偏转则此项为0。航向框架角LSB=360.0/ 65535.0
///< 即360.0/(2^16 - 1)编码转换为unsigned short型有效范围[0.0,360.0)
float mFramePitch; ///< 必填值,特指搜索相机稳定平台的框架角中用于补偿平台俯仰角偏转的角度,若没有
///< 补偿平台俯仰角偏转则此项为0。俯仰框架角LSB=180.0/ 32767.0
///< 即180.0/(2^15 - 1)编码转换为short型有效范围[-180.0,180.0]
float mFrameRoll; ///< 必填值,特指搜索相机稳定平台的框架角中用于补偿平台滚转角偏转的角度,若没有
///< 补偿平台滚转角偏转则此项为0。滚转框架角LSB=180.0/ 32767.0
///< 即180.0/(2^15 - 1)编码转换为short型有效范围[-180.0,180.0]
float mSensorYaw; ///< 必填值,传感器光轴相对于安装平面的航向角,角度定义为欧拉角,
///< 当传感器为搜索相机和跟踪相机时安装平面初始坐标与北东地右手坐标一致即X轴指向正北Y轴指向正东
///< Z轴垂直指向地面。传感器坐标系定义为相对于安装平面的坐标初始坐标与安装平面坐标系一致。
///< 航向角LSB=360.0/ 65535.0即360.0/(2^16 - 1)编码转换为unsigned short型有效范围[0.0,360.0)
float mSensorPitch; ///< 必填值,传感器光轴相对于安装平面的俯仰角,角度定义为欧拉角,
///<当传感器为搜索相机和跟踪相机时安装平面初始坐标与北东地右手坐标一致即X轴指向正北Y轴指向正东
///< Z轴垂直指向地面。传感器坐标系定义为相对于安装平面的坐标初始坐标与安装平面坐标系一致。
///< LSB=180.0/ 32767.0即180.0/(2^15 - 1)编码转换为short型有效范围[-180.0,180.0]
float mSensorRoll; ///< 必填值,传感器光轴相对于安装平面的滚转角,角度定义为欧拉角,
///<当传感器为搜索相机和跟踪相机时安装平面初始坐标与北东地右手坐标一致即X轴指向正北Y轴指向正东
///< Z轴垂直指向地面。传感器坐标系定义为相对于安装平面的坐标初始坐标与安装平面坐标系一致。
///< LSB=180.0/ 32767.0即180.0/(2^15 - 1)编码转换为short型有效范围[-180.0,180.0]
float mComposedYaw; ///< 必填值,传感器光轴在北东地坐标系下的综合角度,定义为综合航向角,角度定义为欧拉角
///< 综合角度指综合考虑平台旋转角度、框架补偿角、相机安装角等多个因素,得到的相机在北东地右手坐标系下的
///< 角度。综合航向角LSB=360.0/ 65535.0即360.0/(2^16 - 1)编码转换为unsigned short型有效范围[0.0,360.0)
float mComposedPitch; ///< 必填值,传感器光轴在北东地坐标系下的综合角度,定义为综合俯仰角,角度定义为欧拉角
///< 综合角度指综合考虑平台旋转角度、框架补偿角、相机安装角等多个因素,得到的相机在北东地右手坐标系下的
///< 角度。综合俯仰角LSB=180.0/ 32767.0即180.0/(2^15 - 1)编码转换为short型有效范围[-180.0,180.0]
float mComposedRoll; ///< 必填值,传感器光轴在北东地坐标系下的综合角度,定义为综合滚转角,角度定义为欧拉角
///< 综合角度指综合考虑平台旋转角度、框架补偿角、相机安装角等多个因素,得到的相机在北东地右手坐标系下的
///< 角度。综合滚转角LSB=180.0/ 32767.0即180.0/(2^15 - 1)编码转换为short型有效范围[-180.0,180.0]
float mLaserDistance; ///< 选填值激光测距值单位为米LSB=10000.0/65535.0即10000.0/(2^16 - 1)
///< 编码转换为unsigned short型有效范围为[0.0,10000.0]
double mMarkLongtitude; ///< 选填值Mark的经度WGS84椭球参考系表示测量获得的目标的经度
///< 单位用度表示LSB=180.0/2147483647.0即180.0/(2^31 - 1)
///< 编码转换为int型有效范围为[-180.0,180.0]
double mMarkLatitude; ///< 选填值Mark的纬度WGS84椭球参考系表示测量获得的目标的纬度
///< 单位用度表示LSB=90.0/2147483647.0即90.0/(2^31 - 1)
///< 编码转换为int型有效范围为[-90.0,90.0]
float mMarkAltitude; ///< 选填值Mark的高度WGS84椭球参考系表示测量获得的目标的高度
///< 单位用米表示LSB=15000.0/32767.0即15000.0/(2^15-1)
///< 编码转换为short型有效范围为[-100.0,15000]
float mInnerInertiaYaw; ///< 必填值,内置惯导测量得到的传感器安装平面的航向角,角度定义为欧拉角,
///< 安装平面初始坐标与北东地右手坐标一致即X轴指向正北Y轴指向正东
///< Z轴垂直指向地面。内置惯导固连在安装平面上坐标系与安装平面坐标系平行。
///< 航向角LSB=360.0/ 65535.0即360.0/(2^16 - 1)编码转换为unsigned short型有效范围[0.0,360.0)
float mInnerInertiaPitch; ///< 必填值,内置惯导测量得到的传感器安装平面的俯仰角,角度定义为欧拉角,
///< 安装平面初始坐标与北东地右手坐标一致即X轴指向正北Y轴指向正东
///< Z轴垂直指向地面。内置惯导固连在安装平面上坐标系与安装平面坐标系平行。
///< 俯仰角LSB=180.0/ 32767.0即180.0/(2^15 - 1)编码转换为short型有效范围[-180.0,180.0]
float mInnerInertiaRoll; ///< 必填值,内置惯导测量得到的传感器安装平面的滚转角,角度定义为欧拉角,
///< 安装平面初始坐标与北东地右手坐标一致即X轴指向正北Y轴指向正东
///< Z轴垂直指向地面。内置惯导固连在安装平面上坐标系与安装平面坐标系平行。
///< 滚转角LSB=180.0/ 32767.0即180.0/(2^15 - 1)编码转换为short型有效范围[-180.0,180.0]
};
#pragma pack(pop)
/*
* @brief: CRC ,256+1(1)!!
*/
static const unsigned int telem_crc_table[257] = {
0x00000000, 0xB71DC104, 0x6E3B8209, 0xD926430D, 0xDC760413, 0x6B6BC517,
0xB24D861A, 0x0550471E, 0xB8ED0826, 0x0FF0C922, 0xD6D68A2F, 0x61CB4B2B,
0x649B0C35, 0xD386CD31, 0x0AA08E3C, 0xBDBD4F38, 0x70DB114C, 0xC7C6D048,
0x1EE09345, 0xA9FD5241, 0xACAD155F, 0x1BB0D45B, 0xC2969756, 0x758B5652,
0xC836196A, 0x7F2BD86E, 0xA60D9B63, 0x11105A67, 0x14401D79, 0xA35DDC7D,
0x7A7B9F70, 0xCD665E74, 0xE0B62398, 0x57ABE29C, 0x8E8DA191, 0x39906095,
0x3CC0278B, 0x8BDDE68F, 0x52FBA582, 0xE5E66486, 0x585B2BBE, 0xEF46EABA,
0x3660A9B7, 0x817D68B3, 0x842D2FAD, 0x3330EEA9, 0xEA16ADA4, 0x5D0B6CA0,
0x906D32D4, 0x2770F3D0, 0xFE56B0DD, 0x494B71D9, 0x4C1B36C7, 0xFB06F7C3,
0x2220B4CE, 0x953D75CA, 0x28803AF2, 0x9F9DFBF6, 0x46BBB8FB, 0xF1A679FF,
0xF4F63EE1, 0x43EBFFE5, 0x9ACDBCE8, 0x2DD07DEC, 0x77708634, 0xC06D4730,
0x194B043D, 0xAE56C539, 0xAB068227, 0x1C1B4323, 0xC53D002E, 0x7220C12A,
0xCF9D8E12, 0x78804F16, 0xA1A60C1B, 0x16BBCD1F, 0x13EB8A01, 0xA4F64B05,
0x7DD00808, 0xCACDC90C, 0x07AB9778, 0xB0B6567C, 0x69901571, 0xDE8DD475,
0xDBDD936B, 0x6CC0526F, 0xB5E61162, 0x02FBD066, 0xBF469F5E, 0x085B5E5A,
0xD17D1D57, 0x6660DC53, 0x63309B4D, 0xD42D5A49, 0x0D0B1944, 0xBA16D840,
0x97C6A5AC, 0x20DB64A8, 0xF9FD27A5, 0x4EE0E6A1, 0x4BB0A1BF, 0xFCAD60BB,
0x258B23B6, 0x9296E2B2, 0x2F2BAD8A, 0x98366C8E, 0x41102F83, 0xF60DEE87,
0xF35DA999, 0x4440689D, 0x9D662B90, 0x2A7BEA94, 0xE71DB4E0, 0x500075E4,
0x892636E9, 0x3E3BF7ED, 0x3B6BB0F3, 0x8C7671F7, 0x555032FA, 0xE24DF3FE,
0x5FF0BCC6, 0xE8ED7DC2, 0x31CB3ECF, 0x86D6FFCB, 0x8386B8D5, 0x349B79D1,
0xEDBD3ADC, 0x5AA0FBD8, 0xEEE00C69, 0x59FDCD6D, 0x80DB8E60, 0x37C64F64,
0x3296087A, 0x858BC97E, 0x5CAD8A73, 0xEBB04B77, 0x560D044F, 0xE110C54B,
0x38368646, 0x8F2B4742, 0x8A7B005C, 0x3D66C158, 0xE4408255, 0x535D4351,
0x9E3B1D25, 0x2926DC21, 0xF0009F2C, 0x471D5E28, 0x424D1936, 0xF550D832,
0x2C769B3F, 0x9B6B5A3B, 0x26D61503, 0x91CBD407, 0x48ED970A, 0xFFF0560E,
0xFAA01110, 0x4DBDD014, 0x949B9319, 0x2386521D, 0x0E562FF1, 0xB94BEEF5,
0x606DADF8, 0xD7706CFC, 0xD2202BE2, 0x653DEAE6, 0xBC1BA9EB, 0x0B0668EF,
0xB6BB27D7, 0x01A6E6D3, 0xD880A5DE, 0x6F9D64DA, 0x6ACD23C4, 0xDDD0E2C0,
0x04F6A1CD, 0xB3EB60C9, 0x7E8D3EBD, 0xC990FFB9, 0x10B6BCB4, 0xA7AB7DB0,
0xA2FB3AAE, 0x15E6FBAA, 0xCCC0B8A7, 0x7BDD79A3, 0xC660369B, 0x717DF79F,
0xA85BB492, 0x1F467596, 0x1A163288, 0xAD0BF38C, 0x742DB081, 0xC3307185,
0x99908A5D, 0x2E8D4B59, 0xF7AB0854, 0x40B6C950, 0x45E68E4E, 0xF2FB4F4A,
0x2BDD0C47, 0x9CC0CD43, 0x217D827B, 0x9660437F, 0x4F460072, 0xF85BC176,
0xFD0B8668, 0x4A16476C, 0x93300461, 0x242DC565, 0xE94B9B11, 0x5E565A15,
0x87701918, 0x306DD81C, 0x353D9F02, 0x82205E06, 0x5B061D0B, 0xEC1BDC0F,
0x51A69337, 0xE6BB5233, 0x3F9D113E, 0x8880D03A, 0x8DD09724, 0x3ACD5620,
0xE3EB152D, 0x54F6D429, 0x7926A9C5, 0xCE3B68C1, 0x171D2BCC, 0xA000EAC8,
0xA550ADD6, 0x124D6CD2, 0xCB6B2FDF, 0x7C76EEDB, 0xC1CBA1E3, 0x76D660E7,
0xAFF023EA, 0x18EDE2EE, 0x1DBDA5F0, 0xAAA064F4, 0x738627F9, 0xC49BE6FD,
0x09FDB889, 0xBEE0798D, 0x67C63A80, 0xD0DBFB84, 0xD58BBC9A, 0x62967D9E,
0xBBB03E93, 0x0CADFF97, 0xB110B0AF, 0x060D71AB, 0xDF2B32A6, 0x6836F3A2,
0x6D66B4BC, 0xDA7B75B8, 0x035D36B5, 0xB440F7B1, 0x00000001
};
/*
* @brief: CRC
*
*/
static unsigned int telemCRC(const unsigned char *buffer, unsigned int buffer_length)
{
unsigned int crc = 0;
const unsigned char *end = buffer + buffer_length;
while (buffer < end)
{
crc = telem_crc_table[((unsigned char)crc) ^ *buffer++] ^ (crc >> 8);
}
return crc;
}
///< 测控参数标识位,为固定值,不能更改
constexpr static const unsigned char telem_key[] = { '\x05', '\x7e','\x31','\x07','\x52','\x61','\x71','\x11','\x3e','\x03','\x33','\x41','\x53','\x1f','\x00','\x11' };
class telemCodec
{
public:
///< 角度,距离等计算时用到的量化精度和常量
constexpr static const double telem_LON_DEGREE_SAMPLE = (180.0 / 2147483647.0);
constexpr static const double telem_LAT_DEGREE_SAMPLE = (90.0 / 2147483647.0);
constexpr static const double telem_ALT_METERS_SAMPLE = (15000.0 / 32767.0);
constexpr static const double telem_YAW_DEGREE_SAMPLE = (360.0 / 65535.);
constexpr static const double telem_PITCH_DEGREE_SAMPLE = (180.0 / 32767.0);
constexpr static const double telem_ROLL_DEGREE_SAMPLE = (180.0 / 32767.0);
constexpr static const double telem_SPEED_EAST_SAMPLE = (1024.0 / 32767.0);
constexpr static const double telem_SPEED_NORTH_SAMPLE = (1024.0 / 32767.0);
constexpr static const double telem_SPEED_SKY_SAMPLE = (1024.0 / 32767.0);
constexpr static const double telem_FOV_H_DEGREES_SAMPLE = (180.0 / 65535.);
constexpr static const double telem_FOV_V_DEGREES_SAMPLE = (180.0 / 65535.);
constexpr static const double telem_SENSOR_YAW_DEGREES_SAMPLE = (360.0 / 65535.0);
constexpr static const double telem_SENSOR_PITCH_DEGREES_SAMPLE = (180.0 / 32767.0);
constexpr static const double telem_SENSOR_ROLL_DEGREES_SAMPLE = (180.0 / 32767.0);
constexpr static const double telem_LASER_DIST_METERS_SAMPLE = (10000.0 / 65535.0);
constexpr static const double telem_INV_LON_DEGREE_SAMPLE = 1.0 / telem_LON_DEGREE_SAMPLE;
constexpr static const double telem_INV_LAT_DEGREE_SAMPLE = 1.0 / telem_LAT_DEGREE_SAMPLE;
constexpr static const double telem_INV_ALT_METERS_SAMPLE = 1.0 / telem_ALT_METERS_SAMPLE;
constexpr static const double telem_INV_YAW_DEGREE_SAMPLE = 1.0 / telem_YAW_DEGREE_SAMPLE;
constexpr static const double telem_INV_PITCH_DEGREE_SAMPLE = 1.0 / telem_PITCH_DEGREE_SAMPLE;
constexpr static const double telem_INV_ROLL_DEGREE_SAMPLE = 1.0 / telem_ROLL_DEGREE_SAMPLE;
constexpr static const double telem_INV_SPEED_EAST_SAMPLE = 1.0/ telem_SPEED_EAST_SAMPLE;
constexpr static const double telem_INV_SPEED_NORTH_SAMPLE = 1.0/ telem_SPEED_NORTH_SAMPLE;
constexpr static const double telem_INV_SPEED_SKY_SAMPLE = 1.0/ telem_SPEED_SKY_SAMPLE;
constexpr static const double telem_INV_FOV_H_DEGREES_SAMPLE = 1.0 / telem_FOV_H_DEGREES_SAMPLE;
constexpr static const double telem_INV_FOV_V_DEGREES_SAMPLE = 1.0 / telem_FOV_V_DEGREES_SAMPLE;
constexpr static const double telem_INV_SENSOR_YAW_DEGREES_SAMPLE = 1.0 / telem_SENSOR_YAW_DEGREES_SAMPLE;
constexpr static const double telem_INV_SENSOR_PITCH_DEGREES_SAMPLE = 1.0 / telem_SENSOR_PITCH_DEGREES_SAMPLE;
constexpr static const double telem_INV_SENSOR_ROLL_DEGREES_SAMPLE = 1.0 / telem_SENSOR_ROLL_DEGREES_SAMPLE;
constexpr static const double telem_INV_LASER_DIST_METERS_SAMPLE = 1.0/ telem_LASER_DIST_METERS_SAMPLE;
constexpr static const double telem_FRAME_DEGREE_SAMPLE = (0.08 / 32767.);
/*
* @brief: ,LSBdouble,floatCRC
*
* @param: const unsigned char *pBufferunsigned char
* @param: const unsigned int &sizeunsigned int
* @param: telemetryData &oDatatelemetryData
*/
inline static bool telemDecode(const unsigned char *pInputBuffer, const unsigned int &bufferSize, telemetryData &outputTelemetry)
{
if (bufferSize > sizeof(telem_key))
{
auto b = sizeof(telem_key);
// 比较标识位
if (memcmp(telem_key, pInputBuffer, sizeof(telem_key)) == 0)
{
unsigned char *pBuf = (unsigned char *)pInputBuffer + sizeof(telem_key);
int structLengthSize = (*pBuf) > 128 ? (*pBuf) - 128 : (*pBuf);
int infoLength = 0;
if (structLengthSize == 1)
{
pBuf++;
infoLength = getSubStructLength(structLengthSize, pBuf);
}
else
{
pBuf++;
unsigned char *stemp = pBuf;
unsigned short fieldSize;
memcpy(&fieldSize, stemp, sizeof(fieldSize));
infoLength = fieldSize;
pBuf += structLengthSize;
}
int crcFieldSize = sizeof(unsigned int);
if (infoLength > 256)
return false;
unsigned char *pLastInfo = (unsigned char *)pInputBuffer + infoLength;
// 计算校验码
unsigned int tcrc = telemCRC(pInputBuffer, infoLength);
// 读取飞控编码字段后四个字节组成的CRC校验码数据类型为unsigned int
unsigned int storedCRC = 0;
unsigned char * pCRCPos = (unsigned char *)pInputBuffer + infoLength;
memcpy(&storedCRC, pCRCPos, sizeof(unsigned int));
// 防止野指针
pCRCPos = nullptr;
// 判断存储的CRC校验码与计算的校验码是否一致如果不一致则返回错误
if (storedCRC != tcrc)
{
// 指针归零
pLastInfo = nullptr;
pBuf = nullptr;
return false;
}
while (pBuf < pLastInfo)
{
unsigned char infoTag = (*pBuf);
pBuf++;
// 根据信息标识解不同的类型
switch (infoTag)
{
case 1:// 时间标签unsigned short mYear
{
int len = (*pBuf) > 128 ? getSubStructLength((*pBuf) - 128, pBuf) : getSubStructLength(pBuf);
outputTelemetry.mYear = swap_uint16(*((unsigned short *)pBuf));
pBuf += len;
outputTelemetry.mFlags.setTimestamp(true);
break;
}
case 2:// 时间标签unsigned char mMonth
{
int len = (*pBuf) > 128 ? getSubStructLength((*pBuf) - 128, pBuf) : getSubStructLength(pBuf);
outputTelemetry.mMonth = *((unsigned char *)pBuf);
pBuf += len;
outputTelemetry.mFlags.setTimestamp(true);
break;
}
case 3:// 时间标签unsigned char mDay
{
int len = (*pBuf) > 128 ? getSubStructLength((*pBuf) - 128, pBuf) : getSubStructLength(pBuf);
outputTelemetry.mDay = *((unsigned char *)pBuf);
pBuf += len;
outputTelemetry.mFlags.setTimestamp(true);
break;
}
case 4:// 时间标签unsigned char mHour
{
int len = (*pBuf) > 128 ? getSubStructLength((*pBuf) - 128, pBuf) : getSubStructLength(pBuf);
outputTelemetry.mHour = *((unsigned char *)pBuf);
pBuf += len;
outputTelemetry.mFlags.setTimestamp(true);
break;
}
case 5:// 时间标签unsigned char mMinute
{
int len = (*pBuf) > 128 ? getSubStructLength((*pBuf) - 128, pBuf) : getSubStructLength(pBuf);
outputTelemetry.mMinute = *((unsigned char *)pBuf);
pBuf += len;
outputTelemetry.mFlags.setTimestamp(true);
break;
}
case 6:// 时间标签unsigned char mSecond
{
int len = (*pBuf) > 128 ? getSubStructLength((*pBuf) - 128, pBuf) : getSubStructLength(pBuf);
outputTelemetry.mSecond = *((unsigned char *)pBuf);
pBuf += len;
outputTelemetry.mFlags.setTimestamp(true);
break;
}
case 7:// 时间标签unsigned short mMillSecond
{
int len = (*pBuf) > 128 ? getSubStructLength((*pBuf) - 128, pBuf) : getSubStructLength(pBuf);
outputTelemetry.mMillSecond = swap_uint16(*((unsigned short *)pBuf));
pBuf += len;
outputTelemetry.mFlags.setTimestamp(true);
break;
}
case 8:// 平台类型代号unsigned char mDroneType
{
int len = (*pBuf) > 128 ? getSubStructLength((*pBuf) - 128, pBuf) : getSubStructLength(pBuf);
outputTelemetry.mDroneType = *((unsigned char *)pBuf);
pBuf += len;
outputTelemetry.mFlags.setPlatformType(true);
break;
}
case 9:// 平台编号unsigned short mDroneNum
{
int len = (*pBuf) > 128 ? getSubStructLength((*pBuf) - 128, pBuf) : getSubStructLength(pBuf);
outputTelemetry.mDroneNum = swap_uint16(*((unsigned short *)pBuf));
pBuf += len;
outputTelemetry.mFlags.setPlatformID(true);
break;
}
case 10:// 平台航向角float mDroneYaw,0到360度大于0
{
int len = (*pBuf) > 128 ? getSubStructLength((*pBuf) - 128, pBuf) : getSubStructLength(pBuf);
outputTelemetry.mDroneYaw = (float)swap_uint16(*((unsigned short *)pBuf)) * telem_YAW_DEGREE_SAMPLE;
pBuf += len;
outputTelemetry.mFlags.setPlatformRotation(true);
break;
}
case 11:// 平台俯仰角float mDronePitch,-180到180度可能小于0
{
int len = (*pBuf) > 128 ? getSubStructLength((*pBuf) - 128, pBuf) : getSubStructLength(pBuf);
outputTelemetry.mDronePitch = (float)swap_int16(*((short *)pBuf)) * telem_PITCH_DEGREE_SAMPLE;
pBuf += len;
outputTelemetry.mFlags.setPlatformRotation(true);
break;
}
case 12:// 平台滚转角float mDroneRoll,-180到180度可能小于0
{
int len = (*pBuf) > 128 ? getSubStructLength((*pBuf) - 128, pBuf) : getSubStructLength(pBuf);
outputTelemetry.mDroneRoll = (float)swap_int16(*((short *)pBuf)) * telem_ROLL_DEGREE_SAMPLE;
pBuf += len;
outputTelemetry.mFlags.setPlatformRotation(true);
break;
}
case 13:// 平台经度double mDroneLongtitude,-180到180度可能小于0
{
int len = (*pBuf) > 128 ? getSubStructLength((*pBuf) - 128, pBuf) : getSubStructLength(pBuf);
outputTelemetry.mDroneLongtitude = (double)swap_int32(*((int *)pBuf)) * telem_LON_DEGREE_SAMPLE;
pBuf += len;
outputTelemetry.mFlags.setPlatformPosition(true);
break;
}
case 14:// 平台纬度double mDroneLatitude,-90到90度可能小于0
{
int len = (*pBuf) > 128 ? getSubStructLength((*pBuf) - 128, pBuf) : getSubStructLength(pBuf);
outputTelemetry.mDroneLatitude = (double)swap_int32(*((int *)pBuf)) * telem_LAT_DEGREE_SAMPLE;
pBuf += len;
outputTelemetry.mFlags.setPlatformPosition(true);
break;
}
case 15:// 平台高度float mDroneAltitude
{
int len = (*pBuf) > 128 ? getSubStructLength((*pBuf) - 128, pBuf) : getSubStructLength(pBuf);
outputTelemetry.mDroneAltitude = (float)swap_int16(*((short *)pBuf)) * telem_ALT_METERS_SAMPLE;
pBuf += len;
outputTelemetry.mFlags.setPlatformPosition(true);
break;
}
case 16:// 平台东向速度分量float mDroneSpeedEast
{
int len = (*pBuf) > 128 ? getSubStructLength((*pBuf) - 128, pBuf) : getSubStructLength(pBuf);
outputTelemetry.mDroneSpeedEast = (float)swap_int16(*((short *)pBuf)) * telem_SPEED_EAST_SAMPLE;
pBuf += len;
outputTelemetry.mFlags.setPlatformSpeed(true);
break;
}
case 17:// 平台北向速度分量float mDroneSpeedNorth
{
int len = (*pBuf) > 128 ? getSubStructLength((*pBuf) - 128, pBuf) : getSubStructLength(pBuf);
outputTelemetry.mDroneSpeedNorth = (float)swap_int16(*((short *)pBuf)) * telem_SPEED_NORTH_SAMPLE;
pBuf += len;
outputTelemetry.mFlags.setPlatformSpeed(true);
break;
}
case 18:// 平台天向速度分量float mDroneSpeedSky
{
int len = (*pBuf) > 128 ? getSubStructLength((*pBuf) - 128, pBuf) : getSubStructLength(pBuf);
outputTelemetry.mDroneSpeedSky = (float)swap_int16(*((short *)pBuf)) * telem_SPEED_SKY_SAMPLE;
pBuf += len;
outputTelemetry.mFlags.setPlatformSpeed(true);
break;
}
case 19:// 传感器类型代号unsigned char mSensorType
{
int len = (*pBuf) > 128 ? getSubStructLength((*pBuf) - 128, pBuf) : getSubStructLength(pBuf);
outputTelemetry.mSensorType = *((unsigned char *)pBuf);
pBuf += len;
outputTelemetry.mFlags.setSensorType(true);
break;
}
case 20:// 传感器编号unsigned short mSensorID
{
int len = (*pBuf) > 128 ? getSubStructLength((*pBuf) - 128, pBuf) : getSubStructLength(pBuf);
outputTelemetry.mSensorID = swap_uint16(*((unsigned short *)pBuf));
pBuf += len;
outputTelemetry.mFlags.setSensorID(true);
break;
}
case 21:// 传感器选择回报代号unsigned char mSensorSelectionCB
{
int len = (*pBuf) > 128 ? getSubStructLength((*pBuf) - 128, pBuf) : getSubStructLength(pBuf);
outputTelemetry.mSensorSelectionCB = *((unsigned char *)pBuf);
pBuf += len;
outputTelemetry.mFlags.setSensorSelectionCB(true);
break;
}
case 22:// 传感器水平视场角float mSensorHFOV,0到180度
{
int len = (*pBuf) > 128 ? getSubStructLength((*pBuf) - 128, pBuf) : getSubStructLength(pBuf);
outputTelemetry.mSensorHFOV = (float)swap_uint16(*((unsigned short *)pBuf)) * telem_FOV_H_DEGREES_SAMPLE;
pBuf += len;
outputTelemetry.mFlags.setSensorFOV(true);
break;
}
case 23:// 传感器垂直视场角float mSensorVFOV,0到180度
{
int len = (*pBuf) > 128 ? getSubStructLength((*pBuf) - 128, pBuf) : getSubStructLength(pBuf);
outputTelemetry.mSensorVFOV = (float)swap_uint16(*((unsigned short *)pBuf)) * telem_FOV_V_DEGREES_SAMPLE;
pBuf += len;
outputTelemetry.mFlags.setSensorFOV(true);
break;
}
case 24:// 传感器工作模式代号unsigned char mSensorMod
{
int len = (*pBuf) > 128 ? getSubStructLength((*pBuf) - 128, pBuf) : getSubStructLength(pBuf);
outputTelemetry.mSensorMod = *((unsigned char *)pBuf);
pBuf += len;
outputTelemetry.mFlags.setSensorMod(true);
break;
}
case 25:// 传感器光轴相对安装平面航向角float mSensorYaw,0到360度
{
int len = (*pBuf) > 128 ? getSubStructLength((*pBuf) - 128, pBuf) : getSubStructLength(pBuf);
outputTelemetry.mSensorYaw = (float)swap_uint16(*((unsigned short *)pBuf)) * telem_SENSOR_YAW_DEGREES_SAMPLE;
pBuf += len;
outputTelemetry.mFlags.setSensorRotation(true);
break;
}
case 26:// 传感器光轴相对安装平面的俯仰角float mSensorPitch,-180到180度可能小于0
{
int len = (*pBuf) > 128 ? getSubStructLength((*pBuf) - 128, pBuf) : getSubStructLength(pBuf);
outputTelemetry.mSensorPitch = (float)swap_int16(*((short *)pBuf)) * telem_SENSOR_PITCH_DEGREES_SAMPLE;
pBuf += len;
outputTelemetry.mFlags.setSensorRotation(true);
break;
}
case 27:// 传感器光轴相对于安装平面的滚转角float mSensorRoll,-180到180度可能小于0
{
int len = (*pBuf) > 128 ? getSubStructLength((*pBuf) - 128, pBuf) : getSubStructLength(pBuf);
outputTelemetry.mSensorRoll = (float)swap_int16(*((short *)pBuf)) * telem_SENSOR_ROLL_DEGREES_SAMPLE;
pBuf += len;
outputTelemetry.mFlags.setSensorRotation(true);
break;
}
case 28:// 激光测距值float mLaserDistance
{
int len = (*pBuf) > 128 ? getSubStructLength((*pBuf) - 128, pBuf) : getSubStructLength(pBuf);
outputTelemetry.mLaserDistance = (float)swap_uint16(*((unsigned short *)pBuf)) * telem_LASER_DIST_METERS_SAMPLE;
pBuf += len;
outputTelemetry.mFlags.setLaserDistance(true);
break;
}
case 29:// Mark的经度double mMarkLongtitude,-180到180度可能小于0
{
int len = (*pBuf) > 128 ? getSubStructLength((*pBuf) - 128, pBuf) : getSubStructLength(pBuf);
outputTelemetry.mMarkLongtitude = (double)swap_int32(*((int *)pBuf)) * telem_LON_DEGREE_SAMPLE;
pBuf += len;
outputTelemetry.mFlags.setMarkPosition(true);
break;
}
case 30:// Mark的纬度double mMarkLatitude,-90到90度可能小于0
{
int len = (*pBuf) > 128 ? getSubStructLength((*pBuf) - 128, pBuf) : getSubStructLength(pBuf);
outputTelemetry.mMarkLatitude = (double)swap_int32(*((int *)pBuf)) * telem_LAT_DEGREE_SAMPLE;
pBuf += len;
outputTelemetry.mFlags.setMarkPosition(true);
break;
}
case 31:// Mark的高度float mMarkAltitude
{
int len = (*pBuf) > 128 ? getSubStructLength((*pBuf) - 128, pBuf) : getSubStructLength(pBuf);
outputTelemetry.mMarkAltitude = (float)swap_int16(*((short *)pBuf)) * telem_ALT_METERS_SAMPLE;
pBuf += len;
outputTelemetry.mFlags.setMarkPosition(true);
break;
}
case 32:// 传感器框架在航向上的补偿角度float mFrameYaw0到360.0度若没有航向上的补偿则此项为0
{
int len = (*pBuf) > 128 ? getSubStructLength((*pBuf) - 128, pBuf) : getSubStructLength(pBuf);
outputTelemetry.mFrameYaw = (float)swap_uint16(*((unsigned short *)pBuf)) * telem_SENSOR_YAW_DEGREES_SAMPLE;
pBuf += len;
outputTelemetry.mFlags.setFrameRotation(true);
break;
}
case 33:// 传感器框架在俯仰方向上的补偿角度float mFramePitch-180.0到180.0度,
{
int len = (*pBuf) > 128 ? getSubStructLength((*pBuf) - 128, pBuf) : getSubStructLength(pBuf);
outputTelemetry.mFramePitch = (float)swap_int16(*((short *)pBuf)) * telem_SENSOR_PITCH_DEGREES_SAMPLE;
pBuf += len;
outputTelemetry.mFlags.setFrameRotation(true);
break;
}
case 34:// 传感器框架在滚转方向上的补偿角度float mFrameRoll-180.0到180.0度,
{
int len = (*pBuf) > 128 ? getSubStructLength((*pBuf) - 128, pBuf) : getSubStructLength(pBuf);
outputTelemetry.mFrameRoll = (float)swap_int16(*((short *)pBuf)) * telem_SENSOR_ROLL_DEGREES_SAMPLE;
pBuf += len;
outputTelemetry.mFlags.setFrameRotation(true);
break;
}
case 35:// 传感器的综合航向角float mComposedYaw0到360.0度
{
int len = (*pBuf) > 128 ? getSubStructLength((*pBuf) - 128, pBuf) : getSubStructLength(pBuf);
outputTelemetry.mComposedYaw = (float)swap_uint16(*((unsigned short *)pBuf)) * telem_SENSOR_YAW_DEGREES_SAMPLE;
pBuf += len;
outputTelemetry.mFlags.setComposedAngle(true);
break;
}
case 36:// 传感器的综合俯仰角float mComposedPitch-180.0到180.0度
{
int len = (*pBuf) > 128 ? getSubStructLength((*pBuf) - 128, pBuf) : getSubStructLength(pBuf);
outputTelemetry.mComposedPitch = (float)swap_int16(*((short *)pBuf)) * telem_SENSOR_PITCH_DEGREES_SAMPLE;
pBuf += len;
outputTelemetry.mFlags.setComposedAngle(true);
break;
}
case 37:// 传感器的综合滚转角float mComposedRoll-180.0到180.0度
{
int len = (*pBuf) > 128 ? getSubStructLength((*pBuf) - 128, pBuf) : getSubStructLength(pBuf);
outputTelemetry.mComposedRoll = (float)swap_int16(*((short *)pBuf)) * telem_SENSOR_ROLL_DEGREES_SAMPLE;
pBuf += len;
outputTelemetry.mFlags.setComposedAngle(true);
break;
}
case 38:// 相机安装平面上的惯导测量得到的航向角float mInnerInertiaYaw0到360.0度
{
int len = (*pBuf) > 128 ? getSubStructLength((*pBuf) - 128, pBuf) : getSubStructLength(pBuf);
outputTelemetry.mInnerInertiaYaw = (float)swap_uint16(*((unsigned short *)pBuf)) * telem_SENSOR_YAW_DEGREES_SAMPLE;
pBuf += len;
outputTelemetry.mFlags.setInnerNavigation(true);
break;
}
case 39:// 相机安装平面上的惯导测量得到的俯仰角float mInnerInertiaPitch-180.0到180.0度
{
int len = (*pBuf) > 128 ? getSubStructLength((*pBuf) - 128, pBuf) : getSubStructLength(pBuf);
outputTelemetry.mInnerInertiaPitch = (float)swap_int16(*((short *)pBuf)) * telem_SENSOR_PITCH_DEGREES_SAMPLE;
pBuf += len;
outputTelemetry.mFlags.setInnerNavigation(true);
break;
}
case 40:// 相机安装平面上的惯导测量得到的滚转角float mInnerInertiaRoll-180.0到180.0度
{
int len = (*pBuf) > 128 ? getSubStructLength((*pBuf) - 128, pBuf) : getSubStructLength(pBuf);
outputTelemetry.mInnerInertiaRoll = (float)swap_int16(*((short *)pBuf)) * telem_SENSOR_ROLL_DEGREES_SAMPLE;
pBuf += len;
outputTelemetry.mFlags.setInnerNavigation(true);
break;
}
default:
{
if (infoTag > 40)
{
pBuf = pLastInfo;
}
else
{
int valueLength = (*pBuf) > 128 ? getSubStructLength((*pBuf) - 128, pBuf) : getSubStructLength(pBuf);
pBuf += valueLength;
}
break;
}
}
}
// 防止野指针
pLastInfo = nullptr;
pBuf = nullptr;
return true;
}
}
return false;
}
/*
* @brief: ,double,float
* @param: const telemetryData &inputTelemData
* @param: std::vector<unsigned char> &outputBuffer
* @param: unsigned int &outputBufferSize
*/
inline static bool telemEncode(const telemetryData &inputTelemData, std::vector<unsigned char> &outputBuffer, unsigned int &outputBufferSize)
{
// 编码时平台的位置和姿态是必须填写的
if (inputTelemData.mFlags.isPlatformPosition() && inputTelemData.mFlags.isSensorRotation())
{
outputBuffer.resize(4096);
unsigned char *pBuf = &outputBuffer[0];
// 填入标识符
memcpy(pBuf, telem_key, sizeof(telem_key));
// 偏移
pBuf += sizeof(telem_key);
(*pBuf) = 130;
pBuf++;
unsigned int infoSize = (unsigned int)(pBuf - &outputBuffer[0]);
unsigned char *pSizeBuf = pBuf;
*pBuf = 0;
pBuf++;
*pBuf = 0;
pBuf++;
if(inputTelemData.mFlags.isTimeStamp())
{
// 1: 时间标签unsigned short mYear
{
int fieldSize = sizeof(unsigned short);
(*pBuf) = 1;
pBuf++;
(*pBuf) = (unsigned char)(fieldSize);
pBuf++;
unsigned short temp = swap_uint16(inputTelemData.mYear);
memcpy(pBuf, &temp, fieldSize);
pBuf += fieldSize;
}
// 2: 时间标签unsigned char mMonth
{
int fieldSize = sizeof(unsigned char);
(*pBuf) = 2;
pBuf++;
(*pBuf) = (unsigned char)(fieldSize);
pBuf++;
memcpy(pBuf, &(inputTelemData.mMonth), fieldSize);
pBuf += fieldSize;
}
//3: 时间标签unsigned char mDay
{
int fieldSize = sizeof(unsigned char);
(*pBuf) = 3;
pBuf++;
(*pBuf) = (unsigned char)(fieldSize);
pBuf++;
memcpy(pBuf, &(inputTelemData.mDay), fieldSize);
pBuf += fieldSize;
}
// 4: 时间标签unsigned char mHour
{
int fieldSize = sizeof(unsigned char);
(*pBuf) = 4;
pBuf++;
(*pBuf) = (unsigned char)(fieldSize);
pBuf++;
memcpy(pBuf, &(inputTelemData.mHour), fieldSize);
pBuf += fieldSize;
}
// 5: 时间标签unsigned char mMinute
{
int fieldSize = sizeof(unsigned char);
(*pBuf) = 5;
pBuf++;
(*pBuf) = (unsigned char)(fieldSize);
pBuf++;
memcpy(pBuf, &(inputTelemData.mMinute), fieldSize);
pBuf += fieldSize;
}
// 6: // 时间标签unsigned char mSecond
{
int fieldSize = sizeof(unsigned char);
(*pBuf) = 6;
pBuf++;
(*pBuf) = (unsigned char)(fieldSize);
pBuf++;
memcpy(pBuf, &(inputTelemData.mSecond), fieldSize);
pBuf += fieldSize;
}
// 7: 时间标签unsigned short mMillSecond
{
int fieldSize = sizeof(unsigned short);
(*pBuf) = 7;
pBuf++;
(*pBuf) = (unsigned char)(fieldSize);
pBuf++;
unsigned short temp = swap_uint16(inputTelemData.mMillSecond);
memcpy(pBuf, &(temp), fieldSize);
pBuf += fieldSize;
}
}
// 8: 平台类型代号unsigned char mDroneType
if (inputTelemData.mFlags.isPlatformType())
{
int fieldSize = sizeof(unsigned char);
(*pBuf) = 8;
pBuf++;
(*pBuf) = (unsigned char)(fieldSize);
pBuf++;
memcpy(pBuf, &(inputTelemData.mDroneType), fieldSize);
pBuf += fieldSize;
}
// 9: 平台编号unsigned short mDroneNum
if (inputTelemData.mFlags.isPlatformID())
{
int fieldSize = sizeof(unsigned short);
(*pBuf) = 9;
pBuf++;
(*pBuf) = (unsigned char)(fieldSize);
pBuf++;
unsigned short temp = swap_uint16(inputTelemData.mDroneNum);
memcpy(pBuf, &(temp), fieldSize);
pBuf += fieldSize;
}
if (inputTelemData.mFlags.isPlatformRotation())
{
// 10: // 平台航向角float mDroneYaw 0到360度大于0
{
int fieldSize = sizeof(unsigned short);
(*pBuf) = 10;
pBuf++;
(*pBuf) = (unsigned char)(fieldSize);
pBuf++;
unsigned short temp = swap_uint16((unsigned short)(inputTelemData.mDroneYaw *telem_INV_YAW_DEGREE_SAMPLE));
memcpy(pBuf, &(temp), fieldSize);
pBuf += fieldSize;
}
// 11: 平台俯仰角float mDronePitch-180到180度可能小于0
{
int fieldSize = sizeof(short);
(*pBuf) = 11;
pBuf++;
(*pBuf) = (unsigned char)(fieldSize);
pBuf++;
short temp = swap_int16((short)(inputTelemData.mDronePitch *telem_INV_PITCH_DEGREE_SAMPLE));
memcpy(pBuf, &(temp), fieldSize);
pBuf += fieldSize;
}
// 12: 平台滚转角float mDroneRoll-180到180度可能小于0
{
int fieldSize = sizeof(short);
(*pBuf) = 12;
pBuf++;
(*pBuf) = (unsigned char)(fieldSize);
pBuf++;
short temp = swap_int16((short)(inputTelemData.mDroneRoll * telem_INV_ROLL_DEGREE_SAMPLE));
memcpy(pBuf, &(temp), fieldSize);
pBuf += fieldSize;
}
}
if (inputTelemData.mFlags.isPlatformPosition())
{
// 13: 平台经度double mDroneLongtitude-180到180度可能小于0
{
int fieldSize = sizeof(int);
(*pBuf) = 13;
pBuf++;
(*pBuf) = (unsigned char)(fieldSize);
pBuf++;
int temp = swap_int32((int)(inputTelemData.mDroneLongtitude * telem_INV_LON_DEGREE_SAMPLE));
memcpy(pBuf, &(temp), fieldSize);
pBuf += fieldSize;
}
// 14: 平台纬度double mDroneLatitude-90到90度可能小于0
{
int fieldSize = sizeof(int);
(*pBuf) = 14;
pBuf++;
(*pBuf) = (unsigned char)(fieldSize);
pBuf++;
int temp = swap_int32((int)(inputTelemData.mDroneLatitude * telem_INV_LAT_DEGREE_SAMPLE));
memcpy(pBuf, &(temp), fieldSize);
pBuf += fieldSize;
}
// 15: 平台高度float mDroneAltitude
{
int fieldSize = sizeof(short);
(*pBuf) = 15;
pBuf++;
(*pBuf) = (unsigned char)(fieldSize);
pBuf++;
short temp = swap_int16((short)(inputTelemData.mDroneAltitude * telem_INV_ALT_METERS_SAMPLE));
memcpy(pBuf, &(temp), fieldSize);
pBuf += fieldSize;
}
}
if (inputTelemData.mFlags.isPlatformSpeed())
{
// 16: 平台东向速度分量float mDroneSpeedEast
{
int fieldSize = sizeof(short);
(*pBuf) = 16;
pBuf++;
(*pBuf) = (unsigned char)(fieldSize);
pBuf++;
short temp = swap_int16((short)(inputTelemData.mDroneSpeedEast * telem_INV_SPEED_EAST_SAMPLE));
memcpy(pBuf, &(temp), fieldSize);
pBuf += fieldSize;
}
// 17: 平台北向速度分量float mDroneSpeedNorth
{
int fieldSize = sizeof(short);
(*pBuf) = 17;
pBuf++;
(*pBuf) = (unsigned char)(fieldSize);
pBuf++;
short temp = swap_int16((short)(inputTelemData.mDroneSpeedNorth * telem_INV_SPEED_NORTH_SAMPLE));
memcpy(pBuf, &(temp), fieldSize);
pBuf += fieldSize;
}
// 18: 平台天向速度分量float mDroneSpeedSky
{
int fieldSize = sizeof(short);
(*pBuf) = 18;
pBuf++;
(*pBuf) = (unsigned char)(fieldSize);
pBuf++;
short temp = swap_int16((short)(inputTelemData.mDroneSpeedSky * telem_INV_SPEED_SKY_SAMPLE));
memcpy(pBuf, &(temp), fieldSize);
pBuf += fieldSize;
}
}
// 19: 传感器类型代号unsigned char mSensorType
if (inputTelemData.mFlags.isSensorType())
{
int fieldSize = sizeof(unsigned char);
(*pBuf) = 19;
pBuf++;
(*pBuf) = (unsigned char)(fieldSize);
pBuf++;
memcpy(pBuf, &(inputTelemData.mSensorType), fieldSize);
pBuf += fieldSize;
}
// 20: 传感器编号unsigned short mSensorID
if (inputTelemData.mFlags.isSensorID())
{
int fieldSize = sizeof(unsigned short);
(*pBuf) = 20;
pBuf++;
(*pBuf) = (unsigned char)(fieldSize);
pBuf++;
unsigned short temp = swap_uint16(inputTelemData.mSensorID);
memcpy(pBuf, &(temp), fieldSize);
pBuf += fieldSize;
}
// 21: 传感器选择回报代号unsigned char mSensorSelectionCB
if (inputTelemData.mFlags.isSensorSelectionCB())
{
int fieldSize = sizeof(unsigned char);
(*pBuf) = 21;
pBuf++;
(*pBuf) = (unsigned char)(fieldSize);
pBuf++;
memcpy(pBuf, &(inputTelemData.mSensorSelectionCB), fieldSize);
pBuf += fieldSize;
}
if (inputTelemData.mFlags.isSensorFOV())
{
//22: 传感器水平视场角float mSensorHFOV,0到180度,大于0
{
int fieldSize = sizeof(unsigned short);
(*pBuf) = 22;
pBuf++;
(*pBuf) = (unsigned char)(fieldSize);
pBuf++;
unsigned short temp = swap_uint16((unsigned short)(inputTelemData.mSensorHFOV * telem_INV_FOV_H_DEGREES_SAMPLE));
memcpy(pBuf, &(temp), fieldSize);
pBuf += fieldSize;
}
// 23: 传感器垂直视场角float mSensorVFOV0到180度大于0
{
int fieldSize = sizeof(unsigned short);
(*pBuf) = 23;
pBuf++;
(*pBuf) = (unsigned char)(fieldSize);
pBuf++;
unsigned short temp = swap_uint16((unsigned short)(inputTelemData.mSensorVFOV * telem_INV_FOV_V_DEGREES_SAMPLE));
memcpy(pBuf, &(temp), fieldSize);
pBuf += fieldSize;
}
}
// 24: 传感器工作模式代号unsigned char mSensorMod
if (inputTelemData.mFlags.isSensorMod())
{
int fieldSize = sizeof(unsigned char);
(*pBuf) = 24;
pBuf++;
(*pBuf) = (unsigned char)(fieldSize);
pBuf++;
memcpy(pBuf, &(inputTelemData.mSensorMod), fieldSize);
pBuf += fieldSize;
}
if (inputTelemData.mFlags.isSensorRotation())
{
// 25: 传感器光轴相对安装平面航向角float mSensorYaw,0到360度大于0
{
int fieldSize = sizeof(unsigned short);
(*pBuf) = 25;
pBuf++;
(*pBuf) = (unsigned char)(fieldSize);
pBuf++;
unsigned short temp = swap_uint16((unsigned short)(inputTelemData.mSensorYaw * telem_INV_SENSOR_YAW_DEGREES_SAMPLE));
memcpy(pBuf, &(temp), fieldSize);
pBuf += fieldSize;
}
// 26: 传感器光轴相对安装平面的俯仰角float mSensorPitch,-180到180度可能小于0
{
int fieldSize = sizeof(short);
(*pBuf) = 26;
pBuf++;
(*pBuf) = (unsigned char)(fieldSize);
pBuf++;
short temp = swap_int16((short)(inputTelemData.mSensorPitch * telem_INV_SENSOR_PITCH_DEGREES_SAMPLE));
memcpy(pBuf, &(temp), fieldSize);
pBuf += fieldSize;
}
// 27: 传感器光轴相对于安装平面的滚转角float mSensorRoll,-180到180度可能小于0
{
int fieldSize = sizeof(short);
(*pBuf) = 27;
pBuf++;
(*pBuf) = (unsigned char)(fieldSize);
pBuf++;
short temp = swap_int16((short)(inputTelemData.mSensorRoll * telem_INV_SENSOR_ROLL_DEGREES_SAMPLE));
memcpy(pBuf, &(temp), fieldSize);
pBuf += fieldSize;
}
}
// 28: 激光测距值float mLaserDistance
if (inputTelemData.mFlags.isLaserDistance())
{
int fieldSize = sizeof(unsigned short);
(*pBuf) = 28;
pBuf++;
(*pBuf) = (unsigned char)(fieldSize);
pBuf++;
unsigned short temp = swap_uint16((unsigned short)(inputTelemData.mLaserDistance * telem_INV_LASER_DIST_METERS_SAMPLE));
memcpy(pBuf, &(temp), fieldSize);
pBuf += fieldSize;
}
if (inputTelemData.mFlags.isMarkPosition())
{
// 29: Mark的经度double mMarkLongtitude,-180到180度可能小于0
{
int fieldSize = sizeof(int);
(*pBuf) = 29;
pBuf++;
(*pBuf) = (unsigned char)(fieldSize);
pBuf++;
int temp = swap_int32((int)(inputTelemData.mMarkLongtitude *telem_INV_LON_DEGREE_SAMPLE));
memcpy(pBuf, &(temp), fieldSize);
pBuf += fieldSize;
}
// 30: Mark的纬度double mMarkLatitude,-90到90度可能小于0
{
int fieldSize = sizeof(int);
(*pBuf) = 30;
pBuf++;
(*pBuf) = (unsigned char)(fieldSize);
pBuf++;
int temp = swap_int32((int)(inputTelemData.mMarkLatitude * telem_INV_LAT_DEGREE_SAMPLE));
memcpy(pBuf, &(temp), fieldSize);
pBuf += fieldSize;
}
// 31: Mark的高度float mMarkAltitude
{
int fieldSize = sizeof(short);
(*pBuf) = 31;
pBuf++;
(*pBuf) = (unsigned char)(fieldSize);
pBuf++;
short temp = swap_int16((short)(inputTelemData.mMarkAltitude *telem_INV_ALT_METERS_SAMPLE));
memcpy(pBuf, &(temp), fieldSize);
pBuf += fieldSize;
}
}
if (inputTelemData.mFlags.isFrameRotation())
{
// 32: 传感器框架角在航向上的补偿角度float mFrameYaw0到360.0度若没有航向上的补偿则此项为0
{
int fieldSize = sizeof(unsigned short);
(*pBuf) = 32;
pBuf++;
(*pBuf) = (unsigned char)(fieldSize);
pBuf++;
unsigned short temp = swap_uint16((unsigned short)(inputTelemData.mFrameYaw * telem_INV_SENSOR_YAW_DEGREES_SAMPLE));
memcpy(pBuf, &(temp), fieldSize);
pBuf += fieldSize;
}
// 33: 传感器框架角在俯仰方向上的补偿角度float mFramePitch-180.0到180.0度,
{
int fieldSize = sizeof(short);
(*pBuf) = 33;
pBuf++;
(*pBuf) = (unsigned char)(fieldSize);
pBuf++;
short temp = swap_int16((short)(inputTelemData.mFramePitch * telem_INV_SENSOR_PITCH_DEGREES_SAMPLE));
memcpy(pBuf, &(temp), fieldSize);
pBuf += fieldSize;
}
// 34: 传感器框架角在滚转方向上的补偿角度float mFrameRoll-180.0到180.0度,
{
int fieldSize = sizeof(short);
(*pBuf) = 34;
pBuf++;
(*pBuf) = (unsigned char)(fieldSize);
pBuf++;
short temp = swap_int16((short)(inputTelemData.mFrameRoll * telem_INV_SENSOR_ROLL_DEGREES_SAMPLE));
memcpy(pBuf, &(temp), fieldSize);
pBuf += fieldSize;
}
}
if (inputTelemData.mFlags.isComposedAngle())
{
// 35: 传感器的综合航向角float mComposedYaw0到360.0度
{
int fieldSize = sizeof(unsigned short);
(*pBuf) = 35;
pBuf++;
(*pBuf) = (unsigned char)(fieldSize);
pBuf++;
unsigned short temp = swap_uint16((unsigned short)(inputTelemData.mComposedYaw * telem_INV_SENSOR_YAW_DEGREES_SAMPLE));
memcpy(pBuf, &(temp), fieldSize);
pBuf += fieldSize;
}
// 36: 传感器的综合俯仰角float mComposedPitch-180.0到180.0度
{
int fieldSize = sizeof(short);
(*pBuf) = 36;
pBuf++;
(*pBuf) = (unsigned char)(fieldSize);
pBuf++;
short temp = swap_int16((short)(inputTelemData.mComposedPitch * telem_INV_SENSOR_PITCH_DEGREES_SAMPLE));
memcpy(pBuf, &(temp), fieldSize);
pBuf += fieldSize;
}
// 37: 传感器的综合滚转角float mComposedRoll-180.0到180.0度
{
int fieldSize = sizeof(short);
(*pBuf) = 37;
pBuf++;
(*pBuf) = (unsigned char)(fieldSize);
pBuf++;
short temp = swap_int16((short)(inputTelemData.mComposedRoll * telem_INV_SENSOR_ROLL_DEGREES_SAMPLE));
memcpy(pBuf, &(temp), fieldSize);
pBuf += fieldSize;
}
}
if (inputTelemData.mFlags.isInnerNavigation())
{
// 38: 相机安装平面上的惯导测量得到的航向角float mInnerInertiaYaw0到360.0度
{
int fieldSize = sizeof(unsigned short);
(*pBuf) = 38;
pBuf++;
(*pBuf) = (unsigned char)(fieldSize);
pBuf++;
unsigned short temp = swap_uint16((unsigned short)(inputTelemData.mInnerInertiaYaw * telem_INV_SENSOR_YAW_DEGREES_SAMPLE));
memcpy(pBuf, &(temp), fieldSize);
pBuf += fieldSize;
}
// 39: 相机安装平面上的惯导测量得到的俯仰角float mInnerInertiaPitch-180.0到180.0度
{
int fieldSize = sizeof(short);
(*pBuf) = 39;
pBuf++;
(*pBuf) = (unsigned char)(fieldSize);
pBuf++;
short temp = swap_int16((short)(inputTelemData.mInnerInertiaPitch * telem_INV_SENSOR_PITCH_DEGREES_SAMPLE));
memcpy(pBuf, &(temp), fieldSize);
pBuf += fieldSize;
}
// 40: 相机安装平面上的惯导测量得到的滚转角float mInnerInertiaRoll-180.0到180.0度
{
int fieldSize = sizeof(short);
(*pBuf) = 40;
pBuf++;
(*pBuf) = (unsigned char)(fieldSize);
pBuf++;
short temp = swap_int16((short)(inputTelemData.mInnerInertiaRoll * telem_INV_SENSOR_ROLL_DEGREES_SAMPLE));
memcpy(pBuf, &(temp), fieldSize);
pBuf += fieldSize;
}
}
// 计算CRC校验码的长度目前是四个字节
int crcFieldSize = sizeof(unsigned int);
// 未增加校验码的缓存长度
outputBufferSize = (unsigned int)(pBuf - &outputBuffer[0]);
// 将未增加校验码的长度作为飞控编码长度,即飞控编码长度不包括校验码长度
unsigned short filedSize = (unsigned short)(outputBufferSize);
memcpy(pSizeBuf, &filedSize, sizeof(unsigned short));
// 计算CRC内容为从缓存开始到飞控编码结束不包括校验码自身
const unsigned char * pCrcInput = &outputBuffer[0];
unsigned int tcrc = telemCRC(&outputBuffer[0], outputBufferSize);
memcpy(pBuf, &(tcrc), crcFieldSize);
// 整个缓存的长度需要增加校验码的长度
outputBufferSize += crcFieldSize;
//将pBuf等归零防止野指针
pBuf = nullptr;
pSizeBuf = nullptr;
return true;
}
return false;
}
private:
/*
* @brief:
*/
inline static int getSubStructLength(const int &lenSize, unsigned char *&pBuf)
{
int subStructLength = 0;
switch (lenSize)
{
case 1:// 子结构长度为字节类型
{
subStructLength = (int)(*pBuf);
pBuf++;
break;
}
case 2:// 子结构为short类型需要交换高低字节得到长度
subStructLength = (int)swap_int16(*((short*)pBuf));
pBuf += sizeof(short);
break;
case 4:// 子结构为int类型需要交换数据得到真实长度
{
subStructLength = swap_int32(*((int*)pBuf));
pBuf += sizeof(int);
break;
}
}
return subStructLength;
}
/*
* @brief:
*/
inline static int getSubStructLength(unsigned char *&pBuf)
{
int len = (*pBuf);
pBuf++;
return len;
}
/*
* @brief: unsigned short
*/
inline static unsigned short swap_uint16(unsigned short value)
{
return (value << 8) | (value >> 8);
}
/*
* @brief: short
*/
inline static short swap_int16(short value)
{
return (value << 8) | ((value >> 8) & 0xFF);
}
/*
* @brief: unsigned int
*/
inline static unsigned int swap_uint32(unsigned int value)
{
value = ((value << 8) & 0xFF00FF00) | ((value >> 8) & 0xFF00FF);
return (value << 16) | (value >> 16);
}
/*
* @brief: int
*/
inline static int swap_int32(int value)
{
value = ((value << 8) & 0xFF00FF00) | ((value >> 8) & 0xFF00FF);
return (value << 16) | ((value >> 16) & 0xFFFF);
}
/*
* @brief: 8
*/
inline static unsigned long long swap_uint64(unsigned long long value)
{
value = ((value << 8) & 0xFF00FF00FF00FF00ULL) | ((value >> 8) & 0x00FF00FF00FF00FFULL);
value = ((value << 16) & 0xFFFF0000FFFF0000ULL) | ((value >> 16) & 0x0000FFFF0000FFFFULL);
return (value << 32) | (value >> 32);
}
};
#endif // COMMONDEFINE_H