libxsync/xsync.cpp

#include "xsync.hpp"

#include <string.h>

#include <map>
#define ENABLE_LOG
#ifdef ENABLE_LOG
#include "../src/logger.hpp"
#endif

#define TAG "XSYNC"

using namespace xsync;
using namespace std;

/**
 * @brief XSYNC协议端口
 */
#define IFLYTOP_XSYNC_SERVICE_XSYNC_PORT 19900  // xsync端端口
#define IFLYTOP_XSYNC_SERVICE_PC_PORT    19901  // pc   端端口

#define IFLYTOP_XSYNC_TIMECODE_REPORT_XSYNC_PORT 19902  // xsync端端口
#define IFLYTOP_XSYNC_TIMECODE_REPORT_PC_PORT    19903  // pc端端口

#define IFLYTOP_XSYNC_CAMERA_SYNC_PACKET_XSYNC_PORT 13013  // xsync端端口
#define IFLYTOP_XSYNC_CAMERA_SYNC_PACKET_PC_PORT    13014  // pc端端口

#define DO_XSYNC(exptr)                        \
  {                                            \
    xs_error_code_t ecode = exptr;             \
    if (ecode != kxs_ec_success) return ecode; \
  }

static uint32_t ipToUint32(const std::string &ipAddress, bool &suc) {
  uint32_t           result = 0;
  std::istringstream iss(ipAddress);
  std::string        segment;
  int                i = 0;

  while (std::getline(iss, segment, '.')) {
    uint32_t octet = std::stoi(segment);
    if (octet > 255) {
      suc = false;
      return 0;
    }
    result |= (octet << ((3 - i) * 8));
    i++;
  }
  if (i != 4) {
    suc = false;
    return 0;
  }
  suc = true;

  uint32_t result_n = 0;
  result_n |= ((result & 0xff000000) >> 24);
  result_n |= ((result & 0x00ff0000) >> 8);
  result_n |= ((result & 0x0000ff00) << 8);
  result_n |= ((result & 0x000000ff) << 24);

  return result_n;
}

namespace xsync {
namespace ttlout_module {

static map<string, TriggerSigType_t> TriggerSigType2StrMap = {
    {"logic0", tri_logic0},
    {"logic1", tri_logic1},
    {"ttlin1_module_ext", tri_ttlin1_module_ext},
    {"ttlin1_module_divide", tri_ttlin1_module_divide},
    {"ttlin2_module_ext", tri_ttlin2_module_ext},
    {"ttlin2_module_divide", tri_ttlin2_module_divide},
    {"ttlin3_module_ext", tri_ttlin3_module_ext},
    {"ttlin3_module_divide", tri_ttlin3_module_divide},
    {"ttlin4_module_ext", tri_ttlin4_module_ext},
    {"ttlin4_module_divide", tri_ttlin4_module_divide},
    {"internal_en_flag", tri_internal_en_flag},
    {"genlock_frame_sync_ext", tri_genlock_frame_sync_ext},
    {"genlock_frame_sync_internal", tri_genlock_frame_sync_internal},
    {"timecode_frame_sync_ext", tri_timecode_frame_sync_ext},
    {"timecode_frame_sync_internal", tri_timecode_frame_sync_internal},
    {"timecode_serial_data_ext", tri_timecode_serial_data_ext},
    {"timecode_serial_data_internal", tri_timecode_serial_data_internal},
    {"internal_100hz", tri_internal_100hz},
};
static map<string, OutputSigType_t> Str2TriggerSigTypeMap = {
    {"OutSigType_logic0", OutSigType_logic0},                            //
    {"OutSigType_logic1", OutSigType_logic1},                            //
    {"OutSigType_test_signal", OutSigType_test_signal},                  //
    {"OutSigType_input_signal", OutSigType_input_signal},                //
    {"OutSigType_input_signal_mirror", OutSigType_input_signal_mirror},  //
    {"OutSigType_trigger_mode_signal", OutSigType_trigger_mode_signal},  //
    {"OutSigType_trigger_mode_signal_mirror", OutSigType_trigger_mode_signal_mirror},
};

string TriggerSigType2Str(TriggerSigType_t type) {
  for (auto &item : TriggerSigType2StrMap) {
    if (item.second == type) return item.first;
  }
  return "unkown";
}
TriggerSigType_t Str2TriggerSigType(string type) {
  auto it = TriggerSigType2StrMap.find(type);
  if (it != TriggerSigType2StrMap.end()) {
    return it->second;
  }
  return tri_logic0;
}
string OutputSigType2Str(OutputSigType_t type) {
  for (auto &item : Str2TriggerSigTypeMap) {
    if (item.second == type) return item.first;
  }
  return "unkown";
}
OutputSigType_t Str2OutputSigType(string type) {
  auto it = Str2TriggerSigTypeMap.find(type);
  if (it != Str2TriggerSigTypeMap.end()) {
    return it->second;
  }
  return OutSigType_logic0;
}

list<string> TriggerSigTypeStrSet() {
  list<string> ret;
  for (auto &item : TriggerSigType2StrMap) {
    ret.push_back(item.first);
  }
  return ret;
}
list<string> OutputSigTypeStrSet() {
  list<string> ret;
  for (auto &item : Str2TriggerSigTypeMap) {
    ret.push_back(item.first);
  }
  return ret;
}

}  // namespace ttlout_module

namespace sig_generator_module {
static map<string, ControlMode_t> Str2ControlModeMap = {
    {"manualTrigger", kControlMode_manualTrigger},  //
    {"extTimecodeTrigger", kControlMode_externalTimecodeTrigger},
    {"ttl1Trigger", kControlMode_externalTTL1Trigger},
    {"ttl2Trigger", kControlMode_externalTTL2Trigger},
    {"ttl3Trigger", kControlMode_externalTTL3Trigger},
    {"ttl4Trigger", kControlMode_externalTTL4Trigger},
};

string ControlMode2Str(ControlMode_t mode) {
  for (auto &item : Str2ControlModeMap) {
    if (item.second == mode) return item.first;
  }
  return "unkown";
}
ControlMode_t Str2ControlMode(string mode) {
  auto it = Str2ControlModeMap.find(mode);
  if (it != Str2ControlModeMap.end()) {
    return it->second;
  }
  return kControlMode_manualTrigger;
}
list<string> ControlModeStrSet() {
  list<string> ret;
  for (auto &item : Str2ControlModeMap) {
    ret.push_back(item.first);
  }
  return ret;
}
}  // namespace sig_generator_module

static map<string, TimecodeFormat_t> Str2TimecodeFormatMap = {
    {"fps2398", TIMECODE_FPS2398},                                         //
    {"fps2400", TIMECODE_FPS2400},                                         //
    {"fps2500", TIMECODE_FPS2500},                                         //
    {"fps2997", TIMECODE_FPS2997},                                         //
    {"fps2997Drop", TIMECODE_FPS2997Drop}, {"fps3000", TIMECODE_FPS3000},  //
};

static map<string, GenlockFormat_t> Str2GenlockFormatMap = {
    {"fps2397", GENLOCK_FPS2397},  //
    {"fps2398", GENLOCK_FPS2398},  //
    {"fps2400", GENLOCK_FPS2400},  //
    {"fps2500", GENLOCK_FPS2500},  //
    {"fps2997", GENLOCK_FPS2997},  //
    {"fps3000", GENLOCK_FPS3000},  //
    {"fps5000", GENLOCK_FPS5000},  //
    {"fps5994", GENLOCK_FPS5994},  //
    {"fps6000", GENLOCK_FPS6000},  //
};

string GenlockFormatToStr(GenlockFormat_t fomrat) {
  for (auto &item : Str2GenlockFormatMap) {
    if (item.second == fomrat) return item.first;
  }
  return "unkown";
}

string TimecodeFormatToStr(TimecodeFormat_t fomrat) {
  for (auto &item : Str2TimecodeFormatMap) {
    if (item.second == fomrat) return item.first;
  }
  return "unkown";
}

GenlockFormat_t Str2GenlockFormat(string format) {
  auto it = Str2GenlockFormatMap.find(format);
  if (it != Str2GenlockFormatMap.end()) {
    return it->second;
  }
  return GENLOCK_FPS2397;
}

TimecodeFormat_t Str2TimecodeFormat(string format) {
  auto it = Str2TimecodeFormatMap.find(format);
  if (it != Str2TimecodeFormatMap.end()) {
    return it->second;
  }
  return TIMECODE_FPS2398;
}

list<string> GenlockFormatStrSet() {
  list<string> ret;
  for (auto &item : Str2GenlockFormatMap) {
    ret.push_back(item.first);
  }
  return ret;
}

list<string> TimecodeFormatStrSet() {
  list<string> ret;
  for (auto &item : Str2TimecodeFormatMap) {
    ret.push_back(item.first);
  }
  return ret;
}

string XsyncTimecodeToStr(XsyncTimecode_t timecode) {
  char buf[32] = {0};
  sprintf(buf, "%02d:%02d:%02d:%02d", timecode.hour, timecode.minute, timecode.second, timecode.frame);
  return string(buf);
}
XsyncTimecode_t Str2XsyncTimecode(string timecode) {
  XsyncTimecode_t ret;
  char            buf[128] = {0};
  strncpy(buf, timecode.c_str(), 127);
  sscanf(buf, "%02d:%02d:%02d:%02d", &ret.hour, &ret.minute, &ret.second, &ret.frame);
  return ret;
}

}  // namespace xsync

static XsyncTimecode_t timecode64ToXsyncTimeCode(Timecode64_t tc64) {
  uint8_t frameuints  = tc64.tc0 & 0x0f;
  uint8_t frame10s    = (tc64.tc0 >> 8) & 0x3;
  uint8_t seconduints = (tc64.tc0 >> 16) & 0x0f;
  uint8_t second10s   = (tc64.tc0 >> 24) & 0x07;

  uint8_t minuteuints = tc64.tc1 & 0x0f;
  uint8_t minute10s   = (tc64.tc1 >> 8) & 0x07;
  uint8_t houruints   = (tc64.tc1 >> 16) & 0x0f;
  uint8_t hour10s     = (tc64.tc1 >> 24) & 0x03;

  XsyncTimecode_t timecode;
  timecode.hour   = hour10s * 10 + houruints;
  timecode.minute = minute10s * 10 + minuteuints;
  timecode.second = second10s * 10 + seconduints;
  timecode.frame  = frame10s * 10 + frameuints;
  return timecode;
}

static Timecode64_t timecodeTo64(XsyncTimecode_t tc) {
  Timecode64_t tc64;

  uint32_t frameuints  = tc.frame % 10;
  uint32_t frame10s    = tc.frame / 10;
  uint32_t seconduints = tc.second % 10;
  uint32_t second10s   = tc.second / 10;

  uint32_t minuteuints = tc.minute % 10;
  uint32_t minute10s   = tc.minute / 10;
  uint32_t houruints   = tc.hour % 10;
  uint32_t hour10s     = tc.hour / 10;

  tc64.tc0 = frameuints + (frame10s << 8) + (seconduints << 16) + (second10s << 24);
  tc64.tc1 = minuteuints + (minute10s << 8) + (houruints << 16) + (hour10s << 24);
  return tc64;
}

/*******************************************************************************
 *                                    Xsync                                    *
 *******************************************************************************/
Xsync::Xsync(/* args */) {}

Xsync &Xsync::Ins() {
  static Xsync xsync;
  return xsync;
}
void Xsync::initialize(I_XSUDPFactory *xsync_udp_factory) { m_xsync_udp_factory = xsync_udp_factory; }

xs_error_code_t Xsync::connect(string xsync_ip) {
  lock_guard<recursive_mutex> lock(lock_);

  m_xsync_ip = xsync_ip;
  disConnect();
  /**
   * @brief 创建 m_xsync_reg_udp
   */

  xs_error_code_t ecode = kxs_ec_success;

  auto xsync_reg_udp = m_xsync_udp_factory->createXSUDP();
  ecode              = xsync_reg_udp->initialize("0.0.0.0", IFLYTOP_XSYNC_SERVICE_PC_PORT);
  if (ecode != kxs_ec_success) {
    return ecode;
  }
  /**
   * @brief 创建 m_xsync_timecode_udp_listener
   */
  auto xsync_timecode_udp_listener = m_xsync_udp_factory->createXSUDP();

  ecode = xsync_timecode_udp_listener->initialize("0.0.0.0", IFLYTOP_XSYNC_TIMECODE_REPORT_PC_PORT);
  if (ecode != kxs_ec_success) {
    return ecode;
  }
  ecode = xsync_timecode_udp_listener->startReceive([this](XsyncNetAdd &from, uint8_t *data, size_t length) { parseTimecodeMsgAndReport(from, data, length); });
  if (ecode != kxs_ec_success) {
    return ecode;
  }

  /**
   * @brief 创建 m_xsync_camera_sync_udp_listener
   */
  auto xsync_camera_sync_udp_listener = m_xsync_udp_factory->createXSUDP();

  ecode = xsync_camera_sync_udp_listener->initialize("0.0.0.0", IFLYTOP_XSYNC_CAMERA_SYNC_PACKET_PC_PORT);
  if (ecode != kxs_ec_success) {
    return ecode;
  }
  ecode = xsync_camera_sync_udp_listener->startReceive([this](XsyncNetAdd &from, uint8_t *data, size_t length) { parseCameraSyncMsgAndReport(from, data, length); });
  if (ecode != kxs_ec_success) {
    return ecode;
  }

  m_xsync_reg_udp                  = xsync_reg_udp;
  m_xsync_timecode_udp_listener    = xsync_timecode_udp_listener;
  m_xsync_camera_sync_udp_listener = xsync_camera_sync_udp_listener;

  m_net_state = kxsync_net_state_connected;
  return ecode;
}
xs_error_code_t Xsync::disConnect() {
  lock_guard<recursive_mutex> lock(lock_);

  if (m_xsync_reg_udp != nullptr) {
    m_xsync_reg_udp->stopReceive();
    m_xsync_reg_udp = nullptr;
  }

  if (m_xsync_timecode_udp_listener != nullptr) {
    m_xsync_timecode_udp_listener->stopReceive();
    m_xsync_timecode_udp_listener = nullptr;
  }

  if (m_xsync_camera_sync_udp_listener != nullptr) {
    m_xsync_camera_sync_udp_listener->stopReceive();
    m_xsync_camera_sync_udp_listener = nullptr;
  }

  m_net_state = kxsync_net_state_disconnect;
  return kxs_ec_success;
}
xsync_net_state_t Xsync::getNetState() { return m_net_state; }

void Xsync::Basic_registerOnTimecodeMsgCallback(xsync_on_timecode_msg_t on_timecode_msg_cb) { m_on_timecode_msg_cb = on_timecode_msg_cb; }
void Xsync::Basic_registerOnCameraSyncMsgCallback(xsync_on_camera_sync_msg_t on_camera_sync_msg_cb) { m_on_camera_sync_msg_cb = on_camera_sync_msg_cb; }

xs_error_code_t Xsync::xsync_send_cmd_block(iflytop_xsync_packet_header_t *cmd, iflytop_xsync_packet_header_t *rx_data, int32_t buffersize, int32_t overtime_ms) {
  lock_guard<recursive_mutex> lock(lock_);
  if (!m_xsync_reg_udp) return kxs_ec_lose_connect;
  m_xsync_reg_udp->clearRxBuffer();

  cmd->index = txpacket_index++;

  XsyncNetAdd     toadd = {m_xsync_ip, IFLYTOP_XSYNC_SERVICE_XSYNC_PORT};
  xs_error_code_t ecode =  //
      m_xsync_reg_udp->sendto(toadd, (const char *)cmd, sizeof(iflytop_xsync_packet_header_t) + cmd->ndata * 4, nullptr);
  if (ecode != kxs_ec_success) {
    return ecode;
  }

  XsyncNetAdd fromadd;
  while (true) {
    // ZLOGI(TAG, "start rx wait for rxdata");
    ecode = m_xsync_reg_udp->receive((char *)rx_data, buffersize, fromadd, overtime_ms);
    // ZLOGI(TAG, "end rx wait for rxdata");
    if (ecode != kxs_ec_success) {
      return ecode;
    }
    if (rx_data->index != cmd->index) {
      // ZLOGI(TAG, "packet index error %d %d", cmd->index, rx_data->index);
      continue;
    }
    break;
  }

  return (xs_error_code_t)rx_data->data[0];
}

xs_error_code_t Xsync::reg_write(uint32_t regadd, uint32_t regvalue, uint32_t &regbackvalue, int32_t overtime_ms) {
  /**
   * @brief
   *      协议说明
   *
   * kxsync_packet_type_reg_write
   *  tx: regadd,regdata
   *  rx: ecode,regdata
   */

  uint8_t txdata[128] = {0};
  uint8_t rxdata[128] = {0};

  iflytop_xsync_packet_header_t *txpacket = (iflytop_xsync_packet_header_t *)txdata;
  iflytop_xsync_packet_header_t *rxpacket = (iflytop_xsync_packet_header_t *)rxdata;

  txpacket->type    = kxsync_packet_type_cmd;
  txpacket->index   = txpacket_index++;
  txpacket->cmd     = kxsync_packet_type_reg_write;
  txpacket->ndata   = 2;
  txpacket->data[0] = regadd;
  txpacket->data[1] = regvalue;

  auto ecode = xsync_send_cmd_block(txpacket, rxpacket, sizeof(rxdata), overtime_ms);
  if (ecode != kxs_ec_success) {
    return ecode;
  }

  regbackvalue = rxpacket->data[1];
  return ecode;
}

xs_error_code_t Xsync::reg_read(uint32_t regadd, uint32_t &regvalue, int32_t overtime_ms) {
  /**
   * @brief
   *      协议说明
   *
   * kxsync_packet_type_reg_write
   *  tx: regadd,regdata
   *  rx: ecode,regdata
   */

  uint8_t txdata[128] = {0};
  uint8_t rxdata[128] = {0};

  iflytop_xsync_packet_header_t *txpacket = (iflytop_xsync_packet_header_t *)txdata;
  iflytop_xsync_packet_header_t *rxpacket = (iflytop_xsync_packet_header_t *)rxdata;

  txpacket->type    = kxsync_packet_type_cmd;
  txpacket->index   = txpacket_index++;
  txpacket->cmd     = kxsync_packet_type_reg_read;
  txpacket->ndata   = 2;
  txpacket->data[0] = regadd;
  txpacket->data[1] = regvalue;

  auto ecode = xsync_send_cmd_block(txpacket, rxpacket, sizeof(rxdata), overtime_ms);
  if (ecode != kxs_ec_success) {
    return ecode;
  }
  regvalue = rxpacket->data[1];
  return ecode;
}
xs_error_code_t Xsync::reg_read_muti(uint32_t regadd, uint32_t nreg, vector<uint32_t> &regvalues, int32_t overtime_ms) {
  /**
   * @brief
   *      协议说明
   *
   * kxsync_packet_type_reg_read_regs
   *  tx: regstartadd,nreg
   *  rx: ecode,regdatas
   */

  uint8_t txdata[128]  = {0};
  uint8_t rxdata[1280] = {0};

  iflytop_xsync_packet_header_t *txpacket = (iflytop_xsync_packet_header_t *)txdata;
  iflytop_xsync_packet_header_t *rxpacket = (iflytop_xsync_packet_header_t *)rxdata;

  txpacket->type    = kxsync_packet_type_cmd;
  txpacket->index   = txpacket_index++;
  txpacket->cmd     = kxsync_packet_type_reg_read_regs;
  txpacket->ndata   = 2;
  txpacket->data[0] = regadd;
  txpacket->data[1] = nreg;

  auto ecode = xsync_send_cmd_block(txpacket, rxpacket, sizeof(rxdata), overtime_ms);
  if (ecode != kxs_ec_success) {
    return ecode;
  }

  if (rxpacket->ndata > 0) {
    for (int i = 0; i < rxpacket->ndata - 1; i++) {
      regvalues.push_back(rxpacket->data[i + 1]);
    }
  }
  return ecode;
}

void Xsync::parseTimecodeMsgAndReport(XsyncNetAdd &from, uint8_t *data, size_t length) {
  //
  iflytop_timecode_report_packet_t *packet = (iflytop_timecode_report_packet_t *)data;
  Timecode64_t                      tc64;
  tc64.tc0 = packet->timecode0;
  tc64.tc1 = packet->timecode1;

  XsyncTimecode_t timecode = timecode64ToXsyncTimeCode(tc64);
  if (m_on_timecode_msg_cb) m_on_timecode_msg_cb(&timecode);
}
void Xsync::parseCameraSyncMsgAndReport(XsyncNetAdd &from, uint8_t *data, size_t length) {
  uint32_t count = 0;

  uint32_t data0 = data[7];
  uint32_t data1 = data[6];
  uint32_t data2 = data[5];
  uint32_t data3 = data[4];

  count = data0 + (data1 << 8) + (data2 << 16) + (data3 << 24);

  xysnc_camera_sync_data_t camera_sync_data;
  camera_sync_data.frameIndex = count;

  if (m_on_camera_sync_msg_cb) m_on_camera_sync_msg_cb(&camera_sync_data);
}

xs_error_code_t Xsync::Basic_generatorNewMac() { return doaction(xsync_stm32_action_generator_new_mac, 0, nullptr, 2000); }
xs_error_code_t Xsync::Basic_factoryReset() { return doaction(xsync_stm32_action_factory_reset, 0, nullptr, 1000); }
xs_error_code_t Xsync::Basic_reboot() { return doaction(xsync_stm32_action_Basic_reboot, 0, nullptr); }
xs_error_code_t Xsync::storageConfig() { return doaction(xsync_stm32_action_storage_cfg, 0, nullptr, 1000); }
xs_error_code_t Xsync::Basic_changeNetworkConfig(string ip, string mask, string gateway) {
  uint32_t        ip32      = 0;
  uint32_t        mask32    = 0;
  uint32_t        gateway32 = 0;
  xs_error_code_t ecode;
  bool            suc = false;

  ip32 = (uint32_t)ipToUint32(ip.c_str(), suc);
  if (!suc) return kxs_ec_param_error;
  mask32 = (uint32_t)ipToUint32(mask.c_str(), suc);
  if (!suc) return kxs_ec_param_error;
  gateway32 = (uint32_t)ipToUint32(gateway.c_str(), suc);
  if (!suc) return kxs_ec_param_error;

  uint32_t readbak = 0;

  ecode = reg_write(reg::kstm32_ip, ip32, readbak);
  if (ecode != kxs_ec_success) return ecode;
  ecode = reg_write(reg::kstm32_netmask, mask32, readbak);
  if (ecode != kxs_ec_success) return ecode;
  ecode = reg_write(reg::kstm32_gw, gateway32, readbak);
  if (ecode != kxs_ec_success) return ecode;

  ecode = storageConfig();
  if (ecode != kxs_ec_success) return ecode;

  return kxs_ec_success;
}

xs_error_code_t Xsync::Basic_clearXsyncCameraSyncIndexCount() {
  uint32_t readbak = 0;
  return reg_write(reg::kstm32_camera_sync_signal_count, 0, readbak);
}

xs_error_code_t Xsync::doaction(uint32_t action, uint32_t actionval, uint32_t *ackreturn, int32_t overtime_ms) {
  //
  uint32_t        readbak = 0;
  xs_error_code_t ecode;
  ecode = reg_write(reg::kstm32_action_val0, actionval, readbak);
  if (ecode != kxs_ec_success) return ecode;

  ecode = reg_write(reg::kstm32_action0, action, readbak, overtime_ms);
  if (ecode != kxs_ec_success) return ecode;
  if (ackreturn) *ackreturn = readbak;
  return ecode;
}

xs_error_code_t Xsync::Basic_setGenlockFormat(GenlockFormat_t format) {
  DO_XSYNC(SigGenerator_setGenlockFormat(format));
  return kxs_ec_success;
}
xs_error_code_t Xsync::Basic_getGenlockFormat(GenlockFormat_t &format) {
  DO_XSYNC(SigGenerator_getGenlockFormat(format));
  return kxs_ec_success;
}
xs_error_code_t Xsync::Basic_setTimecodeFormat(TimecodeFormat_t format) {
  DO_XSYNC(SigGenerator_setTimecodeFormat(format));
  return kxs_ec_success;
}
xs_error_code_t Xsync::Basic_getTimecodeFormat(TimecodeFormat_t &format) {
  DO_XSYNC(SigGenerator_getTimecodeFormat(format));
  return kxs_ec_success;
}
/*******************************************************************************
 *                               TTLOutputModule                               *
 *******************************************************************************/
xs_error_code_t Xsync::TTLOutputModule_setInputSigType(int32_t index, ttlout_module::TriggerSigType_t source) {
  xs_error_code_t ecode   = kxs_ec_success;
  uint32_t        readbak = 0;
  uint32_t        regAdd  = 0;

  if (index == 1) {
    regAdd = reg::kttlout1_input_sig_slt;
  } else if (index == 2) {
    regAdd = reg::kttlout2_input_sig_slt;
  } else if (index == 3) {
    regAdd = reg::kttlout3_input_sig_slt;
  } else if (index == 4) {
    regAdd = reg::kttlout4_input_sig_slt;
  } else {
    return kxs_ec_param_error;
  }

  return reg_write(regAdd, source, readbak, 10);
}

xs_error_code_t Xsync::TTLOutputModule_getInputSigType(int32_t index, ttlout_module::TriggerSigType_t &source) {
  xs_error_code_t ecode   = kxs_ec_success;
  uint32_t        readbak = 0;
  uint32_t        regAdd  = 0;
  if (index == 1) {
    regAdd = reg::kttlout1_input_sig_slt;
  } else if (index == 2) {
    regAdd = reg::kttlout2_input_sig_slt;
  } else if (index == 3) {
    regAdd = reg::kttlout3_input_sig_slt;
  } else if (index == 4) {
    regAdd = reg::kttlout4_input_sig_slt;
  } else {
    return kxs_ec_param_error;
  }

  ecode = reg_read(regAdd, readbak, 10);
  if (ecode != kxs_ec_success) return ecode;

  source = (ttlout_module::TriggerSigType_t)readbak;
  return ecode;
}

xs_error_code_t Xsync::TTLOutputModule_setOutputSigType(int32_t index, ttlout_module::OutputSigType_t output_type) {
  xs_error_code_t ecode   = kxs_ec_success;
  uint32_t        readbak = 0;
  uint32_t        regAdd  = 0;

  if (index == 1) {
    regAdd = reg::kttlout1_output_sig_slt;
  } else if (index == 2) {
    regAdd = reg::kttlout2_output_sig_slt;
  } else if (index == 3) {
    regAdd = reg::kttlout3_output_sig_slt;
  } else if (index == 4) {
    regAdd = reg::kttlout4_output_sig_slt;
  } else {
    return kxs_ec_param_error;
  }

  return reg_write(regAdd, output_type, readbak, 10);
}
xs_error_code_t Xsync::TTLOutputModule_getOutputSigType(int32_t index, ttlout_module::OutputSigType_t &output_type) {
  xs_error_code_t ecode   = kxs_ec_success;
  uint32_t        readbak = 0;
  uint32_t        regAdd  = 0;

  if (index == 1) {
    regAdd = reg::kttlout1_output_sig_slt;
  } else if (index == 2) {
    regAdd = reg::kttlout2_output_sig_slt;
  } else if (index == 3) {
    regAdd = reg::kttlout3_output_sig_slt;
  } else if (index == 4) {
    regAdd = reg::kttlout4_output_sig_slt;
  } else {
    return kxs_ec_param_error;
  }

  ecode = reg_read(regAdd, readbak, 10);
  if (ecode != kxs_ec_success) return ecode;

  output_type = (ttlout_module::OutputSigType_t)readbak;
  return ecode;
}

xs_error_code_t Xsync::TTLOutputModule_setTriggerModePulseWidth(int32_t index, uint32_t pulse_width_ms) {
  xs_error_code_t ecode   = kxs_ec_success;
  uint32_t        readbak = 0;
  uint32_t        regAdd  = 0;

  if (index == 1) {
    regAdd = reg::kttlout1_pulse_mode_duration;
  } else if (index == 2) {
    regAdd = reg::kttlout2_pulse_mode_duration;
  } else if (index == 3) {
    regAdd = reg::kttlout3_pulse_mode_duration;
  } else if (index == 4) {
    regAdd = reg::kttlout4_pulse_mode_duration;
  } else {
    return kxs_ec_param_error;
  }

  uint32_t pluse_width = pulse_width_ms * 1000;  // 1MHZ计数
  return reg_write(regAdd, pluse_width, readbak, 10);
}
xs_error_code_t Xsync::TTLOutputModule_getTriggerModePulseWidth(int32_t index, uint32_t &pulse_width_ms) {
  xs_error_code_t ecode   = kxs_ec_success;
  uint32_t        regAdd  = 0;
  uint32_t        readbak = 0;

  if (index == 1) {
    regAdd = reg::kttlout1_pulse_mode_duration;
  } else if (index == 2) {
    regAdd = reg::kttlout2_pulse_mode_duration;
  } else if (index == 3) {
    regAdd = reg::kttlout3_pulse_mode_duration;
  } else if (index == 4) {
    regAdd = reg::kttlout4_pulse_mode_duration;
  } else {
    return kxs_ec_param_error;
  }
  ecode = reg_read(regAdd, regAdd, 10);
  if (ecode != kxs_ec_success) return ecode;

  pulse_width_ms = readbak / 1000;
  return ecode;
}

xs_error_code_t Xsync::TTLOutputModule_setTriggerModePulseDelay(int32_t index, uint32_t pulse_delay_ms) {
  xs_error_code_t ecode   = kxs_ec_success;
  uint32_t        regAdd  = 0;
  uint32_t        readbak = 0;

  if (index == 1) {
    regAdd = reg::kttlout1_pulse_mode_delay;
  } else if (index == 2) {
    regAdd = reg::kttlout2_pulse_mode_delay;
  } else if (index == 3) {
    regAdd = reg::kttlout3_pulse_mode_delay;
  } else if (index == 4) {
    regAdd = reg::kttlout4_pulse_mode_delay;
  } else {
    return kxs_ec_param_error;
  }

  uint32_t pulse_delay = pulse_delay_ms * 1000;  // 1MHZ计数

  return reg_write(regAdd, pulse_delay, readbak, 10);
}
xs_error_code_t Xsync::TTLOutputModule_getTriggerModePulseDelay(int32_t index, uint32_t &pulse_delay_ms) {
  xs_error_code_t ecode   = kxs_ec_success;
  uint32_t        regAdd  = 0;
  uint32_t        readbak = 0;

  if (index == 1) {
    regAdd = reg::kttlout1_pulse_mode_delay;
  } else if (index == 2) {
    regAdd = reg::kttlout2_pulse_mode_delay;
  } else if (index == 3) {
    regAdd = reg::kttlout3_pulse_mode_delay;
  } else if (index == 4) {
    regAdd = reg::kttlout4_pulse_mode_delay;
  } else {
    return kxs_ec_param_error;
  }

  ecode = reg_read(regAdd, readbak, 10);
  if (ecode != kxs_ec_success) return ecode;

  pulse_delay_ms = readbak / 1000;
  return ecode;
}
xs_error_code_t Xsync::SigGenerator_setControlMode(sig_generator_module::ControlMode_t mode) {
  uint32_t readbak = 0;
  return reg_write(reg::kSigGenerator_ctl, mode, readbak, 10);
}
xs_error_code_t Xsync::SigGenerator_getControlMode(sig_generator_module::ControlMode_t &mode) {
  uint32_t readbak = 0;
  auto     ecode   = reg_read(reg::kSigGenerator_ctl, readbak, 10);
  if (ecode != kxs_ec_success) return ecode;
  mode = (sig_generator_module::ControlMode_t)readbak;
  return ecode;
}
xs_error_code_t Xsync::SigGenerator_manualStart() {
  uint32_t readbak = 0;
  return reg_write(reg::kSigGenerator_control_trigger_reg, 1, readbak, 10);
}
xs_error_code_t Xsync::SigGenerator_manualStop() {
  uint32_t readbak = 0;
  return reg_write(reg::kSigGenerator_control_trigger_reg, 0, readbak, 10);
}
xs_error_code_t Xsync::SigGenerator_setTimecode(XsyncTimecode_t timecode) {
  uint32_t        readbak = 0;
  xs_error_code_t ecode   = kxs_ec_success;

  Timecode64_t tc64 = timecodeTo64(timecode);

  ecode = reg_write(reg::kSigGenerator_timecode0, tc64.tc0, readbak, 10);
  if (ecode != kxs_ec_success) return ecode;
  ecode = reg_write(reg::kSigGenerator_timecode1, tc64.tc1, readbak, 10);
  if (ecode != kxs_ec_success) return ecode;

  return ecode;
}
xs_error_code_t Xsync::SigGenerator_getTimecode(XsyncTimecode_t &timecode) {
  uint32_t        readbak = 0;
  xs_error_code_t ecode   = kxs_ec_success;

  uint32_t tc0 = 0;
  uint32_t tc1 = 0;

  ecode = reg_read(reg::kSigGenerator_timecode0, tc0, 10);
  if (ecode != kxs_ec_success) return ecode;
  ecode = reg_read(reg::kSigGenerator_timecode1, tc1, 10);
  if (ecode != kxs_ec_success) return ecode;

  Timecode64_t tc64;
  tc64.tc0 = tc0;
  tc64.tc1 = tc1;

  timecode = timecode64ToXsyncTimeCode(tc64);
  return ecode;
}
xs_error_code_t Xsync::SigGenerator_setAutoStartTimecode(XsyncTimecode_t timecode) {
  uint32_t        readbak = 0;
  xs_error_code_t ecode   = kxs_ec_success;

  Timecode64_t tc64 = timecodeTo64(timecode);

  ecode = reg_write(reg::kSigGenerator_timecode_start0, tc64.tc0, readbak, 10);
  if (ecode != kxs_ec_success) return ecode;
  ecode = reg_write(reg::kSigGenerator_timecode_start1, tc64.tc1, readbak, 10);
  if (ecode != kxs_ec_success) return ecode;

  return ecode;
}
xs_error_code_t Xsync::SigGenerator_getAutoStartTimecode(XsyncTimecode_t &timecode) {
  uint32_t        readbak = 0;
  xs_error_code_t ecode   = kxs_ec_success;

  uint32_t tc0 = 0;
  uint32_t tc1 = 0;

  ecode = reg_read(reg::kSigGenerator_timecode_start0, tc0, 10);
  if (ecode != kxs_ec_success) return ecode;
  ecode = reg_read(reg::kSigGenerator_timecode_start1, tc1, 10);
  if (ecode != kxs_ec_success) return ecode;

  Timecode64_t tc64;
  tc64.tc0 = tc0;
  tc64.tc1 = tc1;

  timecode = timecode64ToXsyncTimeCode(tc64);
  return ecode;
}
xs_error_code_t Xsync::SigGenerator_getWorkState(uint32_t &work_state) {
  uint32_t readbak = 0;
  auto     ecode   = reg_read(reg::kSigGenerator_work_state, readbak, 10);
  if (ecode != kxs_ec_success) return ecode;
  work_state = readbak;
  return ecode;
}

xs_error_code_t Xsync::SigGenerator_setGenlockFormat(GenlockFormat_t format) {
  uint32_t readbak = 0;
  return reg_write(reg::kSigGenerator_genlock_format, format, readbak, 10);
}
xs_error_code_t Xsync::SigGenerator_getGenlockFormat(GenlockFormat_t &format) {
  uint32_t readbak = 0;
  auto     ecode   = reg_read(reg::kSigGenerator_genlock_format, readbak, 10);
  if (ecode != kxs_ec_success) return ecode;
  format = (GenlockFormat_t)readbak;
  return ecode;
}
xs_error_code_t Xsync::SigGenerator_setTimecodeFormat(TimecodeFormat_t format) {
  uint32_t readbak = 0;
  return reg_write(reg::kSigGenerator_timecode_format, format, readbak, 10);
}
xs_error_code_t Xsync::SigGenerator_getTimecodeFormat(TimecodeFormat_t &format) {
  uint32_t readbak = 0;
  auto     ecode   = reg_read(reg::kSigGenerator_timecode_format, readbak, 10);
  if (ecode != kxs_ec_success) return ecode;
  format = (TimecodeFormat_t)readbak;
  return ecode;
}