#include "schedule.hpp"
#include <iostream>
#include <string>
#include <fstream>
#include <sstream>
#include <chrono>
#include <ctime>
#include <set>
#include <iomanip>
#include <json/json.h>
#include <zlog.h>
#include "short_addr_cfg.hpp"
#include "update_cfg.hpp"
#include "wave_feature_set.hpp"

extern zlog_category_t *zct;
extern zlog_category_t *zbt;

uint8_t g_x, g_y, g_z;

int SensorScheduler::StartSchedule(uint16_t short_addr, int &next_duration, bool &z, int &next_task_id) {
    int id = 0;
    auto iter = short_addr_map_.find(short_addr);
    if (iter == short_addr_map_.end()) {
        id = GetAvailableId(short_addr);            
    } else {
        id = iter->second;
    }

    current_ts_ = GetLocalTs();
    CleanIdleOccupiedSet(current_ts_);

    nth_wave_start_slice_ = (current_ts_ - start_timestamp_) / wave_form_send_interval_;
    current_wave_start_ts_ = nth_wave_start_slice_ * wave_form_send_interval_ + start_timestamp_;
    seconds_in_current_wave_slice_ = current_ts_ - current_wave_start_ts_;
    nth_eigen_value_slice_ = seconds_in_current_wave_slice_ / eigen_value_send_interval_;
    seconds_in_current_eigen_slice_ = seconds_in_current_wave_slice_ % eigen_value_send_interval_;
    ts_in_eigen_slice_ = false;

    if (seconds_in_current_eigen_slice_ < 60 - 3) {
        ts_in_eigen_slice_ = true;
    }    

    if (ts_in_eigen_slice_) {
        // nth_eigen_slice_ = (seconds_in_current_eigen_slice_ + 2) / eigen_value_send_duration_;
        if (nth_eigen_value_slice_ == 0) {
            ClearFailureSuccessMap();
        }
    } else {
        if (seconds_per_wave_slice_ == 0) {
            seconds_per_wave_slice_ = 60;
        }
        nth_wave_slice_ = (seconds_in_current_eigen_slice_ - 60 + 3) / seconds_per_wave_slice_;
    }  
    zlog_debug(zbt, "[%d:%x] ts:%ld, current utc:%s, nth eigen_value slice:%d, seconds in eigen slice:%d, eigen slice:%d", 
               id, short_addr, current_ts_, GetUTCTime(current_ts_).c_str(), nth_eigen_value_slice_+1, seconds_in_current_eigen_slice_, ts_in_eigen_slice_);
    if (ts_in_eigen_slice_) {       
        // 传感器需要执行上送特征值任务, 如果有配置需要下发的话，下发配置
        if (update_.count(id)) {
            // execute config
            zlog_debug(zbt, "[%d:%x] update config in eigen slice", id, short_addr);
            current_request_ = kScheduleConfigSensor;
            return kScheduleConfigSensor;
        } else {
            wave_feature_set_inst::instance().GetFeatureCfg(short_addr, g_x, g_y, g_z);
            // if (g_x || g_y || g_z) { 
            //     // 执行上送特征值任务
            //     zlog_debug(zbt, "[%d:%x] send eigen value in eigen slice", id, short_addr);
            //     current_request_ = kScheduleEigenValue;
            //     return kScheduleEigenValue;
            // } else {                    
                // next_duration = GetNextDuration(short_addr, z, next_task_id);
                // zlog_warn(zbt, "[%d:%x] no need for eigen", id, short_addr);
                return kScheduleResultNone;
            // }
        }
    } 
    return kScheduleResultNone;
    // else {
    //     if (current_schedule_status_ == kScheduleStatusDebug) {
    //         if (debug_list_.count(short_addr) == 0) {
    //             next_duration = GetDebugUpgradeNextDuration(short_addr);
    //             next_task_id = kScheduleEigenValue;
    //             zlog_debug(zbt, "[%d:%x] not in debug list", id, short_addr);
    //             return kScheduleWrongTime;
    //         } else {
    //             // z wave
    //             int nth_wave_slice = nth_eigen_value_slice_ * wave_slice_num_per_eigen_interval_ + nth_wave_slice_ + 1;
    //             if (debug_slice_sensor_id_[nth_wave_slice] == short_addr) {
    //                 current_request_ = kScheduleWaveForm;
    //                 z = true;
    //                 return kScheduleWaveForm;
    //             } else {
    //                 // 当前特征值间隔内是否存在此传感器的波形区间
    //                 for (int i = nth_wave_slice + 1; i <= (nth_eigen_value_slice_+1) * wave_slice_num_per_eigen_interval_; ++i) {
    //                     if (debug_slice_sensor_id_[i] == short_addr) {
    //                         long nxt_ts = current_wave_start_ts_ + nth_eigen_value_slice_ * eigen_value_send_interval_ + 60 + (i-nth_wave_slice)*60;
    //                         next_duration = nxt_ts - current_ts_;
    //                         if (next_duration < 10) {
    //                             zlog_debug(zbt, "[%d:%x] [Nxt] debug exception duration:%d, adjust to 25", id, short_addr,next_duration);
    //                             next_duration = 25;                                
    //                         } else if (next_duration > eigen_value_send_interval_) {
    //                             zlog_debug(zbt, "[%d:%x] [Nxt] debug exception duration:%d, adjust to 120", id, short_addr,next_duration);
    //                             next_duration = 120;                               
    //                         }
    //                         z = true;
    //                         next_task_id = kScheduleWaveForm;
    //                         return kScheduleWrongTime;
    //                     }
    //                 }

    //                 next_duration = GetDebugUpgradeNextDuration(short_addr);
    //                 next_task_id = kScheduleEigenValue;
    //                 zlog_debug(zbt, "[%d:%x] debug wrong time", id, short_addr);
    //                 return kScheduleWrongTime;
    //             }
    //         }
    //         return 0;
    //     } else if (current_schedule_status_ == kScheduleStatusUpgrade) {
    //         if (upgrade_list_.count(short_addr) == 0) {
    //             next_duration = GetDebugUpgradeNextDuration(short_addr);
    //             next_task_id = kScheduleEigenValue;
    //             zlog_debug(zbt, "[%d:%x] not in upgrade list", id, short_addr);
    //             return kScheduleWrongTime;
    //         } else {               
    //             int nth_wave_slice = nth_eigen_value_slice_ * wave_slice_num_per_eigen_interval_ + nth_wave_slice_ + 1;
    //             if (upgrade_slice_sensor_id_[nth_wave_slice] == short_addr) {
    //                 current_request_ = kScheduleUpgrade;
    //                 // upgrade_list_.erase(short_addr);
    //                 return kScheduleUpgrade;
    //             } else {
    //                 next_duration = GetDebugUpgradeNextDuration(short_addr);
    //                 next_task_id = kScheduleEigenValue;
    //                 zlog_debug(zbt, "[%d:%x] in wrong time", id, short_addr);
    //                 return kScheduleWrongTime;
    //             }
    //         }            
    //     }
    //     int nth_wave_slice = nth_eigen_value_slice_ * wave_slice_num_per_eigen_interval_ + nth_wave_slice_ + 1; // 从1开始编号
    //     auto wave_slice_iter = sensor_id_nth_slice_.find(id);
    //     if (wave_slice_iter == sensor_id_nth_slice_.end()) {
    //         zlog_error(zbt, "[%d:%x] invaild id, not find wave slice id, need to check further", id, short_addr);
    //         return kScheduleUnknownSensor;
    //     } 

    //     wave_feature_set_inst::instance().GetWaveCfg(short_addr, g_x, g_y, g_z);
    //     if (nth_wave_slice == wave_slice_iter->second.first) { // Z轴            
    //         if (g_z) {
    //             zlog_debug(zbt, "[%d:%x] it is wave z time", id, short_addr);
    //             current_request_ = kScheduleWaveForm;
    //             z = true;
    //             return kScheduleWaveForm;
    //         } else {
    //             next_duration = GetNextDuration(short_addr, z, next_task_id);
    //             zlog_debug(zbt, "[%d:%x] no need for wave", id, short_addr);
    //             return kScheduleWrongTime;
    //         }
    //     } else if (nth_wave_slice == wave_slice_iter->second.second) { // XY轴            
    //         if (g_x || g_y) {
    //             zlog_debug(zbt, "[%d:%x] it is wave xy time", id, short_addr);
    //             current_request_ = kScheduleWaveForm;
    //             z = false;
    //             return kScheduleWaveForm;
    //         } else {
    //             next_duration = GetNextDuration(short_addr, z, next_task_id);
    //             zlog_debug(zbt, "[%d:%x] no need for wave", id, short_addr);
    //             return kScheduleWrongTime;
    //         }
    //     } 
    //     else {                
    //         if (slice_sensor_id_[nth_wave_slice] == 0) { // idle time 
    //             zlog_debug(zbt, "[%d:%x] in idle time", id, short_addr);
    //             if (trigger_wave_record_.find(short_addr) != trigger_wave_record_.end()) {
    //                 auto iter = trigger_wave_record_.find(short_addr);
    //                 if (iter->second.first != 0) {
    //                     current_request_ = kScheduleWaveForm;
    //                     z = true;
    //                     zlog_debug(zbt, "[%d:%x] trigger z wave time", id, short_addr);
    //                     iter->second.first = 0;
    //                     WriteTriggerWaveRecord();
    //                     return kScheduleWaveForm;
    //                 } else if (iter->second.second != 0) {
    //                     current_request_ = kScheduleWaveForm;
    //                     z = false;
    //                     iter->second.second = 0;
    //                     WriteTriggerWaveRecord();
    //                     zlog_debug(zbt, "[%d:%x] trigger xy wave time", id, short_addr);
    //                     return kScheduleWaveForm;
    //                 }
    //             }
                
    //             if (ZRetransferWave(short_addr)) {                    
    //                 zlog_debug(zbt, "[%d:%x] z retransfer wave time", id, short_addr);
    //                 current_request_ = kScheduleWaveForm;
    //                 z = true;
    //                 return kScheduleWaveForm;                    
    //             } else if (ZMissedWave(short_addr)) {
    //                 zlog_debug(zbt, "[%d:%x] z patch wave time", id, short_addr);
    //                 current_request_ = kScheduleWaveForm;   
    //                 z = true;                 
    //                 z_patch_set_.erase(short_addr);                    
    //                 return kScheduleWaveForm;
    //             } else if (XYRetransferWave(short_addr)) {                    
    //                 zlog_debug(zbt, "[%d:%x] xy retransfer wave time", id, short_addr);
    //                 current_request_ = kScheduleWaveForm;
    //                 z = false;
    //                 return kScheduleWaveForm;                    
    //             } else if (XYMissedWave(short_addr)) {
    //                 zlog_debug(zbt, "[%d:%x] xy patch wave time", id, short_addr);
    //                 current_request_ = kScheduleWaveForm;
    //                 xy_patch_set_.erase(short_addr);  
    //                 z = false;                  
    //                 return kScheduleWaveForm;
    //             }              
    //         } 
    //         // wrong time to come
    //         int eigen_send_ts = (id - 1) * 2;
    //         if (eigen_send_ts > 57) {
    //             eigen_send_ts = eigen_send_ts % 57;
    //         }
    //         long available_ts = current_wave_start_ts_ + (nth_eigen_value_slice_ + 1) * eigen_value_send_interval_ + eigen_send_ts;
    //         next_duration = available_ts - current_ts_;
    //         if (next_duration < 10 || next_duration > eigen_value_send_interval_) {
    //             zlog_debug(zbt, "[%d:%x] invalid next duration:%d, adjust to 120", id, short_addr, next_duration);
    //             next_duration = 120;
    //         }
    //         next_task_id = kScheduleEigenValue;
    //         zlog_debug(zbt, "[%d:%x] wrong time in wave slice, next feature send utc time:[%s], duration:%d", id, short_addr, GetUTCTime(available_ts).c_str(), next_duration);                
    //         return kScheduleWrongTime;                
    //     }        
    // }
}

long SensorScheduler::CalcNextTimestamp(int id, uint16_t short_addr, bool &z, int& next_task_id) {
    z = false;
    if (ts_in_eigen_slice_) {
        if (current_schedule_status_ == kScheduleStatusDebug) {
            if (debug_list_.count(short_addr) == 0) {
                next_task_id = kScheduleEigenValue;
                return GetDebugUpgradeNextTS(short_addr);
            } else {
                // 计算发送波形是否在后面的波形时间窗口中
                int nth_wave_slice = nth_eigen_value_slice_ * wave_slice_num_per_eigen_interval_ + 1;    
                for (int i = nth_wave_slice; i <= nth_wave_slice + wave_slice_num_per_eigen_interval_; ++i) {
                    if (debug_slice_sensor_id_[i] == short_addr) {
                        long nxt_ts = current_wave_start_ts_ + nth_eigen_value_slice_ * eigen_value_send_interval_ + 60 + (i-nth_wave_slice)*60; 
                        next_task_id = kScheduleWaveForm;
                        z = true;
                        zlog_debug(zbt, "[%d:%x] debug wave", id, short_addr);
                        return nxt_ts;
                    }
                }
                zlog_debug(zbt, "[%d:%x] check wave_slice_num_per_eigen_interval_:%d, nth_wave_slice:%d", id, short_addr, wave_slice_num_per_eigen_interval_, nth_wave_slice);
                next_task_id = kScheduleEigenValue;
                return GetDebugUpgradeNextTS(short_addr);               
            }
        } else if (current_schedule_status_ == kScheduleStatusUpgrade) {
            if (upgrade_list_.count(short_addr) == 0) {
                next_task_id = kScheduleEigenValue;
                return GetDebugUpgradeNextTS(short_addr);
            } else {
                // 计算升级是否在后面的波形时间窗口中
                // int nth_wave_slice = nth_eigen_value_slice_ * wave_slice_num_per_eigen_interval_ + 1;    
                // for (int i = nth_wave_slice; i <= nth_wave_slice + wave_slice_num_per_eigen_interval_; ++i) {
                //     if (upgrade_slice_sensor_id_[i] == short_addr) {
                //         long nxt_ts = current_wave_start_ts_ + nth_eigen_value_slice_ * eigen_value_send_interval_ + 60 + (i-nth_wave_slice)*60; 
                //         next_task_id = kScheduleUpgrade;
                //         return nxt_ts;
                //     }
                // }
                next_task_id = kScheduleEigenValue;
                return GetDebugUpgradeNextTS(short_addr);
            }
        }
        int forward_wave_slice_num = nth_eigen_value_slice_ * wave_slice_num_per_eigen_interval_;
        auto wave_slice_iter = sensor_id_nth_slice_.find(id);
        if (wave_slice_iter == sensor_id_nth_slice_.end()) {
            zlog_warn(zbt, "[Nxt] invaild id:%d, not find wave slice id", id);
            long available_ts = current_wave_start_ts_ + eigen_value_send_interval_ + nth_eigen_slice_ * eigen_value_send_duration_;
            zlog_warn(zbt, "[Nxt] [%d] next feature send utc time:[%s]", id, GetUTCTime(available_ts).c_str());
            return available_ts;
        }
        int first_wave_slice = wave_slice_iter->second.first; 
        int second_wave_slice = wave_slice_iter->second.second;
        long send_wave_ts = 0;
        long available_ts = 0; 
        next_task_id = kScheduleWaveForm;
        wave_feature_set_inst::instance().GetWaveCfg(short_addr, g_x, g_y, g_z);
        if (g_x || g_y || g_z) {
            if (g_z && first_wave_slice > forward_wave_slice_num && 
                first_wave_slice <= forward_wave_slice_num + wave_slice_num_per_eigen_interval_) {
                // 发送波的时间窗也在本次特征值发送间隔中
                for (int i = forward_wave_slice_num+1; i <= forward_wave_slice_num + wave_slice_num_per_eigen_interval_; ++i) {
                    if (first_wave_slice == i) {
                        send_wave_ts = current_wave_start_ts_ + nth_eigen_value_slice_ * eigen_value_send_interval_ + 60 + (i - forward_wave_slice_num - 1) * 60;                        
                        next_task_id = kScheduleWaveForm;
                        zlog_debug(zbt, "[Nxt] [%d:%x] send z wave time:[%s], task id:%d", id, short_addr, GetUTCTime(send_wave_ts).c_str(), next_task_id);
                        z = true;
                        break;
                    }
                }
            } else if ((g_x || g_y) && second_wave_slice > forward_wave_slice_num && 
                second_wave_slice <= forward_wave_slice_num + wave_slice_num_per_eigen_interval_) {
                // 发送波的时间窗也在本次特征值发送间隔中
                for (int i = forward_wave_slice_num+1; i <= forward_wave_slice_num + wave_slice_num_per_eigen_interval_; ++i) {
                    if (second_wave_slice == i) {
                        send_wave_ts = current_wave_start_ts_ + nth_eigen_value_slice_ * eigen_value_send_interval_ + 60 + (i - forward_wave_slice_num - 1) * 60;                        
                        next_task_id = kScheduleWaveForm;
                        zlog_debug(zbt, "[Nxt] [%d:%x] send xy wave time:[%s], task id:%d", id, short_addr, GetUTCTime(send_wave_ts).c_str(), next_task_id);
                        z = false;
                        break;
                    }
                }
            } 

            if (send_wave_ts == 0) {
                if (trigger_wave_record_.find(short_addr) != trigger_wave_record_.end()) {
                    auto iter = trigger_wave_record_.find(short_addr);
                    if (iter->second.first != 0 || iter->second.second != 0) {
                        for (int i = forward_wave_slice_num+1; i <= forward_wave_slice_num + wave_slice_num_per_eigen_interval_; ++i) {
                            if (slice_sensor_id_[i] == 0 || short_addr_map_.find(slice_sensor_id_[i]) == short_addr_map_.end()) {
                                send_wave_ts = current_wave_start_ts_ + nth_eigen_value_slice_ * eigen_value_send_interval_ + 60 + (i - forward_wave_slice_num - 1) * 60;                                
                                if (free_slice_ocuppied_.count(send_wave_ts) == 0) {
                                    available_ts = send_wave_ts;
                                    free_slice_ocuppied_.insert(available_ts);  
                                    next_task_id = kScheduleWaveForm;
                                    if (iter->second.first != 0) {
                                        z = true;
                                        iter->second.first = 0;
                                    } else {
                                        z = false;
                                        iter->second.second = 0;
                                    }
                                    WriteTriggerWaveRecord();                                  
                                    zlog_debug(zbt, "[Nxt][%d:%x] %d nth free wave slice will be used to trigger z : %d wave, utc time:[%s]", id, short_addr, i+forward_wave_slice_num, z, GetUTCTime(available_ts).c_str());
                                    break;
                                } else {
                                    send_wave_ts = 0;
                                } 
                                break;
                            }
                        }                        
                    }
                }
            }
            
            if (send_wave_ts == 0) {
                if (g_z && !ZMissedWave(short_addr) && z_success_set_.count(short_addr) == 0) {
                    // add for patch wave
                    int nth_wave_slice = nth_eigen_value_slice_ * wave_slice_num_per_eigen_interval_ + nth_wave_slice_ + 1;
                    auto wave_slice_iter = sensor_id_nth_slice_.find(id);
                    if (wave_slice_iter != sensor_id_nth_slice_.end()) {
                        if (nth_wave_slice > wave_slice_iter->second.first) {
                            if (z_success_set_.count(short_addr) == 0 && !ZRetransferWave(short_addr)) {
                                zlog_debug(zbt, "[Nxt] [%d:%x] add z to patch set", id, short_addr);
                                z_patch_set_.insert(short_addr);
                                z = true;
                            }
                        }
                    }
                } else if ((g_x || g_y) && !XYMissedWave(short_addr) && xy_success_set_.count(short_addr) == 0) {
                    // add for patch wave
                    int nth_wave_slice = nth_eigen_value_slice_ * wave_slice_num_per_eigen_interval_ + nth_wave_slice_ + 1;
                    auto wave_slice_iter = sensor_id_nth_slice_.find(id);
                    if (wave_slice_iter != sensor_id_nth_slice_.end()) {
                        if (nth_wave_slice > wave_slice_iter->second.second) {
                            if (xy_success_set_.count(short_addr) == 0 && !XYRetransferWave(short_addr)) {
                                zlog_debug(zbt, "[Nxt] [%d:%x] add xy to patch set", id, short_addr);
                                xy_patch_set_.insert(short_addr);
                                z = false;
                            }
                        }
                    }
                }
                
                if (ZRetransferWave(short_addr) || XYRetransferWave(short_addr) || ZMissedWave(short_addr) || XYMissedWave(short_addr)) {
                    for (int i = 1; i <= wave_slice_num_per_eigen_interval_; ++i) {
                        if (slice_sensor_id_[i+forward_wave_slice_num] == 0  || short_addr_map_.find(slice_sensor_id_[i+forward_wave_slice_num]) == short_addr_map_.end()) {
                            // 判断此空闲位置是否被占用
                            long current_wave_slice_ts = current_wave_start_ts_ + nth_eigen_value_slice_ * eigen_value_send_interval_ + 60 + (i-1) * seconds_per_wave_slice_;
                            if (free_slice_ocuppied_.count(current_wave_slice_ts) == 0) {
                                available_ts = current_wave_slice_ts;
                                free_slice_ocuppied_.insert(available_ts);
                                if (ZRetransferWave(short_addr) || ZMissedWave(short_addr)) {
                                    if (ZRetransferWave(short_addr)) {
                                        zlog_debug(zbt, "[Nxt] [%d:%x] retransfer z wave", id, short_addr);
                                    } else {
                                        zlog_debug(zbt, "[Nxt] [%d:%x] missed z wave", id, short_addr);
                                    }
                                    z = true;
                                } else {
                                    if (XYRetransferWave(short_addr)) {
                                        zlog_debug(zbt, "[Nxt] [%d:%x] retransfer xy wave ", id, short_addr);
                                    } else {
                                        zlog_debug(zbt, "[Nxt] [%d:%x] missed xy wave ", id, short_addr);
                                    }
                                    z = false;
                                }
                                zlog_debug(zbt, "[Nxt][%d:%x] %d nth free wave slice will be used to retransfer or patch z:%d wave, utc time:[%s]", id, short_addr, i+forward_wave_slice_num, z, GetUTCTime(available_ts).c_str());
                                break;
                            }
                        }
                    }
                } 
            }
        }
          
        if (send_wave_ts > 0 && available_ts > 0) {
            long min_ts = std::min(send_wave_ts, available_ts);           
            zlog_debug(zbt, "[Nxt] [%d:%x] next feature send utc time1:%s", id, short_addr, GetUTCTime(min_ts).c_str());
            return min_ts;
        }        
        if (send_wave_ts + available_ts > 0) {
            long max_ts = std::max(send_wave_ts, available_ts);
            zlog_debug(zbt, "[Nxt] [%d:%x] next feature send utc time2:%s", id, short_addr, GetUTCTime(max_ts).c_str());
            return max_ts;
        }

        // for (int i = forward_wave_slice_num+1; i <= forward_wave_slice_num + wave_slice_num_per_eigen_interval_; ++i) {
        //     if (slice_sensor_id_[i] == 0) { // idle time 
        //         send_wave_ts = current_wave_start_ts_ + nth_eigen_value_slice_ * eigen_value_send_interval_ + 60 + (i - forward_wave_slice_num - 1) * 60;                                
        //         if (free_slice_ocuppied_.count(send_wave_ts) != 0) {
        //             continue;
        //         }
        //         zlog_debug(zbt, "[%d:%x] in idle time for trigger wave", id, short_addr);
        //         if (trigger_wave_record_.find(short_addr) != trigger_wave_record_.end()) {
        //             auto iter = trigger_wave_record_.find(short_addr);
        //             if (iter->second.first != 0) {
        //                 current_request_ = kScheduleWaveForm;
        //                 z = true;
        //                 zlog_debug(zbt, "[%d:%x] trigger z wave time", id, short_addr);
        //                 iter->second.first = 0;
        //                 next_task_id = kScheduleWaveForm;
        //                 free_slice_ocuppied_.insert(send_wave_ts); 
        //                 WriteTriggerWaveRecord();
        //                 return send_wave_ts;
        //             } else if (iter->second.second != 0) {
        //                 current_request_ = kScheduleWaveForm;
        //                 z = false;
        //                 iter->second.second = 0;
        //                 WriteTriggerWaveRecord();
        //                 next_task_id = kScheduleWaveForm;
        //                 zlog_debug(zbt, "[%d:%x] trigger xy wave time", id, short_addr);
        //                 free_slice_ocuppied_.insert(send_wave_ts); 
        //                 return send_wave_ts;
        //             }
        //         } else {
        //             break;
        //         }
        //     }
        // }         
    } else {
        if (current_schedule_status_ == kScheduleStatusDebug) {
            if (debug_list_.count(short_addr) == 0) {
                next_task_id = kScheduleEigenValue;
                return GetDebugUpgradeNextTS(short_addr);
            } else {
                // 计算发送波形是否在后面的波形时间窗口中
                // int nth_wave_slice = nth_eigen_value_slice_ * wave_slice_num_per_eigen_interval_ + nth_wave_slice_ + 2;    
                // for (int i = nth_wave_slice; i <= nth_wave_slice + wave_slice_num_per_eigen_interval_; ++i) {
                //     if (debug_slice_sensor_id_[i] == short_addr) {
                //         long nxt_ts = current_wave_start_ts_ + nth_eigen_value_slice_ * eigen_value_send_interval_ + 60 + (i-nth_eigen_value_slice_ * wave_slice_num_per_eigen_interval_-1)*60; 
                //         next_task_id = kScheduleWaveForm;
                //         z = true;
                //         return nxt_ts;
                //     }
                // }
                next_task_id = kScheduleEigenValue;
                return GetDebugUpgradeNextTS(short_addr);               
            }
        } else if (current_schedule_status_ == kScheduleStatusUpgrade) {
            if (upgrade_list_.count(short_addr) == 0) {
                next_task_id = kScheduleEigenValue;
                return GetDebugUpgradeNextDuration(short_addr);
            } else {
                // 计算升级是否在后面的波形时间窗口中
                int nth_wave_slice = nth_eigen_value_slice_ * wave_slice_num_per_eigen_interval_ + 2;    
                for (int i = nth_wave_slice; i <= nth_wave_slice + wave_slice_num_per_eigen_interval_; ++i) {
                    if (upgrade_slice_sensor_id_[i] == short_addr) {
                        long nxt_ts = current_wave_start_ts_ + nth_eigen_value_slice_ * eigen_value_send_interval_ + 60 + (i-nth_eigen_value_slice_ * wave_slice_num_per_eigen_interval_-1)*60; 
                        next_task_id = kScheduleUpgrade;
                        return nxt_ts;
                    }
                }
                next_task_id = kScheduleEigenValue;
            }
        }
    }

    // 如果是在当前波形时间窗中，不管是空闲时间窗，还是发送波形的时间窗，下一个时间窗是特征值    
    int eigen_send_ts = (id - 1) * 4;
    if (eigen_send_ts > 57) {
        eigen_send_ts = eigen_send_ts % 57;
    }
    next_task_id = kScheduleEigenValue;
    long available_ts = current_wave_start_ts_ + (nth_eigen_value_slice_ + 1)* eigen_value_send_interval_ + eigen_send_ts;
    zlog_debug(zbt, "[Nxt] [%d:%x] next feature send utc time3:[%s], task id:%d", id, short_addr, GetUTCTime(available_ts).c_str(), next_task_id);
    return available_ts;
}

int SensorScheduler::GetNextDuration(uint16_t short_addr, bool &z, int &next_task_id) {
    int id = 0;
    auto iter = short_addr_map_.find(short_addr);
    if (iter == short_addr_map_.end()) {
        zlog_error(zbt, "cannot find id for short_addr %x", short_addr);
        next_task_id = kScheduleEigenValue;
        return 0;            
    } else {
        id = iter->second;
    }
    current_ts_ = GetLocalTs();
    CleanIdleOccupiedSet(current_ts_);

    nth_wave_start_slice_ = (current_ts_ - start_timestamp_) / wave_form_send_interval_;
    current_wave_start_ts_ = nth_wave_start_slice_ * wave_form_send_interval_ + start_timestamp_;
    seconds_in_current_wave_slice_ = current_ts_ - current_wave_start_ts_;
    nth_eigen_value_slice_ = seconds_in_current_wave_slice_ / eigen_value_send_interval_;
    seconds_in_current_eigen_slice_ = seconds_in_current_wave_slice_ % eigen_value_send_interval_;
    ts_in_eigen_slice_ = false;

    if (seconds_in_current_eigen_slice_ < 57) {
        ts_in_eigen_slice_ = true;
    }

    // if (ts_in_eigen_slice_) {
    //     // nth_eigen_slice_ = (seconds_in_current_eigen_slice_ + 2) / eigen_value_send_duration_;
    //     if (nth_eigen_value_slice_ == 0) {
    //         ClearFailureSuccessMap();
    //     }
    // }

    zlog_debug(zbt, "[%d:%x] ts:%ld, current utc:%s, nth eigen_value slice:%d, seconds in eigen slice:%d, eigen slice:%d", 
               id, short_addr, current_ts_, GetUTCTime(current_ts_).c_str(), nth_eigen_value_slice_+1, seconds_in_current_eigen_slice_, ts_in_eigen_slice_);
    // long current_ts = GetLocalTs(); 
    long next_ts = CalcNextTimestamp(id, short_addr, z, next_task_id);
    int duration = next_ts - current_ts_;
    if (duration < 10) {
        zlog_debug(zbt, "[%d:%x] [Nxt] exception duration:%d, adjust to 25", id, short_addr,duration);
        duration = 25;
        return duration;
    } else if (duration > eigen_value_send_interval_) {
        zlog_debug(zbt, "[%d:%x] [Nxt] exception duration:%d, adjust to 120", id, short_addr,duration);
        duration = 120;
        return duration;
    }
    zlog_debug(zbt, "[Nxt] [%d:%x] next duration is %d,next_task_id = %d,z = %d,ScheduleStatus = %d", id, short_addr, duration,next_task_id,z,GetScheduleStatus());

    return duration; 
}

int SensorScheduler::TriggerWave(uint16_t short_addr, uint8_t z, uint8_t xy) { 
    zlog_debug(zbt, "[%x] trigger wave z:%d, xy:%d", short_addr, z, xy);
    std::pair<uint8_t, uint8_t> p = {z, xy};
    trigger_wave_record_[short_addr] = p;
    return 0; 
}

// 仅返回下一次特征值的时间，用于Debug/Upgrade模式
int SensorScheduler::GetDebugUpgradeNextDuration(uint16_t short_addr) {
    int id = 0;
    auto iter = short_addr_map_.find(short_addr);
    if (iter == short_addr_map_.end()) {
        zlog_error(zbt, "cannot find id for short_addr %x", short_addr);
        return 0;            
    } else {
        id = iter->second;
    }
    long current_ts = GetLocalTs(); 
    int eigen_send_ts = (id - 1) * 2;
    if (eigen_send_ts > 57) {
        eigen_send_ts = eigen_send_ts % 57;
    }
    long available_ts = current_wave_start_ts_ + (nth_eigen_value_slice_ + 1)* eigen_value_send_interval_ + eigen_send_ts;
    zlog_debug(zbt, "[Nxt] [%d:%x] next feature send utc time4:[%s]", id, short_addr, GetUTCTime(available_ts).c_str());

    int duration = available_ts - current_ts;
    if (duration < 10) {
        zlog_debug(zbt, "[%d:%x] [Nxt] exception duration:%d, adjust to 25", id, short_addr,duration);
        duration = 25;
        return duration;
    } else if (duration > eigen_value_send_interval_) {
        zlog_debug(zbt, "[%d:%x] [Nxt] exception duration:%d, adjust to 120", id, short_addr,duration);
        duration = 120;
        return duration;
    }
    zlog_debug(zbt, "[Nxt] [%d:%x] next duration is %d", id, short_addr, duration);
    return duration; 
}

long SensorScheduler::GetDebugUpgradeNextTS(uint16_t short_addr) {
    int id = 0;
    auto iter = short_addr_map_.find(short_addr);
    if (iter == short_addr_map_.end()) {
        zlog_warn(zbt, "cannot find id for short_addr %x", short_addr);
        return 0;            
    } else {
        id = iter->second;
    }
    // long current_ts = GetLocalTs(); 
    int eigen_send_ts = (id - 1) * 2;
    if (eigen_send_ts > 57) {
        eigen_send_ts = eigen_send_ts % 57;
    }
    long available_ts = current_wave_start_ts_ + (nth_eigen_value_slice_ + 1)* eigen_value_send_interval_ + eigen_send_ts;
    zlog_debug(zbt, "[Nxt] [%d:%x] next feature send utc time4:[%s]", id, short_addr, GetUTCTime(available_ts).c_str());
    return available_ts;
}

SensorScheduler::SensorScheduler() {
    ReadTriggerWaveRecord();
    wave_resend_num_ = 3;
    current_schedule_status_ = get_schedule_status();
    slice_sensor_id_ = NULL;
    zlog_debug(zbt, "current schedule status:%s", get_status_desc(current_schedule_status_).c_str());
    std::ifstream schedule_file(SCHEDULE_CONFIG);
    bool configed = false;
    if (schedule_file.good()) {
        zlog_info(zbt, "exist configuration file");
        Json::Reader reader;
        Json::Value root;
        if (!reader.parse(schedule_file, root, false)) {
            zlog_error(zbt, "invalid format, fail to parse %s", SCHEDULE_CONFIG);
            schedule_file.close();
            goto init_config;
        }
        schedule_file.close();
        if (!root.isObject()) {
            zlog_error(zbt, "invalid format, not an object: %s", SCHEDULE_CONFIG);
            goto init_config;
        }
        configed = true;
        start_timestamp_ = std::stol(root["schedule_start_timestamp"].asString()); 
        start_ts_str_ = root["schedule_start_time"].asString();
        long current_ts = GetLocalTs();
        if (current_ts < start_timestamp_) {
            zlog_warn(zbt, "current ts: %ld less than start ts: %ld, go to adjust it", current_ts, start_timestamp_);
            start_timestamp_ = current_ts;
            start_ts_str_ = GetUTCTime(current_ts);
            root["schedule_start_timestamp"] = std::to_string(start_timestamp_);
            root["schedule_start_time"] = start_ts_str_;

            Json::StyledStreamWriter streamWriter;
            std::ofstream out_file(SCHEDULE_CONFIG);
            streamWriter.write(out_file, root);
            out_file.close();
        }
        
        eigen_value_send_interval_ = root["eigen_value_send_interval"].asInt();
        // eigen_value_send_duration_ = root["eigen_value_send_duration"].asInt();
        wave_form_send_interval_ = root["wave_form_send_interval"].asInt();
        wave_form_send_duration_ = 60; //root["wave_form_send_duration"].asInt();
        max_sensor_num_ = root["max_sensor_num"].asInt();
        available_slice_ = root["available_slice"].asInt();
        free_slice_ = root["free_slice"].asInt();
        slice_sensor_id_ = new int[available_slice_+1];
        slice_is_z_wave_ = new uint8_t[available_slice_+1];
        for (int i = 0; i <= available_slice_; ++i) {
            slice_sensor_id_[i] = 0;
        }

        int xy_wave_start_id = 0;
        if (max_sensor_num_ <= 4) {
            xy_wave_start_id = 5; // 防止z,xy在时间上排得太近
        } else {
            xy_wave_start_id = max_sensor_num_ + 1;
        }

        if (max_sensor_num_ == 2 && free_slice_ == 0) {
            xy_wave_start_id = 2;
        }

        if (max_sensor_num_ == 1 && free_slice_ == 0) {
            if (available_slice_ == 2) {
                xy_wave_start_id = 1;
            } else if (available_slice_ == 4) {
                xy_wave_start_id = 2;
            }
        }
        for (int i = 1; i <= max_sensor_num_; ++i) { 
            sensor_id_nth_slice_[i] =  { i, i + xy_wave_start_id };
            slice_sensor_id_[i] = i;
            slice_sensor_id_[i+xy_wave_start_id] = i;  
            slice_is_z_wave_[i] = true;
            slice_is_z_wave_[i + xy_wave_start_id] = false;     
        } 

        eigen_value_slice_total_seconds_ = 60; // eigen_value_send_duration_ * max_sensor_num_;
        int rest_duration = eigen_value_send_interval_ - eigen_value_slice_total_seconds_;
        wave_slice_num_per_eigen_interval_ = rest_duration / wave_form_send_duration_;
        seconds_per_wave_slice_ = rest_duration / wave_slice_num_per_eigen_interval_;
    } 

init_config:
    if (!configed) {
        UseDefaultConfig();
    }
    short_addr_map_.clear();
    ShortAddrCfg::ReadCfg(short_addr_map_);    

    // read upgrade config file: UPGRADE_CONFIG
    UpgradeCfg::ReadCfg(upgrade_);    

    // read config update file: CONFIG_UPDATE
    UpdateCfg::ReadCfg(update_);  

    if (current_schedule_status_ == kScheduleStatusDebug) {
        std::ifstream debug_schedule_file(DEBUG_SCHEDULE_CONFIG);
        if (debug_schedule_file.good()) {
            Json::Reader reader;
            Json::Value root;
            if (!reader.parse(debug_schedule_file, root, false)) {
                zlog_error(zbt, "invalid format, fail to parse %s", DEBUG_SCHEDULE_CONFIG);
                zlog_warn(zct, "due to invalid debug file, status change to normal");
                SetScheduleStatus(kScheduleStatusNormal);
                return;
            }
            debug_schedule_file.close();
            if (!root.isArray()) {
                zlog_error(zbt, "invalid format, not an object: %s", DEBUG_SCHEDULE_CONFIG);
                zlog_warn(zct, "due to invalid debug file, status change to normal");                
                SetScheduleStatus(kScheduleStatusNormal);
                return;
            } else {
                debug_slice_sensor_id_ = new uint16_t[available_slice_+1];
                for (int i = 0; i <= available_slice_; ++i) {
                    debug_slice_sensor_id_[i] = 0;
                }
                int i = 1;
                for (const auto& value : root) {
                    std::cout << value.asInt() << std::endl;  // 转换并输出每个整数
                    zlog_debug(zbt, "[%d] debug sensor:%x", value.asInt());
                    debug_slice_sensor_id_[i] = value.asInt();
                    if (debug_slice_sensor_id_[i] != 0) {
                        debug_list_.insert(debug_slice_sensor_id_[i]);
                    }
                    ++i;
                }
                if (i == 1) {
                    zlog_warn(zbt, "due to empty debug file, status change to normal");
                    if (debug_slice_sensor_id_ != NULL) {
                        delete []debug_slice_sensor_id_;
                        debug_slice_sensor_id_ = NULL;
                    }
                    SetScheduleStatus(kScheduleStatusNormal);
                    return;
                }
            }

        } else {
            zlog_warn(zbt, "due to no debug file, status change to normal");
            SetScheduleStatus(kScheduleStatusNormal);
            return;
        }
    } else if (current_schedule_status_ == kScheduleStatusUpgrade) {
        std::ifstream upgrade_schedule_file(UPGRADE_SCHEDULE_CONFIG);
        if (upgrade_schedule_file.good()) {
            Json::Reader reader;
            Json::Value root;
            if (!reader.parse(upgrade_schedule_file, root, false)) {
                zlog_error(zbt, "invalid format, fail to parse %s", UPGRADE_SCHEDULE_CONFIG);
                zlog_warn(zbt, "due to invalid upgrade file, status change to normal");
                SetScheduleStatus(kScheduleStatusNormal);
                return;
            }
            upgrade_schedule_file.close();
            if (!root.isArray()) {
                zlog_error(zbt, "invalid format, not an object: %s", UPGRADE_SCHEDULE_CONFIG);
                zlog_warn(zbt, "due to invalid upgrade file, status change to normal");                
                SetScheduleStatus(kScheduleStatusNormal);
                return;
            } else {
                upgrade_slice_sensor_id_ = new uint16_t[available_slice_+1];
                for (int i = 0; i <= available_slice_; ++i) {
                    upgrade_slice_sensor_id_[i] = 0;
                }
                int i = 1;
                for (const auto& value : root) {
                    std::cout << value.asInt() << std::endl;  // 转换并输出每个整数
                    zlog_debug(zbt, "[%d] upgrade sensor:%x", value.asInt());
                    upgrade_slice_sensor_id_[i] = value.asInt();
                    if (upgrade_slice_sensor_id_[i] > 0) {
                        upgrade_list_.insert(upgrade_slice_sensor_id_[i]);
                    }                    
                    ++i;
                }
                if (i == 1) {
                    zlog_warn(zbt, "due to empty upgrade file, status change to normal");
                    if (upgrade_slice_sensor_id_ != NULL) {
                        delete []upgrade_slice_sensor_id_;
                        upgrade_slice_sensor_id_ = NULL;
                    }
                    SetScheduleStatus(kScheduleStatusNormal);
                    return;
                }
            }

        } else {
            zlog_warn(zbt, "due to no upgrade file, status change to normal");
            SetScheduleStatus(kScheduleStatusNormal);
            return;
        }
    }
    zlog_warn(zbt,"init end ");
}

int SensorScheduler::WaveError(uint16_t short_addr, bool z) {    
    if (wave_resend_num_ <= 0) {
        zlog_debug(zbt, "[WaveError][%x] no config to resend wave", short_addr);        
        return -1;
    }

    if (z) {
        auto iter = z_failure_map_.find(short_addr);
        if (iter == z_failure_map_.end()) {
            z_failure_map_[short_addr] = wave_resend_num_; // 重试次数
            zlog_debug(zbt, "[WaveError][%x] z will try %d times", short_addr, wave_resend_num_);
            return 0;
        }    
        if (iter->second == 0) {
            zlog_warn(zbt, "[WaveError][%x] z no try times", short_addr);
            z_failure_map_.erase(short_addr);
            return -1;
        }
        iter->second = iter->second - 1;
        zlog_debug(zbt, "[WaveError][%x] z remain try %d times", short_addr, iter->second);
    } else {
        auto iter = xy_failure_map_.find(short_addr);
        if (iter == xy_failure_map_.end()) {
            xy_failure_map_[short_addr] = wave_resend_num_; // 重试次数
            zlog_debug(zbt, "[WaveError][%x] xy will try %d times", short_addr, wave_resend_num_);
            return 0;
        }    
        if (iter->second == 0) {
            zlog_debug(zct, "[WaveError][%x] xy no try times", short_addr);
            xy_failure_map_.erase(short_addr);
            return -1;
        }
        iter->second = iter->second - 1;
        zlog_debug(zbt, "[WaveError][%x] xy remain try %d times", short_addr, iter->second);
    }
    return 0;
}

bool SensorScheduler::ZRetransferWave(uint16_t short_addr) {
    auto iter = z_failure_map_.find(short_addr);
    if (iter != z_failure_map_.end()) { 
        return true;
    }    

    return false;
}

bool SensorScheduler::XYRetransferWave(uint16_t short_addr) {
    auto iter = xy_failure_map_.find(short_addr);
    if (iter != xy_failure_map_.end()) { 
        return true;
    }

    return false;
}

bool SensorScheduler::ZMissedWave(uint16_t short_addr) { 
    if (z_patch_set_.count(short_addr) > 0) {
        return true;
    }    

    return false; 
}

bool SensorScheduler::XYMissedWave(uint16_t short_addr) { 
    if (xy_patch_set_.count(short_addr) > 0) {
        return true;
    }

    return false; 
}

void SensorScheduler::WaveSuccess(uint16_t short_addr, bool z) {
    zlog_debug(zbt, "[%x] wave z:%d success", short_addr, z);
    if (z) {
        z_success_set_.insert(short_addr);
        z_patch_set_.erase(short_addr);
        auto iter = z_failure_map_.find(short_addr);
        if (iter != z_failure_map_.end()) {        
            zlog_debug(zbt, "[WaveSuccess][%x] try %d times success", short_addr, 4 - iter->second);
            z_failure_map_.erase(short_addr);
            return;
        }
    } else {
        xy_success_set_.insert(short_addr);
        xy_patch_set_.erase(short_addr);
        auto iter = xy_failure_map_.find(short_addr);
        if (iter != xy_failure_map_.end()) {        
            zlog_debug(zbt, "[WaveSuccess][%x] try %d times success", short_addr, 4 - iter->second);
            xy_failure_map_.erase(short_addr);
            return;
        }  
    }
    
    return;
}

void SensorScheduler::ClearFailureSuccessMap() {
    z_failure_map_.clear();
    z_success_set_.clear();
    z_patch_set_.clear();
    xy_failure_map_.clear();
    xy_success_set_.clear();
    xy_patch_set_.clear();
}

int SensorScheduler::GetAvailableId(uint16_t short_addr) {
    int max_support_sensor[96] = {0}; // 5分钟里面有4分钟用于传输波形，2小时有96个
    for (auto it = short_addr_map_.begin(); it != short_addr_map_.end(); ++it) {
        max_support_sensor[it->second] = 1;
    }
    int available_id = 0;
    for (int i = 1; i < 96; ++i) {
        if (max_support_sensor[i] == 0) {
            available_id = i;
            break;
        }
    }
    zlog_warn(zbt, "[GetAvailableId][%d] short addr : %x", available_id, short_addr);
    short_addr_map_[short_addr] = available_id;
    ShortAddrCfg::WriteCfg(short_addr_map_);
    return available_id;
}

int SensorScheduler::WriteScheduleCfg(long &ts, std::string &world_time) {
    Json::Value root; 
           
    root["schedule_start_timestamp"] = std::to_string(ts);
    root["schedule_start_time"] = world_time;
    root["eigen_value_send_interval"] = eigen_value_send_interval_;
    root["wave_form_send_interval"] = wave_form_send_interval_;
    root["max_sensor_num"] = max_sensor_num_;
    root["available_slice"] = available_slice_;
    root["free_slice"] = free_slice_;

    if (slice_sensor_id_ != NULL) {
        delete [] slice_sensor_id_;
        slice_sensor_id_ = NULL;
    }

    if (slice_is_z_wave_ != NULL) {
        delete [] slice_is_z_wave_;
        slice_is_z_wave_ = NULL;
    }

    slice_sensor_id_ = new int[available_slice_+1];
    slice_is_z_wave_ = new uint8_t[available_slice_+1];
    for (int i = 0; i <= available_slice_; ++i) {
        slice_sensor_id_[i] = 0;
    }

    int xy_wave_start_id = 0;
    if (max_sensor_num_ <= 4) {
        xy_wave_start_id = 5; // 防止z,xy在时间上排得太近
    } else {
        xy_wave_start_id = max_sensor_num_ + 1;
    }
    
    if (max_sensor_num_ == 2 && free_slice_ == 0) {
        xy_wave_start_id = 2;
    }

    if (max_sensor_num_ == 1 && free_slice_ == 0) {
        if (available_slice_ == 2) {
            xy_wave_start_id = 1;
        } else if (available_slice_ == 4) {
            xy_wave_start_id = 2;
        }
    }

    for (int i = 1; i <= max_sensor_num_; ++i) { 
        sensor_id_nth_slice_[i] =  { i, i + xy_wave_start_id };
        slice_sensor_id_[i] = i;
        slice_sensor_id_[i + xy_wave_start_id] = i; 
        slice_is_z_wave_[i] = true;
        slice_is_z_wave_[i + xy_wave_start_id] = false;     
    } 

    Json::StyledStreamWriter streamWriter;
    std::ofstream out_file(SCHEDULE_CONFIG);
    streamWriter.write(out_file, root);
    out_file.close();
    return 0;
}

int SensorScheduler::Config(int eigen_value_send_interval, int wave_form_send_interval, int &max_sensor_num, 
                            int wave_resend_num, std::string &error_msg) {
    int available_slice = 0;
    int free_slice = 0;
    int ret = CalcAvailableSlice(eigen_value_send_interval,
                         wave_form_send_interval,                         
                         max_sensor_num,
                         available_slice,
                         free_slice,
                         error_msg);
    if (ret != 0) {
        return ret;
    }

    eigen_value_send_interval_ = eigen_value_send_interval;
    eigen_value_send_duration_ = 2;
    wave_form_send_interval_ = wave_form_send_interval;
    wave_form_send_duration_ = 60;
    max_sensor_num_ = max_sensor_num;  
    wave_resend_num_ = wave_resend_num;
    available_slice_ = available_slice;
    free_slice_ = free_slice; 

    eigen_value_slice_total_seconds_ = 60;
    int rest_duration = eigen_value_send_interval_ - eigen_value_slice_total_seconds_;
    wave_slice_num_per_eigen_interval_ = rest_duration / wave_form_send_duration_;
    seconds_per_wave_slice_ = rest_duration / wave_slice_num_per_eigen_interval_;

    std::string world_time;
    long current_ts = GetLocalWorldTime(world_time);

    ret = WriteScheduleCfg(current_ts, world_time);
    if (ret != 0) {
        return ret;
    }
    start_timestamp_ = current_ts;
    start_ts_str_ = world_time;
    return 0;
}

// 特征值发送间隔300秒，波形发送间隔为7200秒
// 一次特征值发送时长为2秒，波形发送时长为60秒，所有特征值在特征值发送间隔的第1分钟中的第3秒至第57秒全部完成
int SensorScheduler::CalcAvailableSlice(int eigen_value_send_interval, int wave_form_send_interval,                                        
                                        int &max_sensor_num, int &available_slice, int &free_slice,
                                        std::string &error_msg) {
    // if (max_sensor_num <= 0) {
    //     error_msg = "max_sensor_num:" + std::to_string(max_sensor_num) + " must bigger than 0";
    //     zlog_error(zbt, "%s", error_msg.c_str());
    //     return 1;
    // }

    if (2 > eigen_value_send_interval) {
        error_msg = "invalid max_sensor_num:" + std::to_string(max_sensor_num) + 
                    " * eigen_value_send_duration:" + std::to_string(2) + " > eigen_value_send_interval" + std::to_string(eigen_value_send_interval);        
        zlog_error(zbt, "%s", error_msg.c_str());
        return 2;
    }

    // if (max_sensor_num * 60 * 2 > wave_form_send_interval) { // xy, z分开发送
    //     error_msg = "invalid wave_form_send_duration:" + std::to_string(60) + 
    //                 "* 2 * max_sensor_num:" + std::to_string(max_sensor_num) + " > wave_form_send_interval:" + std::to_string(wave_form_send_interval);        
    //     zlog_error(zbt, "%s", error_msg.c_str());
    //     return 3;
    // }

    if (wave_form_send_interval % eigen_value_send_interval != 0) {
        error_msg = "wave_form_send_interval:" + std::to_string(wave_form_send_interval) + " %% eigen_value_send_interval:" + std::to_string(eigen_value_send_interval) +
                    " != 0";
        zlog_error(zbt, "%s", error_msg.c_str());
        return 4;
    }

    int total_eigen_value_send_duration = 60;
    int rest_duration = eigen_value_send_interval - total_eigen_value_send_duration;
    int slice_per_eigen_value_interval = rest_duration / 60;
    available_slice = wave_form_send_interval / eigen_value_send_interval * slice_per_eigen_value_interval;
    // free_slice = available_slice - max_sensor_num * 2; 
    max_sensor_num =  available_slice / 2;
    // if (free_slice < 0) {
    //     error_msg = "invalid config, available slice:" + std::to_string(available_slice) + ", required slice:" + std::to_string(max_sensor_num*2);
    //     zlog_error(zbt, "%s", error_msg.c_str());
    //     return 5;
    // }
    if (available_slice <= 0) {
        error_msg = "invalid config, available slice:" + std::to_string(available_slice) + ", required slice:" + std::to_string(max_sensor_num*2);
        zlog_error(zbt, "%s", error_msg.c_str());
        return 5;
    }
    return 0;
}

int SensorScheduler::GetScheduleConfig(int &eigen_value_send_interval, int &wave_form_send_interval, int &wave_resend_num,                                        
                                       int &max_sensor_num) { 
    eigen_value_send_interval = eigen_value_send_interval_;
    wave_form_send_interval = wave_form_send_interval_;    
    wave_resend_num = wave_resend_num_;
    max_sensor_num = max_sensor_num_;
    return 0; 
}

int SensorScheduler::UpdateSensorConfig(uint16_t short_addr) {
    int id = 0;
    auto iter = short_addr_map_.find(short_addr);
    if (iter == short_addr_map_.end()) {
        zlog_warn(zbt, "cannot find id for short_addr %d", short_addr);
        return 1;            
    } else {
        id = iter->second;
    }
    if (update_.count(id) > 0) {
        return 0;
    }
    update_.insert(id);    
    UpdateCfg::WriteCfg(update_);     
    return 0; 
}

int SensorScheduler::UpdateConfigResult(uint16_t short_addr, int result) { 
    int id = 0;
    auto iter = short_addr_map_.find(short_addr);
    if (iter == short_addr_map_.end()) {
        zlog_warn(zbt, "cannot find id for short_addr %x", short_addr);
        return 1;            
    } else {
        id = iter->second;
    }
    if (result != 0) {
        return 0;
    }
    zlog_info(zbt, "[%d] short addr:%d update successfully", id, short_addr);
    update_.erase(id);
    UpdateCfg::WriteCfg(update_);
    return 0; 
}

int SensorScheduler::UpgradeSensor(std::vector<UpgradeParameter> &param_list) {
    if (param_list.size() == 0) {
        zlog_warn(zbt, "upgrade list is empty, do nothing");
        return 1;
    }
    zlog_debug(zbt, "current status:%d", current_schedule_status_);
    if (current_schedule_status_ == kScheduleStatusUpgrade) {
        std::unordered_set<uint16_t> tmp_set;
        for (auto item : param_list) {
            tmp_set.insert(item.short_addr);
        }

        if (tmp_set == upgrade_list_) {
            zlog_warn(zct, "upgrade list and mode are same, do nothing");
            return 0;
        }        
    } else {
        upgrade_list_.clear();        
    }

    for (auto item : param_list) {
        upgrade_list_.insert(item.short_addr);
    }

    int upgrade_num = 0;    
    int id = 0;
    long ts = GetLocalTs();
    for (auto item : param_list) {
        auto iter = short_addr_map_.find(item.short_addr);
        if (iter == short_addr_map_.end()) {
            zlog_error(zbt, "cannot find id for short_addr %x", item.short_addr);
            continue;            
        } else {
            id = iter->second;
        } 
        UpgradeInfo info;
        info.try_times = 0;
        info.sensor_type = item.sensor_type;
        info.hw_version = item.hw_version;
        info.current_sw_version = item.current_sw_version;
        info.upgrade_sw_version = item.upgrade_sw_version;
        
        info.submit_time = GetUTCTime(ts);
        upgrade_[id] = info;
        zlog_info(zbt, "[%d] short addr:%x add upgrade info", id, item.short_addr);
        ++upgrade_num;
    }    
    
    if (upgrade_num > 0) {
        UpgradeCfg::WriteCfg(upgrade_);
        GenerateUpgradeSchedule();
        current_schedule_status_ = kScheduleStatusUpgrade;
        set_schedule_status(current_schedule_status_);
    } else {        
        return 1;
    }
    
    return 0; 
}

int SensorScheduler::CancelUpgradeSensor(std::vector<uint16_t> short_addr_list) { 
    if (short_addr_list.size() == 0) {
        return 0;
    }
    int cancel_num = 0;

    for (auto short_addr : short_addr_list) {   
        upgrade_list_.erase(short_addr);     
        auto iter = short_addr_map_.find(short_addr);
        if (iter == short_addr_map_.end()) {
            zlog_info(zbt, "cannot find id for short_addr %x", short_addr);
            continue;            
        } else {            
            int id = iter->second;
            upgrade_.erase(id);
            ++cancel_num;
        }
    }

    if (cancel_num > 0) {        
        if (upgrade_list_.size() == 0) {
            current_schedule_status_ = kScheduleStatusNormal;
            set_schedule_status(current_schedule_status_);
            UpgradeCfg::ClearCfg();
        } else {
            GenerateUpgradeSchedule();
            UpgradeCfg::WriteCfg(upgrade_);
        }        
    }
    return 0; 
}

int SensorScheduler::UpgradeResult(uint16_t short_addr, int result) {
    zlog_info(zbt, "[%x] upgrade result:%d", short_addr, result);
    int id = 0;
    auto iter = short_addr_map_.find(short_addr);
    if (iter == short_addr_map_.end()) {
        zlog_info(zbt, "cannot find id for short_addr %x", short_addr);
        return 1;            
    } else {
        id = iter->second;
    }  
    
    if (result == kUpgradeSuccess || 
        result == kProductTypeMismatch || 
        result == kZigbeeHWMismatch || 
        result == kUpgradeDoneBefore) {
        upgrade_list_.erase(short_addr);        
        upgrade_.erase(id);    
        zlog_info(zbt, "[%d] short addr:%x upgrade successfully", id, short_addr);
        if (upgrade_list_.size() == 0) {
            zlog_info(zbt, "no upgrade sensor, go to normal status");
            current_schedule_status_ = kScheduleStatusNormal;
            set_schedule_status(current_schedule_status_);
            UpgradeCfg::ClearCfg();
        } else {
            UpgradeCfg::WriteCfg(upgrade_);
            GenerateUpgradeSchedule();
        }         
    } else {
        auto upgrade_iter = upgrade_.find(id);
        if (upgrade_iter->second.try_times >= 10 /*wave_resend_num_*/) {
            zlog_warn(zbt, "[%d] short addr:%x upgrade %d time failure", id, short_addr, wave_resend_num_);
            upgrade_list_.erase(short_addr);
            upgrade_.erase(id);
            if (upgrade_list_.size() == 0) {
                zlog_info(zbt, "no upgrade sensor, go to normal status");
                current_schedule_status_ = kScheduleStatusNormal;
                set_schedule_status(current_schedule_status_);
                UpgradeCfg::ClearCfg();
            } else {
                UpgradeCfg::WriteCfg(upgrade_);
                GenerateUpgradeSchedule();
            }
        } else {
            UpdateUpgradeInfo(id);
        }
    }
    return 0;
}

void SensorScheduler::UpdateUpgradeInfo(int id) {
    auto upgrade_iter = upgrade_.find(id);
    upgrade_iter->second.try_times++;
    zlog_debug(zbt, "[%d] try_times:%d", id, upgrade_iter->second.try_times);
    long ts = GetLocalTs();
    upgrade_iter->second.try_world_time1.push_back(GetUTCTime(ts));
    UpgradeCfg::WriteCfg(upgrade_);
}

void SensorScheduler::ModifyScheduleTs(int diff_ts) {
    zlog_warn(zbt, "[ModifyScheduleTs] adjust ts:%d, from:%ld to:%ld", diff_ts, start_timestamp_, start_timestamp_ + diff_ts);
    start_timestamp_ += diff_ts;
    start_ts_str_ = GetUTCTime(start_timestamp_);
    std::ifstream schedule_file(SCHEDULE_CONFIG);
    Json::Reader reader;
    Json::Value root;
    if (!reader.parse(schedule_file, root, false)) {
        zlog_error(zbt, "[ModifyScheduleTs] invalid format, fail to parse %s", SCHEDULE_CONFIG);
        schedule_file.close();
        return;
    }
    schedule_file.close();
    root["schedule_start_timestamp"] = std::to_string(start_timestamp_);
    root["schedule_start_time"] = start_ts_str_;

    Json::StyledStreamWriter streamWriter;
    std::ofstream out_file(SCHEDULE_CONFIG);
    streamWriter.write(out_file, root);
    out_file.close();
}

void SensorScheduler::ClearScheduleCfg(uint16_t short_addr) {
    zlog_warn(zbt, "[ClearScheduleCfg] clear all schedule config, short_addr:%x", short_addr);
    if (short_addr == 0) {
        zlog_warn(zbt, "[ClearScheduleCfg] clear all");
        update_.clear();
        upgrade_.clear();
        short_addr_map_.clear();
        ShortAddrCfg::ClearCfg();
        UpdateCfg::ClearCfg();
        UpgradeCfg::ClearCfg();
        wave_feature_set_inst::instance().RemoveAllFeatureCfg();
        wave_feature_set_inst::instance().RemoveAllWaveCfg();
    } else {
        UpdateConfigResult(short_addr, 0);
        UpgradeResult(short_addr, kUpgradeSuccess);
        short_addr_map_.erase(short_addr);
        ShortAddrCfg::WriteCfg(short_addr_map_);
        wave_feature_set_inst::instance().RemoveFeatureCfg(short_addr);
        wave_feature_set_inst::instance().RemoveWaveCfg(short_addr);
    }    
}

void SensorScheduler::CleanIdleOccupiedSet(long ts) {
    if (free_slice_ocuppied_.size() > 5) {
        for (auto it = free_slice_ocuppied_.begin(); it != free_slice_ocuppied_.end();) {
            if ((*it) < ts) {
                it = free_slice_ocuppied_.erase(it);
            } else ++it;
        }
    }
}

void SensorScheduler::UseDefaultConfig() {
    zlog_info(zbt, "use default configuration");
    int eigen_value_send_interval = 300;
    int wave_form_send_interval = 7200;
    int eigen_value_send_duration = 6;
    int wave_form_send_duration = 50;
    int max_sensor_num = 32;
    int wave_resend_num = 3;

    // int eigen_value_send_interval = 300;
    // int wave_form_send_interval = 1200;
    // int eigen_value_send_duration = 2; // 固定的
    // int wave_form_send_duration = 60; // 固定的
    // int max_sensor_num = 4;
    // int wave_resend_num = 3;
    std::string error_msg;
    Config(eigen_value_send_interval,
                        wave_form_send_interval,                        
                        max_sensor_num, wave_resend_num,
                        error_msg);
}

void SensorScheduler::SetScheduleStatus(ScheduleStatus status) {
    if (status != current_schedule_status_) {
        zlog_warn(zbt, "schedule status from:%d to %d", current_schedule_status_, status);
        current_schedule_status_ = status;
        set_schedule_status(current_schedule_status_);
    } else {
        zlog_warn(zbt, "schedule status not change:%d", status);
    }
}

ScheduleStatus SensorScheduler::GetScheduleStatus() {
    return current_schedule_status_;
}

void SensorScheduler::GenerateDebugSchedule(std::vector<uint16_t> short_addr_list) {
    int debug_size = short_addr_list.size();
    
    debug_list_.clear();
    for (auto item : short_addr_list) {
        debug_list_.insert(item);
    }

    // 时间还是用正常模式的，因为特征值还是正常的，所以只把原来波形调度的地方换成调试的传感器
    // 
    // 1 根据传感器列表，找到传感器编号，例如：1,2,3
    // 2 这是第几个5分钟，从这个5分钟开始，放波形，如果这是2小时中的最后一个5分钟，要考虑越界的问题
    // 3 如果是1到2个传感器，隔2分钟(两个波形间隔)测试一次; 如果是大于2个传感器，一直连排就行了
    // 进入调试模式

    long current_ts = GetLocalTs();
    long nth_wave_start_slice = (current_ts - start_timestamp_) / wave_form_send_interval_;
    long current_wave_start_ts = nth_wave_start_slice * wave_form_send_interval_ + start_timestamp_;
    long seconds_in_current_wave_slice = current_ts - current_wave_start_ts;
    long nth_eigen_value_slice = seconds_in_current_wave_slice / eigen_value_send_interval_;
    long seconds_in_current_eigen_slice = seconds_in_current_wave_slice % eigen_value_send_interval_;
    int previous_wave_slice = wave_slice_num_per_eigen_interval_ * (nth_eigen_value_slice + 1);
    if (previous_wave_slice == available_slice_) {
        previous_wave_slice = 0;
    }

    debug_slice_sensor_id_ = new uint16_t[available_slice_+1];
    for (int i = 0; i <= available_slice_; ++i) {
        debug_slice_sensor_id_[i] = 0;
    }

    if (debug_size == 1) { // 只有一个传感器的话，两分钟一次波形
        zlog_debug(zbt, "one sensor debug");
        int j = 0;
        for (int i = previous_wave_slice+1; i < previous_wave_slice+1+available_slice_; i = i + 3) {
            j = i % available_slice_;
            if (j == 0) {
                j = i;
            }
            debug_slice_sensor_id_[j] = short_addr_list[0];
        }
    } else {
        zlog_debug(zbt, "%d sensor debug", debug_list_.size());
        int j = 0;
        int k = 0;
        for (int i = previous_wave_slice+1; i < previous_wave_slice+1+available_slice_; ++i) {
            j = i % available_slice_;
            if (j == 0) {
                j = i;
            }
            debug_slice_sensor_id_[j] = short_addr_list[k%debug_size];
            ++k;
        }
    }

    Json::Value root;
    for (int i = 1; i <= available_slice_; ++i) {
        root.append(debug_slice_sensor_id_[i]);
    }
    Json::StyledStreamWriter streamWriter;
    std::ofstream out_file(DEBUG_SCHEDULE_CONFIG);
    streamWriter.write(out_file, root);
    out_file.close();
    
    // 从下一个5分钟开始排，因为只要错过了这个5分钟的第1分钟时间，传感器都将无法调度
    // 下一个5分钟是第几个5分钟间隔，波形窗口是第多少个
    // 对于特征值后的波形，如果特征值时间离波形时间间隔小于10秒，那就再加20秒上去，这样保证传感器至少休息20秒
    current_schedule_status_ = kScheduleStatusDebug;
    set_schedule_status(current_schedule_status_);
}

int SensorScheduler::OpenDebugMode(std::vector<uint16_t> short_addr_list) {
    if (short_addr_list.size() == 0) {
        zlog_warn(zbt, "debug list is empty, do nothing");
        return 1;
    }
    // 给进入调试模式的传感器分配波形时间片
    if (current_schedule_status_ == kScheduleStatusDebug) {
        std::unordered_set<uint16_t> tmp_set;
        for (auto item : short_addr_list) {
            tmp_set.insert(item);
        }
        if (tmp_set == debug_list_) {
            zlog_warn(zbt, "debug list and mode are same, do nothing");
            return 0;
        }
        // 重新分配z轴波形时间片
        GenerateDebugSchedule(short_addr_list);
        return 0;
    }    
    GenerateDebugSchedule(short_addr_list);
    return 0; 
}

int SensorScheduler::CloseDebugMode() {
    if (current_schedule_status_ != kScheduleStatusDebug) {
        return 0;
    }

    if (debug_slice_sensor_id_ != NULL) {
        delete []debug_slice_sensor_id_;
        debug_slice_sensor_id_ = NULL;
    }
    current_schedule_status_ = kScheduleStatusNormal;
    set_schedule_status(current_schedule_status_); 
    return 0; 
}

void SensorScheduler::GenerateUpgradeSchedule() {
    zlog_debug(zbt, "GenerateUpgradeSchedule start");
    if (upgrade_list_.size() == 0) {
        return;
    }
    std::vector<uint16_t> short_addr_list;
    for (auto item : upgrade_list_) {
        short_addr_list.push_back(item);
    }
    int upgrade_size = short_addr_list.size(); 

    // 时间还是用正常模式的，因为特征值还是正常的，所以只把原来波形调度的地方换成升级的传感器
    // 
    // 1 根据传感器列表，找到传感器编号，例如：1,2,3
    // 2 这是第几个5分钟，从这个5分钟开始，放波形，如果这是2小时中的最后一个5分钟，要考虑越界的问题
    // 3 如果是1到2个传感器，隔2分钟(两个波形间隔)测试一次; 如果是大于2个传感器，一直连排就行了

    long current_ts = GetLocalTs();
    long nth_wave_start_slice = abs(current_ts - start_timestamp_) / wave_form_send_interval_;
    zlog_debug(zbt, "current ts: %ld, start ts:%ld, wave_form_send_interval_:%d", current_ts, start_timestamp_, wave_form_send_interval_);
    long current_wave_start_ts = nth_wave_start_slice * wave_form_send_interval_ + start_timestamp_;
    long seconds_in_current_wave_slice = current_ts - current_wave_start_ts;
    long nth_eigen_value_slice = seconds_in_current_wave_slice / eigen_value_send_interval_;
    long seconds_in_current_eigen_slice = seconds_in_current_wave_slice % eigen_value_send_interval_;
    int previous_wave_slice = wave_slice_num_per_eigen_interval_ * (nth_eigen_value_slice + 1);
    zlog_debug(zbt, "seconds_in_current_wave_slice:%ld, nth_eigen_value_slice:%ld, seconds_in_current_eigen_slice:%ld, previous_wave_slice: %d", 
                    seconds_in_current_wave_slice, nth_eigen_value_slice, seconds_in_current_eigen_slice, previous_wave_slice);
    // if (previous_wave_slice < 0) {
    //     zlog_error(zbt, "previous_wave_slice: %d", previous_wave_slice);
    // }
    if (previous_wave_slice == available_slice_) {
        previous_wave_slice = 0;
    }
    if (upgrade_slice_sensor_id_ != NULL) {
        delete [] upgrade_slice_sensor_id_;
        upgrade_slice_sensor_id_ = NULL;
    }

    upgrade_slice_sensor_id_ = new uint16_t[available_slice_+1];
    for (int i = 0; i <= available_slice_; ++i) {
        upgrade_slice_sensor_id_[i] = 0;
    }

    if (upgrade_size == 1) { // 只有一个传感器的话，两分钟一次波形
        zlog_debug(zbt, "upgrade_size 1:%x", short_addr_list[0]);
        int j = 0;
        // int k = 0;
        for (int i = previous_wave_slice+1; i < previous_wave_slice+1+available_slice_; i=i+2) {            
            j = i % available_slice_;
            if (j == 0) {
                j = i;
            }
            zlog_debug(zbt, "i = %d, j = %d", i, j);
            // k = k % upgrade_size;
            upgrade_slice_sensor_id_[j] = short_addr_list[0];  
        }      
    } else {
        zlog_debug(zbt, "upgrade_size %d", upgrade_size);
        int j = 0;
        int k = 0;
        for (int i = previous_wave_slice+1; i < previous_wave_slice+1+available_slice_; ++i) {
            j = i % available_slice_;
            if (j == 0) {
                j = i;
            }
            k = k % upgrade_size;
            upgrade_slice_sensor_id_[j] = short_addr_list[k];
            ++k;            
        }
    }

    Json::Value root;
    for (int i = 1; i <= available_slice_; ++i) {
        root.append(upgrade_slice_sensor_id_[i]);
    }
    Json::StyledStreamWriter streamWriter;
    std::ofstream out_file(UPGRADE_SCHEDULE_CONFIG);
    streamWriter.write(out_file, root);
    out_file.close();
    zlog_debug(zbt, "GenerateUpgradeSchedule end");
}

int SensorScheduler::CloseUpgradeMode() { 
    if (current_schedule_status_ != kScheduleStatusUpgrade) {
        return 0;
    }
    if (upgrade_slice_sensor_id_ != NULL) {
        delete []upgrade_slice_sensor_id_;
        upgrade_slice_sensor_id_ = NULL;
    }
    upgrade_list_.clear();
    std::string clear_cfg_file_cmd = "rm -f " + std::string(UPGRADE_SCHEDULE_CONFIG);
    system(clear_cfg_file_cmd.c_str());
    current_schedule_status_ = kScheduleStatusNormal;
    set_schedule_status(current_schedule_status_);
    return 0; 
}

long SensorScheduler::GetLocalTs() {
    auto now = std::chrono::system_clock::now();
    auto timestamp = std::chrono::duration_cast<std::chrono::seconds>(now.time_since_epoch()).count();    
    // zlog_debug(zct, "current timestamp:%lld", timestamp);
    return timestamp;
}

long SensorScheduler::GetLocalWorldTime(std::string &world_time) {
    auto now = std::chrono::system_clock::now();
    std::time_t now_c = std::chrono::system_clock::to_time_t(now);
    std::tm *local_time = std::localtime(&now_c);
    char str[100] = {0};
    snprintf(str, sizeof(str), "%04d-%02d-%02d %02d:%02d:%02d",
    		local_time->tm_year + 1900, local_time->tm_mon+1, local_time->tm_mday, local_time->tm_hour, local_time->tm_min, local_time->tm_sec);
    world_time = str;
    auto timestamp = std::chrono::duration_cast<std::chrono::seconds>(now.time_since_epoch()).count();
    // zlog_debug(zct, "world time:%s, timestamp:%lld", world_time.c_str(), timestamp);
    return timestamp;    
}

std::string SensorScheduler::GetUTCTime(long ts) {
    std::chrono::time_point<std::chrono::system_clock> timePoint = std::chrono::system_clock::from_time_t(ts);
    std::time_t utcTime = std::chrono::system_clock::to_time_t(timePoint);
    std::tm* local_time = std::gmtime(&utcTime);
    local_time->tm_hour = local_time->tm_hour + 8;
    if (local_time->tm_hour > 24) {
        local_time->tm_hour -= 24;
        local_time->tm_mday += 1;
    }
    char str[100] = {0};
    snprintf(str, sizeof(str), "%04d-%02d-%02d %02d:%02d:%02d",
        		local_time->tm_year + 1900, local_time->tm_mon+1, local_time->tm_mday, local_time->tm_hour, local_time->tm_min, local_time->tm_sec);
    std::string world_time = str;
    return world_time;
}

void SensorScheduler::WriteTriggerWaveRecord() {
    Json::Value root;
    for (auto it = trigger_wave_record_.begin(); it != trigger_wave_record_.end(); ) {
        // 检查 pair 中两个值是否都是 0
        if (it->second.first == 0 && it->second.second == 0) {
            // 使用 erase 方法删除当前元素
            it = trigger_wave_record_.erase(it);  // erase 返回指向下一个元素的迭代器
        } else {
            ++it;  // 继续迭代
        }
    }

    for (const auto& entry : trigger_wave_record_) {
        uint16_t key = entry.first;
        const auto& value = entry.second;
        // if (value.first == 0 && value.second == 0) {
        //     continue;
        // }
        Json::Value item;
        item["first"] = value.first; 
        item["second"] = value.second; 
        
        root[std::to_string(key)] = item;  
    }

    Json::StyledStreamWriter writer;
    std::ofstream outFile(TRIGGER_WAVE_CONFIG);

    if (!outFile.is_open()) {
        zlog_warn(zbt, "Failed to open %s file", TRIGGER_WAVE_CONFIG);
        return;
    }

    writer.write(outFile, root);
    outFile.close();
}

void SensorScheduler::ReadTriggerWaveRecord() {
    Json::Value root;
    std::ifstream inFile(TRIGGER_WAVE_CONFIG);

    if (!inFile.is_open()) {
        return;
    }

    Json::Reader reader;
    if (!reader.parse(inFile, root, false)) {     
        inFile.close();   
        return; 
    }
    inFile.close();
    for (const auto& key : root.getMemberNames()) {
        uint16_t uint16Key = static_cast<uint16_t>(std::stoi(key)); 
        auto value = root[key]; 

        uint8_t first = static_cast<uint8_t>(value["first"].asUInt());
        uint8_t second = static_cast<uint8_t>(value["second"].asUInt());

        trigger_wave_record_[uint16Key] = std::make_pair(first, second);
    }
}