Merge branch 'dev' of http://git.fast-fun.cn:92/lmstack/data_analyze_platform into dev

.gitignore

@@ -5,14 +5,20 @@
 /.vscode/
 /*/__pycache__/*.*
 /*/*/__pycache__/*.pyc
+/*/*/*/__pycache__/*.pyc
 /*.ipynb
 /*.csv
 *.doc
 *.ppt
 *.tmp
 !/demo.ipynb
-/手册
 !.gitignore
 # *.*
 /CONFIGURE/PathSetting.py
 *.log
+/demo.ipynb
+/*/*/deploy.py
+/*/*/*/deploy.py
+!数据分析平台手册.doc
+*.pyc
+

LIB/BACKEND/DBManager.py

@@ -353,7 +353,7 @@ class DBManager():
 
 预留：后期若改用通过访问数据库的形式进行数据的获取，则本文件负责数据库的连接，sql指令的执行，数据获取等功能。
 '''
-__author__ = 'Wang Liming'
+__author__ = 'lmstack'
 
 import time
 import datetime
@@ -381,7 +381,7 @@ class DBManager():
         self.connect()
         return self
 
-    def __exit__(self):
+    def __exit__(self, exc_type, exc_val, exc_tb):
         self.close()
 
     def connect(self):
@@ -560,10 +560,13 @@ class DBManager():
             st = time.time()
             for line in DBManager._download_json_data(urls):
                 et = time.time()
-                if i==0:
-                    data_blocks,CellUNum,CellTNum,OtherTNumm = DBManager._convert_to_dataframe_bms(line, mode)
-                    i+=1
-                    continue
+                try:
+                    if i==0:
+                        data_blocks,CellUNum,CellTNum,OtherTNumm = DBManager._convert_to_dataframe_bms(line, mode)
+                        i+=1
+                        continue
+                except:
+                    i = 0
                 try:
                     data_block,CellUNum,CellTNum,OtherTNumm = DBManager._convert_to_dataframe_bms(line, mode)
                 except:
@@ -571,7 +574,8 @@ class DBManager():
                 try:
                     data_blocks = np.concatenate((data_blocks,data_block),axis=0)
                 except Exception as e: 
-                    if 'all the input array dimensions except for the concatenation axis must match exactly' in str(e):
+                    if 'all the input array dimensions for the concatenation axis must match exactly' in str(e) or \
+                    'all the input array dimensions except for the concatenation axis must match exactly'  in str(e):
                         pass
                     else:
                         raise e

LIB/BACKEND/DataPreProcess.py

@@ -492,18 +492,19 @@ class DataPreProcess:
 数据预处理类
 
 '''
-__author__ = 'Wang Liming'
+__author__ = 'lmstack'
 
 
-import CONFIGURE.PathSetting as PathSetting
-import sys
-sys.path.append(PathSetting.backend_path)
+# import CONFIGURE.PathSetting as PathSetting
+# import sys
+# sys.path.append(PathSetting.backend_path)
+# from LIB.BACKEND
 from os import defpath
 import pandas as pd
 import numpy as np
 import pdb
 from numba import jit
-import Tools
+from LIB.BACKEND import Tools
 
 class DataPreProcess:
     def __init__(self):

LIB/BACKEND/Log.py

@@ -51,10 +51,11 @@ class Mylog:
 Log类
 
 '''
-__author__ = 'Wang Liming'
+__author__ = 'lmstack'
 
 
 import logging
+from logging import handlers
 import os
 
 class Mylog:
@@ -68,12 +69,19 @@ class Mylog:
     def get_logger(self):
         return self.logger
     
-    def set_file_hl(self, file_name='all.log', log_level='info'):
-        fh = logging.FileHandler(filename=file_name)
+    def set_file_hl(self, file_name='all.log', log_level='info', size=1):
+        fh = handlers.RotatingFileHandler(file_name, maxBytes=size, backupCount=10)
         fh_formatter = logging.Formatter('%(asctime)s:%(created)f:%(name)s:%(module)s:%(funcName)s:%(levelname)s:%(message)s')
         fh.setFormatter(fh_formatter)
         if len(log_level) > 0:
-            self._set_log_level(log_level)
+            if log_level == 'debug':
+                fh.setLevel(logging.DEBUG)
+            if log_level == 'info':
+                fh.setLevel(logging.INFO)
+            if log_level == 'warning':
+                fh.setLevel(logging.WARNING)
+            if log_level == 'error':
+                fh.setLevel(logging.ERROR)
         self.logger.addHandler(fh)
 
     def set_stream_hl(self, log_level='info'):
@@ -81,7 +89,14 @@ class Mylog:
         sh_formatter = logging.Formatter('%(asctime)s:%(created)f:%(name)s:%(module)s:%(funcName)s:%(levelname)s:%(message)s')
         sh.setFormatter(sh_formatter)
         if len(log_level) > 0:
-            self._set_log_level(log_level)
+            if log_level == 'debug':
+                sh.setLevel(logging.DEBUG)
+            if log_level == 'info':
+                sh.setLevel(logging.INFO)
+            if log_level == 'warning':
+                sh.setLevel(logging.WARNING)
+            if log_level == 'error':
+                sh.setLevel(logging.ERROR)
         self.logger.addHandler(sh)  
 
     def _set_log_level(self, log_level):

LIB/BACKEND/Tools.py

@@ -77,13 +77,14 @@ class Tools():
 工具类
 
 '''
-__author__ = 'Wang Liming'
+__author__ = 'lmstack'
 
 
-import CONFIGURE.PathSetting as PathSetting
-import sys
-sys.path.append(PathSetting.backend_path)
-import DBManager
+# import CONFIGURE.PathSetting as PathSetting
+# import sys
+# sys.path.append(PathSetting.backend_path)
+from LIB.BACKEND import DBManager
+# import DBManager
 import pandas as pd
 import numpy as np
 import math

LIB/FRONTEND/DrivingRange/main.py

@@ -0,0 +1,60 @@
+#coding=utf-8
+import os
+import datetime
+import pandas as pd
+from LIB.BACKEND import DBManager, Log
+from LIB.MIDDLE import SignalMonitor
+from sqlalchemy import create_engine
+from sqlalchemy.orm import sessionmaker
+import time, datetime
+import traceback
+from LIB.MIDDLE.DrivingRange import UpdtFct
+import pymysql
+
+from urllib import parse
+
+dbManager = DBManager.DBManager()
+if __name__ == "__main__":
+    #建立引擎
+    db_engine = create_engine(str(r"mysql+pymysql://%s:" + '%s' + "@%s/%s") % ('root', 'pengmin', 'localhost', 'qixiangdb'))
+    #连接到qx数据库
+    db_qx = pymysql.connect(
+            host='rm-bp10j10qy42bzy0q77o.mysql.rds.aliyuncs.com',
+            user='qx_read',
+            password='Qx@123456',#Qx@123456
+            database='qx_cas',
+            charset='utf8'
+        )
+    #连接到本地数据库，输出物
+    db_local = pymysql.connect(
+            host='localhost',
+            user='root',
+            password='pengmin',
+            database='qixiangdb',
+            charset='utf8'
+        )
+
+    #调度周期：每天运行一次。
+
+    #更新所有sn，连读多日的factor，如果start_date和end_date相隔一天，代表更新start_date的factor。
+    start_date="2021-07-23"
+    end_date="2021-07-28"
+    UpdtFct.updtAllSnFct(start_date,end_date, db_engine, db_local, db_qx)
+    df_newest = UpdtFct.updtNewestFctTb(db_local, db_engine)
+    #按照日期排序，只保留最近的一天,输出factor_unique_df，方法为replace。
+    #本函数，每天需要运行一次，用于更新factor。
+    df_newest.to_sql("tb_sn_factor_newest",con=db_engine,chunksize=10000,\
+        if_exists='replace',index=False)
+
+    #调度周期：程序每5分钟运行一次
+
+    #更新剩余里程，每5min一次，几秒钟运行结束。
+    test_time=datetime.datetime.now()#当前系统时间
+    input_time=datetime.datetime.strftime(test_time,'%Y-%m-%d %H:%M:%S')
+
+    # input_time='2021-07-29 11:59:00'#手动设定一个时间
+
+    #函数每5min调度一次，input_time为当前时间，更新tb_sn_factor_soc_range表格
+    df_range = UpdtFct.updtVehElecRng(db_qx, db_local, db_engine, input_time)
+    df_range.to_sql("tb_sn_factor_soc_range",con=db_engine,chunksize=10000,\
+         if_exists='replace',index=False)    

LIB/FRONTEND/LeakCurrent/main.py

@@ -0,0 +1,27 @@
+#coding=utf-8
+import os
+import datetime
+import pandas as pd
+from LIB.BACKEND import DBManager, Log
+from LIB.MIDDLE import SignalMonitor
+from sqlalchemy import create_engine
+from sqlalchemy.orm import sessionmaker
+import time, datetime
+import traceback
+from LIB.MIDDLE.LeakCurrent import LFPLeakCurrent20210812 as LFPLeakCurrent
+
+from urllib import parse
+
+dbManager = DBManager.DBManager()
+if __name__ == "__main__":
+    SNdata_6060 = pd.read_excel('骑享资产梳理-20210621.xlsx', sheet_name='6060')
+    SNnums_6060=SNdata_6060['SN号']
+    now_time=datetime.datetime.now().strftime('%Y-%m-%d %H:%M:%S')
+    now_time=datetime.datetime.strptime(now_time,'%Y-%m-%d %H:%M:%S')
+    start_time=now_time-datetime.timedelta(days=31)
+    end_time=str(now_time)
+    start_time=str(start_time)
+
+    for sn in SNnums_6060.tolist():
+        res = LFPLeakCurrent.cal_LFPLeakCurrent(sn, end_time, start_time)
+        res.to_csv('BMS_LeakCurrent_'+sn+'.csv',encoding='GB18030')

LIB/FRONTEND/SignalMonitor/create_table.py

@@ -1,102 +0,0 @@
-'''
-定义表的结构，并在数据库中创建对应的数据表
-'''
-__author__ = 'Wang Liming'
-
-from sqlalchemy.ext.declarative import declarative_base
-from sqlalchemy import Column, String, create_engine, Integer, DateTime, BigInteger, FLOAT
-
-Base = declarative_base()
-
-
-class BmsLastDataDay(Base):
-    __tablename__ = "bms_last_data_day"
-    __table_args__ = ({'comment': '电池信号监控---每天最后一条bms数据'})  # 添加索引和表注释
-
-    id = Column(Integer, primary_key=True, autoincrement=True, comment="主键")
-    sn = Column(String(64), comment="sn")
-    current = Column(FLOAT, comment="电流")
-    time_stamp = Column(Integer, comment="时间戳")
-    pack_state = Column(Integer, comment="电池状态")
-    line_state = Column(Integer, comment="信号状态")
-
-
-    def __init__(self, sn, current, time_stamp, pack_state, line_state):
-        self.sn = sn
-        self.current = current
-        self.time_stamp = time_stamp
-        self.pack_state = pack_state
-        self.line_state = line_state
-
-class GpsLastDataDay(Base):
-    __tablename__ = "gps_last_data_day"
-    __table_args__ = ({'comment': '电池信号监控---每天最后一条gps数据'})  # 添加索引和表注释
-
-    id = Column(Integer, primary_key=True, autoincrement=True, comment="主键")
-    sn = Column(String(64), comment="sn")
-    time_stamp = Column(Integer, comment="时间戳")
-    pack_state = Column(Integer, comment="电池状态")
-    line_state = Column(Integer, comment="信号状态")
-
-
-    def __init__(self, sn, time_stamp, pack_state, line_state):
-        self.sn = sn
-        self.time_stamp = time_stamp
-        self.pack_state = pack_state
-        self.line_state = line_state
-
-class GpsSignalMonitor(Base):
-    __tablename__ = "gps_signal_monitor"
-    __table_args__ = ({'comment': 'gps信号监控'})  # 添加索引和表注释
-
-    id = Column(Integer, primary_key=True, autoincrement=True, comment="主键")
-    sn = Column(String(64), comment="sn")
-    start_time = Column(DateTime, comment="开始时间")
-    end_time = Column(DateTime, comment="结束时间")
-    offline_time = Column(DateTime, comment="离线时间")
-    pack_state = Column(Integer, comment="电池状态")
-    line_state = Column(Integer, comment="信号状态")
-
-
-    def __init__(self, sn, start_time, end_time, off_line_time, pack_state, line_state):
-        self.sn = sn
-        self.start_time = start_time
-        self.end_time = end_time
-        self.off_line_time = off_line_time
-        self.pack_state = pack_state
-        self.line_state = line_state
-
-class BmsSignalMonitor(Base):
-    __tablename__ = "bms_signal_monitor"
-    __table_args__ = ({'comment': 'bms信号监控'})  # 添加索引和表注释
-
-    id = Column(Integer, primary_key=True, autoincrement=True, comment="主键")
-    sn = Column(String(64), comment="sn")
-    start_time = Column(DateTime, comment="开始时间")
-    end_time = Column(DateTime, comment="结束时间")
-    offline_time = Column(DateTime, comment="离线时间")
-    pack_state = Column(Integer, comment="电池状态")
-    line_state = Column(Integer, comment="信号状态")
-
-
-    def __init__(self, sn, start_time, end_time, off_line_time, pack_state, line_state):
-        self.sn = sn
-        self.start_time = start_time
-        self.end_time = end_time
-        self.off_line_time = off_line_time
-        self.pack_state = pack_state
-        self.line_state = line_state
-
-# 执行该文件，创建表格到对应的数据库中
-if __name__ == "__main__":
-    host = 'rm-bp10j10qy42bzy0q77o.mysql.rds.aliyuncs.com'
-    port = 3306
-    user = 'qx_cas'
-    password = 'Qx@123456'
-    database = 'qx_cas'
-
-    db_engine = create_engine(
-        "mysql+pymysql://{}:{}@{}:{}/{}?charset=utf8".format(
-            user, password, host, port, database
-        ))
-    Base.metadata.create_all(db_engine)

LIB/FRONTEND/SignalMonitor/main.py

@@ -9,87 +9,56 @@ from sqlalchemy.orm import sessionmaker
 import time, datetime
 import traceback
 
+from urllib import parse
+
 dbManager = DBManager.DBManager()
 if __name__ == "__main__":
-    try:
-        # 数据库配置
-        host = 'rm-bp10j10qy42bzy0q77o.mysql.rds.aliyuncs.com'
-        port = 3306
-        user = 'qx_cas'
-        password = 'Qx@123456'
-        database = 'qx_cas'
-
-        db_engine = create_engine(
-            "mysql+pymysql://{}:{}@{}:{}/{}?charset=utf8".format(
-                user, password, host, port, database
-            ))
-
-        db_engine = create_engine("mysql+pymysql://qx_cas:Qx@123456@rm-bp10j10qy42bzy0q77o.mysql.rds.aliyuncs.com/qx_cas?charset=utf8")
-        DbSession = sessionmaker(bind=db_engine)
-        
-        # 日志配置
-        log = Log.Mylog(log_name='signal_monitor', log_level = 'info')
-        log.set_file_hl(file_name='info.log', log_level='info')
-        log.set_file_hl(file_name='error.log', log_level='error')
-        logger = log.get_logger()
-
-        logger.info("pid is + {}".format(os.getpid))
-
-        # 读取sn列表
-        df_sn = pd.read_csv('sn_list.csv')
-        df_sn = df_sn.reset_index(drop=True)
-        df_sn['StartTime'] = pd.to_datetime(df_sn['StartTime'])
-        df_sn['EndTime'] = pd.to_datetime(df_sn['EndTime'])
-        df_sn['ExitTime'] = pd.to_datetime(df_sn['ExitTime'])
-        signalMonitor = SignalMonitor.SignalMonitor()
-        
-        cal_period = 24    # 计算间隔，单位h
-        for i in range(0, len(df_sn['sn'])):    # 遍历SN号
-            sn = [df_sn.loc[i,'sn']]
-            if not (sn[0][0:2] == 'PK' or sn[0][0:2] == 'MG' or sn[0][0:2] == 'UD'):
+    # 读取sn列表
+    df_sn = pd.read_csv('sn_list.csv')
+    df_sn = df_sn.reset_index(drop=True)
+    df_sn['StartTime'] = pd.to_datetime(df_sn['StartTime'])
+    df_sn['EndTime'] = pd.to_datetime(df_sn['EndTime'])
+    df_sn['ExitTime'] = pd.to_datetime(df_sn['ExitTime'])
+    signalMonitor = SignalMonitor.SignalMonitor()
+    
+    cal_period = 24    # 计算间隔，单位h
+    for i in range(0, len(df_sn['sn'])):    # 遍历SN号
+        sn = [df_sn.loc[i,'sn']]
+        if not (sn[0][0:2] == 'PK' or sn[0][0:2] == 'MG' or sn[0][0:2] == 'UD'):
+            continue
+        st = df_sn.loc[i, 'StartTime']
+        if df_sn.loc[i, 'Service'] == 0:
+            if pd.isnull(df_sn.loc[i, 'EndTime']) and pd.isnull(df_sn.loc[i, 'ExitTime']):
                 continue
-            st = df_sn.loc[i, 'StartTime']
-            if df_sn.loc[i, 'Service'] == 0:
-                et = df_sn.loc[i, 'ExitTime']
-            elif pd.isnull(df_sn.loc[i, 'EndTime']):
-                otherStyleTime = time.strftime("%Y-%m-%d %H:%M:%S", time.localtime(time.time()))
-                et = pd.to_datetime(otherStyleTime)
-            else:
+            elif pd.isnull(df_sn.loc[i, 'ExitTime']):
                 et = df_sn.loc[i, 'EndTime']
-            df_last_state = pd.DataFrame(
-                columns=['sn', 'current', 'Timestamp', 'PackState', 'LineState'])    # 每日最后BMS数据
-            df_last_state_gps = pd.DataFrame(
-                columns=['sn', 'Timestamp', 'PackState', 'LineState'])    # 每日最后GPS数据
-            while st < et:
-                df_res = pd.DataFrame(columns=[
-                                    'sn', 'PackState', 'LineState', 'StartTime', 'EndTime', 'OfflineTime'])    # 初始化BMS信号统计数据
-                df_res_gps = pd.DataFrame(columns=[
-                                        'sn', 'PackState', 'LineState', 'StartTime', 'EndTime', 'OfflineTime'])    # 初始化GPS信号统计数据
-                df_res, df_state, df_last_state = signalMonitor.get_bms_offline_stat(
-                    sn, st, et, df_res, df_last_state, cal_period)    # 计算每日BMS信号统计数据
-                df_res_gps, df_last_state_gps = signalMonitor.get_gps_offline_stat(
-                    sn, st, et, df_state, df_res_gps, df_last_state_gps, cal_period)    # 计算每日GPS信号统计数据
-            
-                # 数据入库
-                df_tosql = df_res_gps.copy()
-                df_tosql.columns = ['sn', 'pack_state', 'line_state', 'start_time', 'end_time', 'offline_time']
-                df_tosql.loc[df_tosql.index[-1:]].to_sql("gps_signal_monitor",con=db_engine, if_exists="append",index=False)
-
-                df_tosql = df_res.copy()
-                df_tosql.columns = ['sn', 'pack_state', 'line_state', 'start_time', 'end_time', 'offline_time']
-                df_tosql.loc[df_res.index[-1:]].to_sql("bms_signal_monitor",con=db_engine, if_exists="append",index=False)
-                st = st + datetime.timedelta(hours=cal_period)
+            else:
+                et = df_sn.loc[i, 'ExitTime']
+        elif pd.isnull(df_sn.loc[i, 'EndTime']):
+            otherStyleTime = time.strftime("%Y-%m-%d %H:%M:%S", time.localtime(time.time()))
+            et = pd.to_datetime(otherStyleTime)
+        else:
+            et = df_sn.loc[i, 'EndTime']
+        df_last_state = pd.DataFrame(
+            columns=['sn', 'current', 'Timestamp', 'PackState', 'LineState'])    # 每日最后BMS数据
+        df_last_state_gps = pd.DataFrame(
+            columns=['sn', 'Timestamp', 'PackState', 'LineState', 'latitude', 'longitude'])    # 每日最后GPS数据
+        df_res = pd.DataFrame(columns=[
+                                'sn', 'PackState', 'LineState', 'StartTime', 'EndTime', 'OfflineTime'])    # 初始化BMS信号统计数据
+        df_res_gps = pd.DataFrame(columns=[
+                                    'sn', 'PackState', 'LineState', 'StartTime', 'EndTime', 'OfflineTime', 'latitude', 'longitude'])    # 初始化GPS信号统计数据
+        while st < et:
 
+            df_res, df_state, df_last_state = signalMonitor.get_bms_offline_stat(
+                sn, st, et, df_res, df_last_state, cal_period)    # 计算每日BMS信号统计数据
+            df_res_gps, df_last_state_gps = signalMonitor.get_gps_offline_stat(
+                sn, st, et, df_state, df_res_gps, df_last_state_gps, cal_period)    # 计算每日GPS信号统计数据
             # 数据入库
-            df_tosql = df_last_state.copy()
-            df_tosql.columns = ['sn', 'current', 'time_stamp', 'pack_state', 'line_state']
-            df_tosql.to_sql("bms_last_data_day",con=db_engine, if_exists="append",index=False)
+            st = st + datetime.timedelta(hours=cal_period)
+        SignalMonitor._file_write(r'D:\result_04.xls', df_res)    # BMS信号统计数据入库
+        SignalMonitor._file_write(r'D:\result_05.xls', df_res_gps)    # GPS信号统计数据入库
 
-            df_tosql = df_last_state.copy()
-            df_tosql.columns = ['sn', 'time_stamp', 'pack_state', 'line_state']
-            df_tosql.to_sql("gps_last_data_day",con=db_engine, if_exists="append",index=False)
+        SignalMonitor._file_write(r'D:\result_06.xls', df_last_state)
+        SignalMonitor._file_write(r'D:\result_07.xls', df_last_state_gps)
 
-            logger.info("{} {} Success!".format(sn, str(st)))
-    except Exception as e:
-        logger.error(traceback.format_exc)
-        logger.error(u"任务运行错误", exc_info=True)
+    # 数据入库

LIB/FRONTEND/day_sta.py

@@ -1,4 +1,5 @@
 <<<<<<< HEAD
+<<<<<<< HEAD
 __author__ = 'lmstack'
 
 # 每日指标统计函数
@@ -144,18 +145,22 @@ for sn in sn_list[:]:
         
 =======
 __author__ = 'Wang Liming'
+=======
+__author__ = 'lmstack'
+>>>>>>> 0fdacae7667a378900d95748e2f53901ada95b8c
 
 # 每日指标统计函数
-import CONFIGURE.PathSetting as PathSetting
-import sys
-sys.path.append(PathSetting.backend_path)
-sys.path.append(PathSetting.middle_path)
-import DBManager
-import Tools
-import DataPreProcess
-import IndexStaByPeriod
-import Log
-import IndexStaByPeriod
+# import CONFIGURE.PathSetting as PathSetting
+# import sys
+# sys.path.append(PathSetting.backend_path)
+# sys.path.append(PathSetting.middle_path)
+from LIB.BACKEND import DBManager, Log, DataPreProcess
+from LIB.MIDDLE import IndexStaByPeriod, IndexStaBOneCycle
+from LIB.BACKEND import DBManager
+from LIB.BACKEND import DBManager
+from LIB.BACKEND import DBManager
+from LIB.BACKEND import DBManager
+
 import importlib
 import datetime
 import os

LIB/FRONTEND/deltsoc/LFPDeltSoc20210804.py

@@ -0,0 +1,157 @@
+# 获取数据
+from LIB.BACKEND import DBManager
+
+import os
+import pandas as pd
+import numpy as np
+import datetime
+# import matplotlib.pyplot as plt
+#参数初始化
+Capacity = 53.6
+PackFullChrgVolt=69.99
+CellFullChrgVolt=3.6
+CellVoltNums=20
+CellTempNums=4
+FullChrgSoc=98
+PeakSoc=57
+
+#获取数据时间段
+def cal_deltsoc(sn, end_time, start_time):
+    end_time = end_time
+    strat_time = start_time
+    SNnum=str(sn)
+
+    sn = sn
+    st = strat_time
+    et = end_time
+
+
+    dbManager = DBManager.DBManager()
+    df_data = dbManager.get_data(sn=sn, start_time=st, end_time=et, data_groups=['bms'])
+    df_bms = df_data['bms']
+    # 计算电芯Soc差
+    packcrnt = df_bms['总电流[A]']
+    packvolt = df_bms['总电压[V]']
+    SOC = df_bms['SOC[%]']
+    SOH = df_bms['SOH[%]']
+    bmsstat = (df_bms['充电状态']).astype(int)
+    time = pd.to_datetime(df_bms['时间戳'], format='%Y-%m-%d %H:%M:%S')
+
+    # 筛选充电数据
+    ChgStart = []
+    ChgEnd = []
+
+    for i in range(3, len(time) - 3):
+        if i==3 and bmsstat[i]==2 and bmsstat[i+1]==2 and bmsstat[i+2]==2:
+            ChgStart.append(i)
+        elif bmsstat[i-2]!=2 and bmsstat[i-1]!=2 and bmsstat[i]==2:
+            ChgStart.append(i)
+        elif bmsstat[i-1]==2 and bmsstat[i]!=2 and bmsstat[i+1]!=2:
+            ChgEnd.append(i)
+        elif i == (len(time) - 4) and bmsstat[len(bmsstat)-1] == 2 and bmsstat[len(bmsstat)-2] == 2:
+            ChgEnd.append(len(time)-1)
+
+    # 筛选充电起始Soc<46%，电芯温度>15℃的数据
+    if ChgStart:
+        ChgStartValid = []
+        ChgEndValid = []
+
+        for i in range(min(len(ChgStart),len(ChgEnd))):
+            # 获取最小温度值
+            celltemp = []
+            for j in range(1, CellTempNums + 1):
+                s = str(j)
+                temp = df_bms['单体温度' + s]
+                celltemp.append(temp[ChgEnd[i]])
+
+            if SOC[ChgStart[i]] < 46 and SOC[ChgEnd[i]]>80 and min(celltemp) > 10:
+                if ((time[ChgEnd[i]]-time[ChgStart[i]]).total_seconds())/(ChgEnd[i]-ChgStart[i])<30:
+                    ChgStartValid.append(ChgStart[i])
+                    ChgEndValid.append(ChgEnd[i])
+
+    # 计算充电每个单体到达DVDQ峰值的Ah差
+    # 定义滑动平均滤波函数
+    def np_move_avg(a, n, mode="same"):
+        return (np.convolve(a, np.ones((n,)) / n, mode=mode))
+
+
+    # 定义函数：切片Soc>50且Soc<80，并寻找峰值返回峰值点的时间
+    def data_search(t, soc, cellvolt1, packcrnt1):
+        cellvolt2 = np_move_avg(cellvolt1, 5, mode="same")
+        Soc = 0
+        Ah = 0
+        Volt = [cellvolt2[0]]
+        DV_Volt = []
+        DQ_Ah = []
+        DVDQ = []
+        time1 = []
+        soc1 = []
+        soc2 = []
+
+        for m in range(1, len(t)):
+            Step = (t[m] - t[m - 1]).total_seconds()
+            Soc = Soc - packcrnt1[m] * Step * 100 / (3600 * Capacity)
+            Ah = Ah - packcrnt1[m] * Step / 3600
+            if (cellvolt2[m] - Volt[-1]) > 0.9 and Ah>0:
+                DQ_Ah.append(Ah)
+                Volt.append(cellvolt2[m])
+                DV_Volt.append(Volt[-1] - Volt[-2])
+                DVDQ.append((DV_Volt[-1]) / DQ_Ah[-1])
+                Ah = 0
+                time1.append(t[m])
+                soc1.append(Soc)
+                soc2.append(soc[m])
+        df_Data1 = pd.DataFrame({'Time': time1,
+                                'SOC': soc2,
+                                'DVDQ': DVDQ,
+                                'AhSOC': soc1})
+
+        df_Data1 = df_Data1[(df_Data1['SOC'] > 50) & (df_Data1['SOC'] < 75)]
+        # 寻找峰值点，且峰值点个数>3
+        if len(df_Data1['DVDQ'])>2:
+            PeakIndex = df_Data1['DVDQ'].idxmax()
+            df_Data2 = df_Data1[
+                (df_Data1['SOC'] > (df_Data1['SOC'][PeakIndex] - 0.5)) & (df_Data1['SOC'] < (df_Data1['SOC'][PeakIndex] + 0.5))]
+            if len(df_Data2) > 3:
+                return df_Data1['AhSOC'][PeakIndex]
+            else:
+                df_Data1 = df_Data1.drop([PeakIndex])
+                PeakIndex = df_Data1['DVDQ'].idxmax()
+                return df_Data1['AhSOC'][PeakIndex]
+
+
+    # 计算最大最小Soc差
+    if ChgStartValid:
+        DetaSoc2 = []
+        DetaSoc=[]
+        DetaSoc_SN=[]
+        DetaSoc_time=[]
+        for i in range(len(ChgStartValid)):
+            DetaSoc1 = []
+            for j in range(1, CellVoltNums + 1):
+                s = str(j)
+                cellvolt = df_bms['单体电压' + s]
+                cellvolt = list(cellvolt[ChgStartValid[i]:ChgEndValid[i]])
+                Time = list(time[ChgStartValid[i]:ChgEndValid[i]])
+                Packcrnt = list(packcrnt[ChgStartValid[i]:ChgEndValid[i]])
+                SOC1 = list(SOC[ChgStartValid[i]:ChgEndValid[i]])
+                a = data_search(Time, SOC1, cellvolt, Packcrnt)
+                if a:
+                    DetaSoc1.append(a)  # 计算到达峰值点的累计Soc
+            if DetaSoc1:
+                DetaSoc2.append(max(DetaSoc1) - min(DetaSoc1))
+
+        DetaSocMean = np.mean(DetaSoc2)
+        DetaSoc.append(DetaSocMean)
+        DetaSoc_SN.append(SNnum)
+        DetaSoc_time.append(time[ChgStartValid[-1]])
+
+
+        result_DetaSoc={'time':DetaSoc_time,
+                        'SN号':DetaSoc_SN,
+                        'Soc差':DetaSoc}
+        Result_DetaSoc=pd.DataFrame(result_DetaSoc)
+        return Result_DetaSoc
+    return pd.DataFrame()
+
+

LIB/FRONTEND/deltsoc/detaSOC表头及数据类型.xlsx

@@ -0,0 +1,4 @@
+±íÍ·	Ãû³Æ	Êý¾ÝÀàÐÍ
+time	time	timestamps
+SNºÅ	sn	str
+Soc²î	deta_soc	float64

LIB/FRONTEND/deltsoc/main.py

@@ -0,0 +1,27 @@
+#coding=utf-8
+import os
+import datetime
+import pandas as pd
+from LIB.BACKEND import DBManager, Log
+from LIB.MIDDLE import SignalMonitor
+from sqlalchemy import create_engine
+from sqlalchemy.orm import sessionmaker
+import time, datetime
+import traceback
+from LIB.MIDDLE.DeltSoc import LFPDeltSoc20210804 as LFPDeltSoc
+
+from urllib import parse
+
+dbManager = DBManager.DBManager()
+if __name__ == "__main__":
+    SNdata_6060 = pd.read_excel('骑享资产梳理-20210621.xlsx', sheet_name='6060')
+    SNnums_6060=SNdata_6060['SN号']
+    now_time=datetime.datetime.now().strftime('%Y-%m-%d %H:%M:%S')
+    now_time=datetime.datetime.strptime(now_time,'%Y-%m-%d %H:%M:%S')
+    start_time=now_time-datetime.timedelta(days=31)
+    end_time=str(now_time)
+    start_time=str(start_time)
+
+    for sn in SNnums_6060.tolist():
+        res = LFPDeltSoc.cal_deltsoc(sn, end_time, start_time)
+        res.to_csv('BMS_DetaSoc_'+sn+'.csv',encoding='GB18030')

LIB/FRONTEND/odo/CalDist.py

@@ -0,0 +1,127 @@
+from math import radians, cos, sin, asin, sqrt
+import pandas as pd
+import numpy as np
+from datetime import datetime
+from datetime import timedelta
+
+from GpsRank import *
+from ProcessDfBms import *
+from ProcessDfGps import *
+
+from LIB.BACKEND import DBManager
+
+import DBManager
+#####################################配置环境分割线#################################################
+
+def GetDistInfo(input_sn,input_starttime,input_endtime):
+
+    #####################################配置参数分割线#################################################
+    dbManager = DBManager.DBManager()
+    data_raw = dbManager.get_data(sn=input_sn, start_time=input_starttime, 
+        end_time=input_endtime)
+    #拆包预处理
+    df_bms_raw=data_raw['bms']
+    df_gps_raw=data_raw['gps']
+    df_bms=preprocess_Df_Bms(df_bms_raw)
+    df_gps=preprocess_Df_Gps(df_gps_raw)
+    
+    #####################################数据预处理分割线#################################################
+
+    # mode: 0：正常取数； 1：7255 取数
+    if input_sn[0:2] == 'UD' or input_sn[0:2] == 'MG':
+        mode = 1
+    else:
+        mode = 0
+    #获取状态表,mode默认为0,mode=1放电时电流为负，mode=0充电时电流为正
+
+    df_bms_drive_timetable=get_bms_drive_timetable(df_bms,mode)
+    df_gps_drive_cycle_accum=pd.DataFrame()
+    if len(df_bms_drive_timetable)>0:
+        for index in range(len(df_bms_drive_timetable)):
+            #筛选drivecycle数据
+            drive_start_time=df_bms_drive_timetable.loc[index,'drive_start_time']#开始时间
+            drive_end_time=df_bms_drive_timetable.loc[index,'drive_end_time']#结束时间
+
+            time_condition=(df_gps['time']>drive_start_time)&(df_gps['time']<drive_end_time)#时间判断条件
+            df_gps_drive_cycle=df_gps.loc[time_condition,:].copy()
+            df_gps_drive_cycle=df_gps_drive_cycle.reset_index(drop=True)#重置index
+            #计算drivecycle GPS累计里程,存入表格
+            condition_a=df_gps_drive_cycle['deltatime']>60*3
+            condition_b=(df_gps_drive_cycle['deltatime']>90*1)&(df_gps_drive_cycle['distance']>1000)
+            drive_cycle_dist_array=df_gps_drive_cycle.loc[~(condition_a|condition_b),'distance'].values
+            drive_cycle_dist_array=drive_cycle_dist_array[np.where((drive_cycle_dist_array>=1)&(drive_cycle_dist_array<1000))[0]]
+            gps_dist=drive_cycle_dist_array.sum()
+            df_bms_drive_timetable.loc[index,'gps_dist']=gps_dist#得到GPS路径
+            #计算头-尾的空缺时间段对应的预估SOC
+            if len(df_gps_drive_cycle)>2:
+                gps_starttime=df_gps_drive_cycle.loc[1,'time']#gps开始时间
+                gps_endtime=df_gps_drive_cycle.loc[df_gps_drive_cycle.index[-1],'time']#gps结束时间
+                #从drive_start_time到gps开始时间，使用SOC计算的里程
+                #gps结束时间到drive_end_time，使用SOC计算的里程
+                unrecorded_odo_head=cal_deltasoc(df_bms,drive_start_time,gps_starttime)
+                unrecorded_odo_tail=cal_deltasoc(df_bms,gps_endtime,drive_end_time)
+            else:
+                #计算数据丢失行unrecordeodo
+                unrecorded_odo_head=cal_deltasoc(df_bms,drive_start_time,drive_end_time)
+                unrecorded_odo_tail=0
+            #计算中间的预估SOC
+            predict_dist=cal_unrecorded_gps(df_gps_drive_cycle,df_bms)
+            #计算总的预估SOC
+            totaldist=predict_dist+unrecorded_odo_head+ unrecorded_odo_tail#得到GPS路径
+            df_bms_drive_timetable.loc[index,'predict_dist']=totaldist
+    else :
+        pass
+
+    #####################################统计行驶里程End#################################################
+    #打印输出结果#
+    index_list=list(range(len(df_bms_drive_timetable)))
+
+    dist_gps=0
+    dist_predict=0
+    day_start_time=''#当日开始时间
+    day_end_time=''#当日结束时间
+    day_start_soc=0#当日开始soc
+    day_end_soc=0#当日结束soc
+    day_min_soc=101#当日最低soc
+    drive_accum_soc=0#累计使用SOC
+
+    if len(df_bms_drive_timetable)>0:
+        #开始行
+        day_start_soc=df_bms_drive_timetable.loc[1,'drive_start_soc']#开始soc
+        day_start_time=df_bms_drive_timetable.loc[1,'drive_start_time']#开始时间
+        #结束行
+        day_end_time=df_bms_drive_timetable.loc[len(df_bms_drive_timetable)-1,'drive_end_time']#结束时间
+        day_end_soc=df_bms_drive_timetable.loc[len(df_bms_drive_timetable)-1,'drive_end_soc']#结束soc
+
+    for index in index_list:
+        '''汇总里程'''
+        dist_gps+=df_bms_drive_timetable.loc[index,'gps_dist']/1000#计算GPS里程
+        dist_predict+=df_bms_drive_timetable.loc[index,'predict_dist']#计算预估里程
+        drive_start_soc=df_bms_drive_timetable.loc[index,'drive_start_soc']#驾驶周期开始的soc
+        drive_end_soc=df_bms_drive_timetable.loc[index,'drive_end_soc']#驾驶周期结束的soc
+        day_min_soc=min(day_min_soc,drive_start_soc,drive_end_soc)
+
+        delta_soc=drive_start_soc-drive_end_soc#驾驶周期SOC变化量
+        drive_accum_soc+=abs(delta_soc)#所有drive cycle累计消耗的soc
+
+    # gps_score=get_df_gps_score(input_starttime,input_endtime,df_gps)
+    # gps_score=round(gps_score,1)
+    #计算总里程
+    dist_gps=round(dist_gps,3)
+    dist_predict=round(dist_predict,3)
+    dist_all=round(dist_gps+dist_predict,3)
+    #输出统计结果
+    # print ('为您查询到，从'+input_starttime+'到'+input_endtime+'时间段内：')
+    # print('SOC变化量：'+str(df_bms['bmspacksoc'].max()-df_bms['bmspacksoc'].min())+' %')
+    # print('行驶总里程:'+str(dist_all)+' km')
+
+    return {'SN':input_sn,'range':dist_all,'accum_soc':drive_accum_soc,'day_start_soc':day_start_soc,
+    'day_end_soc':day_end_soc,'day_start_time':day_start_time,'day_end_time':day_end_time,
+    'day_min_soc':day_min_soc}
+    # print('其中GPS信号在线时里程:'+str(dist_gps)+' km')
+    # print('其中GPS信号掉线时预估里程:'+str(dist_predict)+' km')
+    # print('GPS信号质量评分为：'+str(gps_score),'分\n')
+
+    #####################################打印结果End#################################################
+
+

LIB/FRONTEND/odo/CalDist_Batch.py

@@ -0,0 +1,68 @@
+from math import radians, cos, sin, asin, sqrt
+import pandas as pd
+import numpy as np
+from datetime import datetime
+from datetime import timedelta
+
+from GpsRank import *
+from ProcessDfBms import *
+from ProcessDfGps import *
+from CalDist import *
+from LIB.BACKEND import DBManager
+import pdb
+
+asset_table_path='D:\\work\\Qixiang\\data_analyze_platform\\pengmin\\AllCarDist\\asset_table.xlsx'
+drive_info_path='D:\\work\\Qixiang\\data_analyze_platform\\pengmin\\AllCarDist\\drive_info.xlsx'
+asset_sheet_num=1
+usecols_list=[4,5]
+
+asset_table=pd.read_excel(asset_table_path,sheet_name=asset_sheet_num,skiprows=1,usecols=usecols_list)
+SN_list=asset_table['SN号'].values.tolist()
+print('从6060sheet读取到：'+str(len(SN_list))+'行')
+asset_table=asset_table.rename(columns={'SN号':'SN','状态':'state'})
+
+asset_table.set_index(["SN"],inplace=True)
+col_name=asset_table.columns.tolist()
+col_name.extend(['range','accum_soc','day_start_soc','day_end_soc','day_start_time','day_end_time'])
+asset_table=asset_table.reindex(columns=col_name)
+
+start_hour='00:00:00'#每日查询最早时间
+end_hour='23:59:00'#每日查询最晚时间
+
+
+date_index=pd.date_range('2021-07-31','2021-07-31')
+for date in date_index:
+    '''遍历日期'''
+
+    str_date=str(date)[:10]
+    input_starttime=str_date+' '+start_hour
+    input_endtime=str_date+' '+end_hour
+    test_day=str_date[5:10]#月-日，用于建立sheet
+    drive_info_path='D:\\work\\Qixiang\\data_analyze_platform\\pengmin\\AllCarDist\\6060\\drive_info'+test_day+'_50_end_'+'.xlsx'
+
+    print(input_starttime)
+
+    drive_info_aday=pd.DataFrame()
+    SN_list_short=SN_list#先选择了0:50,50:end
+
+    for SN in SN_list_short:
+        '''遍历SN号'''
+        SN=SN.strip('\t')
+        SN=SN.strip('\n')
+
+        try:
+            range=GetDistInfo(SN,input_starttime,input_endtime)
+            range_df=pd.DataFrame([range])
+            drive_info_aday=pd.concat([drive_info_aday,range_df],axis=0)
+
+        except:
+            print(SN+' '+test_day+'fail')
+        else:
+            pass
+            #print(SN+' '+test_day+'success')
+
+    drive_info_aday.to_excel(drive_info_path,sheet_name=test_day)#sheet名称为testday
+    
+    
+
+

LIB/FRONTEND/odo/GpsRank.py

@@ -0,0 +1,77 @@
+import pandas as pd
+import numpy as np
+from datetime import datetime
+from datetime import timedelta
+
+def cal_gps_score(df):
+    '''在获取信号，优、良、合格、掉线的比例之后，计算gps的总评分'''
+    score=0
+    for index in range(len(df)):
+        time_percent=df.loc[index,'累计时间占比']
+        if df.loc[index,'GPS质量']=='优':
+            score+=time_percent*0
+        elif df.loc[index,'GPS质量']=='良':
+            score+=time_percent*0.3
+        elif df.loc[index,'GPS质量']=='合格':
+            score+=time_percent*0.5
+        elif df.loc[index,'GPS质量']=='掉线':
+            score+=time_percent*1
+    return (1-score)*100
+
+def gps_rank(df_gps_signal_table,df_gps,signal_rank,dist_factor):
+    '''gps信号质量分析函数,需要输入表格，df_gps,信号等级，权重'''
+    gps_signal_condition=(df_gps['gps_signal']==signal_rank)
+    dist=df_gps.loc[gps_signal_condition,'distance'].values.sum()
+    deltatime=df_gps.loc[gps_signal_condition,'deltatime'].values.sum()
+    df_gps_signal_table_condition=(df_gps_signal_table['gps_signal']==signal_rank)
+    df_gps_signal_table.loc[df_gps_signal_table_condition,'accum_distance']=dist/1000
+    df_gps_signal_table.loc[df_gps_signal_table_condition,'accum_deltatime']=deltatime
+    df_gps_signal_table.loc[df_gps_signal_table_condition,'accum_distance_factor']=dist/1000*dist_factor
+    return df_gps_signal_table
+
+def get_df_gps_score(starttime,endtime,df_gps):
+    '''对df_gps中的gps质量进行评分，返回一个数值'''
+    test_start_time=starttime#'2021-05-29 17:16:39'
+    test_end_time=endtime#'2021-05-29 20:08:08'
+
+    test_time_condition=(df_gps['time']>test_start_time)&(df_gps['time']<test_end_time)
+    df_gps_test=df_gps.loc[test_time_condition,:].copy()
+    df_gps_test=df_gps_test.reset_index(drop=True)#重置index
+    #按照deltatime打标签
+    gps_deltatime_bins=[0,30,60,120,10000]#优-良-合格-掉线
+    name=['优','良','合格','掉线']
+    df_gps_test['gps_signal']=pd.cut(df_gps_test['deltatime'], gps_deltatime_bins,labels=name)
+    df_gps_test['gps_signal'].value_counts()
+    #声明一个gps信号按类别统计table
+    df_gps_signal_table=pd.DataFrame()
+    df_gps_signal_table['gps_signal']=df_gps_test['gps_signal'].value_counts().index.tolist()
+    df_gps_signal_table['num']=df_gps_test['gps_signal'].value_counts().values.tolist()
+
+    #分类进行统计
+    df_gps_signal_table=gps_rank(df_gps_signal_table,df_gps_test,'优',1.00)
+    df_gps_signal_table=gps_rank(df_gps_signal_table,df_gps_test,'良',1.05)
+    df_gps_signal_table=gps_rank(df_gps_signal_table,df_gps_test,'合格',1.2)
+    df_gps_signal_table=gps_rank(df_gps_signal_table,df_gps_test,'掉线',1)
+
+    #次数占比，时间占比
+    all_num=df_gps_signal_table['num'].sum()
+    df_gps_signal_table['num_percent']=df_gps_signal_table['num']/all_num
+    all_accum_deltatime=df_gps_signal_table['accum_deltatime'].sum()
+    df_gps_signal_table['accum_deltatime_percent']=df_gps_signal_table['accum_deltatime']/all_accum_deltatime
+
+    #选择参数
+    df_gps_signal_table=df_gps_signal_table[['gps_signal','num','num_percent','accum_distance',
+                                            'accum_distance_factor','accum_deltatime','accum_deltatime_percent']]
+    df_gps_signal_table=df_gps_signal_table.rename(columns={'gps_signal':'GPS质量','num':'数量','num_percent':'数量占比',
+                                                        'accum_distance':'累计里程','accum_distance_factor':'累计里程修正值',
+                                                        'accum_deltatime':'累计时间','accum_deltatime_percent':'累计时间占比'})
+
+    df_gps_signal_table.loc[:,['GPS质量','累计时间','累计时间占比']]
+    gps_score=cal_gps_score(df_gps_signal_table)#调用函数计算gps评分
+    
+    #输出结果，评分
+    #print('From '+test_start_time+'  to '+test_end_time)
+    #print('GPS信号质量评分:'+str(gps_score))
+
+    return gps_score
+

LIB/FRONTEND/odo/ProcessDfBms.py

@@ -0,0 +1,159 @@
+import pandas as pd
+import numpy as np
+from datetime import datetime
+from datetime import timedelta
+
+def get_bms_drive_timetable(df_bms,battery_mode):
+    '''对df_bms进行处理，得到行车的时间表。'''
+
+    #####################step1 先使用电流做充电状态的判断#############################################
+    if battery_mode==0:#mode=0,电流为正代表放电
+        condition_chrg=df_bms['bmspackcrnt']<0##根据电流，挑选充电状态
+        df_bms.loc[condition_chrg,'bscsta']='chrg'
+        condition_drive=df_bms['bmspackcrnt']>0.01##根据电流，挑选行驶状态
+        df_bms.loc[condition_drive,'bscsta']='drive'
+        df_bms.loc[~(condition_drive|condition_chrg),'bscsta']='idle'#静置状态
+    else :#mode=1,电流为负代表放电
+        condition_chrg=df_bms['bmspackcrnt']>0##根据电流，挑选充电状态
+        df_bms.loc[condition_chrg,'bscsta']='chrg'
+        condition_drive=df_bms['bmspackcrnt']<-0.01##根据电流，挑选行驶状态
+        df_bms.loc[condition_drive,'bscsta']='drive'
+        df_bms.loc[~(condition_drive|condition_chrg),'bscsta']='idle'#静置状态
+
+    #####################step2 对drive进行debounce，进入时立即进入，退出时debounce，5分钟。##########
+    index=0
+    debounce_row=10#debounce判断持续10行
+    debounce_time=300#debounce判断持续300秒
+    #对上一步初步状态进行二次处理
+    while index<(len(df_bms)-debounce_row):
+        mode_0=df_bms.loc[index,'bscsta']
+        mode_1=df_bms.loc[index+1,'bscsta']
+        #如果发现了边界行，则进行debounce判断
+        if (mode_0=='drive')&(mode_1!='drive'):#如果从drive变为idle
+            accum_subtime=0#累计时间初始化
+
+            for sub_index in range(debounce_row):#往下处理10行
+                sub_time=df_bms.loc[index+sub_index,'deltatime']
+                accum_subtime+=sub_time
+                #如果累计时间不到300秒，则设置为drive
+                if accum_subtime<debounce_time:
+                    df_bms.loc[index+sub_index,'bscsta']='drive'
+            index=index+debounce_row#处理10行以后的数据
+        #如果从idle变为drivemode，则将idle变为drive，包容前一行
+        elif (mode_0!='drive')&(mode_1=='drive'): 
+            df_bms.loc[index,'bscsta']='drive'
+            index=index+1
+        else:
+            index=index+1
+
+
+    #######################step3 对drivemode的时间进行分段###########################################
+    not_drive_flg=0#初始化
+    #输出drivemode的时间段，包含开始时间、结束时间
+    df_bms_drive_timetable_index=0
+    df_bms_drive_timetable=pd.DataFrame([],columns={'drive_start_time','drive_end_time',
+                                                    'gps_dist','predict_dist','drive_start_soc','drive_end_soc'})
+    for index in range(len(df_bms)):
+        temp_bscsta=df_bms.loc[index,'bscsta']
+        
+        if (temp_bscsta=='drive')&(not_drive_flg==0):
+            drive_start_time=df_bms.loc[index,'time']
+            not_drive_flg=1
+            df_bms_drive_timetable.loc[df_bms_drive_timetable_index,'drive_start_time']=drive_start_time
+            #startsoc
+            drive_start_soc=df_bms.loc[index,'bmspacksoc']
+            df_bms_drive_timetable.loc[df_bms_drive_timetable_index,'drive_start_soc']=drive_start_soc
+
+        elif (temp_bscsta!='drive')&(not_drive_flg==1):
+            drive_end_time=df_bms.loc[index,'time']
+            not_drive_flg=0
+            df_bms_drive_timetable.loc[df_bms_drive_timetable_index,'drive_end_time']=drive_end_time
+            #endsoc
+            drive_end_soc=df_bms.loc[index,'bmspacksoc']
+            df_bms_drive_timetable.loc[df_bms_drive_timetable_index,'drive_end_soc']=drive_end_soc
+            df_bms_drive_timetable_index+=1#index++
+
+    #删除时间信息不齐全的行
+    df_bms_drive_timetable=df_bms_drive_timetable.dropna(subset=['drive_end_time','drive_start_time'])
+    
+    return df_bms_drive_timetable
+
+
+def read_df_bms(path):
+    '''从路径中读取df_bms，进行预处理'''
+    df_bms=pd.read_csv(path, encoding='gbk')#编码方式gbk
+    #筛选表头，重命名
+    bms_columns=['时间戳','总电流[A]','总电压[V]','SOC[%]']
+    df_bms=df_bms.loc[:,bms_columns].copy()
+    df_bms.rename(columns = {"时间戳": "time", "总电流[A]": "bmspackcrnt", 
+                             "总电压[V]": "bmspackvol", "SOC[%]": "bmspacksoc"},inplace=True)#表头替换
+    #时间格式调整
+    df_bms['time']=df_bms['time'].apply(lambda x:datetime.strptime(x,'%Y-%m-%d %H:%M:%S'))#时间格式调整
+    #进行预处理
+    df_bms=df_add_deltatime(df_bms)#增加deltatime列 
+    return df_bms
+
+def preprocess_Df_Bms(df_bms):
+    '''对获得的df_bms，进行预处理'''
+    #筛选表头，重命名
+    bms_columns=['时间戳','总电流[A]','总电压[V]','SOC[%]']
+    df_bms=df_bms.loc[:,bms_columns].copy()
+    df_bms.rename(columns = {"时间戳": "time", "总电流[A]": "bmspackcrnt", 
+                             "总电压[V]": "bmspackvol", "SOC[%]": "bmspacksoc"},inplace=True)#表头替换
+    #删除空行
+    df_bms=df_bms.dropna(subset=['time'])
+    #删除时间重复的行,保留第一次出现的行
+    df_bms=df_bms.drop_duplicates(subset=['time'],keep='first')
+    #时间格式调整
+    df_bms['time']=df_bms['time'].apply(lambda x:datetime.strptime(x,'%Y-%m-%d %H:%M:%S'))#时间格式调整
+    #进行预处理
+    df_bms=df_add_deltatime(df_bms)#增加deltatime列 
+    return df_bms
+
+
+def df_add_deltatime(df_in):
+    '''Add a columns:deltatime,input df must have time column.'''
+    for i in range(len(df_in)):
+        #首行默认为0
+        if i==0:
+            df_in.loc[i,'deltatime']=0
+        #从第二行开始，计算i行到i-1行，GPS距离之差
+        else:
+            time1=df_in.loc[i-1,'time']
+            time2=df_in.loc[i,'time']
+            deltatime=time_interval(time1,time2)#计算时间差，返回单位为秒。
+            df_in.loc[i,'deltatime']=deltatime
+    return df_in
+
+
+def time_interval(time1,time2):
+    """
+    Calculate the time interval between two times，
+    return the seconds
+    """
+    deltatime=time2-time1
+    return deltatime.seconds
+
+
+def cal_deltasoc(df_bms,start_time,end_time):
+    '''输入开始时间和结束时间，返回deltasoc，此处将deltasoc*1既等效为unrecorded_odo.'''
+    time_condition=(df_bms['time']>start_time)&(df_bms['time']<end_time)
+    df_bms_sub=df_bms.loc[time_condition,:].copy()
+    if len(df_bms_sub)>=2:
+        
+        df_bms_head=df_bms_sub.head(1).copy()#首行
+        df_bms_startsoc=df_bms_head['bmspacksoc'].values[0]
+        df_bms_tail=df_bms_sub.tail(1).copy()#尾行
+        df_bms_endsoc=df_bms_tail['bmspacksoc'].values[0]
+        delta_soc=df_bms_startsoc-df_bms_endsoc
+        
+        if delta_soc>0:
+            #如果df_bms出现时间不连续，则先计算deltasoc，deltasoc每变化1，续驶里程增加1，
+            unrecorded_odo=delta_soc*1
+            #print('From '+str(start_time)+' to  '+str(end_time)+' soc decrease:  '+str(delta_soc))
+        else:
+            unrecorded_odo=0#如果deltasoc不大于0，说明在充电，或者静置不动    
+    #如果行数少于2，无法计算
+    else:
+        unrecorded_odo=0
+    return unrecorded_odo

LIB/FRONTEND/odo/ProcessDfGps.py

@@ -0,0 +1,139 @@
+import pandas as pd
+import numpy as np
+from datetime import datetime
+from datetime import timedelta
+from ProcessDfBms import *
+from math import radians, cos, sin, asin, sqrt
+
+def cal_unrecorded_gps(df_in,df_bms):
+    '''筛选出现gps时间断点的数据，用df_bms数据补齐，df_in为df_gps表格。'''
+    #未记录到的odo总和
+    accum_unrecorded_odo=0
+
+    #设置丢失的判断条件，获得信息丢失行的index
+    condition1=df_in['deltatime']>60*3#时间间隔大于3分钟。说明数据掉线了。
+    condition2=(df_in['deltatime']>90*1)&(df_in['distance']>1000)#时间间隔大于*分钟，且Distance间隔大于*，代表掉线了。
+    signal_start_list=df_in.loc[condition1|condition2,:].index.to_list()#信息丢失行
+    #如果第0行属于信息丢失行，则删除，因为需要index-1行
+    try:
+        signal_start_list.remove(0)
+    except:
+        pass
+    else:
+        pass
+    #筛选出所有GPS信号丢失，对应的开始时间-结束时间对。
+    if len(signal_start_list)>0:
+        signal_end_list=[num-1 for num in signal_start_list]#信息丢失行的前一行，此处可能如果是首行，可能会有bug。
+        pick_gps_list=[0]+signal_start_list+signal_end_list+[len(df_in)-1]#首行+尾行+信号开始行+信号结束行
+        pick_gps_list=sorted(pick_gps_list)#重新排序
+
+    #有出现信号断点的行，则进行以下计算。
+    if len(signal_start_list)>0:
+        #针对每个时间对，计算unrecorded odo
+        for start_time_index,end_time_index in zip(signal_start_list,signal_end_list):
+            last_end_time=df_in.loc[end_time_index,'time']
+            this_start_time=df_in.loc[start_time_index,'time']
+            #print('gps signal loss from: '+str(last_end_time)+'-to-'+str(this_start_time))
+            #使用cal_delatasoc计算预估里程
+            unrecorded_odo=cal_deltasoc(df_bms,last_end_time,this_start_time)
+            accum_unrecorded_odo+=unrecorded_odo
+        #print('accum_unrecorded_odo:'+str(accum_unrecorded_odo))
+    else:
+        pass
+    
+    return accum_unrecorded_odo
+
+
+def df_add_avgspeed(df_in):
+    '''Add a columns:avgspeed ,input df must have deltatime，distance column.'''
+    for i in range(len(df_in)):
+        #首行默认为0
+        if i==0:
+            df_in.loc[i,'avgspeed']=0
+        #从第二行开始，计算平均速度
+        else:
+            deltatime=df_in.loc[i,'deltatime']
+            distance=df_in.loc[i,'distance']
+            avgspeed=(distance/1000)/(deltatime/3600)
+            df_in.loc[i,'avgspeed']=avgspeed
+    return df_in
+
+
+def read_df_gps(path):
+    df_gps=pd.read_csv(path, encoding='gbk')#编码方式gbk
+    #重置表头
+    df_gps.rename(columns = {"时间戳": "time", "纬度":"lat", "经度":"lng", 
+                             "卫星数":"sat_num", "海拔m":"height","速度[km/h]":"speed"},  inplace=True)
+    #时间格式调整
+    df_gps['time']=pd.to_datetime(df_gps['time'])
+    #对gps进行清洗
+    df_gps=df_add_distance(df_gps)#增加distance列
+    condition=df_gps['distance']<20000#删除GPS漂移过远的点，可能为GPS错误值
+    df_gps=df_gps.loc[condition,:].copy()#删除condition中，avgspd过大的部分,很可能伴随着GPS的漂移。
+    df_gps=df_gps.reset_index(drop=True)#重置index
+    #进行预处理
+    df_gps=df_add_distance(df_gps)#增加distance列,再算一次distance
+    df_gps=df_add_deltatime(df_gps)#增加deltatime列
+    df_gps=df_add_avgspeed(df_gps)#增加avgspeed列
+
+    #df_gps.to_excel('df_gps.xlsx',sheet_name='Sheet1')
+    return df_gps
+
+def preprocess_Df_Gps(df_gps):
+    '''对Df_Gps进行预处理'''
+    #重置表头
+    df_gps.rename(columns = {"时间戳": "time", "纬度":"lat", "经度":"lng", 
+                             "卫星数":"sat_num", "海拔m":"height","速度[km/h]":"speed"},  inplace=True)
+    #删除含有空数据的行
+    df_gps=df_gps.dropna(subset=['time','lat','lng'])
+    #删除时间重复的行,保留第一次出现的行
+    df_gps=df_gps.drop_duplicates(subset=['time'],keep='first')
+    #时间格式调整
+    df_gps['time']=pd.to_datetime(df_gps['time'])
+    
+    #对gps进行清洗
+    df_gps=df_add_distance(df_gps)#增加distance列
+    condition=df_gps['distance']<20000#删除GPS漂移过远的点，可能为GPS错误值
+    df_gps=df_gps.loc[condition,:].copy()#删除condition中，avgspd过大的部分,很可能伴随着GPS的漂移。
+    df_gps=df_gps.reset_index(drop=True)#重置index
+    #进行预处理
+    df_gps=df_add_distance(df_gps)#增加distance列,再算一次distance
+    df_gps=df_add_deltatime(df_gps)#增加deltatime列
+    df_gps=df_gps.loc[df_gps['deltatime']>0.01,:].copy()#删除deltatime=0的列，两个时间戳相同，无法求速度。
+    df_gps=df_add_avgspeed(df_gps)#增加avgspeed列
+
+    #df_gps.to_excel('df_gps.xlsx',sheet_name='Sheet1')
+    return df_gps
+
+
+def df_add_distance(df_in):
+    '''Add a columns:distance,input df must have lng,lat columns.'''
+    for i in range(len(df_in)):
+        #首行默认为0
+        if i==0:
+            df_in.loc[i,'distance']=0
+        #从第二行开始，计算i行到i-1行，GPS距离之差
+        else:
+            lon1=df_in.loc[i-1,'lng']
+            lat1=df_in.loc[i-1,'lat']
+            lon2=df_in.loc[i,'lng']
+            lat2=df_in.loc[i,'lat']
+            distance=haversine(lon1,lat1,lon2,lat2)#haversine公式计算距离差
+            df_in.loc[i,'distance']=distance    
+    return df_in
+
+
+def haversine(lon1, lat1, lon2, lat2):
+    """
+    Calculate the great circle distance between two points 
+    on the earth (specified in decimal degrees)
+    """
+    # 将十进制度数转化为弧度
+    lon1, lat1, lon2, lat2 = map(radians, [lon1, lat1, lon2, lat2])
+    # haversine公式
+    dlon = lon2 - lon1 
+    dlat = lat2 - lat1 
+    a = sin(dlat/2)**2 + cos(lat1) * cos(lat2) * sin(dlon/2)**2
+    c = 2 * asin(sqrt(a)) 
+    r = 6371 # 地球平均半径，单位为公里
+    return c * r * 1000

LIB/FRONTEND/odo/UpdtFct.py

@@ -0,0 +1,293 @@
+import pandas as pd
+import pymysql
+from sqlalchemy import create_engine
+import datetime
+
+#建立引擎
+engine = create_engine(str(r"mysql+mysqldb://%s:" + '%s' + "@%s/%s") % ('root', 'pengmin', 'localhost', 'qixiangdb'))
+
+conn_qx = pymysql.connect(
+        host='rm-bp10j10qy42bzy0q77o.mysql.rds.aliyuncs.com',
+        user='qx_cas',
+        password='Qx@123456',#Qx@123456
+        database='qx_cas',
+        charset='utf8'
+    )
+
+conn_local = pymysql.connect(
+        host='localhost',
+        user='root',
+        password='pengmin',
+        database='qixiangdb',
+        charset='utf8'
+    )
+
+def getNextSoc(start_soc):
+    '''输入当前的soc,寻找目标soc函数'''
+    if start_soc>80:
+        next_soc=80
+    elif start_soc>60:
+        next_soc=60
+    elif start_soc>40:
+        next_soc=40
+    elif start_soc>20:
+        next_soc=20
+    else:
+        next_soc=1
+    return next_soc
+
+def updtSnFct(sn_factor_df,end_soc,delta_range,range_soc):
+    '''输入当前的soc区间段，里程变量量，soc变化量，输出新的df
+    sn_factor_df为dataframe，delta_range单位为km，range_soc单位为km/persoc'''
+    if end_soc==80:
+        updtFctByCol(sn_factor_df,'a0',delta_range,range_soc)
+    elif end_soc==60:
+        updtFctByCol(sn_factor_df,'a1',delta_range,range_soc)
+    elif end_soc==40:
+        updtFctByCol(sn_factor_df,'a2',delta_range,range_soc)
+    elif end_soc==20:
+        updtFctByCol(sn_factor_df,'a3',delta_range,range_soc)
+    elif end_soc<20:
+        updtFctByCol(sn_factor_df,'a4',delta_range,range_soc)
+    return sn_factor_df
+
+def updtFctByCol(sn_factor_df,colmun_name,delta_range,range_soc):
+    '''更新制定列的factor，sn_factor_df为dataframe，新的系数更新到第一行。delta_range单位为km，
+    range_soc单位为km/persoc，默认按照100km更新续驶里程权重'''
+    range_soc_old=sn_factor_df.loc[0,colmun_name]#读取第0行的老factor
+    debounce_range=200#更新权重
+    new_factor=range_soc*((delta_range)/debounce_range)+range_soc_old*(1-(delta_range)/debounce_range)
+    #在第1行，存储新的factor
+    sn_factor_df.loc[1,colmun_name]=new_factor
+    return sn_factor_df
+
+def updtTodayFct(factor_input,sn_day_df):
+    '''更新今日的Factor***'''
+    sn_factor_df_last=factor_input
+    start_soc=sn_day_df.loc[0,'soc']
+    next_soc=getNextSoc(start_soc)
+    start_range=sn_day_df.loc[0,'vehodo']
+    sn=sn_day_df.loc[0,'name']
+
+    for index in range(len(sn_day_df)-1):
+    #寻找分割点，
+        index_soc=sn_day_df.loc[index,'soc']#当前行soc
+        next_index_soc=sn_day_df.loc[index+1,'soc']#下一行soc
+
+        if (index_soc>=next_soc)&(next_index_soc<next_soc):#当前行高，下一行低
+            delta_soc_tonext=start_soc-next_soc#两个距离点的soc差，单位为%
+            delta_range_tonext=sn_day_df.loc[index,'vehodo']-start_range#两个时间点的距离差，单位为m
+            delta_range_tonext_km=delta_range_tonext/1000#两个时间点的距离差，单位为km
+            range_soc_tonext=(delta_range_tonext/1000)/delta_soc_tonext#单位soc可行驶的公里数
+            print(sn+'start_soc: '+str(start_soc),'next_soc: '+str(next_soc),'delta_vehodo； '+str(round(delta_range_tonext_km,3))
+            +'km'+' range_soc:'+str(round(range_soc_tonext,3)))
+
+            if (delta_range_tonext_km)>1:
+                sn_factor_df_last=updtSnFct(sn_factor_df_last,next_soc,delta_range_tonext_km,range_soc_tonext)
+            
+            start_soc=next_index_soc#变更开始soc
+            next_soc=getNextSoc(start_soc)#变更结束soc
+            start_range=sn_day_df.loc[index+1,'vehodo']#变更开始里程    
+
+    return sn_factor_df_last
+
+def snDayDfPreProcess(sn_day_df):
+    '''预处理，判断是否在dirvemode，获取drivemode条件下的累计行驶距离。
+    增加delta_soc列，drive_flg列，vehodo列'''
+    sn_day_df=sn_day_df.reset_index(drop=True)#重置index
+    #增加列，计算delta_soc
+    for index in range(len(sn_day_df)):
+        if index==0:
+            sn_day_df.loc[index,'delta_soc']=0
+        else:
+            sn_day_df.loc[index,'delta_soc']=sn_day_df.loc[index,'soc']-sn_day_df.loc[index-1,'soc']
+    #增加列，判断是否在drive状态
+    drive_flg=False
+    accum_distance=0
+    for index in range(len(sn_day_df)):
+        if index==0:
+            sn_day_df.loc[index,'drive_status']=drive_flg
+            sn_day_df.loc[index,'vehodo']=0
+        else:
+            if (sn_day_df.loc[index,'delta_soc']<-0.1)|\
+                ((sn_day_df.loc[index,'delta_soc']<=0)&(sn_day_df.loc[index,'distance']>500)):#soc处于下降状态，说明在drive
+                drive_flg=True#置true
+            elif sn_day_df.loc[index,'delta_soc']>0.1:#soc处于上升状态，说明不在drive
+                drive_flg=False#置false
+                accum_distance=0#清零
+            sn_day_df.loc[index,'drive_flg']=drive_flg
+            accum_distance+=sn_day_df.loc[index,'distance']#对行驶里程进行累加
+            sn_day_df.loc[index,'vehodo']=accum_distance
+    #筛选所有的drive信息行
+    sn_day_drive_df=sn_day_df.loc[sn_day_df['drive_flg']==True,:]
+    sn_day_drive_df=sn_day_drive_df.reset_index(drop=True)#重置index
+    
+    return sn_day_drive_df 
+
+def updtAllSnFct(start_date,end_date):
+    '''计算开始时间到结束时间的，所有sn的factor'''
+    start_date_datetime=datetime.datetime.strptime(start_date,'%Y-%m-%d')#开始时间
+    end_date_datetime=datetime.datetime.strptime(end_date,'%Y-%m-%d')#开始时间
+    delta_day=(end_date_datetime-start_date_datetime).days#间隔天数
+    i=1
+    while i<=delta_day:
+        end_date=(start_date_datetime+datetime.timedelta(days=i)).strftime("%Y-%m-%d")
+        updtAllSnTodayFct(start_date,end_date)#调用函数
+        print('update all sn factor from '+start_date+" to "+end_date)
+        start_date=end_date
+        i+=1#自加
+
+def updtAllSnTodayFct(start_date,end_date):
+    ''''更新今天所有sn的factorx信息，start_date和end_date相隔一天。此处还可优化'''
+    start_date_str="'"+start_date+"'"
+    end_date_str="'"+end_date+"'"
+    sql_cmd="select * from drive_info where time between "+start_date_str+" and "+end_date_str+" and distance!=0;"
+    range_soc_df = pd.read_sql(sql_cmd, conn_qx)#使用read_sql方法查询qx数据库
+
+    #筛选出所有当日数据之后，筛选当日有更新的sn
+    today_sn_list=range_soc_df['name'].unique().tolist()#[:100]#先一次更新5个
+    #建立空的dataframe，用于承接所有更新的factor信息
+    today_sn_fct_df=pd.DataFrame([],columns=['sn','date','a0','a1','a2','a3','a4'])
+
+    for sn in today_sn_list:
+        #寻找factor_df，里面是否有sn号，如果没有sn对应信息，则新增信息。
+        sn_str="'"+sn+"'"
+        sql_cmd2="select sn,date,a0,a1,a2,a3,a4 from tb_sn_factor where date<"+start_date_str+" and sn="+sn_str
+        #此处可以限定每次查询的数量，例如不高于5行
+        factor_df=pd.read_sql(sql_cmd2, conn_local)#使用read_sql方法查询local数据库
+
+        #按照sn号和日期进行去重，避免运行时重复产生factor数据，保留第一次出现的行。
+        factor_df=factor_df.drop_duplicates(subset=['sn','date'],keep='first')
+
+        if len(factor_df)==0:
+            #如果没有搜索到factor历史数据,则声明一个新的进行初始化
+            start_date_datetime=datetime.datetime.strptime(start_date,'%Y-%m-%d')
+            yesterday=(start_date_datetime+datetime.timedelta(days=-1)).strftime("%Y-%m-%d")
+            #为sn申请一个新的factor，初始值为1
+            factor_df=pd.DataFrame({'sn':sn,'date':yesterday,'a0':[1],'a1':[1],'a2':[1],'a3':[1],'a4':[1]})
+        sn_factor_df=factor_df.loc[factor_df['sn']==sn,:]#筛选sn对应的factor
+        sn_factor_df=sn_factor_df.sort_values(by='date',ascending='True')#按照日期排序
+
+        sn_factor_df_last=sn_factor_df.tail(1).copy()#寻找最后一行，代表最近日期
+        sn_factor_df_last=sn_factor_df_last.append(sn_factor_df_last)#新增加一行,用于存储新的factor
+        sn_factor_df_last=sn_factor_df_last.reset_index(drop=True)#重置index
+        sn_factor_df_last.loc[1,'date']=start_date#更改后一行的date为当前日期
+        #筛选对应车辆的信息
+        condition_sn=(range_soc_df['name']==sn)
+        sn_day_df=range_soc_df.loc[condition_sn,:].copy()
+        sn_day_df=sn_day_df.reset_index(drop=True)
+        #使用updtTodayFct函数更新今天的factor
+        if len(sn_day_df)>=2:
+            #使用process函数，进行预处理
+            sn_day_df=snDayDfPreProcess(sn_day_df)#预处理函数
+            if len(sn_day_df)>=2:
+                sn_factor_df_new=updtTodayFct(sn_factor_df_last,sn_day_df)#
+                today_sn_fct_df=today_sn_fct_df.append(sn_factor_df_new.loc[1,:])#筛选第一行，进行拼接，最后写入到数据库中
+    
+    #将today_sn_fct_df写入到数据库中，今天所有factor更新的系数，一次写入。
+    if len(today_sn_fct_df)>=1:
+        today_sn_fct_df.to_sql('tb_sn_factor',con=engine,chunksize=10000,if_exists='append',index=False)
+
+def updtOneSnFct(sn,start_date,end_date):
+    '''计算开始时间到结束时间的，一个sn的所有factor'''
+    start_date_datetime=datetime.datetime.strptime(start_date,'%Y-%m-%d')#开始时间
+    end_date_datetime=datetime.datetime.strptime(end_date,'%Y-%m-%d')#开始时间
+    delta_day=(end_date_datetime-start_date_datetime).days#间隔天数
+    i=1
+    while i<=delta_day:
+        end_date=(start_date_datetime+datetime.timedelta(days=i)).strftime("%Y-%m-%d")
+        updtOneSnTodayFct(sn,start_date,end_date)#调用函数
+        print('update one sn factor from '+start_date+" to "+end_date)
+        start_date=end_date
+        i+=1#自加
+
+def updtOneSnTodayFct(sn,start_date,end_date):
+    start_date_str="'"+start_date+"'"
+    end_date_str="'"+end_date+"'"
+    sn_str="'"+sn+"'"
+    sql_cmd="select * from drive_info where time between "+start_date_str+" and "+end_date_str+\
+    " and distance!=0 and name="+sn_str
+    range_soc_df = pd.read_sql(sql_cmd, conn_qx)#使用read_sql方法查询qx数据库
+
+    if len(range_soc_df)>0:
+        #筛选出所有当日数据之后，筛选当日有更新的sn
+        today_sn_list=range_soc_df['name'].unique().tolist()
+        #建立空的dataframe，用于承接所有更新的factor信息
+        today_sn_fct_df=pd.DataFrame([],columns=['sn','date','a0','a1','a2','a3','a4'])
+
+        for sn in today_sn_list:
+            #寻找factor_df，里面是否有sn号，如果没有sn对应信息，则新增信息。
+            sn_str="'"+sn+"'"
+            sql_cmd2="select sn,date,a0,a1,a2,a3,a4 from tb_sn_factor where date<"+start_date_str+" and sn="+sn_str
+            factor_df=pd.read_sql(sql_cmd2, conn_local)#使用read_sql方法查询local数据库
+
+            #按照sn号和日期进行去重，避免运行时重复产生factor数据，保留第一次出现的行。
+            factor_df=factor_df.drop_duplicates(subset=['sn','date'],keep='first')
+
+            if len(factor_df)==0:
+                #如果没有搜索到factor历史数据,则声明一个新的进行初始化
+                start_date_datetime=datetime.datetime.strptime(start_date,'%Y-%m-%d')
+                yesterday=(start_date_datetime+datetime.timedelta(days=-1)).strftime("%Y-%m-%d")
+                factor_df=pd.DataFrame({'sn':sn,'date':yesterday,'a0':[1],'a1':[1],'a2':[1],'a3':[1],'a4':[1]})
+                today_sn_fct_df=today_sn_fct_df.append(factor_df.loc[0,:])#将初始化的行记录到数据库
+
+            sn_factor_df=factor_df.loc[factor_df['sn']==sn,:]#筛选sn对应的factor
+            
+            sn_factor_df=sn_factor_df.sort_values(by='date',ascending='True')#按照日期排序
+            sn_factor_df_last=sn_factor_df.tail(1).copy()#寻找最后一行，代表最近日期
+            sn_factor_df_last=sn_factor_df_last.append(sn_factor_df_last)#新增加一行,用于存储新的factor
+            sn_factor_df_last=sn_factor_df_last.reset_index(drop=True)#重置index
+            sn_factor_df_last.loc[1,'date']=start_date#更改后一行的date为当前日期
+            #筛选对应车辆的信息
+            condition_sn=(range_soc_df['name']==sn)
+            sn_day_df=range_soc_df.loc[condition_sn,:].copy()
+            sn_day_df=sn_day_df.reset_index(drop=True)
+            #使用updtTodayFct函数更新今天的factor
+            if len(sn_day_df)>=2:
+                #使用process函数，进行预处理
+                sn_day_df=snDayDfPreProcess(sn_day_df)#!!!!!!!!!!!增加
+                if len(sn_day_df)>=2:
+                    sn_factor_df_new=updtTodayFct(sn_factor_df_last,sn_day_df)#
+                    today_sn_fct_df=today_sn_fct_df.append(sn_factor_df_new.loc[1,:])#筛选第一行，进行拼接，最后写入到数据库中
+        
+        # #将today_sn_fct_df写入到数据库中
+        if len(today_sn_fct_df)>=1:
+            today_sn_fct_df.to_sql('tb_sn_factor',con=engine,chunksize=10000,if_exists='append',index=False)
+            # print(sn+' factor will be update in table tb_sn_factor!')
+        return today_sn_fct_df
+
+
+
+
+
+# def updtASnTodayFct(start_date,end_date,today_sn_list):
+
+#     sql_cmd="select * from qixiang_test where time>='"+start_date+"' and time<='"+end_date+"'"
+#     range_soc_df = pd.read_sql(sql_cmd, conn)#使用read_sql方法查询数据库
+
+#     sql_cmd2="select sn,date,a0,a1,a2,a3,a4 from tb_sn_factor where date<'"+start_date+"'"
+#     factor_df=pd.read_sql(sql_cmd2, conn)#使用read_sql方法查询数据库
+
+#     #筛选出所有当日数据之后，筛选当日有更新的sn
+#     # today_sn_list=range_soc_df['sn'].unique().tolist()
+#     # today_sn_list=today_sn_list[:10]#更新若干个
+#     #建立空的dataframe，用于承接所有更新的factor信息
+#     today_sn_fct_df=pd.DataFrame([],columns=['sn','date','a0','a1','a2','a3','a4'])
+
+#     for sn in today_sn_list:
+#         sn_factor_df=factor_df.loc[factor_df['sn']==sn,:]#筛选sn对应的factor
+#         sn_factor_df=sn_factor_df.sort_values(by='date',ascending='True')#按照日期排序
+#         sn_factor_df_last=sn_factor_df.tail(1).copy()#寻找最后一行，代表最近日期
+#         sn_factor_df_last=sn_factor_df_last.append(sn_factor_df_last)#新增加一行,用于存储新的factor
+#         sn_factor_df_last=sn_factor_df_last.reset_index(drop=True)#重置index
+#         sn_factor_df_last.loc[1,'date']=start_date#更改后一行的date为当前日期
+#         #筛选对应车辆的信息
+#         condition_sn=(range_soc_df['sn']==sn)
+#         sn_day_df=range_soc_df.loc[condition_sn,:].copy()
+#         sn_day_df=sn_day_df.reset_index(drop=True)
+#         #使用updtTodayFct函数更新今天的factor
+#         sn_factor_df_new=updtTodayFct(sn_factor_df_last,sn_day_df)
+#         today_sn_fct_df=today_sn_fct_df.append(sn_factor_df_new.loc[1,:])#筛选第一行，进行拼接，最后写入到数据库中
+    
+#     #将today_sn_fct_df写入到数据库中
+#     today_sn_fct_df.to_sql('tb_sn_factor',con=engine,chunksize=10000,if_exists='append',index=False)

LIB/FRONTEND/odo/UpdtFct_Main.py

@@ -0,0 +1,28 @@
+import pandas as pd
+import pymysql
+from sqlalchemy import create_engine
+import datetime
+from UpdtFct import *
+
+
+conn_qx = pymysql.connect(
+        host='rm-bp10j10qy42bzy0q77o.mysql.rds.aliyuncs.com',
+        user='qx_cas',
+        password='Qx@123456',#Qx@123456
+        database='qx_cas',
+        charset='utf8'
+    )
+
+conn_local = pymysql.connect(
+        host='localhost',
+        user='root',
+        password='pengmin',
+        database='qixiangdb',
+        charset='utf8'
+    )
+
+#指定开始时间，结束时间，更新所有sn的factor
+start_date="2021-07-18"
+end_date="2021-08-01"
+
+updtAllSnFct(start_date,end_date)

LIB/FRONTEND/odo/main_1.py

@@ -0,0 +1,66 @@
+#coding=utf-8
+# 计算里程
+from math import radians, cos, sin, asin, sqrt
+import pandas as pd
+import numpy as np
+from datetime import datetime
+from datetime import timedelta
+
+from GpsRank import *
+from ProcessDfBms import *
+from ProcessDfGps import *
+from LIB.MIDDLE.odo.CalDist import *
+from LIB.BACKEND import DBManager
+import pdb
+
+asset_table_path='asset_table.xlsx'
+# drive_info_path='D:\\work\\Qixiang\\data_analyze_platform\\pengmin\\AllCarDist\\drive_info.xlsx'
+asset_sheet_num=1
+usecols_list=[4,5]
+
+asset_table=pd.read_excel(asset_table_path,sheet_name=asset_sheet_num,skiprows=1,usecols=usecols_list)
+SN_list=asset_table['SN号'].values.tolist()
+print('从6060sheet读取到：'+str(len(SN_list))+'行')
+asset_table=asset_table.rename(columns={'SN号':'SN','状态':'state'})
+
+asset_table.set_index(["SN"],inplace=True)
+col_name=asset_table.columns.tolist()
+col_name.extend(['range','accum_soc','day_start_soc','day_end_soc','day_start_time','day_end_time'])
+asset_table=asset_table.reindex(columns=col_name)
+
+start_hour='00:00:00'#每日查询最早时间
+end_hour='23:59:00'#每日查询最晚时间
+
+
+date_index=pd.date_range('2021-07-31','2021-07-31')
+for date in date_index:
+    '''遍历日期'''
+
+    str_date=str(date)[:10]
+    input_starttime=str_date+' '+start_hour
+    input_endtime=str_date+' '+end_hour
+    test_day=str_date[5:10]#月-日，用于建立sheet
+    drive_info_path='6060\\drive_info'+test_day+'_50_end_'+'.xlsx'
+
+    print(input_starttime)
+
+    drive_info_aday=pd.DataFrame()
+    SN_list_short=SN_list#先选择了0:50,50:end
+
+    for SN in SN_list_short:
+        '''遍历SN号'''
+        SN=SN.strip('\t')
+        SN=SN.strip('\n')
+
+        try:
+            range=GetDistInfo(SN,input_starttime,input_endtime)
+            range_df=pd.DataFrame([range])
+            drive_info_aday=pd.concat([drive_info_aday,range_df],axis=0)
+
+        except:
+            print(SN+' '+test_day+'fail')
+        else:
+            pass
+            #print(SN+' '+test_day+'success')
+
+    drive_info_aday.to_excel(drive_info_path,sheet_name=test_day)#sheet名称为testday

LIB/FRONTEND/other/bat_user_relation/main.py

@@ -0,0 +1,106 @@
+from sqlalchemy import create_engine
+import pandas as pd
+
+# 连接数据库
+host='rm-bp10j10qy42bzy0q7.mysql.rds.aliyuncs.com'
+port=3306
+db='qixiang_manage'
+user='qx_query'
+password='@Qx_query'
+engine = create_engine('mysql+pymysql://{}:{}@{}:{}/{}?charset=utf8'.format(user,password, host, str(port),db))
+sql = "select * from py_battery_rent"
+df_rent = pd.read_sql_query(sql, engine)
+sql = "select * from py_battery_rent_change"
+df_rent_change = pd.read_sql_query(sql, engine)
+
+
+# 统计截止日期：2021年07月25日 14：00：00
+'''
+ 预处理:
+ df_rent:
+    1）删除测试电池 GY开头 以及位数不对的电池
+    2）删除user_id为空的行
+    3) 删除 qrcode为空的行
+    4）删除pay_stat 等于3 的未支付订单
+    4) 时间戳=0 的值置None
+ df_rent_change:
+    1）删除测试电池 GY开头 以及位数不对的电池
+    2）删除qrcode和new_qrcode为空的行
+'''
+# df_rent = pd.read_csv("data_rent.csv",sep=',',encoding="ANSI")
+# print(len(df_rent))
+
+df_rent = df_rent.dropna(axis=0, how='any', subset=['user_id', 'qrcode'], inplace=False)
+df_rent = df_rent[~(df_rent['pay_stat']==3)]
+df_rent['id'] = df_rent['id'].apply(lambda x:str(int(x)) if not pd.isnull(x) else None)
+df_rent['return_time'] = df_rent['return_time'].apply(lambda x:x+3600*8 if x!=0 else None)
+df_rent['pay_time'] = df_rent['pay_time'].apply(lambda x:x+3600*8 if x!=0 else None)
+df_rent['get_time'] = df_rent['get_time'].apply(lambda x:x+3600*8 if x!=0 else None)
+df_rent['end_time'] = df_rent['end_time'].apply(lambda x:x+3600*8 if x!=0 else None)
+df_rent['addtime'] = pd.to_datetime(df_rent['addtime'].values,unit='s')
+df_rent['pay_time'] = pd.to_datetime(df_rent['pay_time'].values,unit='s')
+df_rent['get_time'] = pd.to_datetime(df_rent['get_time'].values,unit='s')
+df_rent['end_time'] = pd.to_datetime(df_rent['end_time'].values,unit='s')
+df_rent['return_time'] = pd.to_datetime(df_rent['return_time'].values,unit='s')
+df_rent['addtime'] = df_rent['addtime'].apply(lambda x:x.strftime("%Y-%m-%d %H:%M:%S"))
+df_rent['pay_time'] = df_rent['pay_time'].apply(lambda x:x.strftime("%Y-%m-%d %H:%M:%S") if not pd.isna(x) else x)
+df_rent['get_time'] = df_rent['get_time'].apply(lambda x:x.strftime("%Y-%m-%d %H:%M:%S") if not pd.isna(x) else x)
+df_rent['end_time'] = df_rent['end_time'].apply(lambda x:x.strftime("%Y-%m-%d %H:%M:%S") if not pd.isna(x) else x)
+df_rent['return_time'] = df_rent['return_time'].apply(lambda x:x.strftime("%Y-%m-%d %H:%M:%S") if not pd.isna(x) else x)
+df_rent = df_rent.reset_index(drop=True)
+print(len(df_rent))
+
+# df_rent_change = pd.read_csv("data_rent_change.csv",sep=',',encoding="ANSI")
+print(len(df_rent_change))
+df_rent_change = df_rent_change.dropna(axis=0, how='any', subset=['new_qrcode', 'qrcode'], inplace=False)
+print(len(df_rent_change))
+df_rent_change = df_rent_change.reset_index(drop=True)
+df_rent_change['create_time'] = df_rent_change['create_time'].apply(lambda x:x+3600*8 if x!=0 else None)
+df_rent_change['create_time'] = pd.to_datetime(df_rent_change['create_time'].values,unit='s')
+df_rent_change['create_time'] = df_rent_change['create_time'].apply(lambda x:x.strftime("%Y-%m-%d %H:%M:%S"))
+# 将更换电池的信息，补充至rent中, 旧电池添加一条租用记录和归还记录， 并将订单的pay_time 改为电池更换时间, 
+df_groups = df_rent_change.groupby("rent_id")
+for name, df_group in df_groups:
+    df_group = df_group.sort_values("create_time")
+    df_group = df_group.reset_index(drop=True)
+    for i in range(0, len(df_group)):
+        df_rent = df_rent.append(pd.DataFrame({'addtime':[df_group.loc[i,'create_time']],'qrcode':[df_group.loc[i,'qrcode']], 'return_time':[df_group.loc[i,'create_time']],'user_id':[df_group.loc[i,'user_id']], 'f_id':[df_group.loc[i,'f_id']]}))
+
+        df_rent = df_rent.append(pd.DataFrame({'addtime':[df_rent.loc[df_rent[(df_rent['id']==str(int(df_group.loc[i,'rent_id'])))].index,'pay_time'].values[0]],
+                'qrcode':[df_group.loc[i,'qrcode']], 'pay_time':[df_rent.loc[df_rent[(df_rent['id']==str(int(df_group.loc[i,'rent_id'])))].index,'pay_time'].values[0]], 
+                'user_id':[df_group.loc[i,'user_id']], 'f_id':[df_group.loc[i,'f_id']]}))
+  
+        df_rent.loc[df_rent[(df_rent['id']==str(int(df_group.loc[i,'rent_id'])))].index,'pay_time'] = df_group.loc[i,'create_time']
+
+# 生成用来排序的时间列
+df_rent = df_rent.reset_index(drop=True)
+df_rent['sort_time'] = [None] * len(df_rent)
+for i in range(0, len(df_rent)):
+   df_rent.loc[i, 'sort_time'] =  df_rent.loc[i, 'pay_time'] if not pd.isnull(df_rent.loc[i, 'pay_time']) else df_rent.loc[i, 'return_time']
+df_rent['sort_time'] = pd.to_datetime(df_rent['sort_time'])
+# df_rent.to_csv('ttt.csv')
+df = df_rent.copy()
+df_res = pd.DataFrame(columns=['sn', 'st', 'et', 'user_id', 'agent_id'])
+df_groups = df.groupby("qrcode")
+for name, df_group in df_groups:
+    
+    # 根据sn分组后的电池，首先按照记录时间排序，然后判断用户id是否发生变化，
+    df_group = df_group.sort_values("sort_time") # 按照本条记录的生成时间排序
+    df_group = df_group.reset_index(drop=True)
+    sn = name
+    user_id = df_group.loc[0, 'user_id']
+    st =  df_group.loc[0, 'pay_time']
+    et = None
+    for i in range(1,len(df_group)):
+        if df_group.loc[i, 'user_id'] == user_id:
+            continue
+        else:
+            et = df_group.loc[i-1, 'return_time'] if not pd.isnull(df_group.loc[i-1, 'return_time']) else None
+            df_res = df_res.append(pd.DataFrame({'sn':[sn], 'st':[st], 'et':[et], 'user_id':[user_id], 'agent_id':[df_group.loc[i-1, 'f_id']]}), ignore_index=True)
+            user_id = df_group.loc[i, 'user_id']
+            st =  df_group.loc[i, 'pay_time']
+            et = None
+    et = df_group.loc[len(df_group)-1, 'return_time'] if not pd.isnull(df_group.loc[len(df_group)-1, 'return_time']) else None
+    df_res = df_res.append(pd.DataFrame({'sn':[sn], 'st':[st], 'et':[et], 'user_id':[user_id], 'agent_id':[df_group.loc[len(df_group)-1, 'f_id']]}), ignore_index=True)
+df_res.to_csv('result.csv')
+    

LIB/FRONTEND/soh/LFPSoh 20210711.py

@@ -0,0 +1,309 @@
+# 获取数据
+from LIB.BACKEND import DBManager
+
+import os
+import pandas as pd
+import numpy as np
+import datetime
+# import matplotlib.pyplot as plt
+
+#参数输入
+Capacity = 54
+PackFullChrgVolt=69.99
+CellFullChrgVolt=3.5
+CellVoltNums=20
+CellTempNums=4
+FullChrgSoc=98
+PeakSoc=57
+# #40Ah-OCV
+# LookTab_SOC = [0, 5, 10, 15, 20, 25, 30, 35, 40, 45, 50, 55, 60, 65, 70, 75, 80, 85, 90, 95, 100]
+# LookTab_OCV = [3.3159, 3.4502, 3.4904, 3.5277, 3.5590, 3.5888, 3.6146, 3.6312, 3.6467, 3.6642, 3.6865, 3.7171, 3.7617,
+#                3.8031, 3.8440, 3.8888, 3.9376, 3.9891, 4.0451, 4.1068, 4.1830]
+#55Ah-OCV
+LookTab_SOC = [0.00, 	2.40, 	6.38, 	10.37, 	14.35, 	18.33, 	22.32, 	26.30, 	30.28, 	35.26, 	40.24, 	45.22, 	50.20, 	54.19, 	58.17, 	60.16, 	65.14, 	70.12, 	75.10, 	80.08, 	84.06, 	88.05, 	92.03, 	96.02, 	100.00]
+LookTab_OCV = [2.7151,	3.0298,	3.1935,	3.2009,	3.2167,	3.2393,	3.2561,	3.2703,	3.2843,	3.2871,	3.2874,	3.2868,	3.2896,	3.2917,	3.2967,	3.3128,	3.3283,	3.3286,	3.3287,	3.3288,	3.3289,	3.3296,	3.3302,	3.3314,	3.3429]
+
+#定义滑动滤波函数
+def np_move_avg(a, n, mode="same"):
+    return (np.convolve(a, np.ones((n,)) / n, mode=mode))
+
+#参数初始化
+dvdq_soh=[]
+dvdq_soh_err=[]
+bms_soh=[]
+dvdq_time=[]
+dvdq_sohcfd=[]
+sn_list=[]
+
+#获取数据时间段
+now_time=datetime.datetime.now().strftime('%Y-%m-%d %H:%M:%S')
+now_time=datetime.datetime.strptime(now_time,'%Y-%m-%d %H:%M:%S')
+start_time=now_time-datetime.timedelta(days=30)
+end_time=str(now_time)
+strat_time=str(start_time)
+
+#输入一个含有‘SN号’的xlsx
+SNdata = pd.read_excel('骑享资产梳理-20210621.xlsx', sheet_name='6060')
+SNnums=SNdata['SN号']
+for k in range(15):
+    
+    SNnum=str(SNnums[k])
+    sn = SNnum
+    st = '2021-07-06 00:00:00'
+    et = '2021-07-07 20:00:00'
+
+    dbManager = DBManager.DBManager()
+    df_data = dbManager.get_data(sn=sn, start_time=st, end_time=et, data_groups=['bms'])
+    data = df_data['bms']
+
+    packcrnt=data['总电流[A]']
+    packvolt=data['总电压[V]']
+    SOC=data['SOC[%]']
+    SOH=data['SOH[%]']
+    bmsstat=data['充电状态']
+    time= pd.to_datetime(data['时间戳'], format='%Y-%m-%d %H:%M:%S')
+
+    #第一步：筛选充电数据
+    ChgStart=[]
+    ChgEnd=[]
+    for i in range(3, len(time) - 3):
+        if i==3 and bmsstat[i]==2 and bmsstat[i+1]==2 and bmsstat[i+2]==2:
+            ChgStart.append(i)
+        elif bmsstat[i-2]!=2 and bmsstat[i-1]!=2 and bmsstat[i]==2:
+            ChgStart.append(i)
+        elif bmsstat[i-1]==2 and bmsstat[i]!=2 and bmsstat[i+1]!=2:
+            ChgEnd.append(i)
+        elif i == (len(time) - 4) and bmsstat[len(bmsstat)-1] == 2 and bmsstat[len(bmsstat)-2] == 2:
+            ChgEnd.append(len(time)-1)
+
+    #第二步：筛选充电起始Soc<48%，电芯温度>15℃，且满充的数据
+    ChgStartValid1=[]
+    ChgEndValid1=[]
+    ChgStartValid2=[]
+    ChgEndValid2=[]
+
+    for i in range(min(len(ChgStart),len(ChgEnd))):
+
+        #获取最小温度值
+        celltemp = []
+        for j in range(1, CellTempNums+1):
+            s = str(j)
+            temp = data['单体温度' + s]
+            celltemp.append(temp[ChgEnd[i]])
+
+        #寻找最大电压值
+        cellvolt = []
+        for j in range(1, CellVoltNums+1):
+            s = str(j)
+            volt = max(data['单体电压' + s][ChgStart[i]:ChgEnd[i]]/1000)
+            cellvolt.append(volt)
+
+        #筛选满足2点法计算的数据
+        StandingTime=0
+        if max(cellvolt)>CellFullChrgVolt and SOC[ChgStart[i]]<30 and min(celltemp)>5:
+            for k in reversed(range(ChgStart[i])):
+                if abs(packcrnt[k - 2]) < 0.01:
+                    StandingTime = StandingTime + (time[k] - time[k-1]).total_seconds()
+                    if StandingTime > 600:  # 筛选静置时间>10min
+                        ChgStartValid1.append(ChgStart[i])
+                        ChgEndValid1.append(ChgEnd[i])
+                        break
+                else:
+                    break
+
+        #筛选满足DV/DQ方法的数据
+        if max(cellvolt)>CellFullChrgVolt and SOC[ChgStart[i]]<45 and min(celltemp)>5:
+            if ((time[ChgEnd[i]]-time[ChgStart[i]]).total_seconds())/(ChgEnd[i]-ChgStart[i])<60:
+                ChgStartValid2.append(ChgStart[i])
+                ChgEndValid2.append(ChgEnd[i])
+
+    #第三步：计算充电Soc和Soh
+
+    # 两点法计算soh
+    Soc=[]
+    Time=[]
+    Soc_Err=[]
+    Bms_Soc=[]
+
+    Soh1=[]
+    Time1=[]
+    Bms_Soh1=[]
+    Soh_Err1=[]
+
+    for i in range(len(ChgStartValid1)):
+
+        #寻找最大电压值
+        cellvolt = []
+        for j in range(1, CellVoltNums+1):
+            s = str(j)
+            volt = max(data['单体电压' + s])
+            cellvolt.append(volt)
+        voltmax_index = cellvolt.index(max(cellvolt)) + 1
+        cellvolt = data['单体电压' + str(voltmax_index)] / 1000
+
+        #soc
+        Soc.append(np.interp(cellvolt[ChgStartValid1[i]-3],LookTab_OCV,LookTab_SOC))
+        Time.append(time[ChgStartValid1[i]-3])
+        Bms_Soc.append(SOC[ChgStartValid1[i]-3])
+        Soc_Err.append(Bms_Soc[-1]-Soc[-1])
+
+        #soh
+        Ocv_Soc=np.interp(cellvolt[ChgStartValid1[i]-3],LookTab_OCV,LookTab_SOC)
+        Ah=0
+
+        for j in range(ChgStartValid1[i],ChgEndValid1[i]):
+            #计算soc
+            Step=(time[j]-time[j-1]).total_seconds()
+            Time.append(time[j])
+            Bms_Soc.append(SOC[j])
+            if Soc[-1]-(packcrnt[j]*Step*100)/(3600*Capacity)<100:
+                Soc.append(Soc[-1]-(packcrnt[j]*Step*100)/(3600*Capacity))
+            else:
+                Soc.append(100)
+            Soc_Err.append(Bms_Soc[-1] - Soc[-1])
+
+            #两点法计算soh
+            Ah=Ah-packcrnt[j]*Step/3600
+        Soh1.append(Ah*100/((FullChrgSoc-Ocv_Soc)*0.01*Capacity))
+        Bms_Soh1.append(SOH[i])
+        Soh_Err1.append(Bms_Soh1[-1]-Soh1[-1])
+        Time1.append(time[ChgStartValid1[i]])
+
+    # DV/DQ法计算soh
+    Soh2=[]
+    Time2=[]
+    Bms_Soh2=[]
+    Soh_Err2=[]
+    SohCfd = []
+    sn_list=[]
+
+    for i in range(len(ChgStartValid2)):
+
+        #寻找最大电压值
+        cellvolt1 = []
+        cellvolt=[]
+        for j in range(1, CellVoltNums+1):
+            s = str(j)
+            volt = data['单体电压' + s]
+            cellvolt1.append(volt[ChgEndValid2[i]])
+        voltmax1_index = cellvolt1.index(max(cellvolt1)) + 1
+        cellvolt1 = data['单体电压' + str(voltmax1_index)] / 1000
+
+        #电压采用滑动平均滤波
+        cellvolt=np_move_avg(cellvolt1, 3, mode="same")
+
+
+        #参数赋初始值
+        Ah = 0
+        Volt = cellvolt[ChgStartValid2[i]]
+        DV_Volt=[]
+        DQ_Ah = []
+        DVDQ = []
+        time2 = []
+        soc2 = []
+        Ah_tatal=[0]
+        xvolt=[]
+        #计算DV和DQ值
+        for j in range(ChgStartValid2[i],ChgEndValid2[i]):
+            Step=(time[j+1]-time[j]).total_seconds()
+            Ah=Ah-packcrnt[j]*Step/3600
+            if (cellvolt[j]-Volt)>0.0009 and Ah>0:
+                Ah_tatal.append(Ah_tatal[-1]+Ah)
+                DQ_Ah.append(Ah)
+                DV_Volt.append(cellvolt[j]-Volt)
+                DVDQ.append((DV_Volt[-1])/DQ_Ah[-1])
+                xvolt.append(cellvolt[j])
+                Volt=cellvolt[j]
+                Ah = 0
+                time2.append(time[j])
+                soc2.append(SOC[j])
+
+        #切片Soc>50且Soc<80
+        Data1 = pd.DataFrame({'SOC': soc2,
+                                'DVDQ': DVDQ,
+                                'Ah_tatal': Ah_tatal[:-1],
+                                'DQ_Ah':DQ_Ah,
+                                'DV_Volt':DV_Volt,
+                                'XVOLT':xvolt})
+
+        Data1=Data1[(Data1['SOC']>50) & (Data1['SOC']<80)]
+
+        #寻找峰值并计算Soh和置信度
+        # 获取最小温度值
+        celltemp = []
+        for j in range(1, CellTempNums+1):
+            s = str(j)
+            temp = data['单体温度' + s]
+            celltemp.append(temp[ChgStartValid2[i]])
+        if len(Data1['DVDQ'])>1:
+            PeakIndex=Data1['DVDQ'].idxmax()
+            #筛选峰值点附近±0.5%SOC内的数据
+            Data2=Data1[(Data1['SOC']>(Data1['SOC'][PeakIndex]-0.5)) & (Data1['SOC']<(Data1['SOC'][PeakIndex]+0.5))]
+            if len(Data2)>2:
+                Ah_tatal1 = Data1['Ah_tatal']
+                DVDQ = Data1['DVDQ']
+                soc2 = Data1['SOC']
+                xvolt = Data1['XVOLT']
+                if soc2[PeakIndex]>50 and soc2[PeakIndex]<80:
+                    DVDQ_SOH=(Ah_tatal[-1]-Ah_tatal1[PeakIndex]) * 100 / ((FullChrgSoc - PeakSoc) * 0.01 * Capacity)
+                    if DVDQ_SOH<95:
+                        DVDQ_SOH=DVDQ_SOH*0.3926+58.14
+                    if DVDQ_SOH>70 and DVDQ_SOH<120:
+                        Soh2.append(DVDQ_SOH)
+                        Bms_Soh2.append(SOH[ChgStartValid2[i]])
+                        Soh_Err2.append(Bms_Soh2[-1] - Soh2[-1])
+                        Time2.append(time[ChgStartValid2[i]])
+                        sn_list.append(SNnum)
+
+                        #计算置信度
+                        if min(celltemp)<10:
+                            SohCfd.append(50)
+                        elif min(celltemp)<20:
+                            SohCfd.append(80)
+                        else:
+                            SohCfd.append(100)
+            else:
+                Data1=Data1.drop([PeakIndex])
+                PeakIndex = Data1['DVDQ'].idxmax()
+                Data2 = Data1[(Data1['SOC'] > (Data1['SOC'][PeakIndex] - 0.5)) & (Data1['SOC'] < (Data1['SOC'][PeakIndex] + 0.5))]
+                if len(Data2) > 3:
+                    Ah_tatal1 = Data1['Ah_tatal']
+                    DVDQ = Data1['DVDQ']
+                    soc2 = Data1['SOC']
+                    xvolt = Data1['XVOLT']
+                    if soc2[PeakIndex]>50 and soc2[PeakIndex]<80:
+                        DVDQ_SOH=(Ah_tatal[-1]-Ah_tatal1[PeakIndex]) * 100 / ((FullChrgSoc - PeakSoc) * 0.01 * Capacity)
+                        if DVDQ_SOH<95:
+                            DVDQ_SOH=DVDQ_SOH*0.3926+58.14
+                        if DVDQ_SOH>70 and DVDQ_SOH<120:
+                            Soh2.append(DVDQ_SOH)
+                            Bms_Soh2.append(SOH[ChgStartValid2[i]])
+                            Soh_Err2.append(Bms_Soh2[-1] - Soh2[-1])
+                            Time2.append(time[ChgStartValid2[i]])
+                            sn_list.append(SNnum)
+
+                            #计算置信度
+                            if min(celltemp)<10:
+                                SohCfd.append(50)
+                            elif min(celltemp)<20:
+                                SohCfd.append(80)
+                            else:
+                                SohCfd.append(100)
+
+    #处理数据
+    if len(Soh2)>5:
+        Soh2=np_move_avg(Soh2,5,mode="valid")
+        result_soh2={'时间': Time2[4::],
+            'SN号':sn_list[4::],
+            'BMS_SOH': Bms_Soh2[4::],
+            'SOH': Soh2,
+            'SOH误差': Soh_Err2[4::]}
+    else:
+        result_soh2={'时间': Time2,
+            'SN号':sn_list,
+            'BMS_SOH': Bms_Soh2,
+            'SOH': Soh2,
+            'SOH误差': Soh_Err2}
+    #第四步：将数据存入Excel
+    Result_Soh2=pd.DataFrame(result_soh2)
+    Result_Soh2.to_csv('BMS_SOH_'+SNnum+'.csv',encoding='GB18030')

LIB/FRONTEND/soh/NCMSoh 20210716.py

@@ -0,0 +1,173 @@
+# 获取数据
+from LIB.BACKEND import DBManager
+
+import os
+import pandas as pd
+import numpy as np
+import datetime
+# import matplotlib.pyplot as plt
+
+#参数输入
+Capacity = 41
+PackFullChrgVolt=69.99
+CellFullChrgVolt=3.5
+CellVoltNums=17
+CellTempNums=4
+FullChrgSoc=98
+PeakSoc=57
+# #40Ah-OCV
+LookTab_SOC = [0,	3.534883489,	8.358178409,	13.18141871,	18.00471528,	22.82796155,	27.65123833,	32.47444668,	37.29772717,	42.12099502,	46.94423182,	51.76744813,	56.59070685,	61.4139927,	66.23719857,	71.0604667,	75.88373853,	80.70702266,	85.5302705,	90.35352009,	95.17676458,	100]
+LookTab_OCV = [3.3159,	3.4384,	3.4774,	3.5156,	3.5478,	3.5748,	3.6058,	3.6238,	3.638,	3.6535,	3.6715,	3.6951,	3.7279,	3.7757,	3.8126,	3.8529,	3.8969,	3.9446,	3.9946,	4.0491,	4.109,	4.183]
+# #55Ah-OCV
+# LookTab_SOC = [0.00, 	2.40, 	6.38, 	10.37, 	14.35, 	18.33, 	22.32, 	26.30, 	30.28, 	35.26, 	40.24, 	45.22, 	50.20, 	54.19, 	58.17, 	60.16, 	65.14, 	70.12, 	75.10, 	80.08, 	84.06, 	88.05, 	92.03, 	96.02, 	100.00]
+# LookTab_OCV = [2.7151,	3.0298,	3.1935,	3.2009,	3.2167,	3.2393,	3.2561,	3.2703,	3.2843,	3.2871,	3.2874,	3.2868,	3.2896,	3.2917,	3.2967,	3.3128,	3.3283,	3.3286,	3.3287,	3.3288,	3.3289,	3.3296,	3.3302,	3.3314,	3.3429]
+
+#参数初始化
+Soh3=[]
+Time3=[]
+Bms_Soh3=[]
+Soh_Err3=[]
+sn_list=[]
+
+#获取数据时间段
+now_time=datetime.datetime.now().strftime('%Y-%m-%d %H:%M:%S')
+now_time=datetime.datetime.strptime(now_time,'%Y-%m-%d %H:%M:%S')
+start_time=now_time-datetime.timedelta(days=31)
+end_time=str(now_time)
+strat_time=str(start_time)
+
+#输入一个含有‘SN号’的xlsx
+SNdata = pd.read_excel('骑享资产梳理-20210621.xlsx', sheet_name='6040骑享')
+SNnums=SNdata['SN号']
+for k in range(len(SNnums)):
+    SNnum=str(SNnums[k])
+
+    sn = SNnum
+    st = strat_time
+    et = end_time
+
+    dbManager = DBManager.DBManager()
+    df_data = dbManager.get_data(sn=sn, start_time=st, end_time=et, data_groups=['bms'])
+    data = df_data['bms']
+    # print(data)
+
+    packcrnt=data['总电流[A]']
+    packvolt=data['总电压[V]']
+    SOC=data['SOC[%]']
+    SOH=data['SOH[%]']
+    bmsstat=data['充电状态']
+    time= pd.to_datetime(data['时间戳'], format='%Y-%m-%d %H:%M:%S')
+
+    #第一步：筛选充电数据
+    if len(packcrnt)>100:
+        ChgStart=[]
+        ChgEnd=[]
+        for i in range(3, len(time) - 3):
+            if i==3 and bmsstat[i]==2 and bmsstat[i+1]==2 and bmsstat[i+2]==2:
+                ChgStart.append(i)
+            elif bmsstat[i-2]!=2 and bmsstat[i-1]!=2 and bmsstat[i]==2:
+                ChgStart.append(i)
+            elif bmsstat[i-1]==2 and bmsstat[i]!=2 and bmsstat[i+1]!=2:
+                ChgEnd.append(i-1)
+            elif i == (len(time) - 4) and bmsstat[len(bmsstat)-1] == 2 and bmsstat[len(bmsstat)-2] == 2:
+                ChgEnd.append(len(time)-2)
+
+        #第二步：筛选充电起始Soc<45% & SOC>85%，电芯温度>5℃
+        ChgStartValid1=[]
+        ChgEndValid1=[]
+        ChgStartValid2=[]
+        ChgEndValid2=[]
+        StandingNum=[]
+
+        for i in range(min(len(ChgStart),len(ChgEnd))):
+
+            #获取最小温度值
+            celltemp = []
+            for j in range(1, CellTempNums+1):
+                s = str(j)
+                temp = data['单体温度' + s]
+                celltemp.append(temp[ChgEnd[i]])
+            
+            #去除电流0点   
+            for k in range(ChgStart[i],ChgEnd[i]):
+                if packcrnt[k]<-0.5 and packcrnt[k+1]>-0.5 and packcrnt[k+2]>-0.5 and packcrnt[k+3]>-0.5:
+                    ChgEnd[i]=k
+            
+            #计算最大packvolt
+            if len(packvolt[ChgStart[i]:ChgEnd[i]])>0:
+                packvoltMAX=max(packvolt[ChgStart[i]:ChgEnd[i]])
+
+                #筛选满足2点法计算的数据
+                StandingTime=0
+                StandingTime1=0
+                StandingTime2=0
+                if SOC[ChgEnd[i]]>85 and SOC[ChgStart[i]]<45 and min(celltemp)>5:
+                    for m in range(min(len(packcrnt)-ChgEnd[i]-2,ChgStart[i]-2)):
+                        if abs(packcrnt[ChgStart[i] - m - 1]) < 0.1:
+                            StandingTime = StandingTime + (time[ChgStart[i] - m] - time[ChgStart[i] - m - 1]).total_seconds()
+                        if abs(packcrnt[ChgEnd[i] + m + 1]) < 0.1:
+                            StandingTime1 = StandingTime1 + (time[ChgEnd[i] + m + 1] - time[ChgEnd[i] + m]).total_seconds()
+                        if StandingTime > 900 and StandingTime1>900 and ((time[ChgEnd[i]]-time[ChgStart[i]]).total_seconds())/(ChgEnd[i]-ChgStart[i])<60:  #筛选静置时间>15min且慢充过程丢失数据少
+                            ChgStartValid1.append(ChgStart[i])
+                            ChgEndValid1.append(ChgEnd[i])
+                            StandingNum.append(m)
+                            break
+                        if abs(packcrnt[ChgStart[i] - m - 2])>0.5 and abs(packcrnt[ChgEnd[i] + m + 2])>0.5:
+                            break
+
+        # 计算soh
+        Soh1=[]
+        Soh2=[]
+        Time1=[]
+        Bms_Soh1=[]
+        Soh_Err1=[]
+        sn_list1=[]
+        #两点法计算Soh
+        if len(ChgStartValid1)>0:
+            for i in range(len(ChgStartValid1)):
+                #计算Ah
+                Ah=0
+                for j in range(ChgStartValid1[i],ChgEndValid1[i]):
+                    Step=(time[j+1]-time[j]).total_seconds()
+                    Ah=Ah-packcrnt[j+1]*Step/3600
+                #计算每个电芯的Soh
+                for j in range(1, CellVoltNums+1):
+                    s = str(j)
+                    cellvolt = data['单体电压' + s]/1000
+                    OCVStart=cellvolt[ChgStartValid1[i]-2]
+                    OCVEnd=cellvolt[ChgEndValid1[i]+StandingNum[i]]
+                    #soh
+                    Ocv_Soc1=np.interp(OCVStart,LookTab_OCV,LookTab_SOC)
+                    Ocv_Soc2=np.interp(OCVEnd,LookTab_OCV,LookTab_SOC)
+                    Soh2.append(Ah*100/((Ocv_Soc2-Ocv_Soc1)*0.01*Capacity))
+                Soh1.append(np.mean(Soh2))
+                Bms_Soh1.append(SOH[ChgStartValid1[i]])
+                Soh_Err1.append(Bms_Soh1[-1]-Soh1[-1])
+                Time1.append(time[ChgStartValid1[i]])
+                sn_list1.append(SNnum)
+       
+            # Soh3.append(np.mean(Soh1))
+            # Bms_Soh3.append(np.mean(Bms_Soh1))
+            # Soh_Err3.append(np.mean(Soh_Err1))
+            # Time3.append(time[ChgStartValid1[-1]])
+            # sn_list.append(SNnum)
+
+        #第四步：将数据存入Excel
+            result_soh2={'时间': Time1,
+                'SN号': sn_list1,
+                'BMS_SOH': Bms_Soh1,
+                'SOH': Soh1,
+                'SOH误差': Soh_Err1}
+
+            Result_Soh2=pd.DataFrame(result_soh2)
+            Result_Soh2.to_csv('BMS_SOH_'+SNnum+'.csv',encoding='GB18030')
+
+#     result_soh1={'时间': Time3,
+#         'SN号':sn_list,
+#         'BMS_SOH': Bms_Soh3,
+#         'SOH': Soh3,
+#         'SOH误差': Soh_Err3}
+
+# Result_Soh1=pd.DataFrame(result_soh1)
+# print(Result_Soh1)
+# Result_Soh1.to_csv('BMS_SOH_'+'6040'+'.csv',encoding='GB18030')

LIB/FRONTEND/soh/main.py

@@ -0,0 +1,34 @@
+#coding=utf-8
+import os
+import datetime
+import pandas as pd
+from LIB.BACKEND import DBManager, Log
+from LIB.MIDDLE import SignalMonitor
+from sqlalchemy import create_engine
+from sqlalchemy.orm import sessionmaker
+import time, datetime
+import traceback
+from LIB.MIDDLE.soh import NCMSoh_20210716 as NCMSoh
+from LIB.MIDDLE.soh import LFPSoh_20210711 as LFPSoh
+
+from urllib import parse
+
+dbManager = DBManager.DBManager()
+if __name__ == "__main__":
+    SNdata_6040 = pd.read_excel('骑享资产梳理-20210621.xlsx', sheet_name='6040骑享')
+    SNdata_6060 = pd.read_excel('骑享资产梳理-20210621.xlsx', sheet_name='6060')
+    SNnums_6060=SNdata_6060['SN号']
+    SNnums_6040=SNdata_6040['SN号']
+    now_time=datetime.datetime.now().strftime('%Y-%m-%d %H:%M:%S')
+    now_time=datetime.datetime.strptime(now_time,'%Y-%m-%d %H:%M:%S')
+    start_time=now_time-datetime.timedelta(days=31)
+    end_time=str(now_time)
+    start_time=str(start_time)
+
+    for sn in SNnums_6040.tolist():
+        res = NCMSoh.cal_soh(sn, end_time, start_time)
+        res.to_csv('BMS_SOH_'+sn+'.csv',encoding='GB18030')
+    
+    for sn in SNnums_6060.tolist():
+        res = LFPSoh.cal_soh(sn, end_time, start_time)
+        res.to_csv('BMS_SOH_'+sn+'.csv',encoding='GB18030')

LIB/FRONTEND/soh/soh表头及数据类型.xlsx

@@ -0,0 +1,6 @@
+表头	名称	数据类型
+时间	time	timestamps
+SN号	sn	str
+BMS_SOH	bms_soh	float64
+SOH	soh	float64
+SOH误差	soh_err	float64

LIB/MIDDLE/CellStateEstimation/SOH/V1_0_0/BatParam.py

@@ -0,0 +1,86 @@
+
+#定义电池参数
+from types import CellType
+import sys
+
+class BatParam:
+
+    def __init__(self,celltype):
+
+        # if 'PK500' in sn:
+        #     self.celltype=1 #6040三元电芯
+        # elif 'PK502' in sn:
+        #     self.celltype=2 #4840三元电芯
+        # elif 'PK504' in sn:
+        #     self.celltype=99    #60ah林磷酸铁锂电芯
+        # elif 'MGMLXN750' in sn:
+        #     self.celltype=3 #力信50ah三元电芯
+        # elif 'MGMCLN750' in sn: 
+        #     self.celltype=4 #CATL 50ah三元电芯
+        # else:
+        #     print('未找到对应电池编号！！！')
+        #     sys.exit()
+
+        if celltype==1: #6040
+            self.Capacity = 41
+            self.PackFullChrgVolt=69.99
+            self.CellFullChrgVolt=4.2
+            self.CellVoltNums=17
+            self.CellTempNums=4
+            self.FullChrgSoc=98
+            self.PeakSoc=57
+            self.LookTab_SOC = [0,	    3.5348,	8.3581,	13.181,	18.004,	22.827,	27.651,	32.474,	37.297,	42.120,	46.944,	51.767,	56.590,	61.413,	66.237,	71.060,	75.883,	80.707,	85.530,	90.353,	95.176,	100]
+            self.LookTab_OCV = [3.3159,	3.4384,	3.4774,	3.5156,	3.5478,	3.5748,	3.6058,	3.6238,	3.638,	3.6535,	3.6715,	3.6951,	3.7279,	3.7757,	3.8126,	3.8529,	3.8969,	3.9446,	3.9946,	4.0491,	4.109,	4.183]
+        
+        elif celltype==2: #4840
+            self.Capacity = 41
+            self.PackFullChrgVolt=69.99
+            self.CellFullChrgVolt=4.2
+            self.CellVoltNums=14
+            self.CellTempNums=4
+            self.FullChrgSoc=98
+            self.PeakSoc=57
+            self.LookTab_SOC = [0,	    3.5348,	8.3581,	13.181,	18.004,	22.827,	27.651,	32.474,	37.297,	42.120,	46.944,	51.767,	56.590,	61.413,	66.237,	71.060,	75.883,	80.707,	85.530,	90.353,	95.176,	100]
+            self.LookTab_OCV = [3.3159,	3.4384,	3.4774,	3.5156,	3.5478,	3.5748,	3.6058,	3.6238,	3.638,	3.6535,	3.6715,	3.6951,	3.7279,	3.7757,	3.8126,	3.8529,	3.8969,	3.9446,	3.9946,	4.0491,	4.109,	4.183]
+        
+        elif celltype==3:
+            self.Capacity = 51
+            self.PackFullChrgVolt=80
+            self.CellFullChrgVolt=4.2
+            self.CellVoltNums=20
+            self.CellTempNums=4
+            self.FullChrgSoc=98
+            self.PeakSoc=57
+            self.LookTab_SOC = [0,	    5,	    10,	    15,	    20,	    25,	    30,	    35,	    40,	    45,	    50,	    55,	    60,	    65,	    70,	    75,	    80,	    85,	    90,	    95,	    100]
+            self.LookTab_OCV = [3.357, 	3.455, 	3.493, 	3.540, 	3.577, 	3.605, 	3.622, 	3.638, 	3.655, 	3.677, 	3.707, 	3.757, 	3.815, 	3.866, 	3.920, 	3.976, 	4.036, 	4.099, 	4.166, 	4.237, 	4.325]
+        
+        elif celltype==4:
+            self.Capacity = 50
+            self.PackFullChrgVolt=80
+            self.CellFullChrgVolt=4.2
+            self.CellVoltNums=20
+            self.CellTempNums=4
+            self.FullChrgSoc=98
+            self.PeakSoc=57
+            self.LookTab_SOC = [0,	    5,	    10,	    15,	    20,	    25,	    30,	    35,	    40,	    45,	    50,	    55,	    60,	    65,	    70,	    75,	    80,	    85,	    90,	    95,	    100]
+            self.LookTab_OCV = [3.152, 	3.397, 	3.438, 	3.481, 	3.523, 	3.560, 	3.586, 	3.604, 	3.620, 	3.638, 	3.661, 	3.693, 	3.748, 	3.803, 	3.853, 	3.903, 	3.953, 	4.006, 	4.063, 	4.121, 	4.183]
+        
+        elif celltype==99:   #60ah磷酸铁锂电芯
+            self.Capacity = 54
+            self.PackFullChrgVolt=69.99
+            self.CellFullChrgVolt=3.5
+            self.OcvInflexionBelow=3.285
+            self.OcvInflexion2=3.296
+            self.OcvInflexion3=3.328
+            self.OcvInflexionAbove=3.4
+            self.CellVoltNums=20
+            self.CellTempNums=4
+            self.FullChrgSoc=98
+            self.PeakSoc=60.5
+            self.LookTab_SOC = [0.00, 	2.40, 	6.38, 	10.37, 	14.35, 	18.33, 	22.32, 	26.30, 	30.28, 	35.26, 	40.24, 	45.22, 	50.20, 	54.19, 	58.17, 	60.16, 	65.14, 	70.12, 	75.10, 	80.08, 	84.06, 	88.05, 	92.03, 	96.02, 	100.00]
+            self.LookTab_OCV = [2.7151,	3.0298,	3.1935,	3.2009,	3.2167,	3.2393,	3.2561,	3.2703,	3.2843,	3.2871,	3.2874,	3.2868,	3.2896,	3.2917,	3.2967,	3.3128,	3.3283,	3.3286,	3.3287,	3.3288,	3.3289,	3.3296,	3.3302,	3.3314,	3.3429]
+        
+        else:
+            print('未找到对应电池编号！！！')
+            # sys.exit()
+

LIB/MIDDLE/CellStateEstimation/SOH/V1_0_0/CBMSBatSoh.py

@@ -0,0 +1,733 @@
+import pandas as pd
+import numpy as np
+import datetime
+import bisect
+import matplotlib.pyplot as plt
+from LIB.MIDDLE.CellStateEstimation.SOH.V1_0_0 import BatParam
+from LIB.MIDDLE.CellStateEstimation.SOH.V1_0_0 import DBDownload
+import BatParam
+import DBDownload
+
+class BatSoh:
+    def __init__(self,sn,celltype,df_bms,df_accum, host, port, db, user, password, tablename):  #参数初始化
+
+        self.sn=sn
+        self.celltype=celltype
+        self.param=BatParam.BatParam(celltype)
+        self.df_bms=df_bms
+        self.packcrnt=df_bms['总电流[A]']
+        self.packvolt=df_bms['总电压[V]']
+        self.bms_soc=df_bms['SOC[%]']
+        self.bms_soh=df_bms['SOH[%]']
+        self.bmsstat=df_bms['充电状态']
+        self.bmstime= pd.to_datetime(df_bms['时间戳'], format='%Y-%m-%d %H:%M:%S')
+
+        self.df_accum=df_accum
+        self.accumtime=pd.to_datetime(df_accum['时间戳'], format='%Y-%m-%d %H:%M:%S')
+
+        self.host=host
+        self.port=port
+        self.db=db
+        self.user=user
+        self.password=password
+        self.tablename=tablename
+
+    def batsoh(self):
+        if self.celltype==1 or self.celltype==2 or self.celltype==3 or self.celltype==4:
+            df_res=self._ncmsoh_twopoint()
+            return df_res
+            
+        elif self.celltype==99:
+            df_res=self._lfpsoh()
+            return df_res
+
+        else:
+            return pd.DataFrame()
+
+    def getdata(self):  #获取预算结果库的结果
+        DBManager=DBDownload.DBDownload(self.host, self.port, self.db, self.user, self.password)
+        with DBManager as DBManager:
+            self.df_soh=DBManager.getdata('time_st','time_sp','sn','method','soh','cellsoh', tablename='soh_result', sn=self.sn)
+    
+    def _np_move_avg(self,a, n, mode="same"): #定义滑动滤波函数
+        return (np.convolve(a, np.ones((n,)) / n, mode=mode))
+
+    def _chrgdata(self):    #筛选充电数据
+        self.ChgStart=[]
+        self.ChgEnd=[]
+        if len(self.packvolt)>100:
+            for i in range(3, len(self.bmstime) - 3):
+                if i==3 and self.bmsstat[i]==2 and self.bmsstat[i+1]==2 and self.bmsstat[i+2]==2:
+                    self.ChgStart.append(i)
+                elif self.bmsstat[i-2]!=2 and self.bmsstat[i-1]!=2 and self.bmsstat[i]==2:
+                    self.ChgStart.append(i)
+                elif self.bmsstat[i-1]==2 and self.bmsstat[i]!=2 and self.bmsstat[i+1]!=2:
+                    self.ChgEnd.append(i-1)
+                elif i == (len(self.bmstime) - 4) and self.bmsstat[len(self.bmsstat)-1] == 2 and self.bmsstat[len(self.bmsstat)-2] == 2:
+                    self.ChgEnd.append(len(self.bmstime)-2)
+    
+    def _celltemp_weight(self,num):   #寻找当前行数据的最小温度值
+        celltemp = []
+        for j in range(1, self.param.CellTempNums+1):
+            s = str(j)
+            celltemp.append(self.df_bms.loc[num,'单体温度' + s])
+        celltemp.remove(min(celltemp))
+        if self.celltype==99:
+            if min(celltemp)>=20:
+                self.tempweight=1
+                self.StandardStandingTime=1800
+            elif min(celltemp)>=10:
+                self.tempweight=0.6
+                self.StandardStandingTime=3600
+            elif min(celltemp)>=5:
+                self.tempweight=0.1
+                self.StandardStandingTime=7200
+            else:
+                self.tempweight=0
+                self.StandardStandingTime=10800
+        else:
+            if min(celltemp)>=20:
+                self.tempweight=1
+                self.StandardStandingTime=900
+            elif min(celltemp)>=10:
+                self.tempweight=0.8
+                self.StandardStandingTime=1200
+            elif min(celltemp)>=5:
+                self.tempweight=0.3
+                self.StandardStandingTime=1800
+            else:
+                self.tempweight=0.1
+                self.StandardStandingTime=3600
+
+    def _deltsoc_weight(self,deltsoc):   #获取SOC差对应的SOH权重值
+        if deltsoc>60:   
+            deltsoc_weight=1
+        elif deltsoc>50:
+            deltsoc_weight=0.9
+        elif deltsoc>40:
+            deltsoc_weight=0.7
+        elif deltsoc>30:
+            deltsoc_weight=0.5
+        elif deltsoc>20:
+            deltsoc_weight=0.3
+        else:
+            deltsoc_weight=0
+        return deltsoc_weight
+
+    def _cellvolt_get(self,num): #获取当前行所有电压数据
+        cellvolt=[]
+        for j in range(1, self.param.CellVoltNums+1): 
+            s = str(j)
+            cellvolt.append(self.df_bms.loc[num,'单体电压' + s]/1000)
+        return cellvolt
+                
+    def _ncmsoh_chrg(self):     #NCM充电数据soh计算 
+        self._chrgdata()
+        self.getdata()
+        ChgStartValid=[]
+        ChgEndValid=[]
+        tempweightlist=[]
+        for i in range(min(len(self.ChgStart),len(self.ChgEnd))): 
+            self._celltemp_weight(self.ChgEnd[i])               #获取温度对应的静置时间及权重            
+            for k in range(self.ChgStart[i],self.ChgEnd[i]):   #去除电流0点
+                if self.packcrnt[k]<-0.5 and self.packcrnt[k+1]>-0.5 and self.packcrnt[k+2]>-0.5 and self.packcrnt[k+3]>-0.5:
+                    self.ChgEnd[i]=k
+   
+            #筛选满足2点法计算的数据
+            StandingTime=0
+            StandingTime1=0
+            if self.bms_soc[self.ChgEnd[i]]>70 and self.bms_soc[self.ChgStart[i]]<50:
+                for m in range(min(len(self.packcrnt)-self.ChgEnd[i]-2,self.ChgStart[i]-2)):
+                    if abs(self.packcrnt[self.ChgStart[i] - m - 1]) < 0.5:
+                        StandingTime = StandingTime + (self.bmstime[self.ChgStart[i] - m] - self.bmstime[self.ChgStart[i] - m - 1]).total_seconds()
+                    if abs(self.packcrnt[self.ChgEnd[i] + m + 1]) < 0.5:
+                        StandingTime1 = StandingTime1 + (self.bmstime[self.ChgEnd[i] + m + 1] - self.bmstime[self.ChgEnd[i] + m]).total_seconds()
+                    if StandingTime > self.StandardStandingTime and StandingTime1>self.StandardStandingTime and ((self.bmstime[self.ChgEnd[i]]-self.bmstime[self.ChgStart[i]]).total_seconds())/(self.ChgEnd[i]-self.ChgStart[i])<60:  #筛选静置时间>15min且慢充过程丢失数据少
+                        if abs(self.packcrnt[self.ChgEnd[i] + m + 2])>0.5 or m==len(self.packcrnt)-self.ChgEnd[i]-3: #如果电流<0.5,继续寻找充电后的静置电压，直到末尾
+                            ChgStartValid.append(self.ChgStart[i])
+                            ChgEndValid.append(self.ChgEnd[i]+m)
+                            tempweightlist.append(self.tempweight)
+                            break
+                    if abs(self.packcrnt[self.ChgStart[i] - m - 2])>0.5 and abs(self.packcrnt[self.ChgEnd[i] + m + 2])>0.5:
+                        break
+
+        if len(ChgStartValid)>0:   #两点法计算Soh
+            df_res=pd.DataFrame(columns=('time','sn','soh','soh1'))
+            soh2=[]
+            if not self.df_soh.empty:  #获取数据库中上次计算的Soh值
+                soh_init=list(self.df_soh['soh'])[-1]
+            else:
+                soh_init=list(self.bms_soh)[-1]
+
+            for i in range(len(ChgStartValid)):
+                Ah=0
+                for j in range(ChgStartValid[i],ChgEndValid[i]):  #计算Ah
+                    Step=(self.bmstime[j+1]-self.bmstime[j]).total_seconds()
+                    Ah=Ah-self.packcrnt[j+1]*Step/3600
+
+                for j in range(1, self.param.CellVoltNums+1):    #计算每个电芯的Soh
+                    s = str(j)
+                    OCVStart=self.df_bms.loc[ChgStartValid[i]-2,'单体电压' + s]/1000
+                    OCVEnd=self.df_bms.loc[ChgEndValid[i]-1,'单体电压' + s]/1000
+                    #soh
+                    ocv_Soc1=np.interp(OCVStart,self.param.LookTab_OCV,self.param.LookTab_SOC)
+                    ocv_Soc2=np.interp(OCVEnd,self.param.LookTab_OCV,self.param.LookTab_SOC)
+                
+                    soh2.append(Ah*100/((ocv_Soc2-ocv_Soc1)*0.01*self.param.Capacity))
+                soh1=np.mean(soh2)
+                delt_ocv_soc=ocv_Soc2-ocv_Soc1
+                self._deltsoc_weight(delt_ocv_soc)
+                soh_res=soh_init*(1-self.deltsoc_weight*tempweightlist[i])+soh1*self.deltsoc_weight*tempweightlist[i]
+                soh_init=soh_res
+                df_res.loc[i]=[self.bmstime[ChgStartValid[i]],self.sn,soh_res,soh1]
+            
+            return df_res
+        return pd.DataFrame()
+
+    def _ncmsoh_twopoint(self):
+        standingpoint_st=[]
+        standingpoint_sp=[]
+        tempweightlist=[]
+        standingtime=0
+        for i in range(3,len(self.df_bms)-3):
+
+            if abs(self.packcrnt[i]) < 0.3:     #电流为0
+                delttime=(self.bmstime[i]-self.bmstime[i-1]).total_seconds()
+                standingtime=standingtime+delttime
+                self._celltemp_weight(i)     #获取不同温度对应的静置时间
+
+                if standingtime>self.StandardStandingTime:      #静置时间满足要求
+                    if standingpoint_st:                        
+                        if len(standingpoint_st)>len(standingpoint_sp):     #开始时刻已获取，结束时刻未获取
+                            cellvolt_now=self._cellvolt_get(i-1)     #获取当前行电压数据
+                            minocv_socnow=np.interp(min(cellvolt_now),self.param.LookTab_OCV,self.param.LookTab_SOC)
+                            cellvolt_st=self._cellvolt_get(standingpoint_st[-1])   #获取开始时刻静置后的电压数据
+                            minocv_socst=np.interp(min(cellvolt_st),self.param.LookTab_OCV,self.param.LookTab_SOC)
+
+                            if abs(minocv_socst-minocv_socnow)>=40:   #当前时刻SOC与开始时刻SOC差>=20
+                                if abs(self.packcrnt[i+2])>=0.3:    #如果下一时刻电流>=0.5，则压入当前索引
+                                    standingpoint_sp.append(i)
+                                    standingpoint_st.append(i)
+                                    tempweightlist.append(self.tempweight)
+                                    standingtime=0
+                                    continue
+                                else:
+                                    if standingtime>3600 or i==len(self.df_bms)-2:   #仍处于静置，但静置时间>1h，则直接获取sp时刻，或者到了数据末尾
+                                        standingpoint_sp.append(i)
+                                        tempweightlist.append(self.tempweight)
+                                        continue
+                            else:
+                                if minocv_socst<50 and minocv_socnow<minocv_socst and abs(self.packcrnt[i+2])>=0.3:
+                                    standingpoint_st[-1]=i
+                                    standingtime=0
+                                    continue
+                                elif minocv_socst>=50 and minocv_socnow>minocv_socst and abs(self.packcrnt[i+2])>=0.3:
+                                    standingpoint_st[-1]=i
+                                    standingtime=0
+                                    continue
+                                else:
+                                    continue
+                        else:
+                            if abs(self.packcrnt[i+2])>=0.5:
+                                standingpoint_st.append(i)
+                                standingtime=0
+                                continue
+                            else:
+                                continue
+                    else:
+                        if abs(self.packcrnt[i+2])>0.5:
+                            standingpoint_st.append(i)
+                            standingtime=0
+                            continue
+                        else:
+                            continue
+                else:
+                    continue
+            else:
+                standingtime=0
+                continue
+
+        if standingpoint_sp:
+            self.getdata()  #获取已计算的soh
+            column_name=['time_st','time_sp','sn','method','soh','cellsoh']
+            df_res=pd.DataFrame(columns=column_name)
+
+            for i in range(len(standingpoint_sp)):
+                cellocv_st=self._cellvolt_get(standingpoint_st[i])    #获取静置点所有电芯的电压
+                cellocv_sp=self._cellvolt_get(standingpoint_sp[i])
+                accumtime=self.accumtime.to_list()  #累计量的时间列表
+                timepoint_bms_st=self.bmstime[standingpoint_st[i]]   #获取静置点的时间
+                timepoint_bms_sp=self.bmstime[standingpoint_sp[i]]
+                timepoint_accum_st=bisect.bisect(accumtime,timepoint_bms_st)   #获取最接近静置点时间的累计量时间点
+                timepoint_accum_sp=bisect.bisect(accumtime,timepoint_bms_sp)
+                if timepoint_accum_sp>=len(accumtime):  #防止指针超出数据范围
+                    timepoint_accum_sp=len(accumtime)-1
+                
+                ah_packcrnt_dis=0
+                ah_packcrnt_chg=0
+                for j in range(standingpoint_st[i]+2,standingpoint_sp[i]): #计算累计Ah
+                    Step=(self.bmstime[j+1]-self.bmstime[j]).total_seconds()
+                    if self.packcrnt[j+1]>=0:
+                        ah_packcrnt_dis=ah_packcrnt_dis+self.packcrnt[j+1]*Step
+                    else:
+                        ah_packcrnt_chg=ah_packcrnt_chg-self.packcrnt[j+1]*Step  
+                ah_packcrnt_chg=ah_packcrnt_chg/3600
+                ah_packcrnt_dis=ah_packcrnt_dis/3600
+                ah_packcrnt=ah_packcrnt_chg-ah_packcrnt_dis     #两个静置点的总累计AH，负值代表放电，正值代表充电
+     
+                ah_accum_dis=self.df_accum.loc[timepoint_accum_sp,'累计放电电量']-self.df_accum.loc[timepoint_accum_st,'累计放电电量']  #两个静置点之间的放电电量
+                ah_accum_chg=self.df_accum.loc[timepoint_accum_sp,'累计充电电量']-self.df_accum.loc[timepoint_accum_st,'累计充电电量']  #两个静置点之间的充电电量
+                ah_accum_tatol=ah_accum_chg-ah_accum_dis  #两个静置点的总累计AH，负值代表放电，正值代表充电
+                ah_accum=ah_packcrnt
+
+                delt_days=(self.bmstime[standingpoint_sp[i]]-self.bmstime[standingpoint_st[i]]).total_seconds()/(3600*24)
+                if delt_days<=1: #两次时间间隔对计算结果的影响
+                    soh_weight1=1
+                elif delt_days<=2:
+                    soh_weight1=0.7
+                elif delt_days<=3:
+                    soh_weight1=0.4
+                else:
+                    soh_weight1=0
+                
+                if ah_packcrnt_dis<self.param.Capacity: #放电ah数对结果的影响
+                    soh_weight1=(1-ah_packcrnt_dis/self.param.Capacity*1.5)*soh_weight1
+                else:
+                    soh_weight1=0.1
+            
+                if self.param.Capacity**0.7*0.4 < abs(ah_accum_tatol) < self.param.Capacity:    #累计量的权重
+                    if abs(ah_accum_tatol-ah_packcrnt)<self.param.Capacity/20:
+                        soh_weight1=soh_weight1*1
+                    elif abs(ah_accum_tatol-ah_packcrnt) < self.param.Capacity/10:
+                        soh_weight1=soh_weight1*0.8
+                    else:
+                        soh_weight1=soh_weight1*0.5
+                else:
+                    if self.param.Capacity*0.7*0.4< abs(ah_packcrnt) <self.param.Capacity:
+                        soh_weight1=soh_weight1*0.5
+                    else:
+                        soh_weight1=0
+
+                cellsoh=[]
+                for j in range(self.param.CellVoltNums):    #计算每个电芯的SOH值
+                    ocv_soc1=np.interp(cellocv_st[j],self.param.LookTab_OCV,self.param.LookTab_SOC)
+                    ocv_soc2=np.interp(cellocv_sp[j],self.param.LookTab_OCV,self.param.LookTab_SOC)
+                    delt_ocv_soc=ocv_soc2-ocv_soc1
+                    delt_ocv_soc_weight=self._deltsoc_weight(abs(delt_ocv_soc))
+                    soh_weight=soh_weight1*tempweightlist[i]*delt_ocv_soc_weight
+                    cellsoh_init=ah_accum*100/((ocv_soc2-ocv_soc1)*0.01*self.param.Capacity)
+
+                    if cellsoh_init>55 and cellsoh_init<120:    #判断soh值的有效区间
+                        if len(df_res)<1:
+                            if not self.df_soh.empty:
+                                cellsoh_last=eval(self.df_soh.loc[len(self.df_soh)-1,'cellsoh'])
+                                if soh_weight>1/abs(cellsoh_init-cellsoh_last):
+                                    soh_weight=1/abs(cellsoh_init-cellsoh_last)
+                                    cellsoh_cal=cellsoh_init*soh_weight + cellsoh_last[j]*(1-soh_weight)
+                                else:
+                                    cellsoh_cal=cellsoh_init*soh_weight + cellsoh_last[j]*(1-soh_weight)
+                            else:
+                                cellsoh_cal=cellsoh_init*soh_weight+100*(1-soh_weight)
+                        else:
+                            cellsoh_last=eval(df_res.loc[len(df_res)-1,'cellsoh'])
+                            if soh_weight>1/abs(cellsoh_init-cellsoh_last[j]):
+                                soh_weight=1/abs(cellsoh_init-cellsoh_last[j])
+                                cellsoh_cal=cellsoh_init*soh_weight + cellsoh_last[j]*(1-soh_weight)
+                            else:
+                                cellsoh_cal=cellsoh_init*soh_weight + cellsoh_last[j]*(1-soh_weight)
+                        cellsoh_cal=eval(format(cellsoh_cal,'.1f'))
+                        cellsoh.append(cellsoh_cal)
+                    else:
+                        cellsoh=[]
+                        break
+                if cellsoh:
+                    soh=min(cellsoh)
+                    soh_list=[timepoint_bms_st, timepoint_bms_sp, self.sn, 1, soh, str(cellsoh)]
+                    df_res.loc[len(df_res)]=soh_list
+                else:
+                    continue
+            if df_res.empty:
+                return pd.DataFrame()
+            else:
+                return df_res
+        return pd.DataFrame()
+
+    def _lfpsoh(self):
+        standingpoint_st=[]
+        standingpoint_sp=[]
+        tempweightlist1=[]
+        cellmaxvolt_number1=[]
+        standingtime=0
+        chrg_start=[]
+        chrg_end=[]
+        tempweightlist2=[]
+        cellmaxvolt_number2=[]
+        charging=0
+
+        for i in range(3,len(self.df_bms)-3):
+
+            #获取两点法法所需数据-开始
+            if abs(self.packcrnt[i]) < 0.2:     #判断非平台区静置状态
+                delttime=(self.bmstime[i]-self.bmstime[i-1]).total_seconds()
+                standingtime=standingtime+delttime
+                self._celltemp_weight(i)     #获取不同温度对应的静置时间
+
+                if standingtime>self.StandardStandingTime and abs(self.packcrnt[i+2])>0.1:  #静置时间满足要求，且下一时刻电流>0.1A
+                    standingtime=0
+                    cellvolt_now=self._cellvolt_get(i)
+                    if max(cellvolt_now)<self.param.OcvInflexionBelow:      #当前最大电芯电压<OCV下拐点
+                        if standingpoint_st:
+                            if len(standingpoint_st)>len(standingpoint_sp):
+                                if self.packcrnt[standingpoint_st[-1]]<-1:     #判断上一次静置点的是否为满充
+                                    standingpoint_sp.append(i)
+                                    standingpoint_st.append(i)
+                                    tempweightlist1.append(self.tempweight)
+                                else:
+                                    standingpoint_st[-1]=i
+                                    tempweightlist1[-1]=self.tempweight
+                            else:
+                                standingpoint_st.append(i)
+                                tempweightlist1.append(self.tempweight)
+                        else:
+                            standingpoint_st.append(i)
+                            tempweightlist1.append(self.tempweight)
+                    else:
+                        pass
+                else:
+                    pass
+            
+            elif self.packcrnt[i]<=-1 and self.packcrnt[i-1]<=-1 and self.packcrnt[i+1]<=-1 and self.packcrnt[i+2]>-1:    #判读满充状态
+                standingtime=0
+                self._celltemp_weight(i)
+                cellvolt_now=self._cellvolt_get(i)
+                if max(cellvolt_now)>self.param.CellFullChrgVolt:
+                    if standingpoint_st:
+                        if len(standingpoint_st)>len(standingpoint_sp):
+                            if abs(self.packcrnt[standingpoint_st[-1]])<0.5:     #判断上一次静置点是否为下拐点
+                                standingpoint_sp.append(i)
+                                standingpoint_st.append(i)
+                                tempweightlist1.append(self.tempweight)
+                                cellmaxvolt_number1.append(cellvolt_now.index(max(cellvolt_now))) #获取最大电压索引
+                                cellmaxvolt_number1.append(cellvolt_now.index(max(cellvolt_now))) #获取最大电压索引
+                            else:
+                                standingpoint_st[-1]=i
+                                tempweightlist1[-1]=self.tempweight
+                                cellmaxvolt_number1[-1]=cellvolt_now.index(max(cellvolt_now))
+                    else:
+                        standingpoint_st.append(i)
+                        tempweightlist1.append(self.tempweight)
+                        cellmaxvolt_number1.append(cellvolt_now.index(max(cellvolt_now)))
+                else:
+                    pass
+            
+            else:
+                standingtime=0
+                pass
+            #获取两点法所需数据-结束
+
+            #获取DVDQ算法所需数据——开始
+            if i==3 and self.packcrnt[1]<=-1 and self.packcrnt[2]<=-1 and self.packcrnt[3]<=-1:
+                self._celltemp_weight(i)
+                chrg_start.append(i)
+                tempweightlist2.append(self.tempweight)
+                charging=1
+            elif self.packcrnt[i-1]>-1 and self.packcrnt[i]<=-1 and self.packcrnt[i+1]<=-1 and self.packcrnt[i+2]<=-1:     #判断充电开始
+                if self.bms_soc[i]<45:
+                    self._celltemp_weight(i)
+                    charging=1
+                    if len(chrg_start)>len(chrg_end):
+                        chrg_start[-1]=i
+                        tempweightlist2[-1]=self.tempweight
+                    else:
+                        chrg_start.append(i)
+                        tempweightlist2.append(self.tempweight)
+                else:
+                    pass
+            else:
+                pass
+
+            if charging==1: #充电中
+                if (self.bmstime[i+1]-self.bmstime[i]).total_seconds()>180:  #如果充电过程中时间间隔>180s，则舍弃该次充电
+                    chrg_start.remove(chrg_start[-1])
+                    tempweightlist2.remove(tempweightlist2[-1])
+                    charging=0
+                    continue
+                elif self.packcrnt[i]<=-1 and self.packcrnt[i+1]<=-1 and  self.packcrnt[i+2]>-1:  #判断电流波动时刻
+                    cellvolt_now=self._cellvolt_get(i+1)
+                    if max(cellvolt_now)>self.param.CellFullChrgVolt:   #电压>满充电压
+                        chrg_end.append(i+1)
+                        cellmaxvolt_number2.append(cellvolt_now.index(max(cellvolt_now)))   #获取最大电压索引
+                        charging=0
+                        continue
+                    else:
+                        pass
+                elif self.packcrnt[i+1]>-0.1 and self.packcrnt[i+2]>-0.1 and self.packcrnt[i+3]>-0.1:   #判断充电结束
+                    charging=0
+                    if len(chrg_start)>len(chrg_end):
+                        chrg_start.remove(chrg_start[-1])
+                        tempweightlist2.remove(tempweightlist2[-1])
+                        continue
+                    else:
+                        continue
+                elif i==len(self.packcrnt)-4 and self.packcrnt[i+1]<-1 and self.packcrnt[i+2]<-1:
+                    charging=0
+                    if len(chrg_start)>len(chrg_end):
+                        cellvolt_now=self._cellvolt_get(i)
+                        if max(cellvolt_now)>self.param.CellFullChrgVolt:   #电压>满充电压
+                            chrg_end.append(i)
+                            cellmaxvolt_number2.append(cellvolt_now.index(max(cellvolt_now)))   #获取最大电压索引
+                            continue
+                        else:
+                            chrg_start.remove(chrg_start[-1])
+                            tempweightlist2.remove(tempweightlist2[-1])
+                            continue
+                    else:
+                        continue   
+            else:
+                pass
+            #获取DVDQ算法所需数据——结束
+        
+        if standingpoint_sp or chrg_end:       #开始计算SOH
+            self.getdata()  #获取已计算的soh
+            column_name=['time_st','time_sp','sn','method','soh','cellsoh']
+            df_res=pd.DataFrame(columns=column_name)
+        
+            if standingpoint_sp:    #两点法计算SOH
+                for i in range(len(standingpoint_sp)):  #判断为满充点或者下拐点
+                    if self.packcrnt[standingpoint_sp[i]]<=-1:
+                        cellocv_st=self._cellvolt_get(standingpoint_st[i])    
+                        ocv_soc1=np.interp(cellocv_st[cellmaxvolt_number1[i]],self.param.LookTab_OCV,self.param.LookTab_SOC)
+                        ocv_soc2=self.param.FullChrgSoc
+                    else:
+                        cellocv_sp=self._cellvolt_get(standingpoint_sp[i])
+                        ocv_soc1=self.param.FullChrgSoc
+                        ocv_soc2=np.interp(cellocv_sp[cellmaxvolt_number1[i]],self.param.LookTab_OCV,self.param.LookTab_SOC)
+
+                    cellocv_sp=self._cellvolt_get(standingpoint_sp[i])
+                    accumtime=self.accumtime.to_list()  #累计量的时间列表
+                    timepoint_bms_st=self.bmstime[standingpoint_st[i]]   #获取静置点的时间
+                    timepoint_bms_sp=self.bmstime[standingpoint_sp[i]]
+                    timepoint_accum_st=bisect.bisect(accumtime,timepoint_bms_st)   #获取最接近静置点时间的累计量时间点
+                    timepoint_accum_sp=bisect.bisect(accumtime,timepoint_bms_sp)
+                    if timepoint_accum_sp>=len(accumtime):  #防止指针超出数据范围
+                        timepoint_accum_sp=len(accumtime)-1
+                    
+                    ah_packcrnt_dis=0
+                    ah_packcrnt_chg=0
+                    for j in range(standingpoint_st[i]+2,standingpoint_sp[i]+1): #计算累计Ah
+                        Step=(self.bmstime[j+1]-self.bmstime[j]).total_seconds()
+                        if self.packcrnt[j+1]>=0:
+                            ah_packcrnt_dis=ah_packcrnt_dis+self.packcrnt[j+1]*Step
+                        else:
+                            ah_packcrnt_chg=ah_packcrnt_chg-self.packcrnt[j+1]*Step
+                    ah_packcrnt_chg=ah_packcrnt_chg/3600
+                    ah_packcrnt_dis=ah_packcrnt_dis/3600          
+                    ah_packcrnt=ah_packcrnt_chg-ah_packcrnt_dis     #两个静置点的总累计AH，负值代表放电，正值代表充电
+        
+                    ah_accum_dis=self.df_accum.loc[timepoint_accum_sp,'累计放电电量']-self.df_accum.loc[timepoint_accum_st,'累计放电电量']  #两个静置点之间的放电电量
+                    ah_accum_chg=self.df_accum.loc[timepoint_accum_sp,'累计充电电量']-self.df_accum.loc[timepoint_accum_st,'累计充电电量']  #两个静置点之间的充电电量
+                    ah_accum_tatol=ah_accum_chg-ah_accum_dis  #两个静置点的总累计AH，负值代表放电，正值代表充电
+                    ah_accum=ah_accum_tatol
+
+                    delt_days=(self.bmstime[standingpoint_sp[i]]-self.bmstime[standingpoint_st[i]]).total_seconds()/(3600*24)
+                    if delt_days<=1: #两次时间间隔对计算结果的影响
+                        soh_weight=1
+                    elif delt_days<=2:
+                        soh_weight=0.7
+                    elif delt_days<=3:
+                        soh_weight=0.4
+                    else:
+                        soh_weight=0
+                    
+                    if self.param.Capacity*0.65*0.7 < abs(ah_packcrnt) < self.param.Capacity:    #累计量的权重
+                        if abs(ah_accum_tatol-ah_packcrnt)<self.param.Capacity/20:
+                            soh_weight=soh_weight*1
+                        elif abs(ah_accum_tatol-ah_packcrnt)<self.param.Capacity/10:
+                            soh_weight=soh_weight*0.8
+                        else:
+                            soh_weight=soh_weight*0.5
+                    else:
+                        if self.param.Capacity*0.65*0.7 < abs(ah_accum) < self.param.Capacity:
+                            soh_weight=soh_weight*0.5
+                        else:
+                            soh_weight=0
+
+                    delt_ocv_soc=ocv_soc2-ocv_soc1
+                    delt_ocv_soc_weight=self._deltsoc_weight(abs(delt_ocv_soc))
+                    soh_weight=soh_weight*tempweightlist1[i]*delt_ocv_soc_weight*0.5
+                    cellsoh_init=ah_accum*100/((ocv_soc2-ocv_soc1)*0.01*self.param.Capacity)
+
+                    if cellsoh_init>65 and cellsoh_init<115:    #判断soh值的有效区间
+                        if len(df_res)<1:
+                            if not self.df_soh.empty:
+                                cellsoh_last=self.df_soh.loc[len(self.df_soh)-1,'soh']
+                                if soh_weight>1/abs(cellsoh_init-cellsoh_last):
+                                    soh_weight=1/abs(cellsoh_init-cellsoh_last)
+                                    cellsoh_cal=cellsoh_init*soh_weight + cellsoh_last*(1-soh_weight)
+                                else:
+                                    cellsoh_cal=cellsoh_init*soh_weight + cellsoh_last*(1-soh_weight)
+                            else:
+                                cellsoh_cal=cellsoh_init*soh_weight+100*(1-soh_weight)
+                        else:
+                            cellsoh_last=df_res.loc[len(df_res)-1,'soh']
+                            if soh_weight>1/abs(cellsoh_init-cellsoh_last):
+                                soh_weight=1/abs(cellsoh_init-cellsoh_last)
+                                cellsoh_cal=cellsoh_init*soh_weight + cellsoh_last*(1-soh_weight)
+                            else:
+                                cellsoh_cal=cellsoh_init*soh_weight + cellsoh_last*(1-soh_weight)
+                        
+                        cellsoh_cal=eval(format(cellsoh_cal,'.1f'))
+                        soh_list=[timepoint_bms_st, timepoint_bms_sp, self.sn, 1, cellsoh_cal, str(cellsoh_cal)]
+                        df_res.loc[len(df_res)]=soh_list
+                    else:
+                        continue
+            else:
+                pass
+
+            if chrg_end:
+                for i in range(len(chrg_end)):
+                    cellvolt_max = self.df_bms['单体电压' + str(cellmaxvolt_number2[i]+1)] / 1000     #获取最大电压
+                    cellvolt=self._np_move_avg(cellvolt_max, 3, mode="same")     #对电压进行滑动平均滤波
+                    
+                    Ah = 0  #参数赋初始值
+                    Volt = cellvolt[chrg_start[i]]
+                    DV_Volt=[]
+                    DQ_Ah = []
+                    DVDQ = []
+                    time2 = []
+                    soc2 = []
+                    Ah_tatal=[0]
+                    xvolt=[]
+                    #计算DV和DQ值
+                    for j in range(chrg_start[i],chrg_end[i]):
+                        Step=(self.bmstime[j+1]-self.bmstime[j]).total_seconds()
+                        Ah=Ah-self.packcrnt[j]*Step/3600
+                        if (cellvolt[j]-Volt)>0.0009 and Ah>0:
+                            Ah_tatal.append(Ah_tatal[-1]+Ah)
+                            DQ_Ah.append(Ah)
+                            DV_Volt.append(cellvolt[j]-Volt)
+                            DVDQ.append((DV_Volt[-1])/DQ_Ah[-1])
+                            xvolt.append(cellvolt[j])
+                            Volt=cellvolt[j]
+                            Ah = 0
+                            time2.append(self.bmstime[j])
+                            soc2.append(self.bms_soc[j])
+
+                    #切片，去除前后10min的数据
+                    df_Data1 = pd.DataFrame({'time': time2,
+                                            'SOC': soc2,
+                                            'DVDQ': DVDQ,
+                                            'Ah_tatal': Ah_tatal[:-1],
+                                            'DQ_Ah':DQ_Ah,
+                                            'DV_Volt':DV_Volt,
+                                            'XVOLT':xvolt})
+                    start_time=df_Data1.loc[0,'time']
+                    start_time=start_time+datetime.timedelta(seconds=900)
+                    end_time=df_Data1.loc[len(time2)-1,'time']
+                    end_time=end_time-datetime.timedelta(seconds=1200)
+                    if soc2[0]<40:
+                        df_Data1=df_Data1[(df_Data1['SOC']>43) & (df_Data1['time']<end_time)]
+                    else:
+                        df_Data1=df_Data1[(df_Data1['time']>start_time) & (df_Data1['time']<end_time)]
+            
+                    # ax1 = plt.subplot(3, 1, 1)
+                    # plt.plot(df_Data1['XVOLT'],df_Data1['DVDQ'],'r*-')
+                    # plt.xlabel('Volt/V')
+                    # plt.ylabel('DV/DQ')
+                    # plt.legend()
+                    # ax1 = plt.subplot(3, 1, 2)
+                    # plt.plot(df_Data1['SOC'],df_Data1['XVOLT'],'y*-')
+                    # plt.xlabel('SOC/%')
+                    # plt.ylabel('Volt/V')
+                    # plt.legend()
+                    # ax1 = plt.subplot(3, 1, 3)
+                    # plt.plot(df_Data1['SOC'], df_Data1['DVDQ'], 'r*-')
+                    # plt.xlabel('SOC/%')
+                    # plt.ylabel('DV/DQ')
+                    # plt.legend()
+                    # plt.show()
+
+                    #寻找峰值并计算Soh和置信度
+                    if len(df_Data1)>1:
+                        PeakIndex=df_Data1['DVDQ'].idxmax()
+                        #筛选峰值点附近±0.5%SOC内的数据
+                        df_Data2=df_Data1[(df_Data1['SOC']>(df_Data1['SOC'][PeakIndex]-0.5)) & (df_Data1['SOC']<(df_Data1['SOC'][PeakIndex]+0.5))]
+                        if len(df_Data2)>2:
+                            Ah_tatal1 = df_Data1['Ah_tatal']
+                            DVDQ = df_Data1['DVDQ']
+                            soc2 = df_Data1['SOC']
+                            xvolt = df_Data1['XVOLT']
+                            if soc2[PeakIndex]>43 and soc2[PeakIndex]<90:
+                                cellsoh_init=(Ah_tatal[-1]-Ah_tatal1[PeakIndex]) * 100 / ((self.param.FullChrgSoc - self.param.PeakSoc) * 0.01 * self.param.Capacity)
+                                if cellsoh_init<95:
+                                    cellsoh_init=cellsoh_init*0.3926+58.14
+                                else:
+                                    pass
+                            else:
+                                continue
+                        else:
+                            df_Data1=df_Data1.drop([PeakIndex])
+                            PeakIndex = df_Data1['DVDQ'].idxmax()
+                            df_Data2 = df_Data1[(df_Data1['SOC'] > (df_Data1['SOC'][PeakIndex] - 0.5)) & (df_Data1['SOC'] < (df_Data1['SOC'][PeakIndex] + 0.5))]
+                            if len(df_Data2) > 2:
+                                Ah_tatal1 = df_Data1['Ah_tatal']
+                                DVDQ = df_Data1['DVDQ']
+                                soc2 = df_Data1['SOC']
+                                xvolt = df_Data1['XVOLT']
+                                if soc2[PeakIndex]>40 and soc2[PeakIndex]<90:
+                                    cellsoh_init=(Ah_tatal[-1]-Ah_tatal1[PeakIndex]) * 100 / ((self.param.FullChrgSoc - self.param.PeakSoc) * 0.01 * self.param.Capacity)
+                                    if cellsoh_init<95:
+                                        cellsoh_init=cellsoh_init*0.3926+58.14
+                                    else:
+                                        pass
+                                else:
+                                    continue
+                            else:
+                                continue
+                        
+                        soh_weight=tempweightlist2[i]*0.25
+                        if cellsoh_init>65 and cellsoh_init<115:    #判断soh值的有效区间
+                            if len(df_res)<1:
+                                if not self.df_soh.empty:
+                                    cellsoh_last=self.df_soh.loc[len(self.df_soh)-1,'soh']
+                                    if soh_weight>1/abs(cellsoh_init-cellsoh_last):
+                                        soh_weight=1/abs(cellsoh_init-cellsoh_last)
+                                        cellsoh_cal=cellsoh_init*soh_weight + cellsoh_last*(1-soh_weight)
+                                    else:
+                                        cellsoh_cal=cellsoh_init*soh_weight + cellsoh_last*(1-soh_weight)
+                                else:
+                                    cellsoh_cal=cellsoh_init*soh_weight+100*(1-soh_weight)
+                            else:
+                                cellsoh_last=df_res.loc[len(df_res)-1,'soh']
+                                if soh_weight>1/abs(cellsoh_init-cellsoh_last):
+                                    soh_weight=1/abs(cellsoh_init-cellsoh_last)
+                                    cellsoh_cal=cellsoh_init*soh_weight + cellsoh_last*(1-soh_weight)
+                                else:
+                                    cellsoh_cal=cellsoh_init*soh_weight + cellsoh_last*(1-soh_weight)
+                            
+                            cellsoh_cal=eval(format(cellsoh_cal,'.1f'))
+                            soh_list=[self.bmstime[chrg_start[i]], self.bmstime[chrg_end[i]], self.sn, 2, cellsoh_cal, str(cellsoh_cal)]
+                            df_res.loc[len(df_res)]=soh_list
+                        else:
+                            continue
+                    else:
+                        continue
+            else:
+                pass
+
+            if df_res.empty:
+                return pd.DataFrame()
+            else:
+                return df_res
+        return pd.DataFrame()
+
+
+
+
+
+
+
+
+            
+                
+

LIB/MIDDLE/CellStateEstimation/SOH/V1_0_0/DBDownload.py

@@ -0,0 +1,61 @@
+import pymysql
+import time
+import pandas as pd
+
+class DBDownload:
+
+    def __init__(self, host='', port='', db='', user='', password=''):
+        self.host = host
+        self.port = port
+        self.db = db
+        self.user = user
+        self.password = password
+        pass
+
+    def __enter__(self):
+        self.connect()
+        return self
+
+    def __exit__(self, exc_type, exc_val, exc_tb):
+        self.close()
+
+    def connect(self):
+        conn_success_flag = 0
+        while not conn_success_flag:
+            try:
+                self.conn = pymysql.connect(host=self.host, port=self.port, user=self.user, password=self.password, database=self.db)
+            except Exception as e:
+                conn_success_flag = 0
+                print("数据库连接失败 :{}".format(e))
+                time.sleep(5)
+            else:
+                conn_success_flag = 1
+                print('数据库连接成功！')
+                self.cursor = self.conn.cursor()
+
+    def getdata(self,*param,tablename,sn):
+        print('数据获取中......')
+        param=list(param)
+        str=''
+        for i in range(len(param)):
+            if i<1:
+                str=str+param[i]
+            else:
+                str=str+','+param[i]
+        # self.cursor.execute("select %s from %s where time between '%s' and '%s'" %(str,tablename,st,sp))
+        self.cursor.execute("select %s from %s where sn='%s' order by add_time desc limit 1" %(str,tablename,sn))
+        res = self.cursor.fetchall()
+        df_res = pd.DataFrame(res, columns=param)
+        df_res = df_res.reset_index(drop=True)
+        return(df_res)
+
+    def close(self):
+        try:
+            self.cursor.close()
+            self.conn.close()
+        except Exception as e:
+            print(e)
+        else:
+            print('数据库已断开连接！')
+    
+    

LIB/MIDDLE/CellStateEstimation/SOH/V1_0_0/log.py

@@ -0,0 +1,24 @@
+import logging
+import traceback
+
+class Mylog:
+
+    def __init__(self,log_name,log_level):
+        self.name=log_name
+        self.level=log_level
+    
+    def logcfg(self):
+        if len(self.level) > 0:
+            if self.level == 'debug':
+                Level=logging.DEBUG
+            elif self.level == 'info':
+                Level=logging.INFO
+            elif self.level == 'warning':
+                Level=logging.WARNING
+            else:
+                Level=logging.ERROR
+        logging.basicConfig(filename=self.name, level=Level,format='%(asctime)s - %(levelname)s - %(message)s')
+
+    def logopt(self,*info):
+        logging.error(info)
+        logging.error(traceback.format_exc())

LIB/MIDDLE/CellStateEstimation/SOH/main.py

@@ -0,0 +1,73 @@
+import CBMSBatSoh
+import log
+#coding=utf-8
+import os
+import sys
+import datetime
+import pandas as pd
+from LIB.BACKEND import DBManager, Log
+# from LIB.MIDDLE import SignalMonitor
+from sqlalchemy import create_engine
+from sqlalchemy.orm import sessionmaker
+import time, datetime
+from urllib import parse
+
+host='rm-bp10j10qy42bzy0q77o.mysql.rds.aliyuncs.com'
+port=3306
+db='qx_cas'
+user='qx_read'
+password='Qx@123456'
+tablename='soh_result'
+
+dbManager = DBManager.DBManager()
+if __name__ == "__main__":
+    SNdata_6040 = pd.read_excel('骑享资产梳理-20210621.xlsx', sheet_name='6040骑享')
+    SNdata_6060 = pd.read_excel('骑享资产梳理-20210621.xlsx', sheet_name='6060')
+    SNdata_4840 = pd.read_excel('骑享资产梳理-20210621.xlsx', sheet_name='4840骑享')
+    SNdata_7250 = pd.read_excel('骑享资产梳理-20210621.xlsx', sheet_name='7250')
+    SNnums_6060=SNdata_6060['SN号']
+    SNnums_6040=SNdata_6040['SN号']
+    SNnums_4840=SNdata_4840['SN号']
+    SNnums_7250=SNdata_7250['SN号']
+
+    SNnums=SNnums_6040.tolist()+SNnums_6060.tolist()+SNnums_4840.tolist()
+    now_time=datetime.datetime.now().strftime('%Y-%m-%d %H:%M:%S')
+    now_time=datetime.datetime.strptime(now_time,'%Y-%m-%d %H:%M:%S')
+    start_time=now_time-datetime.timedelta(days=30)
+    end_time=str(now_time)
+    start_time=str(start_time)
+
+    #log信息配置
+    mylog=log.Mylog('log.txt','error')
+    mylog.logcfg()
+
+    for sn in SNnums:
+        try:
+            if 'PK500' in sn:
+                celltype=1 #6040三元电芯
+            elif 'PK502' in sn:
+                celltype=2 #4840三元电芯
+            elif 'PK504' in sn:
+                celltype=99    #60ah林磷酸铁锂电芯
+            elif 'MGMLXN750' in sn:
+                celltype=3 #力信50ah三元电芯
+            elif 'MGMCLN750' in sn: 
+                celltype=4 #CATL 50ah三元电芯
+            else:
+                print('未找到对应电池编号！！！')
+                sys.exit()
+            dbManager = DBManager.DBManager()
+            df_data = dbManager.get_data(sn=sn, start_time=start_time, end_time=end_time, data_groups=['bms','accum'])
+            df_bms = df_data['bms']
+            df_accum=df_data['accum']
+            # df_bms.to_csv('BMS_'+sn+'.csv')
+            # df_accum.to_csv('BMS_accum_'+sn+'.csv')
+
+            BatSoh=CBMSBatSoh.BatSoh(sn,celltype,df_bms,df_accum,host, port, db, user, password, tablename)
+            df_res=BatSoh.batsoh()
+            df_res.to_csv('BMS_SOH_'+sn+'.csv',encoding='GB18030')
+             
+        except IndexError as e:
+            print(repr(e))
+            mylog.logopt(sn,e)
+            pass

LIB/MIDDLE/CellStateEstimation/Uniform/V1_0_0/BatParam.py

@@ -0,0 +1,86 @@
+
+#定义电池参数
+from types import CellType
+import sys
+
+class BatParam:
+
+    def __init__(self,celltype):
+
+        # if 'PK500' in sn:
+        #     self.celltype=1 #6040三元电芯
+        # elif 'PK502' in sn:
+        #     self.celltype=2 #4840三元电芯
+        # elif 'PK504' in sn:
+        #     self.celltype=99    #60ah林磷酸铁锂电芯
+        # elif 'MGMLXN750' in sn:
+        #     self.celltype=3 #力信50ah三元电芯
+        # elif 'MGMCLN750' in sn: 
+        #     self.celltype=4 #CATL 50ah三元电芯
+        # else:
+        #     print('未找到对应电池编号！！！')
+        #     sys.exit()
+
+        if celltype==1: #6040
+            self.Capacity = 41
+            self.PackFullChrgVolt=69.99
+            self.CellFullChrgVolt=4.2
+            self.CellVoltNums=17
+            self.CellTempNums=4
+            self.FullChrgSoc=98
+            self.PeakSoc=57
+            self.LookTab_SOC = [0,	    3.5348,	8.3581,	13.181,	18.004,	22.827,	27.651,	32.474,	37.297,	42.120,	46.944,	51.767,	56.590,	61.413,	66.237,	71.060,	75.883,	80.707,	85.530,	90.353,	95.176,	100]
+            self.LookTab_OCV = [3.3159,	3.4384,	3.4774,	3.5156,	3.5478,	3.5748,	3.6058,	3.6238,	3.638,	3.6535,	3.6715,	3.6951,	3.7279,	3.7757,	3.8126,	3.8529,	3.8969,	3.9446,	3.9946,	4.0491,	4.109,	4.183]
+        
+        elif celltype==2: #4840
+            self.Capacity = 41
+            self.PackFullChrgVolt=69.99
+            self.CellFullChrgVolt=4.2
+            self.CellVoltNums=14
+            self.CellTempNums=4
+            self.FullChrgSoc=98
+            self.PeakSoc=57
+            self.LookTab_SOC = [0,	    3.5348,	8.3581,	13.181,	18.004,	22.827,	27.651,	32.474,	37.297,	42.120,	46.944,	51.767,	56.590,	61.413,	66.237,	71.060,	75.883,	80.707,	85.530,	90.353,	95.176,	100]
+            self.LookTab_OCV = [3.3159,	3.4384,	3.4774,	3.5156,	3.5478,	3.5748,	3.6058,	3.6238,	3.638,	3.6535,	3.6715,	3.6951,	3.7279,	3.7757,	3.8126,	3.8529,	3.8969,	3.9446,	3.9946,	4.0491,	4.109,	4.183]
+        
+        elif celltype==3:
+            self.Capacity = 51
+            self.PackFullChrgVolt=80
+            self.CellFullChrgVolt=4.2
+            self.CellVoltNums=20
+            self.CellTempNums=4
+            self.FullChrgSoc=98
+            self.PeakSoc=57
+            self.LookTab_SOC = [0,	    5,	    10,	    15,	    20,	    25,	    30,	    35,	    40,	    45,	    50,	    55,	    60,	    65,	    70,	    75,	    80,	    85,	    90,	    95,	    100]
+            self.LookTab_OCV = [3.357, 	3.455, 	3.493, 	3.540, 	3.577, 	3.605, 	3.622, 	3.638, 	3.655, 	3.677, 	3.707, 	3.757, 	3.815, 	3.866, 	3.920, 	3.976, 	4.036, 	4.099, 	4.166, 	4.237, 	4.325]
+        
+        elif celltype==4:
+            self.Capacity = 50
+            self.PackFullChrgVolt=80
+            self.CellFullChrgVolt=4.2
+            self.CellVoltNums=20
+            self.CellTempNums=4
+            self.FullChrgSoc=98
+            self.PeakSoc=57
+            self.LookTab_SOC = [0,	    5,	    10,	    15,	    20,	    25,	    30,	    35,	    40,	    45,	    50,	    55,	    60,	    65,	    70,	    75,	    80,	    85,	    90,	    95,	    100]
+            self.LookTab_OCV = [3.152, 	3.397, 	3.438, 	3.481, 	3.523, 	3.560, 	3.586, 	3.604, 	3.620, 	3.638, 	3.661, 	3.693, 	3.748, 	3.803, 	3.853, 	3.903, 	3.953, 	4.006, 	4.063, 	4.121, 	4.183]
+        
+        elif celltype==99:   #60ah磷酸铁锂电芯
+            self.Capacity = 54
+            self.PackFullChrgVolt=69.99
+            self.CellFullChrgVolt=3.5
+            self.OcvInflexionBelow=3.285
+            self.OcvInflexion2=3.296
+            self.OcvInflexion3=3.328
+            self.OcvInflexionAbove=3.4
+            self.CellVoltNums=20
+            self.CellTempNums=4
+            self.FullChrgSoc=98
+            self.PeakSoc=60.5
+            self.LookTab_SOC = [0.00, 	2.40, 	6.38, 	10.37, 	14.35, 	18.33, 	22.32, 	26.30, 	30.28, 	35.26, 	40.24, 	45.22, 	50.20, 	54.19, 	58.17, 	60.16, 	65.14, 	70.12, 	75.10, 	80.08, 	84.06, 	88.05, 	92.03, 	96.02, 	100.00]
+            self.LookTab_OCV = [2.7151,	3.0298,	3.1935,	3.2009,	3.2167,	3.2393,	3.2561,	3.2703,	3.2843,	3.2871,	3.2874,	3.2868,	3.2896,	3.2917,	3.2967,	3.3128,	3.3283,	3.3286,	3.3287,	3.3288,	3.3289,	3.3296,	3.3302,	3.3314,	3.3429]
+        
+        else:
+            print('未找到对应电池编号！！！')
+            # sys.exit()
+

LIB/MIDDLE/CellStateEstimation/Uniform/V1_0_0/CBMSBatUniform.py

@@ -0,0 +1,362 @@
+import pandas as pd
+import numpy as np
+import datetime
+import bisect
+import matplotlib.pyplot as plt
+import BatParam
+from LIB.MIDDLE.CellStateEstimation.SOH.V1_0_0 import BatParam
+
+class BatUniform:
+    def __init__(self,sn,celltype,df_bms):  #参数初始化
+
+        self.sn=sn
+        self.celltype=celltype
+        self.param=BatParam.BatParam(celltype)
+        self.df_bms=df_bms
+        self.packcrnt=df_bms['总电流[A]']
+        self.packvolt=df_bms['总电压[V]']
+        self.bms_soc=df_bms['SOC[%]']
+        self.bmstime= pd.to_datetime(df_bms['时间戳'], format='%Y-%m-%d %H:%M:%S')
+
+    def batuniform(self):
+        if self.celltype==1 or self.celltype==2 or self.celltype==3 or self.celltype==4:
+            df_res=self._ncm_uniform()
+            return df_res
+            
+        elif self.celltype==99:
+            df_res=self._lfp_uniform()
+            return df_res
+        
+        else:
+            return pd.DataFrame()
+    
+    def _np_move_avg(self,a, n, mode="same"): #定义滑动滤波函数
+        return (np.convolve(a, np.ones((n,)) / n, mode=mode))
+    
+    def _celltemp_weight(self,num):   #寻找当前行数据的最小温度值
+        celltemp = []
+        for j in range(1, self.param.CellTempNums+1):
+            s = str(j)
+            celltemp.append(self.df_bms.loc[num,'单体温度' + s])
+        celltemp.remove(min(celltemp))
+        if self.celltype==99:
+            if min(celltemp)>=20:
+                self.tempweight=1
+                self.StandardStandingTime=600
+            elif min(celltemp)>=10:
+                self.tempweight=0.6
+                self.StandardStandingTime=900
+            elif min(celltemp)>=5:
+                self.tempweight=0.
+                self.StandardStandingTime=1800
+            else:
+                self.tempweight=0.1
+                self.StandardStandingTime=3600
+        else:
+            if min(celltemp)>=20:
+                self.tempweight=1
+                self.StandardStandingTime=300
+            elif min(celltemp)>=10:
+                self.tempweight=0.8
+                self.StandardStandingTime=600
+            elif min(celltemp)>=5:
+                self.tempweight=0.6
+                self.StandardStandingTime=1800
+            else:
+                self.tempweight=0.2
+                self.StandardStandingTime=3600
+
+    def _cellvolt_get(self,num): #获取当前行所有电压数据
+        cellvolt=[]
+        for j in range(1, self.param.CellVoltNums+1): 
+            s = str(j)
+            cellvolt.append(self.df_bms.loc[num,'单体电压' + s]/1000)
+        return(cellvolt)
+
+    def _dvdq_peak(self, time, soc, cellvolt, packcrnt):    #寻找DVDQ的峰值点，并返回
+        cellvolt1 = self._np_move_avg(cellvolt, 5, mode="same")
+        Soc = 0
+        Ah = 0
+        Volt = cellvolt1[0]
+        DV_Volt = []
+        DQ_Ah = []
+        DVDQ = []
+        time1 = []
+        soc1 = []
+        soc2 = []
+        xvolt=[]
+
+        for m in range(1, len(time)):
+            Step = (time[m] - time[m - 1]).total_seconds()
+            Soc = Soc - packcrnt[m] * Step * 100 / (3600 * self.param.Capacity)
+            Ah = Ah - packcrnt[m] * Step / 3600
+            if (cellvolt[m]-Volt)>0.99 and Ah>0:
+                DQ_Ah.append(Ah)
+                DV_Volt.append(cellvolt[m]-Volt)
+                DVDQ.append((DV_Volt[-1])/DQ_Ah[-1])
+                xvolt.append(cellvolt[m]/1000)
+                Volt=cellvolt[m]
+                Ah = 0
+                soc1.append(Soc)
+                time1.append(time[m])
+                soc2.append(soc[m])
+
+        #切片，去除前后10min的数据
+        df_Data1 = pd.DataFrame({'time': time1,
+                                'SOC': soc2,
+                                'DVDQ': DVDQ,
+                                'AhSoc': soc1,
+                                'DQ_Ah':DQ_Ah,
+                                'DV_Volt':DV_Volt,
+                                'XVOLT':xvolt})
+        start_time=df_Data1.loc[0,'time']
+        start_time=start_time+datetime.timedelta(seconds=600)
+        end_time=df_Data1.loc[len(time1)-1,'time']
+        end_time=end_time-datetime.timedelta(seconds=1200)
+        if soc2[0]<40 and soc2[-1]>93:
+            df_Data1=df_Data1[(df_Data1['SOC']>44) & (df_Data1['SOC']<90)]
+        elif soc2[0]<40 and soc2[-1]<=93:
+            df_Data1=df_Data1[(df_Data1['SOC']>44) & (df_Data1['time']<end_time)]
+        elif soc2[0]>=40 and soc2[-1]>93:
+            df_Data1=df_Data1[(df_Data1['time']>start_time) & (df_Data1['SOC']<90)]
+        else:
+            df_Data1=df_Data1[(df_Data1['time']>start_time) & (df_Data1['time']<end_time)]
+
+        # ax1 = plt.subplot(3, 1, 1)
+        # plt.plot(df_Data1['XVOLT'],df_Data1['DVDQ'],'r*-')
+        # plt.xlabel('Volt/V')
+        # plt.ylabel('DV/DQ')
+        # plt.legend()
+        # ax1 = plt.subplot(3, 1, 2)
+        # plt.plot(df_Data1['SOC'],df_Data1['XVOLT'],'y*-')
+        # plt.xlabel('SOC/%')
+        # plt.ylabel('Volt/V')
+        # plt.legend()
+        # ax1 = plt.subplot(3, 1, 3)
+        # plt.plot(df_Data1['SOC'], df_Data1['DVDQ'], 'r*-')
+        # plt.xlabel('SOC/%')
+        # plt.ylabel('DV/DQ')
+        # plt.legend()
+        # plt.show()
+
+        if len(df_Data1)>2:     #寻找峰值点，且峰值点个数>2
+            PeakIndex = df_Data1['DVDQ'].idxmax()
+            df_Data2 = df_Data1[(df_Data1['SOC'] > (df_Data1['SOC'][PeakIndex] - 0.5)) & (df_Data1['SOC'] < (df_Data1['SOC'][PeakIndex] + 0.5))]
+            if len(df_Data2) > 2:
+                return df_Data1['AhSoc'][PeakIndex]
+            else:
+                df_Data1 = df_Data1.drop([PeakIndex])
+                PeakIndex = df_Data1['DVDQ'].idxmax()
+                df_Data2 = df_Data1[(df_Data1['SOC'] > (df_Data1['SOC'][PeakIndex] - 0.5)) & (df_Data1['SOC'] < (df_Data1['SOC'][PeakIndex] + 0.5))]
+                if len(df_Data2) > 2:
+                    return df_Data1['AhSoc'][PeakIndex]
+                else:
+                    return 0
+        else:
+            return 0
+ 
+    def _ncm_uniform(self):
+        column_name=['time','sn','cellsoc_diff','cellvolt_diff','cellmin_num','cellmax_num']
+        df_res=pd.DataFrame(columns=column_name)
+        standingtime=0
+
+        for i in range(1,len(self.df_bms)-2):
+
+            if abs(self.packcrnt[i]) < 0.3:     #电流为0
+                delttime=(self.bmstime[i+1]-self.bmstime[i]).total_seconds()
+                standingtime=standingtime+delttime
+                self._celltemp_weight(i)     #获取不同温度对应的静置时间
+
+                if standingtime>self.StandardStandingTime:      #静置时间满足要求
+                    if abs(self.packcrnt[i+2]) >= 0.3:
+                        standingtime=0                    
+                        cellvolt_now=self._cellvolt_get(i)     #获取当前行电压数据
+                        cellvolt_min=min(cellvolt_now)
+                        cellvolt_max=max(cellvolt_now)
+                        cellmin_num=cellvolt_now.index(cellvolt_min)+1
+                        cellmax_num=cellvolt_now.index(cellvolt_max)+1
+                        cellsoc_min=np.interp(cellvolt_min,self.param.LookTab_OCV,self.param.LookTab_SOC)
+                        cellsoc_max=np.interp(cellvolt_max,self.param.LookTab_OCV,self.param.LookTab_SOC)
+                        cellvolt_diff=(cellvolt_max-cellvolt_min)*1000
+                        cellsoc_diff=cellsoc_max-cellsoc_min
+                        cellsoc_diff=eval(format(cellsoc_diff,'.1f'))
+                        cellvolt_diff=eval(format(cellvolt_diff,'.0f'))
+                        df_res.loc[len(df_res)]=[self.bmstime[i], self.sn, cellsoc_diff, cellvolt_diff, cellmin_num, cellmax_num]
+                    elif standingtime>3600*12:
+                        standingtime=0                    
+                        cellvolt_now=self._cellvolt_get(i)     #获取当前行电压数据
+                        cellvolt_min=min(cellvolt_now)
+                        cellvolt_max=max(cellvolt_now)
+                        cellmin_num=cellvolt_now.index(cellvolt_min)+1
+                        cellmax_num=cellvolt_now.index(cellvolt_max)+1
+                        cellsoc_min=np.interp(cellvolt_min,self.param.LookTab_OCV,self.param.LookTab_SOC)
+                        cellsoc_max=np.interp(cellvolt_max,self.param.LookTab_OCV,self.param.LookTab_SOC)
+                        cellvolt_diff=(cellvolt_max-cellvolt_min)*1000
+                        cellsoc_diff=cellsoc_max-cellsoc_min
+                        cellsoc_diff=eval(format(cellsoc_diff,'.1f'))
+                        cellvolt_diff=eval(format(cellvolt_diff,'.0f'))
+                        df_res.loc[len(df_res)]=[self.bmstime[i], self.sn, cellsoc_diff, cellvolt_diff, cellmin_num, cellmax_num]
+                    elif i>=len(self.df_bms)-4:
+                        standingtime=0
+                        cellvolt_now=self._cellvolt_get(i)     #获取当前行电压数据
+                        cellvolt_min=min(cellvolt_now)
+                        cellvolt_max=max(cellvolt_now)
+                        cellmin_num=cellvolt_now.index(cellvolt_min)+1
+                        cellmax_num=cellvolt_now.index(cellvolt_max)+1
+                        cellsoc_min=np.interp(cellvolt_min,self.param.LookTab_OCV,self.param.LookTab_SOC)
+                        cellsoc_max=np.interp(cellvolt_max,self.param.LookTab_OCV,self.param.LookTab_SOC)
+                        cellvolt_diff=(cellvolt_max-cellvolt_min)*1000
+                        cellsoc_diff=cellsoc_max-cellsoc_min
+                        cellsoc_diff=eval(format(cellsoc_diff,'.1f'))
+                        cellvolt_diff=eval(format(cellvolt_diff,'.0f'))
+                        df_res.loc[len(df_res)]=[self.bmstime[i], self.sn, cellsoc_diff, cellvolt_diff, cellmin_num, cellmax_num]
+                        break
+                    else:
+                        continue
+                else:
+                    continue
+            else:
+                standingtime=0
+                continue
+
+        if df_res.empty:    #返回计算结果
+            return pd.DataFrame()
+        else:
+            return df_res
+
+    def _lfp_uniform(self):
+        column_name=['time','sn','cellsoc_diff','cellvolt_diff','cellmin_num','cellmax_num']
+        df_res=pd.DataFrame(columns=column_name)
+        standingtime=0
+        chrg_start=[]
+        chrg_end=[]
+        charging=0
+
+        for i in range(3,len(self.df_bms)-3):
+
+            #静置电压法计算电芯一致性
+            if abs(self.packcrnt[i]) < 0.2:     #电流为0
+                delttime=(self.bmstime[i+1]-self.bmstime[i]).total_seconds()
+                standingtime=standingtime+delttime
+                self._celltemp_weight(i)     #获取不同温度对应的静置时间
+
+                if standingtime>self.StandardStandingTime:      #静置时间满足要求
+                    cellvolt_now=self._cellvolt_get(i)     #获取当前行电压数据
+                    cellvolt_min=min(cellvolt_now)
+                    cellvolt_max=max(cellvolt_now)
+                    if abs(self.packcrnt[i+2]) >= 0.2 and cellvolt_max < self.param.OcvInflexionBelow:     
+                        standingtime=0                   
+                        cellmin_num=cellvolt_now.index(cellvolt_min)+1
+                        cellmax_num=cellvolt_now.index(cellvolt_max)+1
+                        cellsoc_min=np.interp(cellvolt_min,self.param.LookTab_OCV,self.param.LookTab_SOC)
+                        cellsoc_max=np.interp(cellvolt_max,self.param.LookTab_OCV,self.param.LookTab_SOC)
+                        cellvolt_diff=(cellvolt_max-cellvolt_min)*1000
+                        cellsoc_diff=cellsoc_max-cellsoc_min
+                        cellsoc_diff=eval(format(cellsoc_diff,'.1f'))
+                        cellvolt_diff=eval(format(cellvolt_diff,'.0f'))
+                        df_res.loc[len(df_res)]=[self.bmstime[i], self.sn, cellsoc_diff, cellvolt_diff, cellmin_num, cellmax_num]
+                    elif i>=len(self.df_bms)-4 and cellvolt_max < self.param.OcvInflexionBelow:
+                        standingtime=0
+                        cellmin_num=cellvolt_now.index(cellvolt_min)+1
+                        cellmax_num=cellvolt_now.index(cellvolt_max)+1
+                        cellsoc_min=np.interp(cellvolt_min,self.param.LookTab_OCV,self.param.LookTab_SOC)
+                        cellsoc_max=np.interp(cellvolt_max,self.param.LookTab_OCV,self.param.LookTab_SOC)
+                        cellvolt_diff=(cellvolt_max-cellvolt_min)*1000
+                        cellsoc_diff=cellsoc_max-cellsoc_min
+                        cellsoc_diff=eval(format(cellsoc_diff,'.1f'))
+                        cellvolt_diff=eval(format(cellvolt_diff,'.0f'))
+                        df_res.loc[len(df_res)]=[self.bmstime[i], self.sn, cellsoc_diff, cellvolt_diff, cellmin_num, cellmax_num]
+                    else:
+                        pass
+                else:
+                    pass
+            else:
+                standingtime=0
+                pass   
+
+            #获取DVDQ算法所需数据——开始
+            if i==3 and self.packcrnt[1]<=-1 and self.packcrnt[2]<=-1 and self.packcrnt[3]<=-1:
+                chrg_start.append(i)
+                charging=1
+            elif self.packcrnt[i-1]>-1 and self.packcrnt[i]<=-1 and self.packcrnt[i+1]<=-1 and self.packcrnt[i+2]<=-1:     #判断充电开始
+                if self.bms_soc[i]<45:
+                    charging=1
+                    if len(chrg_start)>len(chrg_end):
+                        chrg_start[-1]=i
+                    else:
+                        chrg_start.append(i)
+                else:
+                    pass
+            else:
+                pass
+
+            if charging==1: #充电中
+                if (self.bmstime[i+1]-self.bmstime[i]).total_seconds()>180:  #如果充电过程中时间间隔>180s，则舍弃该次充电
+                    chrg_start.remove(chrg_start[-1])
+                    charging=0
+                    continue
+                elif self.packcrnt[i]<=-1 and self.packcrnt[i+1]<=-1 and  self.packcrnt[i+2]>-1:  #判断电流波动时刻
+                    cellvolt_now=self._cellvolt_get(i+1)
+                    if max(cellvolt_now)>self.param.CellFullChrgVolt:   #电压>满充电压
+                        chrg_end.append(i+1)
+                        charging=0
+                        continue
+                    else:
+                        pass
+                elif self.packcrnt[i+1]>-0.1 and self.packcrnt[i+2]>-0.1 and self.packcrnt[i+3]>-0.1:   #判断充电结束
+                    charging=0
+                    if len(chrg_start)>len(chrg_end):
+                        if self.bms_soc[i]>90:
+                            chrg_end.append(i)
+                        else:
+                            chrg_start.remove(chrg_start[-1])
+                            continue
+                    else:
+                        continue
+                elif i==len(self.packcrnt)-4 and self.packcrnt[i+1]<-1 and self.packcrnt[i+2]<-1:
+                    charging=0
+                    if len(chrg_start)>len(chrg_end):
+                        if self.bms_soc[i]>90:   #soc>90
+                            chrg_end.append(i)
+                            continue
+                        else:
+                            chrg_start.remove(chrg_start[-1])
+                            continue
+                    else:
+                        continue   
+            else:
+                pass
+            #获取DVDQ算法所需数据——结束
+
+        if chrg_end:    #DVDQ方法计算soc差
+            peaksoc_list=[]
+            for i in range(len(chrg_end)):
+                peaksoc_list = []
+                for j in range(1, self.param.CellVoltNums + 1):
+                    s = str(j)
+                    cellvolt = self.df_bms['单体电压' + s]
+                    cellvolt = list(cellvolt[chrg_start[i]:chrg_end[i]])
+                    time = list(self.bmstime[chrg_start[i]:chrg_end[i]])
+                    packcrnt = list(self.packcrnt[chrg_start[i]:chrg_end[i]])
+                    soc = list(self.bms_soc[chrg_start[i]:chrg_end[i]])
+                    peaksoc = self._dvdq_peak(time, soc, cellvolt, packcrnt)
+                    if peaksoc>1:
+                        peaksoc_list.append(peaksoc)    #计算到达峰值点的累计Soc
+                    else:
+                        pass
+                if len(peaksoc_list)>11:
+                    peaksoc_max=max(peaksoc_list)
+                    peaksoc_min=min(peaksoc_list)
+                    peaksoc_maxnum=peaksoc_list.index(peaksoc_min)+1
+                    peaksoc_minnum=peaksoc_list.index(peaksoc_max)+1
+                    cellsoc_diff=peaksoc_max-peaksoc_min
+                    cellsoc_diff=eval(format(cellsoc_diff,'.1f'))
+                    df_res.loc[len(df_res)]=[self.bmstime[chrg_start[i]], self.sn, cellsoc_diff, 0, peaksoc_minnum, peaksoc_maxnum]
+                else:
+                    pass
+
+        if df_res.empty:
+            return pd.DataFrame()
+        else:
+            df_res.sort_values(by='time', ascending=True, inplace=True)
+            return df_res

LIB/MIDDLE/CellStateEstimation/Uniform/V1_0_0/log.py

@@ -0,0 +1,24 @@
+import logging
+import traceback
+
+class Mylog:
+
+    def __init__(self,log_name,log_level):
+        self.name=log_name
+        self.level=log_level
+    
+    def logcfg(self):
+        if len(self.level) > 0:
+            if self.level == 'debug':
+                Level=logging.DEBUG
+            elif self.level == 'info':
+                Level=logging.INFO
+            elif self.level == 'warning':
+                Level=logging.WARNING
+            else:
+                Level=logging.ERROR
+        logging.basicConfig(filename=self.name, level=Level,format='%(asctime)s - %(levelname)s - %(message)s')
+
+    def logopt(self,*info):
+        logging.error(info)
+        logging.error(traceback.format_exc())

LIB/MIDDLE/CellStateEstimation/Uniform/V1_0_0/main.py

@@ -0,0 +1,73 @@
+import CBMSBatUniform
+import log
+
+#coding=utf-8
+import os
+import sys
+import datetime
+import pandas as pd
+from LIB.BACKEND import DBManager, Log
+# from LIB.MIDDLE import SignalMonitor
+from sqlalchemy import create_engine
+from sqlalchemy.orm import sessionmaker
+import time, datetime
+from LIB.MIDDLE.soh import NCMSoh_20210716 as NCMSoh
+from LIB.MIDDLE.soh import LFPSoh_20210711 as LFPSoh
+from urllib import parse
+
+dbManager = DBManager.DBManager()
+if __name__ == "__main__":
+    SNdata_6040 = pd.read_excel('骑享资产梳理-20210621.xlsx', sheet_name='6040骑享')
+    SNdata_6060 = pd.read_excel('骑享资产梳理-20210621.xlsx', sheet_name='6060')
+    SNdata_4840 = pd.read_excel('骑享资产梳理-20210621.xlsx', sheet_name='4840骑享')
+    SNdata_7250 = pd.read_excel('骑享资产梳理-20210621.xlsx', sheet_name='7250')
+    SNnums_6060=SNdata_6060['SN号']
+    SNnums_6040=SNdata_6040['SN号']
+    SNnums_4840=SNdata_4840['SN号']
+    SNnums_7250=SNdata_7250['SN号']
+
+    SNnums=SNnums_6040.tolist()+SNnums_6060.tolist()+SNnums_4840.tolist()+SNnums_7250.tolist()
+    now_time=datetime.datetime.now().strftime('%Y-%m-%d %H:%M:%S')
+    now_time=datetime.datetime.strptime(now_time,'%Y-%m-%d %H:%M:%S')
+    start_time=now_time-datetime.timedelta(days=5)
+    end_time=str(now_time)
+    start_time=str(start_time)
+
+    #log信息配置
+    mylog=log.Mylog('log.txt','error')
+    mylog.logcfg()
+
+    for sn in SNnums:
+        try:
+            if 'PK500' in sn:
+                celltype=1 #6040三元电芯
+            elif 'PK502' in sn:
+                celltype=2 #4840三元电芯
+            elif 'PK504' in sn:
+                celltype=99    #60ah林磷酸铁锂电芯
+            elif 'MGMLXN750' in sn:
+                celltype=3 #力信50ah三元电芯
+            elif 'MGMCLN750' in sn: 
+                celltype=4 #CATL 50ah三元电芯
+            else:
+                print('未找到对应电池编号！！！')
+                sys.exit()
+            
+            # sn='PK50001A100000035'
+            # start_time='2021-08-10 9:49:37'
+            # end_time='2021-08-29 19:49:37'
+
+            dbManager = DBManager.DBManager()
+            df_data = dbManager.get_data(sn=sn, start_time=start_time, end_time=end_time, data_groups=['bms'])
+            df_bms = df_data['bms']
+            # df_bms.to_csv('BMS_'+sn+'.csv',encoding='GB18030')
+
+            BatUniform=CBMSBatUniform.BatUniform(sn,celltype,df_bms)
+            df_res=BatUniform.batuniform()
+            df_res.to_csv('CBMS_Uniform_'+sn+'.csv',encoding='GB18030')
+        
+        
+        except IndexError as e:
+            print(repr(e))
+            mylog.logopt(sn,e)
+            pass

LIB/MIDDLE/CellStateEstimation/Uniform/main.py

@@ -0,0 +1,71 @@
+import CBMSBatUniform
+import log
+
+#coding=utf-8
+import os
+import sys
+import datetime
+import pandas as pd
+from LIB.BACKEND import DBManager, Log
+# from LIB.MIDDLE import SignalMonitor
+from sqlalchemy import create_engine
+from sqlalchemy.orm import sessionmaker
+import time, datetime
+from urllib import parse
+
+dbManager = DBManager.DBManager()
+if __name__ == "__main__":
+    SNdata_6040 = pd.read_excel('骑享资产梳理-20210621.xlsx', sheet_name='6040骑享')
+    SNdata_6060 = pd.read_excel('骑享资产梳理-20210621.xlsx', sheet_name='6060')
+    SNdata_4840 = pd.read_excel('骑享资产梳理-20210621.xlsx', sheet_name='4840骑享')
+    SNdata_7250 = pd.read_excel('骑享资产梳理-20210621.xlsx', sheet_name='7250')
+    SNnums_6060=SNdata_6060['SN号']
+    SNnums_6040=SNdata_6040['SN号']
+    SNnums_4840=SNdata_4840['SN号']
+    SNnums_7250=SNdata_7250['SN号']
+
+    SNnums=SNnums_6040.tolist()+SNnums_6060.tolist()+SNnums_4840.tolist()+SNnums_7250.tolist()
+    now_time=datetime.datetime.now().strftime('%Y-%m-%d %H:%M:%S')
+    now_time=datetime.datetime.strptime(now_time,'%Y-%m-%d %H:%M:%S')
+    start_time=now_time-datetime.timedelta(days=5)
+    end_time=str(now_time)
+    start_time=str(start_time)
+
+    #log信息配置
+    mylog=log.Mylog('log.txt','error')
+    mylog.logcfg()
+
+    for sn in SNnums:
+        try:
+            if 'PK500' in sn:
+                celltype=1 #6040三元电芯
+            elif 'PK502' in sn:
+                celltype=2 #4840三元电芯
+            elif 'PK504' in sn:
+                celltype=99    #60ah林磷酸铁锂电芯
+            elif 'MGMLXN750' in sn:
+                celltype=3 #力信50ah三元电芯
+            elif 'MGMCLN750' in sn: 
+                celltype=4 #CATL 50ah三元电芯
+            else:
+                print('未找到对应电池编号！！！')
+                sys.exit()
+            
+            # sn='PK50001A100000035'
+            # start_time='2021-08-10 9:49:37'
+            # end_time='2021-08-29 19:49:37'
+
+            dbManager = DBManager.DBManager()
+            df_data = dbManager.get_data(sn=sn, start_time=start_time, end_time=end_time, data_groups=['bms'])
+            df_bms = df_data['bms']
+            # df_bms.to_csv('BMS_'+sn+'.csv',encoding='GB18030')
+
+            BatUniform=CBMSBatUniform.BatUniform(sn,celltype,df_bms)
+            df_res=BatUniform.batuniform()
+            df_res.to_csv('CBMS_Uniform_'+sn+'.csv',encoding='GB18030')
+        
+        
+        except IndexError as e:
+            print(repr(e))
+            mylog.logopt(sn,e)
+            pass

LIB/MIDDLE/DrivingRange/UpdtFct.py

@@ -0,0 +1,422 @@
+import pandas as pd
+import pymysql
+from sqlalchemy import create_engine
+import datetime
+from sqlalchemy.orm import sessionmaker
+import pdb
+
+# #建立引擎
+# engine = create_engine(str(r"mysql+mysqldb://%s:" + '%s' + "@%s/%s") % ('root', 'pengmin', 'localhost', 'qixiangdb'))
+# #连接到qx数据库
+# conn_qx = pymysql.connect(
+#         host='rm-bp10j10qy42bzy0q77o.mysql.rds.aliyuncs.com',
+#         user='qx_cas',
+#         password='Qx@123456',#Qx@123456
+#         database='qx_cas',
+#         charset='utf8'
+#     )
+# #连接到本地数据库，输出物
+# conn_local = pymysql.connect(
+#         host='localhost',
+#         user='root',
+#         password='pengmin',
+#         database='qixiangdb',
+#         charset='utf8'
+#     )
+
+#计算下一个soc
+def getNextSoc(start_soc):
+    '''输入当前的soc,寻找目标soc函数'''
+    if start_soc>80:
+        next_soc=80
+    elif start_soc>60:
+        next_soc=60
+    elif start_soc>40:
+        next_soc=40
+    elif start_soc>20:
+        next_soc=20
+    else:
+        next_soc=5#下一次目标soc
+    return next_soc
+#更新全部5个区间段的factor
+def updtSnFct(sn_factor_df,end_soc,delta_range,range_soc):
+    '''输入当前的soc区间段，里程变量量，soc变化量，输出新的df
+    sn_factor_df为dataframe，delta_range单位为km，range_soc单位为km/persoc'''
+    if end_soc==80:
+        updtFctByCol(sn_factor_df,'a0',delta_range,range_soc)
+    elif end_soc==60:
+        updtFctByCol(sn_factor_df,'a1',delta_range,range_soc)
+    elif end_soc==40:
+        updtFctByCol(sn_factor_df,'a2',delta_range,range_soc)
+    elif end_soc==20:
+        updtFctByCol(sn_factor_df,'a3',delta_range,range_soc)
+    elif end_soc<20:
+        updtFctByCol(sn_factor_df,'a4',delta_range,range_soc)
+    return sn_factor_df
+#更新一列的factor
+def updtFctByCol(sn_factor_df,colmun_name,delta_range,range_soc):
+    '''更新制定列的factor，sn_factor_df为dataframe，新的系数更新到第一行。delta_range单位为km，
+    range_soc单位为km/persoc，默认按照100km更新续驶里程权重'''
+    range_soc_old=sn_factor_df.loc[0,colmun_name]#读取第0行的老factor
+    debounce_range=100#更新权重
+    new_factor=range_soc*((delta_range)/debounce_range)+range_soc_old*(1-delta_range/debounce_range)
+    #在第1行，存储新的factor
+    sn_factor_df.loc[1,colmun_name]=new_factor
+    return sn_factor_df
+#更新今日的factor
+def updtTodayFct(factor_input,sn_day_df):
+    '''更新今日的Factor***'''
+    sn_factor_df_last=factor_input
+    start_soc=sn_day_df.loc[0,'soc']#首行soc
+    next_soc=getNextSoc(start_soc)#下一个目标soc
+    start_range=sn_day_df.loc[0,'vehodo']#首行vehodo
+    sn=sn_day_df.loc[0,'name']#sn号
+
+    for index in range(len(sn_day_df)-1):
+    #寻找分割点，
+        index_soc=sn_day_df.loc[index,'soc']#当前行soc
+        next_index_soc=sn_day_df.loc[index+1,'soc']#下一行soc
+
+        if (index_soc>=next_soc)&(next_index_soc<next_soc):
+            #当前行soc>目标soc，下一行低soc<目标soc，说明到达了分割点80-60-40-20
+            delta_soc_tonext=start_soc-next_soc#两个距离点的soc差，单位为%
+            delta_range_tonext=sn_day_df.loc[index,'vehodo']-start_range#两个时间点的距离差，单位为m
+            delta_range_tonext_km=delta_range_tonext/1000#两个时间点的距离差，单位为km
+            range_soc_tonext=(delta_range_tonext_km)/delta_soc_tonext#单位soc可行驶的公里数
+
+            # print(sn+'start_soc: '+str(start_soc),'next_soc: '+str(next_soc),'delta_vehodo； '+str(round(delta_range_tonext_km,3))
+            # +'km'+' range_soc:'+str(round(range_soc_tonext,3)))#调试用语句，看单次factor变化量
+
+            if (delta_range_tonext_km>1)&(delta_range_tonext_km<5*delta_soc_tonext):
+                #里程变化量>1km。且<5倍的soc变化量，大于此值认为不合理。
+                sn_factor_df_last=updtSnFct(sn_factor_df_last,next_soc,delta_range_tonext_km,range_soc_tonext)
+            
+            start_soc=next_index_soc#变更开始soc
+            next_soc=getNextSoc(start_soc)#变更结束soc
+            start_range=sn_day_df.loc[index+1,'vehodo']#变更开始里程    
+
+    return sn_factor_df_last
+#对driveinfo进行预处理
+def snDayDfPreProcess(sn_day_df):
+    '''预处理，判断是否在dirvemode，获取drivemode条件下的累计行驶距离。
+    增加delta_soc列，drive_flg列，vehodo列'''
+    sn_day_df=sn_day_df.reset_index(drop=True)#重置index
+    #增加列，计算delta_soc
+    for index in range(len(sn_day_df)):
+        if index==0:
+            sn_day_df.loc[index,'delta_soc']=0
+        else:
+            sn_day_df.loc[index,'delta_soc']=sn_day_df.loc[index,'soc']-sn_day_df.loc[index-1,'soc']
+    #增加列，判断是否在drive状态
+    drive_flg=False
+    accum_distance=0
+    for index in range(len(sn_day_df)):
+        if index==0:
+            sn_day_df.loc[index,'drive_status']=drive_flg
+            sn_day_df.loc[index,'vehodo']=0
+        else:
+            if (sn_day_df.loc[index,'delta_soc']<-0.1)|\
+                ((sn_day_df.loc[index,'delta_soc']<=0)&(sn_day_df.loc[index,'distance']>500)):#soc处于下降状态，说明在drive
+                drive_flg=True#置true
+            elif sn_day_df.loc[index,'delta_soc']>0.1:#soc处于上升状态，说明不在drive
+                drive_flg=False#置false
+                accum_distance=0#清零
+            sn_day_df.loc[index,'drive_flg']=drive_flg
+            accum_distance+=sn_day_df.loc[index,'distance']#对行驶里程进行累加
+            sn_day_df.loc[index,'vehodo']=accum_distance
+    #筛选所有的drive信息行
+    sn_day_drive_df=sn_day_df.loc[sn_day_df['drive_flg']==True,:]
+    #按时间进行一次筛选,此处丢弃了晚上0点以后的行车数据
+
+    sn_day_drive_df=sn_day_drive_df.reset_index(drop=True)#重置index
+    
+    return sn_day_drive_df 
+
+
+#更新所有sn,连读多天的的factor
+def updtAllSnFct(start_date,end_date, db_engine, db_local, db_qx, sn_table_name='tb_sn_factor'):
+    '''计算开始时间到结束时间的，所有sn的factor'''
+    start_date_datetime=datetime.datetime.strptime(start_date,'%Y-%m-%d')#开始时间
+    end_date_datetime=datetime.datetime.strptime(end_date,'%Y-%m-%d')#开始时间
+    delta_day=(end_date_datetime-start_date_datetime).days#间隔天数
+    i=1
+    while i<=delta_day:
+        end_date=(start_date_datetime+datetime.timedelta(days=i)).strftime("%Y-%m-%d")
+        updtAllSnTodayFct(start_date,end_date, db_engine, db_local, db_qx, sn_table_name)#调用函数
+        # print('update all sn factor from '+start_date+" to "+end_date)
+        start_date=end_date
+        i+=1#自加
+
+#更新所有sn,一天的factor
+def updtAllSnTodayFct(start_date,end_date, db_engine, db_local, db_qx, sn_table_name):
+    ''''更新今天所有sn的factorx信息，start_date和end_date相隔一天。此处还可优化'''
+    # conn_local = pymysql.connect(
+    #     host='localhost',
+    #     user='root',
+    #     password='pengmin',
+    #     database='qixiangdb',
+    #     charset='utf8'
+    #     )
+    
+    start_date_str="'"+start_date+"'"
+    end_date_str="'"+end_date+"'"
+    sql_cmd="select * from drive_info where time between "+start_date_str+" and "+end_date_str+" and distance!=0;"
+    range_soc_df = pd.read_sql(sql_cmd, db_qx)#使用read_sql方法查询qx数据库
+
+    #筛选出所有当日数据之后，筛选当日有更新的sn
+    today_sn_list=range_soc_df['name'].unique().tolist()#[:100]#先一次更新5个
+    #建立空的dataframe，用于承接所有更新的factor信息
+    today_sn_fct_df=pd.DataFrame([],columns=['sn','date','a0','a1','a2','a3','a4'])
+
+    for sn in today_sn_list:
+        #寻找factor_df，里面是否有sn号，如果没有sn对应信息，则新增信息。
+        sn_str="'"+sn+"'"
+        update_today_factor_flg=True
+        sql_cmd3="select sn,date,a0,a1,a2,a3,a4 from {} where date=".format(sn_table_name)+start_date_str+" and sn="+sn_str
+        factor_today_df=pd.read_sql(sql_cmd3, db_local)#使用read_sql方法查询local数据库
+        if len(factor_today_df)>=1:
+            # print(sn+' '+start_date_str+' factor exist in table! Factor not update.')
+            update_today_factor_flg=False
+
+        sql_cmd2="select sn,date,a0,a1,a2,a3,a4 from {} where date<".format(sn_table_name)+start_date_str+" and sn="+sn_str
+        #此处可以限定每次查询的数量，例如不高于5行
+        factor_df=pd.read_sql(sql_cmd2, db_local)#使用read_sql方法查询local数据库
+
+        #按照sn号和日期进行去重，避免运行时重复产生factor数据，保留第一次出现的行。
+        factor_df=factor_df.drop_duplicates(subset=['sn','date'],keep='first')
+
+        if len(factor_df)==0:
+            #如果没有搜索到factor历史数据,则声明一个新的进行初始化
+            start_date_datetime=datetime.datetime.strptime(start_date,'%Y-%m-%d')
+            yesterday=(start_date_datetime+datetime.timedelta(days=-1)).strftime("%Y-%m-%d")
+            #为sn申请一个新的factor，初始值为1
+            factor_df=pd.DataFrame({'sn':sn,'date':yesterday,'a0':[1],'a1':[1],'a2':[1],'a3':[1],'a4':[1]})
+        sn_factor_df=factor_df.loc[factor_df['sn']==sn,:]#筛选sn对应的factor
+        sn_factor_df=sn_factor_df.sort_values(by='date',ascending='True')#按照日期排序
+
+        sn_factor_df_last=sn_factor_df.tail(1).copy()#寻找最后一行，代表最近日期
+        sn_factor_df_last=sn_factor_df_last.append(sn_factor_df_last)#新增加一行,用于存储新的factor
+        sn_factor_df_last=sn_factor_df_last.reset_index(drop=True)#重置index
+        sn_factor_df_last.loc[1,'date']=start_date#更改后一行的date为当前日期
+        #筛选对应车辆的信息
+        condition_sn=(range_soc_df['name']==sn)
+        sn_day_df=range_soc_df.loc[condition_sn,:].copy()
+        sn_day_df=sn_day_df.reset_index(drop=True)
+        #使用updtTodayFct函数更新今天的factor
+        if len(sn_day_df)>=2:
+            #使用process函数，进行预处理
+            sn_day_df=snDayDfPreProcess(sn_day_df)#预处理函数
+            # 临时措施，删除每天晚上0点以后的数据，5点以前的数据，防止对驾驶cycle判断产生影响。
+            day_start_time=datetime.datetime.strptime(start_date,'%Y-%m-%d')
+            day_morning_time=day_start_time+datetime.timedelta(hours=5)
+            morning_time_str=day_morning_time.strftime('%Y-%m-%d %H:%M:%S')
+            sn_day_df=sn_day_df.loc[sn_day_df['time']>morning_time_str,:]#去除掉了每天晚上0点以后的数据，短期措施
+            sn_day_df=sn_day_df.reset_index(drop=True)#重置index
+
+            if len(sn_day_df)>=2:
+                sn_factor_df_new=updtTodayFct(sn_factor_df_last,sn_day_df)#
+                if (len(sn_factor_df_new)>=2)&(update_today_factor_flg):#如果factor
+                    today_sn_fct_df=today_sn_fct_df.append(sn_factor_df_new.loc[1,:])#筛选第一行，进行拼接，最后写入到数据库中
+    
+    #将today_sn_fct_df写入到数据库中，今天所有factor更新的系数，一次写入。
+    if len(today_sn_fct_df)>=1:
+        today_sn_fct_df.to_sql(sn_table_name,con=db_engine,chunksize=10000,if_exists='append',index=False)
+
+#更新一个sn，连续多天的factor
+def updtOneSnFct(sn,start_date,end_date,db_engine, db_local, db_qx, sn_table_name='tb_sn_factor'):
+    '''计算开始时间到结束时间的，一个sn的所有factor。
+    重复多次调用，updtOneSnTodayFct。
+    '''
+    start_date_datetime=datetime.datetime.strptime(start_date,'%Y-%m-%d')#开始时间
+    end_date_datetime=datetime.datetime.strptime(end_date,'%Y-%m-%d')#开始时间
+    delta_day=(end_date_datetime-start_date_datetime).days#间隔天数
+    i=1
+    while i<=delta_day:
+        end_date=(start_date_datetime+datetime.timedelta(days=i)).strftime("%Y-%m-%d")
+        # print('update one '+sn+'factor from '+start_date+" to "+end_date)
+        updtOneSnTodayFct(sn,start_date,end_date,db_engine, db_local, db_qx, sn_table_name)#调用函数,更新当日的factor。
+        start_date=end_date
+        i+=1#自加
+#更新一个sn,一天的factor
+def updtOneSnTodayFct(sn,start_date,end_date,db_engine, db_local, db_qx, sn_table_name):
+    '''更新一个sn,一天的factor。'''
+    #重新建立连接,更新数据库
+    # conn_local = pymysql.connect(
+    #     host='localhost',
+    #     user='root',
+    #     password='pengmin',
+    #     database='qixiangdb',
+    #     charset='utf8'
+    #     )
+
+    start_date_str="'"+start_date+"'"
+    end_date_str="'"+end_date+"'"
+    sn_str="'"+sn+"'"
+    sql_cmd="select * from drive_info where time between "+start_date_str+" and "+end_date_str+\
+    " and distance!=0 and name="+sn_str
+    range_soc_df = pd.read_sql(sql_cmd, db_qx)#使用read_sql方法查询qx数据库
+
+    if len(range_soc_df)>0:
+        #筛选出所有当日数据之后，筛选当日有更新的sn
+        today_sn_list=range_soc_df['name'].unique().tolist()
+        #建立空的dataframe，用于承接所有更新的factor信息
+        today_sn_fct_df=pd.DataFrame([],columns=['sn','date','a0','a1','a2','a3','a4'])
+
+        for sn in today_sn_list:
+            #寻找factor_df，里面是否有sn号，如果没有sn对应信息，则新增信息。
+            sn_str="'"+sn+"'"
+
+            update_today_factor_flg=True
+            sql_cmd3="select sn,date,a0,a1,a2,a3,a4 from {} where date=".format(sn_table_name)+start_date_str+" and sn="+sn_str
+            factor_today_df=pd.read_sql(sql_cmd3, db_local)#使用read_sql方法查询local数据库
+            if len(factor_today_df)>=1:
+                # print(sn+' '+start_date_str+' factor exist in table! Factor not update.')
+                update_today_factor_flg=False
+
+            sql_cmd2="select sn,date,a0,a1,a2,a3,a4 from {} where date<=".format(sn_table_name)+start_date_str+" and sn="+sn_str
+            factor_df=pd.read_sql(sql_cmd2, db_local)#使用read_sql方法查询local数据库
+            #按照sn号和日期进行去重，避免运行时重复产生factor数据，保留第一次出现的行。
+            factor_df=factor_df.drop_duplicates(subset=['sn','date'],keep='first')
+            # pdb.set_trace()
+            if len(factor_df)==0:
+                #如果没有搜索到factor历史数据,则声明一个新的进行初始化
+                start_date_datetime=datetime.datetime.strptime(start_date,'%Y-%m-%d')
+                yesterday=(start_date_datetime+datetime.timedelta(days=-1)).strftime("%Y-%m-%d")
+                factor_df=pd.DataFrame({'sn':sn,'date':yesterday,'a0':[1],'a1':[1],'a2':[1],'a3':[1],'a4':[1]})
+                today_sn_fct_df=today_sn_fct_df.append(factor_df.loc[0,:])#将初始化的行记录到数据库
+
+            sn_factor_df=factor_df.loc[factor_df['sn']==sn,:]#筛选sn对应的factor
+            sn_factor_df=sn_factor_df.sort_values(by='date',ascending='True')#按照日期排序
+
+            sn_factor_df_last=sn_factor_df.tail(1).copy()#寻找最后一行，代表最近日期
+            sn_factor_df_last=sn_factor_df_last.append(sn_factor_df_last)#新增加一行,用于存储新的factor
+            sn_factor_df_last=sn_factor_df_last.reset_index(drop=True)#重置index
+            sn_factor_df_last.loc[1,'date']=start_date#更改后一行的date为当前日期
+            #筛选对应车辆的信息
+            condition_sn=(range_soc_df['name']==sn)
+            sn_day_df=range_soc_df.loc[condition_sn,:].copy()
+            sn_day_df=sn_day_df.reset_index(drop=True)
+            #使用updtTodayFct函数更新今天的factor
+            if len(sn_day_df)>=2:
+                #使用process函数，进行预处理
+                sn_day_df=snDayDfPreProcess(sn_day_df)#!!!!!!!!!!!增加
+                # 临时措施，删除每天晚上0点以后的数据，5点以前的数据，防止对驾驶cycle判断产生影响。
+                day_start_time=datetime.datetime.strptime(start_date,'%Y-%m-%d')
+                day_morning_time=day_start_time+datetime.timedelta(hours=5)
+                morning_time_str=day_morning_time.strftime('%Y-%m-%d %H:%M:%S')
+                sn_day_df=sn_day_df.loc[sn_day_df['time']>morning_time_str,:]#去除掉了每天晚上0点以后的数据，短期措施
+                sn_day_df=sn_day_df.reset_index(drop=True)#重置index
+
+                if len(sn_day_df)>=2:
+                    sn_factor_df_new=updtTodayFct(sn_factor_df_last,sn_day_df)#更新fator的主函数
+
+                    if (len(sn_factor_df_new)>=2)&(update_today_factor_flg):#如果今日factor没有更新
+                        today_sn_fct_df=today_sn_fct_df.append(sn_factor_df_new.loc[1,:])#筛选第一行，进行拼接，最后写入到数据库中
+        
+        # #将today_sn_fct_df写入到数据库中
+        if len(today_sn_fct_df)>=1:
+            today_sn_fct_df.to_sql(sn_table_name,con=db_engine,chunksize=10000,if_exists='append',index=False)
+            # print(sn+' factor will be update in table tb_sn_factor!')
+        return sn_factor_df_new
+
+
+#更新最新的factor，一天调用一次。
+def updtNewestFctTb(current_time, db_local, sn_table_name='tb_sn_factor'):
+
+    '''更新tb_sn_factor_newest，只保留最新日期的factor。
+    从tb_sn_factor中，筛选最新的日期。
+    函数每天运行一次，从tb_sn_factor中筛选最新日期的factor。'''
+
+    current_time=current_time#当前时间
+    current_time_str=current_time.strftime('%Y-%m-%d %H:%M:%S')#时间格式化为字符串,年-月-日 时-分-秒
+    current_time_str="'"+current_time_str+"'"
+
+    sql_cmd_4="select sn,date,a0,a1,a2,a3,a4 from {} where date<".format(sn_table_name)+current_time_str
+    factor_all_df = pd.read_sql(sql_cmd_4, db_local)#使用read_sql方法查询qx数据库
+    #筛选今天之前的所有factor，只保留最近的一天。
+    sn_list=factor_all_df['sn'].unique().tolist()#筛选sn序列
+    newest_sn_fct_df=pd.DataFrame([],columns=['sn','date','a0','a1','a2','a3','a4'])#声明空df
+
+    for sn in sn_list:
+        condition_sn=(factor_all_df['sn']==sn)
+        factor_pick_df=factor_all_df.loc[condition_sn,:]#按照sn进行筛选
+        factor_pick_df=factor_pick_df.sort_values(by='date')#按照日期排序
+        factor_last_df=factor_pick_df.tail(1)#选择最后日期
+        newest_sn_fct_df=newest_sn_fct_df.append(factor_last_df)#拼接到空df中
+    
+
+    #按照日期排序，只保留最近的一天,输出factor_unique_df，方法为replace。
+    #本函数，每天需要运行一次，用于更新factor。
+    # newest_sn_fct_df.to_sql(sn_newest_table_name,con=db_engine,chunksize=10000,\
+    #     if_exists='replace',index=False)
+    return newest_sn_fct_df
+#使用factor和soc推荐剩余续驶里程
+def calDistFromFct(input_df):
+    '''根据sn-time-soc-a0-a1-a2-a3-a4，使用factor正向计算计算VehElecRng。'''
+    row_df=input_df.copy()
+    soc=row_df['soc']#获取soc
+    factor=[]
+    factor.append(row_df['a4'])#0~20之间的factor
+    factor.append(row_df['a3'])#20~40之间的factor
+    factor.append(row_df['a2'])#40~60之间的factor
+    factor.append(row_df['a1'])#60~80之间的factor
+    factor.append(row_df['a0'])#80~100之间的factor
+
+    gap=20
+    yushu=soc%gap#余数部分
+    zhengshu=soc//gap#整数部分
+    i=0
+    range=0
+    while i<zhengshu:
+        dur_factor=factor[i]#当前权重
+        range+=dur_factor*gap#分段累加里程
+        i=i+1
+    if yushu>0.01:#避免soc=100时报错
+        range=range+yushu*factor[zhengshu]#最后把余项对应的里程加上
+    row_df['vehelecrng']=range#给VehElecRng列赋值
+    return row_df
+#更新当前时间对应的里程，每5min调用一次
+def updtVehElecRng(db_qx, db_local, sn_newest_table_name='tb_sn_factor_newest', input_time='2021-07-29 12:01:00'):
+    '''更新续驶里程，到tb_sn_factor_soc_range。
+    部署时设置每5min更新一次。
+    '''
+    #设置一个时间作为结束时间
+    # current_time=datetime.datetime.now()
+    current_time_raw=input_time#当前时间
+    current_time=datetime.datetime.strptime(current_time_raw,'%Y-%m-%d %H:%M:%S')#字符串转时间
+
+    #结束时间往前4min,59s，作为起始时间
+    before6min_time_str=(current_time+datetime.timedelta(minutes=-4,seconds=-59)).strftime('%Y-%m-%d %H:%M:%S')#6min前
+    before6min_time_str="'"+before6min_time_str+"'"
+    current_time_str=current_time.strftime('%Y-%m-%d %H:%M:%S')#时间格式化为字符串
+    current_time_str="'"+current_time_str+"'"
+
+    #从drive_info里面读取，该时间段内的name,time,soc三列
+    sql_cmd="select name,time,soc from drive_info where time between "+before6min_time_str+" and "+current_time_str
+    # print(sql_cmd)
+    range_soc_df = pd.read_sql(sql_cmd, db_qx)#使用read_sql方法查询qx数据库
+    range_soc_df.rename(columns={'name':'sn'},inplace=True)#将name列重命名为sn列
+
+    #任务2，从tb_sn_factor_newest里面读取最新的factor，获取距离今天最近的一个factor list
+    sql_cmd_1="select sn,a0,a1,a2,a3,a4 from {}".format(sn_newest_table_name)
+    # print(sql_cmd_1)
+    sn_factor_newest_df_raw = pd.read_sql(sql_cmd_1, db_local)#使用read_sql方法查询qx数据库
+
+    #任务3，将range_soc_df和sn_factor_newest_df_raw，双表合并成为一个新表格。
+    sn_soc_factor_df=pd.merge(range_soc_df,sn_factor_newest_df_raw,how='left',on='sn')
+    sn_soc_factor_df.fillna(1,inplace=True)#如果range_soc_df中有sn号，但sn_factor_newest_df_raw中没有。用1填充。
+    # sn_soc_factor_df.head()
+    #填充完成后，sn-time-soc-a0-a1-a2-a3-a4都已经齐全。
+
+    #任务4，调用函数，将VehElecRng计算出来
+    sn_soc_factor_range_df=pd.DataFrame([],columns=['sn','time','soc','a0','a1','a2','a3','a4','vehelecrng'])
+    for index in sn_soc_factor_df.index.tolist():
+        input_df=sn_soc_factor_df.loc[index,:]#挑选
+        sn_soc_factor_range_row=calDistFromFct(input_df)#计算VehElecRng
+        sn_soc_factor_range_df=sn_soc_factor_range_df.append(sn_soc_factor_range_row)#拼接
+
+    ##任务5，将sn_soc_factor_range_df写入到tb_sn_factor_soc_range中,使用替换关系。
+    # sn_soc_factor_range_df.to_sql(range_table_name,con=db_engine,chunksize=10000,\
+    #     if_exists='replace',index=False)    
+    return sn_soc_factor_range_df
+

LIB/MIDDLE/DrivingRange/UpdtFctTable.py

@@ -0,0 +1,12 @@
+import pandas as pd
+import pymysql
+from sqlalchemy import create_engine
+import datetime
+from UpdtFct import *
+
+#调度周期：每天运行一次。
+
+#更新所有sn，连读多日的factor，如果start_date和end_date相隔一天，代表更新start_date的factor。
+start_date="2021-07-23"
+end_date="2021-07-28"
+updtAllSnFct(start_date,end_date)

LIB/MIDDLE/DrivingRange/UpdtFctTableNewest.py

@@ -0,0 +1,11 @@
+import pandas as pd
+import pymysql
+from sqlalchemy import create_engine
+import datetime
+from UpdtFct import *
+
+#调度周期：在UpdtFctTable运行结束之后，运行一次，不需要输入参数。
+
+#更新factor到最新状态，只保留最新的。
+
+updtNewestFctTb()

LIB/MIDDLE/DrivingRange/UpdtVehElecRng.py

@@ -0,0 +1,16 @@
+import pandas as pd
+import pymysql
+from sqlalchemy import create_engine
+import datetime
+from UpdtFct import *
+
+#调度周期：程序每5分钟运行一次
+
+#更新剩余里程，每5min一次，几秒钟运行结束。
+test_time=datetime.datetime.now()#当前系统时间
+input_time=datetime.datetime.strftime(test_time,'%Y-%m-%d %H:%M:%S')
+
+# input_time='2021-07-29 11:59:00'#手动设定一个时间
+
+#函数每5min调度一次，input_time为当前时间，更新tb_sn_factor_soc_range表格
+updtVehElecRng(input_time)

LIB/MIDDLE/IndexStaByOneCycle.py

@@ -200,13 +200,13 @@ class IndexStaByOneCycle():
 基于单一状态（一次行车、一次静置、一次充电）的指标统计库
 
 '''
-__author__ = 'Wang Liming'
+__author__ = 'lmstack'
 
-import CONFIGURE.PathSetting as PathSetting
-import sys
-sys.path.append(PathSetting.backend_path)
-import datetime
-import Tools
+# import CONFIGURE.PathSetting as PathSetting
+# import sys
+# sys.path.append(PathSetting.backend_path)
+# import datetime
+# import Tools
 import pandas as pd
 import numpy as np
 

LIB/MIDDLE/IndexStaByPeriod.py

@@ -175,17 +175,17 @@ class IndexStaByPeriod():
 基于某个周期（一天，一周...）的指标统计库
 
 '''
-__author__ = 'Wang Liming'
+__author__ = 'lmstack'
 
-import CONFIGURE.PathSetting as PathSetting
-import sys
-sys.path.append(PathSetting.backend_path)
-sys.path.append(PathSetting.middle_path)
+# import CONFIGURE.PathSetting as PathSetting
+# import sys
+# sys.path.append(PathSetting.backend_path)
+# sys.path.append(PathSetting.middle_path)
 import datetime
 import Tools
 import pandas as pd
 import numpy as np
-import IndexStaByOneCycle
+from LIB.MIDDLE import IndexStaByOneCycle
 
 class IndexStaByPeriod():
     def __init__(self):

LIB/MIDDLE/LeakCurrent/LFPLeakCurrent20210812.py

@@ -0,0 +1,160 @@
+# 获取数据
+from LIB.BACKEND import DBManager
+
+import os
+import pandas as pd
+import numpy as np
+import bisect
+import datetime
+# import matplotlib.pyplot as plt
+
+#参数输入
+Capacity = 53.6
+PackFullChrgVolt=69.99
+CellFullChrgVolt=3.37
+CellVoltNums=20
+CellTempNums=4
+FullChrgSoc=98
+CellVoltPort=[3.357,3.358,3.359,3.36,3.361]
+PeakSoc=57
+# #40Ah-OCV
+# LookTab_SOC = [0, 5, 10, 15, 20, 25, 30, 35, 40, 45, 50, 55, 60, 65, 70, 75, 80, 85, 90, 95, 100]
+# LookTab_OCV = [3.3159, 3.4502, 3.4904, 3.5277, 3.5590, 3.5888, 3.6146, 3.6312, 3.6467, 3.6642, 3.6865, 3.7171, 3.7617,
+#                3.8031, 3.8440, 3.8888, 3.9376, 3.9891, 4.0451, 4.1068, 4.1830]
+#55Ah-OCV
+LookTab_SOC = [0,  10,  20,  30,  40,  50,  60,  70,  80,  90,  100]
+LookTab_OCV = [3.1820, 3.2250, 3.2730, 3.2840, 3.2860, 3.2920, 3.3210, 3.3260, 3.3270, 3.3270, 3.3640]
+
+# 获取数据时间段
+def cal_LFPLeakCurrent(sn, end_time, start_time):
+    end_time = end_time
+    strat_time = start_time
+
+    sn = sn
+    st = strat_time
+    et = end_time
+
+    dbManager = DBManager.DBManager()
+    df_data = dbManager.get_data(sn=sn, start_time=st, end_time=et, data_groups=['bms'])
+    df_bms = df_data['bms']
+
+    #寻找电压最大值
+    packcrnt=df_bms['总电流[A]']
+    SOC=df_bms['SOC[%]']
+    bmsstat=df_bms['充电状态']
+    time= pd.to_datetime(df_bms['时间戳'], format='%Y-%m-%d %H:%M:%S')
+
+    #第一步：筛选充电数据
+    ChgStart=[]
+    ChgEnd=[]
+    for i in range(3, len(time) - 3):
+        if i==3 and bmsstat[i]==2 and bmsstat[i+1]==2 and bmsstat[i+2]==2:
+            ChgStart.append(i)
+        elif bmsstat[i-2]!=2 and bmsstat[i-1]!=2 and bmsstat[i]==2:
+            ChgStart.append(i)
+        elif bmsstat[i-1]==2 and bmsstat[i]!=2 and bmsstat[i+1]!=2:
+            ChgEnd.append(i)
+        elif i == (len(time) - 4) and bmsstat[len(bmsstat)-1] == 2 and bmsstat[len(bmsstat)-2] == 2:
+            ChgEnd.append(len(time)-1)
+
+    #第二步：筛选充电起始Soc<45%，且单体最小电压>3.37V的数据
+    ChgStartValid=[]
+    ChgEndValid=[]
+    if ChgStart:
+        for i in range(len(ChgEnd)):
+            #寻找最小电压值
+            cellvolt = []
+            for j in range(1, CellVoltNums+1):
+                s = str(j)
+                volt = df_bms['单体电压' + s]/1000
+                cellvolt.append(max(volt[ChgStart[i]:ChgEnd[i]]))
+            if min(cellvolt)>CellFullChrgVolt and SOC[ChgStart[i]]<40 and (ChgEnd[i]-ChgStart[i])>10:
+                if ((time[ChgEnd[i]]-time[ChgStart[i]]).total_seconds())/(ChgEnd[i]-ChgStart[i])<30:
+                    ChgStartValid.append(ChgStart[i])
+                    ChgEndValid.append(ChgEnd[i])
+
+    #第三步：计算充电每个单体到达3.368V的Ah差
+    #定义寻找电压3.368V的数据点
+    def data_search(data1,data2,data3,data4):
+        Soc=0
+        for m in range(1,len(data1)):
+            t=(data2[m]-data2[m-1]).total_seconds()
+            Soc=Soc-data3[m]*t/(3600*Capacity)
+            if data1[m]>data4:
+                DetaT=(data2[m]-data2[0]).total_seconds()
+                return Soc,m
+                break
+    
+    if ChgStartValid:
+        df_DetaTime=pd.DataFrame()
+        df_DetaTime1=pd.DataFrame()
+        df_detatime=pd.DataFrame()
+        for i in range(len(ChgStartValid)):
+            DetaSoc1=[]
+            DetaSoc2 = []
+            DetaSoc=[]
+            a=list(range(5))
+            b=list(range(5))
+            #计算1-10号电芯到达特定电压值得时间和SOC
+            for j in range(1, CellVoltNums-9):
+                s = str(j)
+                cellvolt = df_bms['单体电压' + s]/1000
+                cellvolt=list(cellvolt[ChgStartValid[i]:ChgEndValid[i]])
+                Time=list(time[ChgStartValid[i]:ChgEndValid[i]])
+                Packcrnt=list(packcrnt[ChgStartValid[i]:ChgEndValid[i]])
+                for k in range(len(CellVoltPort)):
+                    a[k],b[k]=data_search(cellvolt,Time,Packcrnt,CellVoltPort[k])
+                DetaSoc1.append(np.mean(a))  #计算到达3.368V的时长
+                # DetaT.append((Time[b]-Time[0]).total_seconds())
+
+            #计算1-10号电芯到达特定电压值的平均Soc
+            Socmean1=(sum(DetaSoc1)-max(DetaSoc1)-min(DetaSoc1))/(len(DetaSoc1)-2)
+            # Tmean=np.mean(DetaT)
+
+            ##计算11-20号电芯到达特定电压值得时间和SOC
+            for j in range(11, CellVoltNums+1):
+                s = str(j)
+                cellvolt = df_bms['单体电压' + s]/1000
+                cellvolt=list(cellvolt[ChgStartValid[i]:ChgEndValid[i]])
+                Time=list(time[ChgStartValid[i]:ChgEndValid[i]])
+                Packcrnt=list(packcrnt[ChgStartValid[i]:ChgEndValid[i]])
+                for k in range(len(CellVoltPort)):
+                    a[k],b[k]=data_search(cellvolt,Time,Packcrnt,CellVoltPort[k])
+                DetaSoc2.append(np.mean(a))  #计算到达3.368V的时长
+
+            #计算11-20号电芯到达特定电压值的平均Soc
+            Socmean2=(sum(DetaSoc2)-max(DetaSoc2)-min(DetaSoc2))/(len(DetaSoc2)-2)
+
+            #计算每个电芯的Soc差
+
+            DetaSoc3=DetaSoc1+DetaSoc2
+            for j in range(len(DetaSoc3)):
+                if j<10:
+                    Socmean=Socmean1
+                else:
+                    Socmean=Socmean2
+                DetaSoc.append(DetaSoc3[j]-Socmean)
+                # DetaSoc.append((DetaT[j]-Tmean)*9.5/(Capacity*3600))
+            df_DetaTime[time[ChgStartValid[i]]]=DetaSoc
+        #漏电流计算
+        column=[]
+        time1=[]
+        sn1=[]
+
+        for index, row in df_DetaTime.iteritems():
+            column.append(index) #提取列名称
+
+        for  i in range(1,len(column)):#计算漏电流值
+            df_DetaTime1[column[i]] = df_DetaTime.apply(lambda x: (x[column[i-1]] -  x[column[i]])*1000*Capacity*3600/((column[i]-column[i-1]).total_seconds()), axis=1)
+            time1.append(column[i])
+            sn1.append(sn)
+        df_detatime['time']=time1
+        df_detatime['sn']=sn1
+
+        for i in range(CellVoltNums):
+            cell=[]
+            for j in range(1,len(column)):
+                cell.append(df_DetaTime1[column[j]][i])
+            df_detatime['cell'+str(i+1)]=cell
+        return df_detatime
+    return pd.DataFrame()

LIB/MIDDLE/LeakCurrent/LeakCurrent表头及数据类型.xlsx

@@ -0,0 +1,23 @@
+ąí͡	ĂűłĆ	ĘýžÝŔŕĐÍ
+time	time	timestamps
+SN	sn	str
+cell1	cell1	float64
+cell2	cell2	float64
+cell3	cell3	float64
+cell4	cell4	float64
+cell5	cell5	float64
+cell6	cell6	float64
+cell7	cell7	float64
+cell8	cell8	float64
+cell9	cell9	float64
+cell10	cell10	float64
+cell11	cell11	float64
+cell12	cell12	float64
+cell13	cell13	float64
+cell14	cell14	float64
+cell15	cell15	float64
+cell16	cell16	float64
+cell17	cell17	float64
+cell18	cell18	float64
+cell19	cell19	float64
+cell20	cell20	float64

LIB/MIDDLE/LeakCurrent/main.py

@@ -0,0 +1,27 @@
+#coding=utf-8
+import os
+import datetime
+import pandas as pd
+from LIB.BACKEND import DBManager, Log
+from LIB.MIDDLE import SignalMonitor
+from sqlalchemy import create_engine
+from sqlalchemy.orm import sessionmaker
+import time, datetime
+import traceback
+import LFPLeakCurrent20210812 as LFPLeakCurrent
+
+from urllib import parse
+
+dbManager = DBManager.DBManager()
+if __name__ == "__main__":
+    SNdata_6060 = pd.read_excel('骑享资产梳理-20210621.xlsx', sheet_name='6060')
+    SNnums_6060=SNdata_6060['SN号']
+    now_time=datetime.datetime.now().strftime('%Y-%m-%d %H:%M:%S')
+    now_time=datetime.datetime.strptime(now_time,'%Y-%m-%d %H:%M:%S')
+    start_time=now_time-datetime.timedelta(days=31)
+    end_time=str(now_time)
+    start_time=str(start_time)
+
+    for sn in SNnums_6060.tolist():
+        res = LFPLeakCurrent.cal_LFPLeakCurrent(sn, end_time, start_time)
+        res.to_csv('BMS_LeakCurrent_'+sn+'.csv',encoding='GB18030')

LIB/MIDDLE/SignalMonitor.py

@@ -1,15 +1,15 @@
 import datetime
-import os
+# import os
 import pandas as pd
-import Tools
-import sys
-import xlutils
+# import Tools
+# import sys
+# import xlutils
 from xlrd import open_workbook
 from xlutils.copy import copy
 
-import CONFIGURE.PathSetting as PathSetting
-sys.path.append(PathSetting.backend_path)
-import DBManager
+# import CONFIGURE.PathSetting as PathSetting
+# sys.path.append(PathSetting.backend_path)
+from LIB.BACKEND import DBManager
 dbManager = DBManager.DBManager()
 
 class SignalMonitor():
@@ -75,7 +75,7 @@ class SignalMonitor():
         return df_state
     
     @staticmethod
-    def _judge_offline_state_between_messages(sn, PackState_new, PackState_old, Timestamp_new, Timestamp_old, df_res, mode):
+    def _judge_offline_state_between_messages(sn, PackState_new, PackState_old, Timestamp_new, Timestamp_old, lat, long, df_res, mode):
         delta_time = (Timestamp_new - Timestamp_old).total_seconds()
         max_state = max(PackState_new, PackState_old)
         if max_state == 0:
@@ -108,8 +108,12 @@ class SignalMonitor():
             LineState = 2
         
         if LineState > 0:
-            df_res = df_res.append({'sn':sn[0], 'PackState':PackState_new*16+PackState_old, 'LineState':LineState, 'StartTime':Timestamp_old, 
+            if mode == 'BMS':
+                df_res = df_res.append({'sn':sn[0], 'PackState':PackState_new*16+PackState_old, 'LineState':LineState, 'StartTime':Timestamp_old, 
                         'EndTime':Timestamp_new, 'OfflineTime':delta_time}, ignore_index=True)
+            elif mode == 'GPS':
+                df_res = df_res.append({'sn':sn[0], 'PackState':PackState_new*16+PackState_old, 'LineState':LineState, 'StartTime':Timestamp_old, 
+                    'EndTime':Timestamp_new, 'OfflineTime':delta_time, 'latitude':lat, 'longitude':long}, ignore_index=True)
         return LineState, df_res
 
     @staticmethod
@@ -119,17 +123,35 @@ class SignalMonitor():
             df_state.loc[0,'LineState'] = 0
             while index < len(df_state)-1:
                 index = index + 1
-                LineState, df_res = SignalMonitor._judge_offline_state_between_messages(sn, df_state.loc[index, 'PackState'], df_state.loc[index-1, 'PackState'], 
-                df_state.loc[index, 'Timestamp'], df_state.loc[index-1, 'Timestamp'], df_res, mode=mode)
+                if mode == 'BMS':
+                    LineState, df_res = SignalMonitor._judge_offline_state_between_messages(sn, df_state.loc[index, 'PackState'], df_state.loc[index-1, 'PackState'], 
+                    df_state.loc[index, 'Timestamp'], df_state.loc[index-1, 'Timestamp'], None, None,
+                    df_res, mode=mode)
+                elif mode == 'GPS':
+                    LineState, df_res = SignalMonitor._judge_offline_state_between_messages(sn, df_state.loc[index, 'PackState'], df_state.loc[index-1, 'PackState'], 
+                    df_state.loc[index, 'Timestamp'], df_state.loc[index-1, 'Timestamp'], df_state.loc[index-1, 'latitude'], df_state.loc[index-1, 'longitude'],
+                    df_res, mode=mode)
                 df_state.loc[index, 'LineState'] = LineState
         else:
             df_last_info = df_last_state.loc[len(df_last_state) - 1]
-            df_state.loc[0,'LineState'], df_res = SignalMonitor._judge_offline_state_between_messages(sn, df_state.loc[0, 'PackState'], df_last_info['PackState'], 
-                df_state.loc[0, 'Timestamp'], df_last_info['Timestamp'], df_res, mode=mode)
+            if mode == 'BMS':
+                df_state.loc[0,'LineState'], df_res = SignalMonitor._judge_offline_state_between_messages(sn, df_state.loc[0, 'PackState'], df_last_info['PackState'], 
+                    df_state.loc[0, 'Timestamp'], df_last_info['Timestamp'], None, None,
+                    df_res, mode=mode)
+            elif mode == 'GPS':
+                df_state.loc[0,'LineState'], df_res = SignalMonitor._judge_offline_state_between_messages(sn, df_state.loc[0, 'PackState'], df_last_info['PackState'], 
+                    df_state.loc[0, 'Timestamp'], df_last_info['Timestamp'], df_state.loc[0, 'latitude'], df_state.loc[0, 'longitude'],
+                    df_res, mode=mode)
             while index < len(df_state)-1:
                 index = index + 1
-                LineState, df_res = SignalMonitor._judge_offline_state_between_messages(sn, df_state.loc[index, 'PackState'], df_state.loc[index-1, 'PackState'], 
-                df_state.loc[index, 'Timestamp'], df_state.loc[index-1, 'Timestamp'], df_res, mode=mode)
+                if mode == 'BMS':
+                    LineState, df_res = SignalMonitor._judge_offline_state_between_messages(sn, df_state.loc[index, 'PackState'], df_state.loc[index-1, 'PackState'], 
+                    df_state.loc[index, 'Timestamp'], df_state.loc[index-1, 'Timestamp'], None, None,
+                    df_res, mode=mode)
+                elif mode == 'GPS':
+                    LineState, df_res = SignalMonitor._judge_offline_state_between_messages(sn, df_state.loc[index, 'PackState'], df_state.loc[index-1, 'PackState'], 
+                    df_state.loc[index, 'Timestamp'], df_state.loc[index-1, 'Timestamp'], df_state.loc[index-1, 'latitude'], df_state.loc[index-1, 'longitude'],
+                    df_res, mode=mode)
                 df_state.loc[index, 'LineState'] = LineState
         # SignalMonitor._file_write(r'D:\result_03.xls', df_state)
         return df_res
@@ -137,22 +159,22 @@ class SignalMonitor():
     @staticmethod
     def _set_gps_working_states(df_state, df_state_gps):
         for i in range(0, len(df_state_gps)):
-                if df_state_gps.loc[i, 'Timestamp'] <= df_state.loc[0, 'Timestamp']:
-                    df_state_gps.loc[i, 'PackState'] = df_state.loc[0, 'PackState']
-                elif df_state_gps.loc[i, 'Timestamp'] >= df_state.loc[len(df_state)-1, 'Timestamp']:
-                    df_state_gps.loc[i:len(df_state_gps)-1, 'PackState'] = df_state.loc[len(df_state)-1, 'PackState']
-                    break
+            if df_state_gps.loc[i, 'Timestamp'] <= df_state.loc[0, 'Timestamp']:
+                df_state_gps.loc[i, 'PackState'] = df_state.loc[0, 'PackState']
+            elif df_state_gps.loc[i, 'Timestamp'] >= df_state.loc[len(df_state)-1, 'Timestamp']:
+                df_state_gps.loc[i:len(df_state_gps)-1, 'PackState'] = df_state.loc[len(df_state)-1, 'PackState']
+                break
+            else:
+                index0 = max(df_state[df_state['Timestamp'] <= df_state_gps.loc[i, 'Timestamp']].index)
+                index1 = min(df_state[df_state['Timestamp'] >= df_state_gps.loc[i, 'Timestamp']].index)
+                front = (df_state_gps.loc[i, 'Timestamp'] - df_state.loc[index0, 'Timestamp']).total_seconds()
+                back = (df_state.loc[index1, 'Timestamp'] - df_state_gps.loc[i, 'Timestamp']).total_seconds()
+                if front > back:
+                    df_state_gps.loc[i, 'PackState'] = df_state.loc[index1, 'PackState']
+                elif front == back:
+                    df_state_gps.loc[i, 'PackState'] = max(df_state.loc[index1, 'PackState'], df_state.loc[index0, 'PackState'])
                 else:
-                    index0 = max(df_state[df_state['Timestamp'] <= df_state_gps.loc[i, 'Timestamp']].index)
-                    index1 = min(df_state[df_state['Timestamp'] >= df_state_gps.loc[i, 'Timestamp']].index)
-                    front = (df_state_gps.loc[i, 'Timestamp'] - df_state.loc[index0, 'Timestamp']).total_seconds()
-                    back = (df_state.loc[index1, 'Timestamp'] - df_state_gps.loc[i, 'Timestamp']).total_seconds()
-                    if front > back:
-                        df_state_gps.loc[i, 'PackState'] = df_state.loc[index1, 'PackState']
-                    elif front == back:
-                        df_state_gps.loc[i, 'PackState'] = max(df_state.loc[index1, 'PackState'], df_state.loc[index0, 'PackState'])
-                    else:
-                        df_state_gps.loc[i, 'PackState'] = df_state.loc[index0, 'PackState']
+                    df_state_gps.loc[i, 'PackState'] = df_state.loc[index0, 'PackState']
         return df_state_gps
     
     @staticmethod
@@ -209,7 +231,7 @@ class SignalMonitor():
         return df_res,df_state, df_last_state
     
     def get_gps_offline_stat(self,sn, st, et, df_state, df_res_gps, df_last_state_gps, cal_Period=24):    # 计算一段时间内GPS信号统计数据
-        df_state_gps = pd.DataFrame(columns=['sn', 'Timestamp', 'PackState', 'LineState'])
+        df_state_gps = pd.DataFrame(columns=['sn', 'Timestamp', 'PackState', 'LineState', 'latitude', 'longitude'])
         # print("start_time is {}, limit_time is {}".format(st, limit_time))
         end_time = st + datetime.timedelta(hours=cal_Period)    # 结束时间
         start_time_str = st.strftime('%Y-%m-%d %H:%M:%S')
@@ -223,6 +245,9 @@ class SignalMonitor():
 
         df_state_gps['Timestamp'] = df_gps['时间戳']
         df_state_gps['sn'] = sn[0]
+        df_state_gps['latitude'] = df_gps['纬度']
+        df_state_gps['longitude'] = df_gps['经度']
+
 
         if len(df_state_gps) > 0:    # 无数据则不计算    
             df_state_gps = SignalMonitor._set_gps_working_states(df_state, df_state_gps)    # 根据同时间段内BMS状态计算GPS数据对应的BMS状态

LIB/MIDDLE/odo/CalDist.py

@@ -0,0 +1,125 @@
+from math import radians, cos, sin, asin, sqrt
+import pandas as pd
+import numpy as np
+from datetime import datetime
+from datetime import timedelta
+
+from GpsRank import *
+from ProcessDfBms import *
+from ProcessDfGps import *
+
+from LIB.BACKEND import DBManager
+#####################################配置环境分割线#################################################
+
+def GetDistInfo(input_sn,input_starttime,input_endtime):
+
+    #####################################配置参数分割线#################################################
+    dbManager = DBManager.DBManager()
+    data_raw = dbManager.get_data(sn=input_sn, start_time=input_starttime, 
+        end_time=input_endtime)
+    #拆包预处理
+    df_bms_raw=data_raw['bms']
+    df_gps_raw=data_raw['gps']
+    df_bms=preprocess_Df_Bms(df_bms_raw)
+    df_gps=preprocess_Df_Gps(df_gps_raw)
+    
+    #####################################数据预处理分割线#################################################
+
+    # mode: 0：正常取数； 1：7255 取数
+    if input_sn[0:2] == 'UD' or input_sn[0:2] == 'MG':
+        mode = 1
+    else:
+        mode = 0
+    #获取状态表,mode默认为0,mode=1放电时电流为负，mode=0充电时电流为正
+
+    df_bms_drive_timetable=get_bms_drive_timetable(df_bms,mode)
+    df_gps_drive_cycle_accum=pd.DataFrame()
+    if len(df_bms_drive_timetable)>0:
+        for index in range(len(df_bms_drive_timetable)):
+            #筛选drivecycle数据
+            drive_start_time=df_bms_drive_timetable.loc[index,'drive_start_time']#开始时间
+            drive_end_time=df_bms_drive_timetable.loc[index,'drive_end_time']#结束时间
+
+            time_condition=(df_gps['time']>drive_start_time)&(df_gps['time']<drive_end_time)#时间判断条件
+            df_gps_drive_cycle=df_gps.loc[time_condition,:].copy()
+            df_gps_drive_cycle=df_gps_drive_cycle.reset_index(drop=True)#重置index
+            #计算drivecycle GPS累计里程,存入表格
+            condition_a=df_gps_drive_cycle['deltatime']>60*3
+            condition_b=(df_gps_drive_cycle['deltatime']>90*1)&(df_gps_drive_cycle['distance']>1000)
+            drive_cycle_dist_array=df_gps_drive_cycle.loc[~(condition_a|condition_b),'distance'].values
+            drive_cycle_dist_array=drive_cycle_dist_array[np.where((drive_cycle_dist_array>=1)&(drive_cycle_dist_array<1000))[0]]
+            gps_dist=drive_cycle_dist_array.sum()
+            df_bms_drive_timetable.loc[index,'gps_dist']=gps_dist#得到GPS路径
+            #计算头-尾的空缺时间段对应的预估SOC
+            if len(df_gps_drive_cycle)>2:
+                gps_starttime=df_gps_drive_cycle.loc[1,'time']#gps开始时间
+                gps_endtime=df_gps_drive_cycle.loc[df_gps_drive_cycle.index[-1],'time']#gps结束时间
+                #从drive_start_time到gps开始时间，使用SOC计算的里程
+                #gps结束时间到drive_end_time，使用SOC计算的里程
+                unrecorded_odo_head=cal_deltasoc(df_bms,drive_start_time,gps_starttime)
+                unrecorded_odo_tail=cal_deltasoc(df_bms,gps_endtime,drive_end_time)
+            else:
+                #计算数据丢失行unrecordeodo
+                unrecorded_odo_head=cal_deltasoc(df_bms,drive_start_time,drive_end_time)
+                unrecorded_odo_tail=0
+            #计算中间的预估SOC
+            predict_dist=cal_unrecorded_gps(df_gps_drive_cycle,df_bms)
+            #计算总的预估SOC
+            totaldist=predict_dist+unrecorded_odo_head+ unrecorded_odo_tail#得到GPS路径
+            df_bms_drive_timetable.loc[index,'predict_dist']=totaldist
+    else :
+        pass
+
+    #####################################统计行驶里程End#################################################
+    #打印输出结果#
+    index_list=list(range(len(df_bms_drive_timetable)))
+
+    dist_gps=0
+    dist_predict=0
+    day_start_time=''#当日开始时间
+    day_end_time=''#当日结束时间
+    day_start_soc=0#当日开始soc
+    day_end_soc=0#当日结束soc
+    day_min_soc=101#当日最低soc
+    drive_accum_soc=0#累计使用SOC
+
+    if len(df_bms_drive_timetable)>0:
+        #开始行
+        day_start_soc=df_bms_drive_timetable.loc[1,'drive_start_soc']#开始soc
+        day_start_time=df_bms_drive_timetable.loc[1,'drive_start_time']#开始时间
+        #结束行
+        day_end_time=df_bms_drive_timetable.loc[len(df_bms_drive_timetable)-1,'drive_end_time']#结束时间
+        day_end_soc=df_bms_drive_timetable.loc[len(df_bms_drive_timetable)-1,'drive_end_soc']#结束soc
+
+    for index in index_list:
+        '''汇总里程'''
+        dist_gps+=df_bms_drive_timetable.loc[index,'gps_dist']/1000#计算GPS里程
+        dist_predict+=df_bms_drive_timetable.loc[index,'predict_dist']#计算预估里程
+        drive_start_soc=df_bms_drive_timetable.loc[index,'drive_start_soc']#驾驶周期开始的soc
+        drive_end_soc=df_bms_drive_timetable.loc[index,'drive_end_soc']#驾驶周期结束的soc
+        day_min_soc=min(day_min_soc,drive_start_soc,drive_end_soc)
+
+        delta_soc=drive_start_soc-drive_end_soc#驾驶周期SOC变化量
+        drive_accum_soc+=abs(delta_soc)#所有drive cycle累计消耗的soc
+
+    # gps_score=get_df_gps_score(input_starttime,input_endtime,df_gps)
+    # gps_score=round(gps_score,1)
+    #计算总里程
+    dist_gps=round(dist_gps,3)
+    dist_predict=round(dist_predict,3)
+    dist_all=round(dist_gps+dist_predict,3)
+    #输出统计结果
+    # print ('为您查询到，从'+input_starttime+'到'+input_endtime+'时间段内：')
+    # print('SOC变化量：'+str(df_bms['bmspacksoc'].max()-df_bms['bmspacksoc'].min())+' %')
+    # print('行驶总里程:'+str(dist_all)+' km')
+
+    return {'SN':input_sn,'range':dist_all,'accum_soc':drive_accum_soc,'day_start_soc':day_start_soc,
+    'day_end_soc':day_end_soc,'day_start_time':day_start_time,'day_end_time':day_end_time,
+    'day_min_soc':day_min_soc}
+    # print('其中GPS信号在线时里程:'+str(dist_gps)+' km')
+    # print('其中GPS信号掉线时预估里程:'+str(dist_predict)+' km')
+    # print('GPS信号质量评分为：'+str(gps_score),'分\n')
+
+    #####################################打印结果End#################################################
+
+

LIB/MIDDLE/odo/CalDist_Batch.py

@@ -0,0 +1,68 @@
+from math import radians, cos, sin, asin, sqrt
+import pandas as pd
+import numpy as np
+from datetime import datetime
+from datetime import timedelta
+
+from GpsRank import *
+from ProcessDfBms import *
+from ProcessDfGps import *
+from CalDist import *
+from LIB.BACKEND import DBManager
+import pdb
+
+asset_table_path='D:\\work\\Qixiang\\data_analyze_platform\\pengmin\\AllCarDist\\asset_table.xlsx'
+drive_info_path='D:\\work\\Qixiang\\data_analyze_platform\\pengmin\\AllCarDist\\drive_info.xlsx'
+asset_sheet_num=1
+usecols_list=[4,5]
+
+asset_table=pd.read_excel(asset_table_path,sheet_name=asset_sheet_num,skiprows=1,usecols=usecols_list)
+SN_list=asset_table['SN号'].values.tolist()
+print('从6060sheet读取到：'+str(len(SN_list))+'行')
+asset_table=asset_table.rename(columns={'SN号':'SN','状态':'state'})
+
+asset_table.set_index(["SN"],inplace=True)
+col_name=asset_table.columns.tolist()
+col_name.extend(['range','accum_soc','day_start_soc','day_end_soc','day_start_time','day_end_time'])
+asset_table=asset_table.reindex(columns=col_name)
+
+start_hour='00:00:00'#每日查询最早时间
+end_hour='23:59:00'#每日查询最晚时间
+
+
+date_index=pd.date_range('2021-07-31','2021-07-31')
+for date in date_index:
+    '''遍历日期'''
+
+    str_date=str(date)[:10]
+    input_starttime=str_date+' '+start_hour
+    input_endtime=str_date+' '+end_hour
+    test_day=str_date[5:10]#月-日，用于建立sheet
+    drive_info_path='D:\\work\\Qixiang\\data_analyze_platform\\pengmin\\AllCarDist\\6060\\drive_info'+test_day+'_50_end_'+'.xlsx'
+
+    print(input_starttime)
+
+    drive_info_aday=pd.DataFrame()
+    SN_list_short=SN_list#先选择了0:50,50:end
+
+    for SN in SN_list_short:
+        '''遍历SN号'''
+        SN=SN.strip('\t')
+        SN=SN.strip('\n')
+
+        try:
+            range=GetDistInfo(SN,input_starttime,input_endtime)
+            range_df=pd.DataFrame([range])
+            drive_info_aday=pd.concat([drive_info_aday,range_df],axis=0)
+
+        except:
+            print(SN+' '+test_day+'fail')
+        else:
+            pass
+            #print(SN+' '+test_day+'success')
+
+    drive_info_aday.to_excel(drive_info_path,sheet_name=test_day)#sheet名称为testday
+    
+    
+
+

LIB/MIDDLE/odo/GpsRank.py

@@ -0,0 +1,77 @@
+import pandas as pd
+import numpy as np
+from datetime import datetime
+from datetime import timedelta
+
+def cal_gps_score(df):
+    '''在获取信号，优、良、合格、掉线的比例之后，计算gps的总评分'''
+    score=0
+    for index in range(len(df)):
+        time_percent=df.loc[index,'累计时间占比']
+        if df.loc[index,'GPS质量']=='优':
+            score+=time_percent*0
+        elif df.loc[index,'GPS质量']=='良':
+            score+=time_percent*0.3
+        elif df.loc[index,'GPS质量']=='合格':
+            score+=time_percent*0.5
+        elif df.loc[index,'GPS质量']=='掉线':
+            score+=time_percent*1
+    return (1-score)*100
+
+def gps_rank(df_gps_signal_table,df_gps,signal_rank,dist_factor):
+    '''gps信号质量分析函数,需要输入表格，df_gps,信号等级，权重'''
+    gps_signal_condition=(df_gps['gps_signal']==signal_rank)
+    dist=df_gps.loc[gps_signal_condition,'distance'].values.sum()
+    deltatime=df_gps.loc[gps_signal_condition,'deltatime'].values.sum()
+    df_gps_signal_table_condition=(df_gps_signal_table['gps_signal']==signal_rank)
+    df_gps_signal_table.loc[df_gps_signal_table_condition,'accum_distance']=dist/1000
+    df_gps_signal_table.loc[df_gps_signal_table_condition,'accum_deltatime']=deltatime
+    df_gps_signal_table.loc[df_gps_signal_table_condition,'accum_distance_factor']=dist/1000*dist_factor
+    return df_gps_signal_table
+
+def get_df_gps_score(starttime,endtime,df_gps):
+    '''对df_gps中的gps质量进行评分，返回一个数值'''
+    test_start_time=starttime#'2021-05-29 17:16:39'
+    test_end_time=endtime#'2021-05-29 20:08:08'
+
+    test_time_condition=(df_gps['time']>test_start_time)&(df_gps['time']<test_end_time)
+    df_gps_test=df_gps.loc[test_time_condition,:].copy()
+    df_gps_test=df_gps_test.reset_index(drop=True)#重置index
+    #按照deltatime打标签
+    gps_deltatime_bins=[0,30,60,120,10000]#优-良-合格-掉线
+    name=['优','良','合格','掉线']
+    df_gps_test['gps_signal']=pd.cut(df_gps_test['deltatime'], gps_deltatime_bins,labels=name)
+    df_gps_test['gps_signal'].value_counts()
+    #声明一个gps信号按类别统计table
+    df_gps_signal_table=pd.DataFrame()
+    df_gps_signal_table['gps_signal']=df_gps_test['gps_signal'].value_counts().index.tolist()
+    df_gps_signal_table['num']=df_gps_test['gps_signal'].value_counts().values.tolist()
+
+    #分类进行统计
+    df_gps_signal_table=gps_rank(df_gps_signal_table,df_gps_test,'优',1.00)
+    df_gps_signal_table=gps_rank(df_gps_signal_table,df_gps_test,'良',1.05)
+    df_gps_signal_table=gps_rank(df_gps_signal_table,df_gps_test,'合格',1.2)
+    df_gps_signal_table=gps_rank(df_gps_signal_table,df_gps_test,'掉线',1)
+
+    #次数占比，时间占比
+    all_num=df_gps_signal_table['num'].sum()
+    df_gps_signal_table['num_percent']=df_gps_signal_table['num']/all_num
+    all_accum_deltatime=df_gps_signal_table['accum_deltatime'].sum()
+    df_gps_signal_table['accum_deltatime_percent']=df_gps_signal_table['accum_deltatime']/all_accum_deltatime
+
+    #选择参数
+    df_gps_signal_table=df_gps_signal_table[['gps_signal','num','num_percent','accum_distance',
+                                            'accum_distance_factor','accum_deltatime','accum_deltatime_percent']]
+    df_gps_signal_table=df_gps_signal_table.rename(columns={'gps_signal':'GPS质量','num':'数量','num_percent':'数量占比',
+                                                        'accum_distance':'累计里程','accum_distance_factor':'累计里程修正值',
+                                                        'accum_deltatime':'累计时间','accum_deltatime_percent':'累计时间占比'})
+
+    df_gps_signal_table.loc[:,['GPS质量','累计时间','累计时间占比']]
+    gps_score=cal_gps_score(df_gps_signal_table)#调用函数计算gps评分
+    
+    #输出结果，评分
+    #print('From '+test_start_time+'  to '+test_end_time)
+    #print('GPS信号质量评分:'+str(gps_score))
+
+    return gps_score
+

LIB/MIDDLE/odo/ProcessDfBms.py

@@ -0,0 +1,159 @@
+import pandas as pd
+import numpy as np
+from datetime import datetime
+from datetime import timedelta
+
+def get_bms_drive_timetable(df_bms,battery_mode):
+    '''对df_bms进行处理，得到行车的时间表。'''
+
+    #####################step1 先使用电流做充电状态的判断#############################################
+    if battery_mode==0:#mode=0,电流为正代表放电
+        condition_chrg=df_bms['bmspackcrnt']<0##根据电流，挑选充电状态
+        df_bms.loc[condition_chrg,'bscsta']='chrg'
+        condition_drive=df_bms['bmspackcrnt']>0.01##根据电流，挑选行驶状态
+        df_bms.loc[condition_drive,'bscsta']='drive'
+        df_bms.loc[~(condition_drive|condition_chrg),'bscsta']='idle'#静置状态
+    else :#mode=1,电流为负代表放电
+        condition_chrg=df_bms['bmspackcrnt']>0##根据电流，挑选充电状态
+        df_bms.loc[condition_chrg,'bscsta']='chrg'
+        condition_drive=df_bms['bmspackcrnt']<-0.01##根据电流，挑选行驶状态
+        df_bms.loc[condition_drive,'bscsta']='drive'
+        df_bms.loc[~(condition_drive|condition_chrg),'bscsta']='idle'#静置状态
+
+    #####################step2 对drive进行debounce，进入时立即进入，退出时debounce，5分钟。##########
+    index=0
+    debounce_row=10#debounce判断持续10行
+    debounce_time=300#debounce判断持续300秒
+    #对上一步初步状态进行二次处理
+    while index<(len(df_bms)-debounce_row):
+        mode_0=df_bms.loc[index,'bscsta']
+        mode_1=df_bms.loc[index+1,'bscsta']
+        #如果发现了边界行，则进行debounce判断
+        if (mode_0=='drive')&(mode_1!='drive'):#如果从drive变为idle
+            accum_subtime=0#累计时间初始化
+
+            for sub_index in range(debounce_row):#往下处理10行
+                sub_time=df_bms.loc[index+sub_index,'deltatime']
+                accum_subtime+=sub_time
+                #如果累计时间不到300秒，则设置为drive
+                if accum_subtime<debounce_time:
+                    df_bms.loc[index+sub_index,'bscsta']='drive'
+            index=index+debounce_row#处理10行以后的数据
+        #如果从idle变为drivemode，则将idle变为drive，包容前一行
+        elif (mode_0!='drive')&(mode_1=='drive'): 
+            df_bms.loc[index,'bscsta']='drive'
+            index=index+1
+        else:
+            index=index+1
+
+
+    #######################step3 对drivemode的时间进行分段###########################################
+    not_drive_flg=0#初始化
+    #输出drivemode的时间段，包含开始时间、结束时间
+    df_bms_drive_timetable_index=0
+    df_bms_drive_timetable=pd.DataFrame([],columns={'drive_start_time','drive_end_time',
+                                                    'gps_dist','predict_dist','drive_start_soc','drive_end_soc'})
+    for index in range(len(df_bms)):
+        temp_bscsta=df_bms.loc[index,'bscsta']
+        
+        if (temp_bscsta=='drive')&(not_drive_flg==0):
+            drive_start_time=df_bms.loc[index,'time']
+            not_drive_flg=1
+            df_bms_drive_timetable.loc[df_bms_drive_timetable_index,'drive_start_time']=drive_start_time
+            #startsoc
+            drive_start_soc=df_bms.loc[index,'bmspacksoc']
+            df_bms_drive_timetable.loc[df_bms_drive_timetable_index,'drive_start_soc']=drive_start_soc
+
+        elif (temp_bscsta!='drive')&(not_drive_flg==1):
+            drive_end_time=df_bms.loc[index,'time']
+            not_drive_flg=0
+            df_bms_drive_timetable.loc[df_bms_drive_timetable_index,'drive_end_time']=drive_end_time
+            #endsoc
+            drive_end_soc=df_bms.loc[index,'bmspacksoc']
+            df_bms_drive_timetable.loc[df_bms_drive_timetable_index,'drive_end_soc']=drive_end_soc
+            df_bms_drive_timetable_index+=1#index++
+
+    #删除时间信息不齐全的行
+    df_bms_drive_timetable=df_bms_drive_timetable.dropna(subset=['drive_end_time','drive_start_time'])
+    
+    return df_bms_drive_timetable
+
+
+def read_df_bms(path):
+    '''从路径中读取df_bms，进行预处理'''
+    df_bms=pd.read_csv(path, encoding='gbk')#编码方式gbk
+    #筛选表头，重命名
+    bms_columns=['时间戳','总电流[A]','总电压[V]','SOC[%]']
+    df_bms=df_bms.loc[:,bms_columns].copy()
+    df_bms.rename(columns = {"时间戳": "time", "总电流[A]": "bmspackcrnt", 
+                             "总电压[V]": "bmspackvol", "SOC[%]": "bmspacksoc"},inplace=True)#表头替换
+    #时间格式调整
+    df_bms['time']=df_bms['time'].apply(lambda x:datetime.strptime(x,'%Y-%m-%d %H:%M:%S'))#时间格式调整
+    #进行预处理
+    df_bms=df_add_deltatime(df_bms)#增加deltatime列 
+    return df_bms
+
+def preprocess_Df_Bms(df_bms):
+    '''对获得的df_bms，进行预处理'''
+    #筛选表头，重命名
+    bms_columns=['时间戳','总电流[A]','总电压[V]','SOC[%]']
+    df_bms=df_bms.loc[:,bms_columns].copy()
+    df_bms.rename(columns = {"时间戳": "time", "总电流[A]": "bmspackcrnt", 
+                             "总电压[V]": "bmspackvol", "SOC[%]": "bmspacksoc"},inplace=True)#表头替换
+    #删除空行
+    df_bms=df_bms.dropna(subset=['time'])
+    #删除时间重复的行,保留第一次出现的行
+    df_bms=df_bms.drop_duplicates(subset=['time'],keep='first')
+    #时间格式调整
+    df_bms['time']=df_bms['time'].apply(lambda x:datetime.strptime(x,'%Y-%m-%d %H:%M:%S'))#时间格式调整
+    #进行预处理
+    df_bms=df_add_deltatime(df_bms)#增加deltatime列 
+    return df_bms
+
+
+def df_add_deltatime(df_in):
+    '''Add a columns:deltatime,input df must have time column.'''
+    for i in range(len(df_in)):
+        #首行默认为0
+        if i==0:
+            df_in.loc[i,'deltatime']=0
+        #从第二行开始，计算i行到i-1行，GPS距离之差
+        else:
+            time1=df_in.loc[i-1,'time']
+            time2=df_in.loc[i,'time']
+            deltatime=time_interval(time1,time2)#计算时间差，返回单位为秒。
+            df_in.loc[i,'deltatime']=deltatime
+    return df_in
+
+
+def time_interval(time1,time2):
+    """
+    Calculate the time interval between two times，
+    return the seconds
+    """
+    deltatime=time2-time1
+    return deltatime.seconds
+
+
+def cal_deltasoc(df_bms,start_time,end_time):
+    '''输入开始时间和结束时间，返回deltasoc，此处将deltasoc*1既等效为unrecorded_odo.'''
+    time_condition=(df_bms['time']>start_time)&(df_bms['time']<end_time)
+    df_bms_sub=df_bms.loc[time_condition,:].copy()
+    if len(df_bms_sub)>=2:
+        
+        df_bms_head=df_bms_sub.head(1).copy()#首行
+        df_bms_startsoc=df_bms_head['bmspacksoc'].values[0]
+        df_bms_tail=df_bms_sub.tail(1).copy()#尾行
+        df_bms_endsoc=df_bms_tail['bmspacksoc'].values[0]
+        delta_soc=df_bms_startsoc-df_bms_endsoc
+        
+        if delta_soc>0:
+            #如果df_bms出现时间不连续，则先计算deltasoc，deltasoc每变化1，续驶里程增加1，
+            unrecorded_odo=delta_soc*1
+            #print('From '+str(start_time)+' to  '+str(end_time)+' soc decrease:  '+str(delta_soc))
+        else:
+            unrecorded_odo=0#如果deltasoc不大于0，说明在充电，或者静置不动    
+    #如果行数少于2，无法计算
+    else:
+        unrecorded_odo=0
+    return unrecorded_odo

LIB/MIDDLE/odo/ProcessDfGps.py

@@ -0,0 +1,139 @@
+import pandas as pd
+import numpy as np
+from datetime import datetime
+from datetime import timedelta
+from ProcessDfBms import *
+from math import radians, cos, sin, asin, sqrt
+
+def cal_unrecorded_gps(df_in,df_bms):
+    '''筛选出现gps时间断点的数据，用df_bms数据补齐，df_in为df_gps表格。'''
+    #未记录到的odo总和
+    accum_unrecorded_odo=0
+
+    #设置丢失的判断条件，获得信息丢失行的index
+    condition1=df_in['deltatime']>60*3#时间间隔大于3分钟。说明数据掉线了。
+    condition2=(df_in['deltatime']>90*1)&(df_in['distance']>1000)#时间间隔大于*分钟，且Distance间隔大于*，代表掉线了。
+    signal_start_list=df_in.loc[condition1|condition2,:].index.to_list()#信息丢失行
+    #如果第0行属于信息丢失行，则删除，因为需要index-1行
+    try:
+        signal_start_list.remove(0)
+    except:
+        pass
+    else:
+        pass
+    #筛选出所有GPS信号丢失，对应的开始时间-结束时间对。
+    if len(signal_start_list)>0:
+        signal_end_list=[num-1 for num in signal_start_list]#信息丢失行的前一行，此处可能如果是首行，可能会有bug。
+        pick_gps_list=[0]+signal_start_list+signal_end_list+[len(df_in)-1]#首行+尾行+信号开始行+信号结束行
+        pick_gps_list=sorted(pick_gps_list)#重新排序
+
+    #有出现信号断点的行，则进行以下计算。
+    if len(signal_start_list)>0:
+        #针对每个时间对，计算unrecorded odo
+        for start_time_index,end_time_index in zip(signal_start_list,signal_end_list):
+            last_end_time=df_in.loc[end_time_index,'time']
+            this_start_time=df_in.loc[start_time_index,'time']
+            #print('gps signal loss from: '+str(last_end_time)+'-to-'+str(this_start_time))
+            #使用cal_delatasoc计算预估里程
+            unrecorded_odo=cal_deltasoc(df_bms,last_end_time,this_start_time)
+            accum_unrecorded_odo+=unrecorded_odo
+        #print('accum_unrecorded_odo:'+str(accum_unrecorded_odo))
+    else:
+        pass
+    
+    return accum_unrecorded_odo
+
+
+def df_add_avgspeed(df_in):
+    '''Add a columns:avgspeed ,input df must have deltatime，distance column.'''
+    for i in range(len(df_in)):
+        #首行默认为0
+        if i==0:
+            df_in.loc[i,'avgspeed']=0
+        #从第二行开始，计算平均速度
+        else:
+            deltatime=df_in.loc[i,'deltatime']
+            distance=df_in.loc[i,'distance']
+            avgspeed=(distance/1000)/(deltatime/3600)
+            df_in.loc[i,'avgspeed']=avgspeed
+    return df_in
+
+
+def read_df_gps(path):
+    df_gps=pd.read_csv(path, encoding='gbk')#编码方式gbk
+    #重置表头
+    df_gps.rename(columns = {"时间戳": "time", "纬度":"lat", "经度":"lng", 
+                             "卫星数":"sat_num", "海拔m":"height","速度[km/h]":"speed"},  inplace=True)
+    #时间格式调整
+    df_gps['time']=pd.to_datetime(df_gps['time'])
+    #对gps进行清洗
+    df_gps=df_add_distance(df_gps)#增加distance列
+    condition=df_gps['distance']<20000#删除GPS漂移过远的点，可能为GPS错误值
+    df_gps=df_gps.loc[condition,:].copy()#删除condition中，avgspd过大的部分,很可能伴随着GPS的漂移。
+    df_gps=df_gps.reset_index(drop=True)#重置index
+    #进行预处理
+    df_gps=df_add_distance(df_gps)#增加distance列,再算一次distance
+    df_gps=df_add_deltatime(df_gps)#增加deltatime列
+    df_gps=df_add_avgspeed(df_gps)#增加avgspeed列
+
+    #df_gps.to_excel('df_gps.xlsx',sheet_name='Sheet1')
+    return df_gps
+
+def preprocess_Df_Gps(df_gps):
+    '''对Df_Gps进行预处理'''
+    #重置表头
+    df_gps.rename(columns = {"时间戳": "time", "纬度":"lat", "经度":"lng", 
+                             "卫星数":"sat_num", "海拔m":"height","速度[km/h]":"speed"},  inplace=True)
+    #删除含有空数据的行
+    df_gps=df_gps.dropna(subset=['time','lat','lng'])
+    #删除时间重复的行,保留第一次出现的行
+    df_gps=df_gps.drop_duplicates(subset=['time'],keep='first')
+    #时间格式调整
+    df_gps['time']=pd.to_datetime(df_gps['time'])
+    
+    #对gps进行清洗
+    df_gps=df_add_distance(df_gps)#增加distance列
+    condition=df_gps['distance']<20000#删除GPS漂移过远的点，可能为GPS错误值
+    df_gps=df_gps.loc[condition,:].copy()#删除condition中，avgspd过大的部分,很可能伴随着GPS的漂移。
+    df_gps=df_gps.reset_index(drop=True)#重置index
+    #进行预处理
+    df_gps=df_add_distance(df_gps)#增加distance列,再算一次distance
+    df_gps=df_add_deltatime(df_gps)#增加deltatime列
+    df_gps=df_gps.loc[df_gps['deltatime']>0.01,:].copy()#删除deltatime=0的列，两个时间戳相同，无法求速度。
+    df_gps=df_add_avgspeed(df_gps)#增加avgspeed列
+
+    #df_gps.to_excel('df_gps.xlsx',sheet_name='Sheet1')
+    return df_gps
+
+
+def df_add_distance(df_in):
+    '''Add a columns:distance,input df must have lng,lat columns.'''
+    for i in range(len(df_in)):
+        #首行默认为0
+        if i==0:
+            df_in.loc[i,'distance']=0
+        #从第二行开始，计算i行到i-1行，GPS距离之差
+        else:
+            lon1=df_in.loc[i-1,'lng']
+            lat1=df_in.loc[i-1,'lat']
+            lon2=df_in.loc[i,'lng']
+            lat2=df_in.loc[i,'lat']
+            distance=haversine(lon1,lat1,lon2,lat2)#haversine公式计算距离差
+            df_in.loc[i,'distance']=distance    
+    return df_in
+
+
+def haversine(lon1, lat1, lon2, lat2):
+    """
+    Calculate the great circle distance between two points 
+    on the earth (specified in decimal degrees)
+    """
+    # 将十进制度数转化为弧度
+    lon1, lat1, lon2, lat2 = map(radians, [lon1, lat1, lon2, lat2])
+    # haversine公式
+    dlon = lon2 - lon1 
+    dlat = lat2 - lat1 
+    a = sin(dlat/2)**2 + cos(lat1) * cos(lat2) * sin(dlon/2)**2
+    c = 2 * asin(sqrt(a)) 
+    r = 6371 # 地球平均半径，单位为公里
+    return c * r * 1000

LIB/MIDDLE/odo/UpdtFct.py

@@ -0,0 +1,293 @@
+import pandas as pd
+import pymysql
+from sqlalchemy import create_engine
+import datetime
+
+#建立引擎
+engine = create_engine(str(r"mysql+mysqldb://%s:" + '%s' + "@%s/%s") % ('root', 'pengmin', 'localhost', 'qixiangdb'))
+
+conn_qx = pymysql.connect(
+        host='rm-bp10j10qy42bzy0q77o.mysql.rds.aliyuncs.com',
+        user='qx_cas',
+        password='Qx@123456',#Qx@123456
+        database='qx_cas',
+        charset='utf8'
+    )
+
+conn_local = pymysql.connect(
+        host='localhost',
+        user='root',
+        password='pengmin',
+        database='qixiangdb',
+        charset='utf8'
+    )
+
+def getNextSoc(start_soc):
+    '''输入当前的soc,寻找目标soc函数'''
+    if start_soc>80:
+        next_soc=80
+    elif start_soc>60:
+        next_soc=60
+    elif start_soc>40:
+        next_soc=40
+    elif start_soc>20:
+        next_soc=20
+    else:
+        next_soc=1
+    return next_soc
+
+def updtSnFct(sn_factor_df,end_soc,delta_range,range_soc):
+    '''输入当前的soc区间段，里程变量量，soc变化量，输出新的df
+    sn_factor_df为dataframe，delta_range单位为km，range_soc单位为km/persoc'''
+    if end_soc==80:
+        updtFctByCol(sn_factor_df,'a0',delta_range,range_soc)
+    elif end_soc==60:
+        updtFctByCol(sn_factor_df,'a1',delta_range,range_soc)
+    elif end_soc==40:
+        updtFctByCol(sn_factor_df,'a2',delta_range,range_soc)
+    elif end_soc==20:
+        updtFctByCol(sn_factor_df,'a3',delta_range,range_soc)
+    elif end_soc<20:
+        updtFctByCol(sn_factor_df,'a4',delta_range,range_soc)
+    return sn_factor_df
+
+def updtFctByCol(sn_factor_df,colmun_name,delta_range,range_soc):
+    '''更新制定列的factor，sn_factor_df为dataframe，新的系数更新到第一行。delta_range单位为km，
+    range_soc单位为km/persoc，默认按照100km更新续驶里程权重'''
+    range_soc_old=sn_factor_df.loc[0,colmun_name]#读取第0行的老factor
+    debounce_range=200#更新权重
+    new_factor=range_soc*((delta_range)/debounce_range)+range_soc_old*(1-(delta_range)/debounce_range)
+    #在第1行，存储新的factor
+    sn_factor_df.loc[1,colmun_name]=new_factor
+    return sn_factor_df
+
+def updtTodayFct(factor_input,sn_day_df):
+    '''更新今日的Factor***'''
+    sn_factor_df_last=factor_input
+    start_soc=sn_day_df.loc[0,'soc']
+    next_soc=getNextSoc(start_soc)
+    start_range=sn_day_df.loc[0,'vehodo']
+    sn=sn_day_df.loc[0,'name']
+
+    for index in range(len(sn_day_df)-1):
+    #寻找分割点，
+        index_soc=sn_day_df.loc[index,'soc']#当前行soc
+        next_index_soc=sn_day_df.loc[index+1,'soc']#下一行soc
+
+        if (index_soc>=next_soc)&(next_index_soc<next_soc):#当前行高，下一行低
+            delta_soc_tonext=start_soc-next_soc#两个距离点的soc差，单位为%
+            delta_range_tonext=sn_day_df.loc[index,'vehodo']-start_range#两个时间点的距离差，单位为m
+            delta_range_tonext_km=delta_range_tonext/1000#两个时间点的距离差，单位为km
+            range_soc_tonext=(delta_range_tonext/1000)/delta_soc_tonext#单位soc可行驶的公里数
+            print(sn+'start_soc: '+str(start_soc),'next_soc: '+str(next_soc),'delta_vehodo； '+str(round(delta_range_tonext_km,3))
+            +'km'+' range_soc:'+str(round(range_soc_tonext,3)))
+
+            if (delta_range_tonext_km)>1:
+                sn_factor_df_last=updtSnFct(sn_factor_df_last,next_soc,delta_range_tonext_km,range_soc_tonext)
+            
+            start_soc=next_index_soc#变更开始soc
+            next_soc=getNextSoc(start_soc)#变更结束soc
+            start_range=sn_day_df.loc[index+1,'vehodo']#变更开始里程    
+
+    return sn_factor_df_last
+
+def snDayDfPreProcess(sn_day_df):
+    '''预处理，判断是否在dirvemode，获取drivemode条件下的累计行驶距离。
+    增加delta_soc列，drive_flg列，vehodo列'''
+    sn_day_df=sn_day_df.reset_index(drop=True)#重置index
+    #增加列，计算delta_soc
+    for index in range(len(sn_day_df)):
+        if index==0:
+            sn_day_df.loc[index,'delta_soc']=0
+        else:
+            sn_day_df.loc[index,'delta_soc']=sn_day_df.loc[index,'soc']-sn_day_df.loc[index-1,'soc']
+    #增加列，判断是否在drive状态
+    drive_flg=False
+    accum_distance=0
+    for index in range(len(sn_day_df)):
+        if index==0:
+            sn_day_df.loc[index,'drive_status']=drive_flg
+            sn_day_df.loc[index,'vehodo']=0
+        else:
+            if (sn_day_df.loc[index,'delta_soc']<-0.1)|\
+                ((sn_day_df.loc[index,'delta_soc']<=0)&(sn_day_df.loc[index,'distance']>500)):#soc处于下降状态，说明在drive
+                drive_flg=True#置true
+            elif sn_day_df.loc[index,'delta_soc']>0.1:#soc处于上升状态，说明不在drive
+                drive_flg=False#置false
+                accum_distance=0#清零
+            sn_day_df.loc[index,'drive_flg']=drive_flg
+            accum_distance+=sn_day_df.loc[index,'distance']#对行驶里程进行累加
+            sn_day_df.loc[index,'vehodo']=accum_distance
+    #筛选所有的drive信息行
+    sn_day_drive_df=sn_day_df.loc[sn_day_df['drive_flg']==True,:]
+    sn_day_drive_df=sn_day_drive_df.reset_index(drop=True)#重置index
+    
+    return sn_day_drive_df 
+
+def updtAllSnFct(start_date,end_date):
+    '''计算开始时间到结束时间的，所有sn的factor'''
+    start_date_datetime=datetime.datetime.strptime(start_date,'%Y-%m-%d')#开始时间
+    end_date_datetime=datetime.datetime.strptime(end_date,'%Y-%m-%d')#开始时间
+    delta_day=(end_date_datetime-start_date_datetime).days#间隔天数
+    i=1
+    while i<=delta_day:
+        end_date=(start_date_datetime+datetime.timedelta(days=i)).strftime("%Y-%m-%d")
+        updtAllSnTodayFct(start_date,end_date)#调用函数
+        print('update all sn factor from '+start_date+" to "+end_date)
+        start_date=end_date
+        i+=1#自加
+
+def updtAllSnTodayFct(start_date,end_date):
+    ''''更新今天所有sn的factorx信息，start_date和end_date相隔一天。此处还可优化'''
+    start_date_str="'"+start_date+"'"
+    end_date_str="'"+end_date+"'"
+    sql_cmd="select * from drive_info where time between "+start_date_str+" and "+end_date_str+" and distance!=0;"
+    range_soc_df = pd.read_sql(sql_cmd, conn_qx)#使用read_sql方法查询qx数据库
+
+    #筛选出所有当日数据之后，筛选当日有更新的sn
+    today_sn_list=range_soc_df['name'].unique().tolist()#[:100]#先一次更新5个
+    #建立空的dataframe，用于承接所有更新的factor信息
+    today_sn_fct_df=pd.DataFrame([],columns=['sn','date','a0','a1','a2','a3','a4'])
+
+    for sn in today_sn_list:
+        #寻找factor_df，里面是否有sn号，如果没有sn对应信息，则新增信息。
+        sn_str="'"+sn+"'"
+        sql_cmd2="select sn,date,a0,a1,a2,a3,a4 from tb_sn_factor where date<"+start_date_str+" and sn="+sn_str
+        #此处可以限定每次查询的数量，例如不高于5行
+        factor_df=pd.read_sql(sql_cmd2, conn_local)#使用read_sql方法查询local数据库
+
+        #按照sn号和日期进行去重，避免运行时重复产生factor数据，保留第一次出现的行。
+        factor_df=factor_df.drop_duplicates(subset=['sn','date'],keep='first')
+
+        if len(factor_df)==0:
+            #如果没有搜索到factor历史数据,则声明一个新的进行初始化
+            start_date_datetime=datetime.datetime.strptime(start_date,'%Y-%m-%d')
+            yesterday=(start_date_datetime+datetime.timedelta(days=-1)).strftime("%Y-%m-%d")
+            #为sn申请一个新的factor，初始值为1
+            factor_df=pd.DataFrame({'sn':sn,'date':yesterday,'a0':[1],'a1':[1],'a2':[1],'a3':[1],'a4':[1]})
+        sn_factor_df=factor_df.loc[factor_df['sn']==sn,:]#筛选sn对应的factor
+        sn_factor_df=sn_factor_df.sort_values(by='date',ascending='True')#按照日期排序
+
+        sn_factor_df_last=sn_factor_df.tail(1).copy()#寻找最后一行，代表最近日期
+        sn_factor_df_last=sn_factor_df_last.append(sn_factor_df_last)#新增加一行,用于存储新的factor
+        sn_factor_df_last=sn_factor_df_last.reset_index(drop=True)#重置index
+        sn_factor_df_last.loc[1,'date']=start_date#更改后一行的date为当前日期
+        #筛选对应车辆的信息
+        condition_sn=(range_soc_df['name']==sn)
+        sn_day_df=range_soc_df.loc[condition_sn,:].copy()
+        sn_day_df=sn_day_df.reset_index(drop=True)
+        #使用updtTodayFct函数更新今天的factor
+        if len(sn_day_df)>=2:
+            #使用process函数，进行预处理
+            sn_day_df=snDayDfPreProcess(sn_day_df)#预处理函数
+            if len(sn_day_df)>=2:
+                sn_factor_df_new=updtTodayFct(sn_factor_df_last,sn_day_df)#
+                today_sn_fct_df=today_sn_fct_df.append(sn_factor_df_new.loc[1,:])#筛选第一行，进行拼接，最后写入到数据库中
+    
+    #将today_sn_fct_df写入到数据库中，今天所有factor更新的系数，一次写入。
+    if len(today_sn_fct_df)>=1:
+        today_sn_fct_df.to_sql('tb_sn_factor',con=engine,chunksize=10000,if_exists='append',index=False)
+
+def updtOneSnFct(sn,start_date,end_date):
+    '''计算开始时间到结束时间的，一个sn的所有factor'''
+    start_date_datetime=datetime.datetime.strptime(start_date,'%Y-%m-%d')#开始时间
+    end_date_datetime=datetime.datetime.strptime(end_date,'%Y-%m-%d')#开始时间
+    delta_day=(end_date_datetime-start_date_datetime).days#间隔天数
+    i=1
+    while i<=delta_day:
+        end_date=(start_date_datetime+datetime.timedelta(days=i)).strftime("%Y-%m-%d")
+        updtOneSnTodayFct(sn,start_date,end_date)#调用函数
+        print('update one sn factor from '+start_date+" to "+end_date)
+        start_date=end_date
+        i+=1#自加
+
+def updtOneSnTodayFct(sn,start_date,end_date):
+    start_date_str="'"+start_date+"'"
+    end_date_str="'"+end_date+"'"
+    sn_str="'"+sn+"'"
+    sql_cmd="select * from drive_info where time between "+start_date_str+" and "+end_date_str+\
+    " and distance!=0 and name="+sn_str
+    range_soc_df = pd.read_sql(sql_cmd, conn_qx)#使用read_sql方法查询qx数据库
+
+    if len(range_soc_df)>0:
+        #筛选出所有当日数据之后，筛选当日有更新的sn
+        today_sn_list=range_soc_df['name'].unique().tolist()
+        #建立空的dataframe，用于承接所有更新的factor信息
+        today_sn_fct_df=pd.DataFrame([],columns=['sn','date','a0','a1','a2','a3','a4'])
+
+        for sn in today_sn_list:
+            #寻找factor_df，里面是否有sn号，如果没有sn对应信息，则新增信息。
+            sn_str="'"+sn+"'"
+            sql_cmd2="select sn,date,a0,a1,a2,a3,a4 from tb_sn_factor where date<"+start_date_str+" and sn="+sn_str
+            factor_df=pd.read_sql(sql_cmd2, conn_local)#使用read_sql方法查询local数据库
+
+            #按照sn号和日期进行去重，避免运行时重复产生factor数据，保留第一次出现的行。
+            factor_df=factor_df.drop_duplicates(subset=['sn','date'],keep='first')
+
+            if len(factor_df)==0:
+                #如果没有搜索到factor历史数据,则声明一个新的进行初始化
+                start_date_datetime=datetime.datetime.strptime(start_date,'%Y-%m-%d')
+                yesterday=(start_date_datetime+datetime.timedelta(days=-1)).strftime("%Y-%m-%d")
+                factor_df=pd.DataFrame({'sn':sn,'date':yesterday,'a0':[1],'a1':[1],'a2':[1],'a3':[1],'a4':[1]})
+                today_sn_fct_df=today_sn_fct_df.append(factor_df.loc[0,:])#将初始化的行记录到数据库
+
+            sn_factor_df=factor_df.loc[factor_df['sn']==sn,:]#筛选sn对应的factor
+            
+            sn_factor_df=sn_factor_df.sort_values(by='date',ascending='True')#按照日期排序
+            sn_factor_df_last=sn_factor_df.tail(1).copy()#寻找最后一行，代表最近日期
+            sn_factor_df_last=sn_factor_df_last.append(sn_factor_df_last)#新增加一行,用于存储新的factor
+            sn_factor_df_last=sn_factor_df_last.reset_index(drop=True)#重置index
+            sn_factor_df_last.loc[1,'date']=start_date#更改后一行的date为当前日期
+            #筛选对应车辆的信息
+            condition_sn=(range_soc_df['name']==sn)
+            sn_day_df=range_soc_df.loc[condition_sn,:].copy()
+            sn_day_df=sn_day_df.reset_index(drop=True)
+            #使用updtTodayFct函数更新今天的factor
+            if len(sn_day_df)>=2:
+                #使用process函数，进行预处理
+                sn_day_df=snDayDfPreProcess(sn_day_df)#!!!!!!!!!!!增加
+                if len(sn_day_df)>=2:
+                    sn_factor_df_new=updtTodayFct(sn_factor_df_last,sn_day_df)#
+                    today_sn_fct_df=today_sn_fct_df.append(sn_factor_df_new.loc[1,:])#筛选第一行，进行拼接，最后写入到数据库中
+        
+        # #将today_sn_fct_df写入到数据库中
+        if len(today_sn_fct_df)>=1:
+            today_sn_fct_df.to_sql('tb_sn_factor',con=engine,chunksize=10000,if_exists='append',index=False)
+            # print(sn+' factor will be update in table tb_sn_factor!')
+        return today_sn_fct_df
+
+
+
+
+
+# def updtASnTodayFct(start_date,end_date,today_sn_list):
+
+#     sql_cmd="select * from qixiang_test where time>='"+start_date+"' and time<='"+end_date+"'"
+#     range_soc_df = pd.read_sql(sql_cmd, conn)#使用read_sql方法查询数据库
+
+#     sql_cmd2="select sn,date,a0,a1,a2,a3,a4 from tb_sn_factor where date<'"+start_date+"'"
+#     factor_df=pd.read_sql(sql_cmd2, conn)#使用read_sql方法查询数据库
+
+#     #筛选出所有当日数据之后，筛选当日有更新的sn
+#     # today_sn_list=range_soc_df['sn'].unique().tolist()
+#     # today_sn_list=today_sn_list[:10]#更新若干个
+#     #建立空的dataframe，用于承接所有更新的factor信息
+#     today_sn_fct_df=pd.DataFrame([],columns=['sn','date','a0','a1','a2','a3','a4'])
+
+#     for sn in today_sn_list:
+#         sn_factor_df=factor_df.loc[factor_df['sn']==sn,:]#筛选sn对应的factor
+#         sn_factor_df=sn_factor_df.sort_values(by='date',ascending='True')#按照日期排序
+#         sn_factor_df_last=sn_factor_df.tail(1).copy()#寻找最后一行，代表最近日期
+#         sn_factor_df_last=sn_factor_df_last.append(sn_factor_df_last)#新增加一行,用于存储新的factor
+#         sn_factor_df_last=sn_factor_df_last.reset_index(drop=True)#重置index
+#         sn_factor_df_last.loc[1,'date']=start_date#更改后一行的date为当前日期
+#         #筛选对应车辆的信息
+#         condition_sn=(range_soc_df['sn']==sn)
+#         sn_day_df=range_soc_df.loc[condition_sn,:].copy()
+#         sn_day_df=sn_day_df.reset_index(drop=True)
+#         #使用updtTodayFct函数更新今天的factor
+#         sn_factor_df_new=updtTodayFct(sn_factor_df_last,sn_day_df)
+#         today_sn_fct_df=today_sn_fct_df.append(sn_factor_df_new.loc[1,:])#筛选第一行，进行拼接，最后写入到数据库中
+    
+#     #将today_sn_fct_df写入到数据库中
+#     today_sn_fct_df.to_sql('tb_sn_factor',con=engine,chunksize=10000,if_exists='append',index=False)

LIB/MIDDLE/odo/UpdtFct_Main.py

@@ -0,0 +1,28 @@
+import pandas as pd
+import pymysql
+from sqlalchemy import create_engine
+import datetime
+from UpdtFct import *
+
+
+conn_qx = pymysql.connect(
+        host='rm-bp10j10qy42bzy0q77o.mysql.rds.aliyuncs.com',
+        user='qx_cas',
+        password='Qx@123456',#Qx@123456
+        database='qx_cas',
+        charset='utf8'
+    )
+
+conn_local = pymysql.connect(
+        host='localhost',
+        user='root',
+        password='pengmin',
+        database='qixiangdb',
+        charset='utf8'
+    )
+
+#指定开始时间，结束时间，更新所有sn的factor
+start_date="2021-07-18"
+end_date="2021-08-01"
+
+updtAllSnFct(start_date,end_date)

LIB/MIDDLE/算法类别(模板)/算法名/V_1_0_0/core_algorithm.py

@@ -0,0 +1,28 @@
+import other_algorithm
+
+class Algo:
+
+     def __init__(self):
+          pass
+
+     # 算法内部调用的函数
+     def _fun1(self):
+          pass
+
+     # 算法内部调用的函数
+     def _fun2(self):
+          pass
+
+     # 算法对外提供的函数
+     def core_algorithm(self, data1, data2, param1, param2, ....):
+
+          #核心算法逻辑
+          _fun1();
+          _fun2();
+          data3 = other_algorithm(data1);
+          res1 = f(data1, data2, param1,...)
+          res2 = f(data1, data3, param2,...)
+
+          return [res1, res2]
+
+

LIB/MIDDLE/算法类别(模板)/算法名/V_1_0_1/core_algorithm.py

@@ -0,0 +1,28 @@
+import other_algorithm
+
+class Algo:
+
+     def __init__(self):
+          pass
+
+     # 算法内部调用的函数
+     def _fun1(self):
+          pass
+
+     # 算法内部调用的函数
+     def _fun2(self):
+          pass
+
+     # 算法对外提供的函数
+     def core_algorithm(self, data1, data2, param1, param2, ....):
+
+          #核心算法逻辑
+          _fun1();
+          _fun2();
+          data3 = other_algorithm(data1);
+          res1 = f(data1, data2, param1,...)
+          res2 = f(data1, data3, param2,...)
+          
+          return [res1, res2]
+
+

LIB/MIDDLE/算法类别(模板)/算法名/main.py

@@ -0,0 +1,38 @@
+import get_data
+import get_data_by_sql
+import get_data_from_other_algorithm
+import data_process
+import core_algorithm
+
+# 数据库连接参数
+conn = connect(host, ......)
+# 准备算法输入参数
+parameter1 = * 
+parameter2 = *
+
+# 多次调用核心算法时，将循环写在外面
+for (i=1:n){
+     
+     # 获取数据
+     data1 = get_data(sn[i], start_time, end_time, ....) # 函数取数
+     data2 = get_data_by_sql(sn[i], start_time, end_time, ....) # sql 语句直接数据库取数
+     data3 = get_data_from_other_algorithm(data1, parameter1, ....)  # 调用其他人的算法得到数据
+
+     # 通用数据预处理 (可选，由算法说明文档说明算法输入数据是否需要预处理)
+     data1 = data_process(data1)
+     data2 = data_process(data2)
+     
+     # 调用核心算法
+     [res1, res2] = core_algorithm(data1, data2, data3, parameter1, parameter2, ....)
+
+     # 使用结果
+     res1 = res1.append(res)
+     res1.to_csv(...)
+     res1.to_sql(...)
+}
+
+# 批量使用结果
+res.to_csv(...)
+res1.to_sql(...)
+
+

LIB/MIDDLE/算法类别(模板)/算法名2/V_1_0_0/core_algorithm.py

@@ -0,0 +1,28 @@
+import other_algorithm
+
+class Algo:
+
+     def __init__(self):
+          pass
+
+     # 算法内部调用的函数
+     def _fun1(self):
+          pass
+
+     # 算法内部调用的函数
+     def _fun2(self):
+          pass
+
+     # 算法对外提供的函数
+     def core_algorithm(self, data1, data2, param1, param2, ....):
+
+          #核心算法逻辑
+          _fun1();
+          _fun2();
+          data3 = other_algorithm(data1);
+          res1 = f(data1, data2, param1,...)
+          res2 = f(data1, data3, param2,...)
+
+          return [res1, res2]
+
+

LIB/MIDDLE/算法类别(模板)/算法名2/V_1_0_1/core_algorithm.py

@@ -0,0 +1,28 @@
+import other_algorithm
+
+class Algo:
+
+     def __init__(self):
+          pass
+
+     # 算法内部调用的函数
+     def _fun1(self):
+          pass
+
+     # 算法内部调用的函数
+     def _fun2(self):
+          pass
+
+     # 算法对外提供的函数
+     def core_algorithm(self, data1, data2, param1, param2, ....):
+
+          #核心算法逻辑
+          _fun1();
+          _fun2();
+          data3 = other_algorithm(data1);
+          res1 = f(data1, data2, param1,...)
+          res2 = f(data1, data3, param2,...)
+
+          return [res1, res2]
+
+

LIB/MIDDLE/算法类别(模板)/算法名2/main.py

@@ -0,0 +1,38 @@
+import get_data
+import get_data_by_sql
+import get_data_from_other_algorithm
+import data_process
+import core_algorithm
+
+# 数据库连接参数
+conn = connect(host, ......)
+# 准备算法输入参数
+parameter1 = * 
+parameter2 = *
+
+# 多次调用核心算法时，将循环写在外面
+for (i=1:n){
+     
+     # 获取数据
+     data1 = get_data(sn[i], start_time, end_time, ....) # 函数取数
+     data2 = get_data_by_sql(sn[i], start_time, end_time, ....) # sql 语句直接数据库取数
+     data3 = get_data_from_other_algorithm(data1, parameter1, ....)  # 调用其他人的算法得到数据
+
+     # 通用数据预处理 (可选，由算法说明文档说明算法输入数据是否需要预处理)
+     data1 = data_process(data1)
+     data2 = data_process(data2)
+     
+     # 调用核心算法
+     [res1, res2] = core_algorithm(data1, data2, data3, parameter1, parameter2, ....)
+
+     # 使用结果
+     res1 = res1.append(res)
+     res1.to_csv(...)
+     res1.to_sql(...)
+}
+
+# 批量使用结果
+res.to_csv(...)
+res1.to_sql(...)
+
+

demo.ipynb

@@ -116,11 +116,48 @@
   },
   {
    "cell_type": "code",
-   "execution_count": null,
+   "execution_count": 2,
    "source": [
     "# 生成pydoc 说明文档\r\n",
-    "! python -m pydoc -w LIB\\BACKEND\\Tools.py"
+    "!python -m pydoc -w LIB\\BACKEND\\DataPreProcess.py"
    ],
+   "outputs": [
+    {
+     "output_type": "stream",
+     "name": "stdout",
+     "text": [
+      "problem in LIB\\BACKEND\\DataPreProcess.py - ModuleNotFoundError: No module named 'DBManager'\n"
+     ]
+    }
+   ],
+   "metadata": {}
+  },
+  {
+   "cell_type": "code",
+   "execution_count": 1,
+   "source": [
+    "from LIB.BACKEND import DBManager, Log\r\n",
+    "log = Log.Mylog(log_name='signal_monitor', log_level = 'info')\r\n",
+    "log.set_file_hl(file_name='info.log', log_level='info')\r\n",
+    "log.set_file_hl(file_name='error.log', log_level='error')\r\n",
+    "logger = log.get_logger()\r\n"
+   ],
+   "outputs": [],
+   "metadata": {}
+  },
+  {
+   "cell_type": "code",
+   "execution_count": 6,
+   "source": [
+    "logger.error(\"ttt5\")"
+   ],
+   "outputs": [],
+   "metadata": {}
+  },
+  {
+   "cell_type": "code",
+   "execution_count": null,
+   "source": [],
    "outputs": [],
    "metadata": {}
   }

demo.py

@@ -0,0 +1,28 @@
+#LIB/MIDDLE/算法名/main.py   该文件调用核心算法
+
+# 准备算法输入参数
+parameter1 = * 
+parameter2 = *
+
+
+# 多次调用核心算法时，将循环写在外面
+for (i=1:n){
+     
+     # 获取数据
+     data1 = get_data(sn[i], start_time, end_time, ....)
+     data2 = get_data_by_sql(sn[i], start_time, end_time, ....)
+
+     # 通用数据预处理 (可选，由算法说明文档说明算法输入数据是否需要预处理)
+     data1 = data_process(data1)
+     data2 = data_process(data2)
+     
+     # 调用核心算法
+     [res1, res2] = core_algorithm(data1, data2, parameter1, parameter2)
+
+     # 使用结果
+     res1 = res1.append(res)
+     res1.to_csv(...)
+}
+
+# 批量使用结果
+res.to_csv(...)

函数说明/DBManager.html

@@ -107,5 +107,5 @@ Data descriptors defined here:<br>
 <font color="#ffffff" face="helvetica, arial"><big><strong>Author</strong></big></font></td></tr>
     
 <tr><td bgcolor="#7799ee"><tt>&nbsp;&nbsp;&nbsp;&nbsp;&nbsp;&nbsp;</tt></td><td>&nbsp;</td>
-<td width="100%">wlm</td></tr></table>
+<td width="100%">lmstack</td></tr></table>
 </body></html>

函数说明/DataPreProcess.html

@@ -147,5 +147,5 @@ Data descriptors defined here:<br>
 <font color="#ffffff" face="helvetica, arial"><big><strong>Author</strong></big></font></td></tr>
     
 <tr><td bgcolor="#7799ee"><tt>&nbsp;&nbsp;&nbsp;&nbsp;&nbsp;&nbsp;</tt></td><td>&nbsp;</td>
-<td width="100%">wlm</td></tr></table>
+<td width="100%">lmstack</td></tr></table>
 </body></html>

函数说明/IndexStaByOneCycle.html

@@ -141,5 +141,5 @@ Data descriptors defined here:<br>
 <font color="#ffffff" face="helvetica, arial"><big><strong>Author</strong></big></font></td></tr>
     
 <tr><td bgcolor="#7799ee"><tt>&nbsp;&nbsp;&nbsp;&nbsp;&nbsp;&nbsp;</tt></td><td>&nbsp;</td>
-<td width="100%">wlm</td></tr></table>
+<td width="100%">lmstack</td></tr></table>
 </body></html>

函数说明/IndexStaByPeriod.html

@@ -111,5 +111,5 @@ Data descriptors defined here:<br>
 <font color="#ffffff" face="helvetica, arial"><big><strong>Author</strong></big></font></td></tr>
     
 <tr><td bgcolor="#7799ee"><tt>&nbsp;&nbsp;&nbsp;&nbsp;&nbsp;&nbsp;</tt></td><td>&nbsp;</td>
-<td width="100%">wlm</td></tr></table>
+<td width="100%">lmstack</td></tr></table>
 </body></html>

函数说明/Log.html

@@ -76,5 +76,5 @@ Data descriptors defined here:<br>
 <font color="#ffffff" face="helvetica, arial"><big><strong>Author</strong></big></font></td></tr>
     
 <tr><td bgcolor="#7799ee"><tt>&nbsp;&nbsp;&nbsp;&nbsp;&nbsp;&nbsp;</tt></td><td>&nbsp;</td>
-<td width="100%">wlm</td></tr></table>
+<td width="100%">lmstack</td></tr></table>
 </body></html>

函数说明/Tools.html

@@ -82,5 +82,5 @@ Data descriptors defined here:<br>
 <font color="#ffffff" face="helvetica, arial"><big><strong>Author</strong></big></font></td></tr>
     
 <tr><td bgcolor="#7799ee"><tt>&nbsp;&nbsp;&nbsp;&nbsp;&nbsp;&nbsp;</tt></td><td>&nbsp;</td>
-<td width="100%">wlm</td></tr></table>
+<td width="100%">lmstack</td></tr></table>
 </body></html>