/
rct.py
executable file
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rct.py
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#!/usr/bin/python
#
# Functions, definitions and classes to access RCT POWER
# Implementation based on RCT Power Serial Communication Protocol (doc version 1.13)
#
import sys
import getopt
import socket
import select
import struct
import binascii
import operator
class rct_id():
# data types
t_unknown = 0
t_bool = 1
t_uint8 = 2
t_int8 = 3
t_uint16 = 4
t_int16 = 5
t_uint32 = 6
t_int32 = 7
t_enum = 8
t_float = 9
t_string = 10
def __init__(self, msgid, idx, name, data_type, desc=''):
self.id = msgid
self.idx = idx
self.data_type = data_type
self.name = name
self.desc = desc
def get_idx(entry):
return entry.idx
def get_id(entry):
return entry.id
def get_name(entry):
return entry.name
# local variables
id_tab = []
bVerbose = False
host = 'localhost'
port = 8899
receive_timeout = 2.0
search_id = 0
search_name = None
def sort_by_id():
id_tab.sort(key=operator.attrgetter('id'))
def sort_by_name():
id_tab.sort(key=operator.attrgetter('name'))
# find a table entry by using the 32 bit ID
def find_by_id(id):
for l in id_tab:
if l.id == id:
return l
return None
# find a table entry by using the 32 bit ID and return the data type
def get_type_by_id(id):
obj = find_by_id(id)
if obj is None:
return rct_id.t_unknown
return obj.data_type
# decode a value according to the id data type
def decode_value(id, data):
try:
data_type = get_type_by_id(id)
if data_type == rct_id.t_bool:
value = struct.unpack(">B", data)[0]
if value != 0:
return True
else:
return False
elif data_type == rct_id.t_uint8:
return struct.unpack(">B", data)[0]
elif data_type == rct_id.t_int8:
return struct.unpack(">b", data)[0]
elif data_type == rct_id.t_uint16:
return struct.unpack(">H", data)[0]
elif data_type == rct_id.t_int16:
return struct.unpack(">h", data)[0]
elif data_type == rct_id.t_uint32:
return struct.unpack(">I", data)[0]
elif data_type == rct_id.t_int32:
return struct.unpack(">i", data)[0]
elif data_type == rct_id.t_enum:
return struct.unpack(">H", data)[0]
elif data_type == rct_id.t_float:
return struct.unpack(">f", data)[0]
elif data_type == rct_id.t_string:
return hexdump(data, 512)
else:
return 0
except:
return 0
# encode a value according to the id data type
def encode_value(id, value):
data_type = get_type_by_id(id)
return encode_by_type(data_type)
# encode a value according to the id data type
def encode_by_type(data_type, value):
if data_type == rct_id.t_bool:
if value != 0:
value = True
else:
value = False
return struct.pack(">B", value)
elif data_type == rct_id.t_uint8:
value = struct.unpack('<B', struct.pack('<b', value))[0]
return struct.pack(">B", value)
elif data_type == rct_id.t_int8:
return struct.pack(">b", value)
elif data_type == rct_id.t_uint16:
value = struct.unpack('<H', struct.pack('<h', value))[0]
return struct.pack(">H", value)
elif data_type == rct_id.t_int16:
return struct.pack(">h", value)
elif data_type == rct_id.t_uint32:
value = struct.unpack('<I', struct.pack('<i', value))[0]
return struct.pack(">I", value)
elif data_type == rct_id.t_int32:
return struct.pack(">i", value)
elif data_type == rct_id.t_enum:
value = struct.unpack('<H', struct.pack('<h', value))[0]
return struct.pack(">H", value)
elif data_type == rct_id.t_float:
return struct.pack(">f", value)
elif data_type == rct_id.t_string:
return bytes(value)
# return struct.pack("s", value)
else:
return None
# -------------- FRAME ---------------
start_token = '+'
escape_token = '-'
# commands
cmd_read = 0x01
cmd_write = 0x02
cmd_long_write = 0x03
cmd_response = 0x05
cmd_long_response = 0x06
cmd_extension = 0x3C
HEADER_WITH_LENGTH = 1 + 1 + 2 # frame length for header, command and 2 byte length
FRAME_TYPE_STANDARD = 4 # standard frame with id
FRAME_TYPE_PLANT = 8 # plant frame with id and address
FRAME_CRC16_LENGTH = 2 # nr of bytes for CRC16 field
# frame class
default_frame_type = FRAME_TYPE_STANDARD
class Frame:
def __init__(self, frame_type=default_frame_type):
self.FrameComplete = False
self.CRCOk = False
self.command = 0
self.address = 0 # for plant communication only
self.id = 0
self.data = ''
self.stream = ''
self.frame_type = frame_type
self.bEscapeMode = False
self.EscapeCount = 0
# consume a data fragment until frame is complete
# The function returns the number of consumed bytes in data
def consume(self, data):
i = 0
for c in data:
i += 1
# sync to start_token
if len(self.stream) == 0:
if c == start_token:
self.stream += c
continue
if self.bEscapeMode:
self.bEscapeMode = False
else:
if c == escape_token:
self.bEscapeMode = True # escape mode -> set mode and don't add byte
self.EscapeCount += 1 # just for debugging
continue
# add byte to receive stream
self.stream += c
# when minimum frame size is received, decode the length and check completness of frame
if len(self.stream) >= HEADER_WITH_LENGTH:
if len(self.stream) == HEADER_WITH_LENGTH:
cmd = struct.unpack("B", self.stream[1])[0]
if cmd == cmd_long_response or cmd == cmd_long_write:
self.FrameLength = struct.unpack(">H", self.stream[2:4])[0] + 2 # 2 byte length MSBF
else:
self.FrameLength = struct.unpack(">B", self.stream[2])[0] + 1 # 1 byte length
self.FrameLength += 2 # 2 bytes header
else:
if len(self.stream) == self.FrameLength + FRAME_CRC16_LENGTH:
self.FrameComplete = True
self.decode()
return i
return i
# decode a stream and store the values in the frame
def decode(self):
crc16_pos = len(self.stream)-2
self.crc16 = struct.unpack(">H", self.stream[crc16_pos:crc16_pos+2])[0]
if self.crc16 == self.CRC16(self.stream[1:crc16_pos]):
self.CRCOk = True
self.command = struct.unpack(">B", self.stream[1])[0]
if self.command == cmd_long_response or self.command == cmd_long_write:
data_length = struct.unpack(">H", self.stream[2:4])[0] # 2 byte length MSBF
idx = 4
else:
data_length = struct.unpack(">B", self.stream[2])[0] # 1 byte length
idx = 3
data_length -= self.frame_type # substract frame type specific length
self.id = struct.unpack(">I", self.stream[idx:idx+4])[0]
self.id_obj = find_by_id(self.id)
idx += 4
if self.frame_type == FRAME_TYPE_PLANT:
self.address = struct.unpack(">I", self.stream[idx:idx+4])[0]
idx += 4
self.data = self.stream[idx:idx+data_length]
self.data_dump = binascii.hexlify(self.data) # just for debugging
idx += data_length
# decode data using id and id data type
if data_length > 0 and (self.command == cmd_response or self.command == cmd_long_response or
self.command == cmd_write or self.command == cmd_long_write):
self.value = decode_value(self.id, self.data)
# encode a transmit stream using the frame values
def encode(self):
self.id_obj = find_by_id(self.id)
# build a byte stream
buf = b""
buf += struct.pack('B', self.command)
if self.command == cmd_long_write or self.command == cmd_long_response:
buf += struct.pack('>H', self.frame_type+len(self.data)) # 2 bytes
else:
buf += struct.pack('>B', self.frame_type+len(self.data)) # 1 byte
if self.frame_type == FRAME_TYPE_PLANT:
buf += struct.pack('>I', self.address) # 4 bytes
buf += struct.pack('>I', self.id) # 4 bytes
buf += self.data # N byte
crc16 = self.CRC16(buf)
buf += struct.pack('>H', crc16) # 2 bytes
# prepare output buffer and inject escape (=stop) token where necessary
self.EscapeCount = 0
self.stream = bytearray()
self.addToStream(struct.pack('c', start_token)) # 1 byte
self.addToStream(buf)
# add a byte array to the stream and consider adding escape token in case of start or escape/stop token
def response(self, rsp):
self.data = encode_value(self.id, rsp)
# add a byte array to the stream and consider adding escape token in case of start or escape/stop token
def addToStream(self, data):
for c in data:
if c == start_token or c == escape_token:
if len(self.stream) > 0:
self.EscapeCount += 1 # just for debugging
self.stream += escape_token
self.stream += c
# calculate the CRC16 for the passed data stream
def CRC16(self, data):
bitrange = xrange(8) # 8 Bits
crcsum = 0xFFFF
polynom = 0x1021 # CCITT Polynom
# skip start token
Buffer = bytearray(data)
if len(data) & 0x01:
Buffer.append(0)
for byte in Buffer:
crcsum ^= byte << 8
for bit in bitrange: # Loop for 8 bits
crcsum <<= 1
if crcsum & 0x7FFF0000:
# ~~ overflow in bit 16
crcsum = (crcsum & 0x0000FFFF) ^ polynom
return crcsum
# prepare a frame and set alle class components
def prepare(self, command, id, address, value=None):
obj = find_by_id(id)
if obj is None:
self.FrameComplete = False
else:
self.FrameComplete = True
self.command = command
self.address = address
self.id = obj.id
if command == cmd_read:
self.data = ''
else:
if value is not None:
self.data = encode_by_type(obj.data_type, value)
# helper function to print and error
def errlog(*args):
sys.stderr.write(' '.join(map(str, args)) + '\n')
# helper function to print debug messages
def dbglog(*args):
if bVerbose is True:
sys.stdout.write(' '.join(map(str, args)) + '\n')
return bVerbose
# helper function to connect to the server (e.g. the RCT power device)
def connect_to_server():
try:
clientsocket = socket.socket(socket.AF_INET, socket.SOCK_STREAM)
clientsocket.connect((host, port))
dbglog('connect to ', host, 'port', port)
return clientsocket
except:
errlog('unable to connect to', host, 'port', port)
return None
# send a frame to RCT
def send(clientsocket, cmd, id, address=0, value=0):
frame = Frame()
frame.prepare(cmd, id, address, value)
frame.encode()
clientsocket.send(frame.stream)
return frame
# this function reads from the socket.
# Note: unexpected bytes within buf are discarded.
# According to the spec it should not happen and should not be a problem
def receive(sock, id=0, timeout=receive_timeout):
response = Frame()
while True:
try:
ready_to_read, ready_to_write, err_detect = select.select([sock, ], [], [sock, ], timeout)
except select.error:
return None
if ready_to_read:
buf = sock.recv(512)
if len(buf) > 0:
i = response.consume(buf)
if response.FrameComplete and response.CRCOk is True:
if id > 0 and id != response.id:
# errlog('response id', id, 'doesn\'t fit to the requested id ', response.id)
# errlog(hexdump(buf))
return None
else:
return response
else:
# frame incomplete or CRC error
# errlog(hexdump(buf))
return None
else:
# timeout
return None
# send a read request and wait for the response
def read(clientsocket, id, address=0, timeout=receive_timeout):
if clientsocket is not None:
# repeat until the correct response has been received
while(True):
frame = send(clientsocket, cmd_read, id, address)
response = receive(clientsocket, id, timeout)
if response is not None:
return response.value
def close(clientsocket):
clientsocket.close()
def hexdump(src, length=16):
FILTER = ''.join([(len(repr(chr(x))) == 3) and chr(x) or '.' for x in range(256)])
lines = []
addr = True
if length > len(src):
length = len(src)
addr = False
for c in xrange(0, len(src), length):
chars = src[c:c+length]
hex = ' '.join(["%02x" % ord(x) for x in chars])
printable = ''.join(["%s" % ((ord(x) <= 127 and FILTER[ord(x)]) or '.') for x in chars])
if addr is True:
lines.append("%04x %-*s %s" % (c, length*3, hex, printable))
else:
lines.append("%-*s %s" % (length*3, hex, printable))
if c + length < len(src):
lines.append("\n")
return ''.join(lines)
# setup the rct_id table with id and expected data type
def init(argv):
global bVerbose
global host
global port
global search_id
global search_name
global param_len
global desc_len
# parse command line arguments
try:
options, remainder = getopt.getopt(argv[1:], 'p:i:v', ['port=', 'ip=', 'verbose', 'id=', 'name='])
except getopt.GetoptError as err:
# print help information and exit:
errlog(err) # will print something like "option -a not recognized"
errlog('usage: ', argv[0], '[--ip_addr=<host>] [--verbose] [--port=<portnr>] [--id=0xXXXXXXXX|--name=<string>] ')
sys.exit(-1)
for opt, arg in options:
if opt in ('-p', '--port'):
port = int(arg, base=10)
elif opt in ('-i', '--ip'):
host = arg
elif opt in ('--id'):
search_id = int(arg, base=16)
elif opt in ('--name'):
search_name = arg
elif opt in ('-v', '--verbose'):
bVerbose = True
id_tab_setup()
param_len = 0
desc_len = 0
for obj in id_tab:
if len(obj.name) > param_len:
param_len = len(obj.name)
if len(obj.desc) > desc_len:
desc_len = len(obj.desc)
sort_by_name()
def id_tab_setup():
# add all known id's with name, data type, description and unit to the id table
id_tab.append(rct_id(0x0104EB6A, 0, 'rb485.f_grid[2]', rct_id.t_float, 'Grid phase 3 frequency [Hz]'))
id_tab.append(rct_id(0x011F41DB, 1, 'power_mng.schedule[0]', rct_id.t_string, 'power_mng.schedule[0]'))
id_tab.append(rct_id(0x016109E1, 2, 'grid_mon[0].u_over.time', rct_id.t_float, 'Max. voltage switch-off time level 1 [s]'))
id_tab.append(rct_id(0x01676FA6, 3, 'battery.cells_stat[3]', rct_id.t_string, 'battery.cells_stat[3]'))
id_tab.append(rct_id(0x019C0B60, 4, 'cs_neg[2]', rct_id.t_float, 'Multiply value of the current sensor 2 by'))
id_tab.append(rct_id(0x02247588, 5, 'battery_placeholder[0].cells_stat[2].u_min.value', rct_id.t_float, 'battery_placeholder[0].cells_stat[2].u_min.value'))
id_tab.append(rct_id(0x031A6110, 6, 'energy.e_ext_month', rct_id.t_float, 'External month energy [Wh]'))
id_tab.append(rct_id(0x035E64EA, 7, 'battery_placeholder[0].module_sn[5]', rct_id.t_string, 'Module 5 Serial Number'))
id_tab.append(rct_id(0x039BDE11, 8, 'hw_test.state', rct_id.t_uint8, 'hw_test.state'))
id_tab.append(rct_id(0x03A39CA2, 9, 'g_sync.p_ac_load[0]', rct_id.t_float, 'Load household phase 1 [W]'))
id_tab.append(rct_id(0x03D9C51F, 10, 'battery.cells_stat[0].u_max.value', rct_id.t_float, 'battery.cells_stat[0].u_max.value'))
id_tab.append(rct_id(0x040385DB, 11, 'common_control_bits', rct_id.t_uint32, 'Bit coded function'))
id_tab.append(rct_id(0x048C9D69, 12, 'battery_placeholder[0].cells_stat[1].u_min.value', rct_id.t_float, 'battery_placeholder[0].cells_stat[1].u_min.value'))
id_tab.append(rct_id(0x04EAAA98, 13, 'nsm.f_low_entry', rct_id.t_float, 'Entry frequency for P(f) under-frequency mode [Hz]'))
id_tab.append(rct_id(0x0528D1D8, 14, 'frt.u_min[2]', rct_id.t_float, 'Point 3 voltage [V]'))
id_tab.append(rct_id(0x056162CA, 15, 'battery.cells_stat[4].u_min.time', rct_id.t_uint32, 'battery.cells_stat[4].u_min.time'))
id_tab.append(rct_id(0x056417DF, 16, 'battery.cells_stat[3].t_max.index', rct_id.t_uint8, 'battery.cells_stat[3].t_max.index'))
id_tab.append(rct_id(0x058F1759, 17, 'hw_test.bt_power[6]', rct_id.t_float, 'hw_test.bt_power[6]'))
id_tab.append(rct_id(0x05C7CFB1, 18, 'logger.day_egrid_load_log_ts', rct_id.t_int32, 'logger.day_egrid_load_log_ts'))
id_tab.append(rct_id(0x064A60FE, 19, 'battery.cells_stat[4].t_max.index', rct_id.t_uint8, 'battery.cells_stat[4].t_max.index'))
id_tab.append(rct_id(0x064E4340, 20, 'logger.minutes_ubat_log_ts', rct_id.t_int32, 'logger.minutes_ubat_log_ts'))
id_tab.append(rct_id(0x06A9FFA2, 21, 'battery.charged_amp_hours', rct_id.t_float, 'Total charge flow into battery [Ah]'))
id_tab.append(rct_id(0x06E03755, 22, 'wifi.ip', rct_id.t_string, 'IP Address'))
id_tab.append(rct_id(0x071B5514, 23, 'battery_placeholder[0].cells_stat[3].t_max.index', rct_id.t_uint8, 'battery_placeholder[0].cells_stat[3].t_max.index'))
id_tab.append(rct_id(0x07367B64, 24, 'rb485.phase_marker', rct_id.t_int16, 'Next phase after phase 1 in Power Switch'))
id_tab.append(rct_id(0x073C7E5D, 25, 'battery_placeholder[0].max_cell_temperature', rct_id.t_float, 'battery_placeholder[0].max_cell_temperature'))
id_tab.append(rct_id(0x074B1EF5, 26, 'battery_placeholder[0].cells_stat[3].u_max.index', rct_id.t_uint8, 'battery_placeholder[0].cells_stat[3].u_max.index'))
id_tab.append(rct_id(0x077692DE, 27, 'battery.cells_stat[4].u_max.index', rct_id.t_uint8, 'battery.cells_stat[4].u_max.index'))
id_tab.append(rct_id(0x07C61FAD, 28, 'adc.u_ref_1_5v[0]', rct_id.t_uint16, 'Reference voltage 1 [V]'))
id_tab.append(rct_id(0x08679611, 29, 'net.id', rct_id.t_uint32, 'net.id'))
id_tab.append(rct_id(0x086C75B0, 30, 'battery.stack_software_version[3]', rct_id.t_uint32, 'Software version stack 3'))
id_tab.append(rct_id(0x0875C906, 31, 'hw_test.bt_time[2]', rct_id.t_float, 'hw_test.bt_time[2]'))
id_tab.append(rct_id(0x08E81725, 32, 'battery_placeholder[0].cells_stat[0].t_max.value', rct_id.t_float, 'battery_placeholder[0].cells_stat[0].t_max.value'))
id_tab.append(rct_id(0x095AFAA8, 33, 'logger.minutes_ul3_log_ts', rct_id.t_int32, 'logger.minutes_ul3_log_ts'))
id_tab.append(rct_id(0x09923C1E, 35, 'battery.cells_stat[3].t_min.index', rct_id.t_uint8, 'battery.cells_stat[3].t_min.index'))
id_tab.append(rct_id(0x0A04CA7F, 36, 'g_sync.u_zk_n_avg', rct_id.t_float, 'Negative buffer capacitor voltage [V]'))
id_tab.append(rct_id(0x0AA372CE, 37, 'p_rec_req[1]', rct_id.t_float, 'Required battery to grid power [W]'))
id_tab.append(rct_id(0x0AFDD6CF, 38, 'acc_conv.i_acc_lp_fast', rct_id.t_float, 'Battery current [A]'))
id_tab.append(rct_id(0x0B94A673, 39, 'battery_placeholder[0].cells_stat[6].t_min.time', rct_id.t_uint32, 'battery_placeholder[0].cells_stat[6].t_min.time'))
id_tab.append(rct_id(0x0BA16A10, 40, 'wifi.sockb_protocol', rct_id.t_enum, 'Network mode'))
id_tab.append(rct_id(0x0C2A7286, 41, 'battery_placeholder[0].cells_resist[0]', rct_id.t_string, 'battery_placeholder[0].cells_resist[0]'))
id_tab.append(rct_id(0x0C3815C2, 42, 'net.load_reduction', rct_id.t_float, 'net.load_reduction'))
id_tab.append(rct_id(0x0C588B75, 43, 'energy.e_ext_day_sum', rct_id.t_float, 'energy.e_ext_day_sum'))
id_tab.append(rct_id(0x0CB5D21B, 44, 'dc_conv.dc_conv_struct[1].p_dc_lp', rct_id.t_float, 'Solar generator B power [W]'))
id_tab.append(rct_id(0x0CBA34B9, 45, 'nsm.u_q_u[3]', rct_id.t_float, ''))
id_tab.append(rct_id(0x0CC4BDAA, 46, 'detect_phase_shift_enable', rct_id.t_bool, 'Enable active island detection'))
id_tab.append(rct_id(0x0CFA8BC4, 47, 'battery.stack_cycles[1]', rct_id.t_uint16, 'battery.stack_cycles[1]'))
id_tab.append(rct_id(0x0D658831, 48, 'i_bottom_max', rct_id.t_float, 'i_bottom_max'))
id_tab.append(rct_id(0x0DACF21B, 49, 'battery.cells_stat[4]', rct_id.t_string, 'battery.cells_stat[4]'))
id_tab.append(rct_id(0x0DBD5E77, 50, 'battery_placeholder[0].cells_stat[6].u_min.index', rct_id.t_uint8, 'battery_placeholder[0].cells_stat[6].u_min.index'))
id_tab.append(rct_id(0x0DE3D20D, 51, 'battery.status2', rct_id.t_int32, 'Battery extra status'))
id_tab.append(rct_id(0x0DF164DE, 52, 'logger.day_eb_log_ts', rct_id.t_int32, 'logger.day_eb_log_ts'))
id_tab.append(rct_id(0x0DF45696, 53, 'io_board.io1_polarity', rct_id.t_bool, 'Inverted signal on input I/O 1'))
id_tab.append(rct_id(0x0E0505B4, 54, 'flash_rtc.time_stamp_set', rct_id.t_uint32, 'Set date/time'))
id_tab.append(rct_id(0x0E4AA301, 55, 'battery_placeholder[0].cells_stat[6].u_max.index', rct_id.t_uint8, 'battery_placeholder[0].cells_stat[6].u_max.index'))
id_tab.append(rct_id(0x0E799A56, 56, 'io_board.rse_table[0]', rct_id.t_float, 'K4..K1: 0000'))
id_tab.append(rct_id(0x0EC64BA7, 57, 'battery_placeholder[0].stack_software_version[3]', rct_id.t_uint32, 'Software version stack 3'))
id_tab.append(rct_id(0x0EF60C7E, 58, 'battery.cells_stat[3].u_max.value', rct_id.t_float, 'battery.cells_stat[3].u_max.value'))
id_tab.append(rct_id(0x0F28E2E1, 59, 'energy.e_ext_total_sum', rct_id.t_float, 'energy.e_ext_total_sum'))
id_tab.append(rct_id(0x0FA29566, 60, 'logger.minutes_ub_log_ts', rct_id.t_int32, 'logger.minutes_ub_log_ts'))
id_tab.append(rct_id(0x0FB40090, 61, 'io_board.check_rs485_result', rct_id.t_uint8, 'io_board.check_rs485_result'))
id_tab.append(rct_id(0x1025B491, 62, 'battery_placeholder[0].maximum_discharge_current', rct_id.t_float, 'Max. discharge current [A]'))
id_tab.append(rct_id(0x10842019, 63, 'nsm.cos_phi_p[3][1]', rct_id.t_float, 'Point 4 [cos(. )] (positive = overexcited)'))
id_tab.append(rct_id(0x1089ACA9, 64, 'nsm.u_q_u[0]', rct_id.t_float, 'Low voltage min. point [V]'))
id_tab.append(rct_id(0x108FC93D, 65, 'max_phase_shift', rct_id.t_float, 'Max. phase shift from 120? position [degrees]'))
id_tab.append(rct_id(0x10970E9D, 66, 'energy.e_ac_month', rct_id.t_float, 'Month energy [Wh]'))
id_tab.append(rct_id(0x1156DFD0, 67, 'power_mng.battery_power', rct_id.t_float, 'Battery discharge power [W]'))
id_tab.append(rct_id(0x120EC3B4, 68, 'battery.cells_stat[4].u_min.index', rct_id.t_uint8, 'battery.cells_stat[4].u_min.index'))
id_tab.append(rct_id(0x126ABC86, 69, 'energy.e_grid_load_month', rct_id.t_float, 'Month energy grid load [Wh]'))
id_tab.append(rct_id(0x132AA71E, 70, 'logger.minutes_temp2_log_ts', rct_id.t_int32, 'logger.minutes_temp2_log_ts'))
id_tab.append(rct_id(0x1348AB07, 71, 'battery.cells[4]', rct_id.t_string, 'battery.cells[4]'))
id_tab.append(rct_id(0x147E8E26, 72, 'g_sync.p_ac[1]', rct_id.t_float, 'AC2'))
id_tab.append(rct_id(0x14C0E627, 73, 'wifi.password', rct_id.t_string, 'WiFi password'))
id_tab.append(rct_id(0x14FCA232, 74, 'nsm.rpm_lock_out_power', rct_id.t_float, 'Reactive Power Mode lock-out power [P/Pn]'))
id_tab.append(rct_id(0x15AB1A61, 75, 'power_mng.schedule[2]', rct_id.t_string, 'power_mng.schedule[2]'))
id_tab.append(rct_id(0x162491E8, 76, 'battery.module_sn[5]', rct_id.t_string, 'Module 5 Serial Number'))
id_tab.append(rct_id(0x1639B2D8, 77, 'battery_placeholder[0].cells_stat[4].u_max.index', rct_id.t_uint8, 'battery_placeholder[0].cells_stat[4].u_max.index'))
id_tab.append(rct_id(0x16A1F844, 78, 'battery.bms_sn', rct_id.t_string, 'BMS Serial Number'))
id_tab.append(rct_id(0x16AF2A92, 79, 'db.power_board.Current_Mean', rct_id.t_float, 'db.power_board.Current_Mean'))
id_tab.append(rct_id(0x16B28CCA, 80, 'adc.u_ref_1_5v[1]', rct_id.t_uint16, 'Reference voltage 2 [V]'))
id_tab.append(rct_id(0x16ED8F8F, 81, 'partition[1].last_id', rct_id.t_int32, 'partition[1].last_id'))
id_tab.append(rct_id(0x173D81E4, 82, 'rb485.version_boot', rct_id.t_uint32, 'Power Switch bootloader version'))
id_tab.append(rct_id(0x1781CD31, 83, 'battery_placeholder[0].soh', rct_id.t_float, 'SOH (State of Health)'))
id_tab.append(rct_id(0x17E3AF97, 84, 'db.power_board.adc_p9V_meas', rct_id.t_float, 'db.power_board.adc_p9V_meas'))
id_tab.append(rct_id(0x18469762, 85, 'battery_placeholder[0].cells_stat[0].u_max.value', rct_id.t_float, 'battery_placeholder[0].cells_stat[0].u_max.value'))
id_tab.append(rct_id(0x18BD807D, 86, 'battery_placeholder[0].cells_stat[4].t_min.index', rct_id.t_uint8, 'battery_placeholder[0].cells_stat[4].t_min.index'))
id_tab.append(rct_id(0x18D1E9E0, 87, 'battery.cells_stat[5].u_max.index', rct_id.t_uint8, 'battery.cells_stat[5].u_max.index'))
id_tab.append(rct_id(0x18F98B6D, 88, 'battery.cells_stat[3].u_min.value', rct_id.t_float, 'battery.cells_stat[3].u_min.value'))
id_tab.append(rct_id(0x19608C98, 89, 'partition[3].last_id', rct_id.t_int32, 'partition[3].last_id'))
id_tab.append(rct_id(0x19B814F2, 90, 'logger.year_egrid_feed_log_ts', rct_id.t_int32, 'logger.year_egrid_feed_log_ts'))
id_tab.append(rct_id(0x1ABA3EE8, 91, 'p_rec_req[0]', rct_id.t_float, 'Required compensation power [W]'))
id_tab.append(rct_id(0x1AC87AA0, 92, 'g_sync.p_ac_load_sum_lp', rct_id.t_float, 'Load household - external Power[W]'))
id_tab.append(rct_id(0x1B39A3A3, 93, 'battery.bms_power_version', rct_id.t_uint32, 'Software version BMS Power'))
id_tab.append(rct_id(0x1B5445C4, 94, 'io_board.check_rse_result', rct_id.t_uint16, 'io_board.check_rse_result'))
id_tab.append(rct_id(0x1BFA5A33, 95, 'energy.e_grid_load_total_sum', rct_id.t_float, 'energy.e_grid_load_total_sum'))
id_tab.append(rct_id(0x1C4A665F, 96, 'grid_pll[0].f', rct_id.t_float, 'Grid frequency [Hz]'))
id_tab.append(rct_id(0x1D0623D6, 97, 'wifi.dns_address', rct_id.t_string, 'DNS address'))
id_tab.append(rct_id(0x1D2994EA, 98, 'power_mng.soc_charge_power', rct_id.t_float, ''))
id_tab.append(rct_id(0x1D49380A, 99, 'logger.minutes_eb_log_ts', rct_id.t_int32, 'logger.minutes_eb_log_ts'))
id_tab.append(rct_id(0x1D83D2A5, 100, 'battery_placeholder[0].cells[4]', rct_id.t_string, 'battery_placeholder[0].cells[4]'))
id_tab.append(rct_id(0x1E0EB397, 101, 'battery_placeholder[0].cells_stat[6].u_max.value', rct_id.t_float, 'battery_placeholder[0].cells_stat[6].u_max.value'))
id_tab.append(rct_id(0x1E5FCA70, 102, 'battery.maximum_charge_current', rct_id.t_float, 'Max. charge current [A]'))
id_tab.append(rct_id(0x1F44C23A, 103, 'battery_placeholder[0].cells_stat[1].t_min.index', rct_id.t_uint8, 'battery_placeholder[0].cells_stat[1].t_min.index'))
id_tab.append(rct_id(0x1F73B6A4, 104, 'battery.cells_stat[3].t_max.time', rct_id.t_uint32, 'battery.cells_stat[3].t_max.time'))
id_tab.append(rct_id(0x1F9CBBF2, 105, 'db.power_board.Calibr_Value_Mean', rct_id.t_float, 'db.power_board.Calibr_Value_Mean'))
id_tab.append(rct_id(0x1FA192E3, 106, 'battery_placeholder[0].cells_resist[4]', rct_id.t_string, 'battery_placeholder[0].cells_resist[4]'))
id_tab.append(rct_id(0x1FB3A602, 107, 'battery_placeholder[0].cells_stat[2].t_max.value', rct_id.t_float, 'battery_placeholder[0].cells_stat[2].t_max.value'))
id_tab.append(rct_id(0x1FEB2F67, 108, 'switch_on_cond.u_min', rct_id.t_float, 'Min. voltage'))
id_tab.append(rct_id(0x2082BFB6, 109, 'hw_test.bt_time[9]', rct_id.t_float, 'hw_test.bt_time[9]'))
id_tab.append(rct_id(0x20A3A91F, 110, 'battery_placeholder[0].module_sn[4]', rct_id.t_string, 'Module 4 Serial Number'))
id_tab.append(rct_id(0x20FD4419, 111, 'prim_sm.island_next_repeat_timeout', rct_id.t_float, 'Next island trial timeout [s]'))
id_tab.append(rct_id(0x21879805, 112, 'logger.minutes_eac1_log_ts', rct_id.t_int32, 'logger.minutes_eac1_log_ts'))
id_tab.append(rct_id(0x21961B58, 113, 'battery.current', rct_id.t_float, 'Battery current [A]'))
id_tab.append(rct_id(0x21E1A802, 114, 'energy.e_dc_month_sum[1]', rct_id.t_float, 'energy.e_dc_month_sum[1]'))
id_tab.append(rct_id(0x21EE7CBB, 115, 'rb485.u_l_grid[2]', rct_id.t_float, 'Grid phase 3 voltage [V]'))
id_tab.append(rct_id(0x2266DCB8, 116, 'flash_rtc.rtc_mcc_quartz_max_diff', rct_id.t_float, 'Maximum allowed quartz frequency difference between RTC and Microcontroller [ppm]'))
id_tab.append(rct_id(0x226A23A4, 117, 'dc_conv.dc_conv_struct[0].u_target', rct_id.t_float, 'MPP on input A [V]'))
id_tab.append(rct_id(0x2295401F, 118, 'battery_placeholder[0].cells_stat[3].u_max.time', rct_id.t_uint32, 'battery_placeholder[0].cells_stat[3].u_max.time'))
id_tab.append(rct_id(0x22CC80C6, 119, 'frt.u_min_end', rct_id.t_float, 'FRT end undervoltage threshold [V]'))
id_tab.append(rct_id(0x234B4736, 120, 'fault[1].flt', rct_id.t_uint32, 'Error bit field 2'))
id_tab.append(rct_id(0x234DD4DF, 121, 'switch_on_cond.f_min', rct_id.t_float, 'Min. frequency'))
id_tab.append(rct_id(0x235E0DF5, 122, 'battery_placeholder[0].stack_software_version[1]', rct_id.t_uint32, 'Software version stack 1'))
id_tab.append(rct_id(0x236D2178, 123, 'frt.t_min[1]', rct_id.t_float, 'Point 2 time [s]'))
id_tab.append(rct_id(0x23D4A386, 124, 'battery_placeholder[0].cells_stat[0]', rct_id.t_string, 'battery_placeholder[0].cells_stat[0]'))
id_tab.append(rct_id(0x23E55DA0, 125, 'battery.cells_stat[5]', rct_id.t_string, 'battery.cells_stat[5]'))
id_tab.append(rct_id(0x23F525DE, 126, 'net.command', rct_id.t_uint16, 'net.command'))
id_tab.append(rct_id(0x24150B85, 127, 'g_sync.u_zk_sum_mov_avg', rct_id.t_float, 'Actual DC link voltage [V]'))
id_tab.append(rct_id(0x241CFA0A, 128, 'battery_placeholder[0].min_cell_temperature', rct_id.t_float, 'battery_placeholder[0].min_cell_temperature'))
id_tab.append(rct_id(0x241F1F98, 129, 'energy.e_dc_day_sum[1]', rct_id.t_float, 'energy.e_dc_day_sum[1]'))
id_tab.append(rct_id(0x24AC4CBB, 130, 'battery_placeholder[0].cells_resist[6]', rct_id.t_string, 'battery_placeholder[0].cells_resist[6]'))
id_tab.append(rct_id(0x2545E22D, 131, 'g_sync.u_l_rms[2]', rct_id.t_float, 'AC voltage phase 3 [V]'))
id_tab.append(rct_id(0x257B5945, 132, 'battery.cells_stat[2].u_min.index', rct_id.t_uint8, 'battery.cells_stat[2].u_min.index'))
id_tab.append(rct_id(0x257B7612, 133, 'battery.module_sn[3]', rct_id.t_string, 'Module 3 Serial Number'))
id_tab.append(rct_id(0x26260419, 134, 'nsm.cos_phi_p[1][0]', rct_id.t_float, 'Point 2 [P/Pn]'))
id_tab.append(rct_id(0x26363AAE, 135, 'battery.cells_stat[1].t_max.index', rct_id.t_uint8, 'battery.cells_stat[1].t_max.index'))
id_tab.append(rct_id(0x265EACF6, 136, 'battery.cells_stat[2].t_max.time', rct_id.t_uint32, 'battery.cells_stat[2].t_max.time'))
id_tab.append(rct_id(0x26EFFC2F, 137, 'energy.e_grid_feed_year', rct_id.t_float, 'Year energy grid feed-in [Wh]'))
id_tab.append(rct_id(0x2703A771, 138, 'cs_struct.is_tuned', rct_id.t_bool, 'Current sensors are tuned'))
id_tab.append(rct_id(0x27116260, 139, 'battery_placeholder[0].cells_stat[5].u_min.value', rct_id.t_float, 'battery_placeholder[0].cells_stat[5].u_min.value'))
id_tab.append(rct_id(0x27650FE2, 140, 'rb485.version_main', rct_id.t_uint32, 'Power Switch software version'))
id_tab.append(rct_id(0x2788928C, 141, 'g_sync.p_ac_load[1]', rct_id.t_float, 'Load household phase 2 [W]'))
id_tab.append(rct_id(0x27BE51D9, 142, 'g_sync.p_ac_sc[0]', rct_id.t_float, 'Grid power phase 1 [W]'))
id_tab.append(rct_id(0x27C39CEA, 143, 'battery.stack_cycles[6]', rct_id.t_uint16, 'battery.stack_cycles[6]'))
id_tab.append(rct_id(0x27C828F4, 144, 'energy.e_grid_feed_total_sum', rct_id.t_float, 'energy.e_grid_feed_total_sum'))
id_tab.append(rct_id(0x27EC8487, 145, 'performance_free[0]', rct_id.t_uint32, 'performance_free[0]'))
id_tab.append(rct_id(0x2848A1EE, 146, 'grid_offset', rct_id.t_float, 'grid_offset'))
id_tab.append(rct_id(0x29BDA75F, 147, 'display_struct.brightness', rct_id.t_uint8, 'Display brightness'))
id_tab.append(rct_id(0x29CA60F8, 148, 'io_board.rse_table[10]', rct_id.t_float, 'K4..K1: 1010'))
id_tab.append(rct_id(0x2A30A97E, 149, 'battery.stack_cycles[5]', rct_id.t_uint16, 'battery.stack_cycles[5]'))
id_tab.append(rct_id(0x2A449E89, 150, 'logger.year_log_ts', rct_id.t_int32, 'logger.year_log_ts'))
id_tab.append(rct_id(0x2AACCAA7, 151, 'battery.max_cell_voltage', rct_id.t_float, ''))
id_tab.append(rct_id(0x2AE703F2, 152, 'energy.e_dc_day[0]', rct_id.t_float, 'Solar generator A day energy [Wh]'))
id_tab.append(rct_id(0x2BC1E72B, 153, 'battery.discharged_amp_hours', rct_id.t_float, 'Total charge flow from battery [Ah]'))
id_tab.append(rct_id(0x2E06172D, 154, 'net.net_tunnel_id', rct_id.t_uint32, 'net.net_tunnel_id'))
id_tab.append(rct_id(0x2E0C6220, 155, 'io_board.home_relay_sw_off_delay', rct_id.t_float, 'Switching off delay [s]'))
id_tab.append(rct_id(0x2E9F3C50, 156, 'battery_placeholder[0].cells_stat[0].t_max.index', rct_id.t_uint8, 'battery_placeholder[0].cells_stat[0].t_max.index'))
id_tab.append(rct_id(0x2ED89924, 157, 'db.power_board.afi_t300', rct_id.t_float, 'AFI 300 mA switching off time [s]'))
id_tab.append(rct_id(0x2ED8A639, 158, 'battery_placeholder[0].cells_stat[2].u_min.time', rct_id.t_uint32, 'battery_placeholder[0].cells_stat[2].u_min.time'))
id_tab.append(rct_id(0x2F0A6B15, 159, 'logger.month_ea_log_ts', rct_id.t_int32, 'logger.month_ea_log_ts'))
id_tab.append(rct_id(0x2F3C1D7D, 160, 'energy.e_load_day', rct_id.t_float, 'Household day energy [Wh]'))
id_tab.append(rct_id(0x2F84A0A9, 161, 'battery_placeholder[0].cells[2]', rct_id.t_string, 'battery_placeholder[0].cells[2]'))
id_tab.append(rct_id(0x3044195F, 162, 'grid_mon[1].u_under.time', rct_id.t_float, 'Min. voltage switch-off time level 2 [s]'))
id_tab.append(rct_id(0x31413485, 163, 'battery_placeholder[0].cells_stat[5].u_min.index', rct_id.t_uint8, 'battery_placeholder[0].cells_stat[5].u_min.index'))
id_tab.append(rct_id(0x314C13EB, 164, 'battery_placeholder[0].cells_stat[5].u_max.value', rct_id.t_float, 'battery_placeholder[0].cells_stat[5].u_max.value'))
id_tab.append(rct_id(0x315D1490, 165, 'power_mng.bat_empty_full', rct_id.t_uint8, 'Bit 0 - battery was empty, bit 1 - battery was full'))
id_tab.append(rct_id(0x31ED1B75, 166, 'modbus.mode', rct_id.t_enum, 'RS485 working mode'))
id_tab.append(rct_id(0x32CD0DB3, 167, 'nsm.cos_phi_p[0][1]', rct_id.t_float, 'Point 1 [cos(. )] (positive = overexcited)'))
id_tab.append(rct_id(0x32DCA605, 168, 'frt.u_max[0]', rct_id.t_float, 'Point 1 voltage [V]'))
id_tab.append(rct_id(0x331D0689, 169, 'battery.cells_stat[2].t_max.value', rct_id.t_float, 'battery.cells_stat[2].t_max.value'))
id_tab.append(rct_id(0x336415EA, 170, 'battery.cells_stat[0].t_max.time', rct_id.t_uint32, 'battery.cells_stat[0].t_max.time'))
id_tab.append(rct_id(0x3390CC2F, 171, 'switch_on_cond.test_time_fault', rct_id.t_float, 'Switching on time after any grid fault [s]'))
id_tab.append(rct_id(0x33F76B78, 172, 'nsm.p_u[0][1]', rct_id.t_float, 'Point 1 voltage [V]'))
id_tab.append(rct_id(0x34A164E7, 173, 'battery.cells_stat[0]', rct_id.t_string, 'battery.cells_stat[0]'))
id_tab.append(rct_id(0x34E33726, 174, 'battery.cells_stat[2].u_max.index', rct_id.t_uint8, 'battery.cells_stat[2].u_max.index'))
id_tab.append(rct_id(0x34ECA9CA, 175, 'logger.year_eb_log_ts', rct_id.t_int32, 'logger.year_eb_log_ts'))
id_tab.append(rct_id(0x3500F1E8, 176, 'net.index', rct_id.t_int8, 'net.index'))
id_tab.append(rct_id(0x3503B92D, 177, 'battery.cells_stat[3].u_max.time', rct_id.t_uint32, 'battery.cells_stat[3].u_max.time'))
id_tab.append(rct_id(0x3515F4A0, 178, 'nsm.p_u[3][1]', rct_id.t_float, 'Point 4 voltage [V]'))
id_tab.append(rct_id(0x360BDE8A, 179, 'nsm.startup_grad', rct_id.t_float, 'Startup gradient [P/(Pn*s)]'))
id_tab.append(rct_id(0x36214C57, 180, 'net.prev_k', rct_id.t_float, 'net.prev_k'))
id_tab.append(rct_id(0x362346D4, 181, 'switch_on_cond.max_rnd_test_time_fault', rct_id.t_float, 'Max additional random switching on time after any grid fault [s]'))
id_tab.append(rct_id(0x3623D82A, 182, 'prim_sm.island_flag', rct_id.t_uint16, 'Grid-separated'))
id_tab.append(rct_id(0x365D12DA, 183, 'p_rec_req[2]', rct_id.t_float, 'Required Pac [W]'))
id_tab.append(rct_id(0x36A9E9A6, 184, 'power_mng.use_grid_power_enable', rct_id.t_bool, 'Utilize external Inverter energy'))
id_tab.append(rct_id(0x374B5DD6, 185, 'battery_placeholder[0].cells_stat[6].u_min.time', rct_id.t_uint32, 'battery_placeholder[0].cells_stat[6].u_min.time'))
id_tab.append(rct_id(0x37F9D5CA, 186, 'fault[0].flt', rct_id.t_uint32, 'Error bit field 1'))
id_tab.append(rct_id(0x381B8BF9, 187, 'battery.soh', rct_id.t_float, 'SOH (State of Health)'))
id_tab.append(rct_id(0x383A3614, 188, 'db.power_board.afi_i60', rct_id.t_float, 'AFI 60 mA threshold [A]'))
id_tab.append(rct_id(0x38789061, 189, 'nsm.f_low_rise_grad_storage', rct_id.t_float, 'Power rise gradient for P(f) under-frequency mode with battery [1/Pn*Hz]'))
id_tab.append(rct_id(0x3903A5E9, 190, 'flash_rtc.flag_time_auto_switch', rct_id.t_bool, 'Automatically adjust clock for daylight saving time'))
id_tab.append(rct_id(0x3906A1D0, 191, 'logger.minutes_eext_log_ts', rct_id.t_int32, 'logger.minutes_eext_log_ts'))
id_tab.append(rct_id(0x392D1BEE, 192, 'wifi.connect_to_server', rct_id.t_uint8, 'wifi.connect_to_server'))
id_tab.append(rct_id(0x39AD4639, 193, 'battery_placeholder[0].cells_stat[5].u_min.time', rct_id.t_uint32, 'battery_placeholder[0].cells_stat[5].u_min.time'))
id_tab.append(rct_id(0x3A0EA5BE, 194, 'power_spring_up', rct_id.t_float, 'power_spring_up'))
id_tab.append(rct_id(0x3A3050E6, 195, 'grid_lt.threshold', rct_id.t_float, 'Max. voltage [V]'))
id_tab.append(rct_id(0x3A35D491, 196, 'battery_placeholder[0].cells_stat[2].u_max.value', rct_id.t_float, 'battery_placeholder[0].cells_stat[2].u_max.value'))
id_tab.append(rct_id(0x3A444FC6, 197, 'g_sync.s_ac_lp[0]', rct_id.t_float, 'Apparent power phase 1 [VA]'))
id_tab.append(rct_id(0x3A7D5F53, 198, 'battery.cells_stat[1].u_max.value', rct_id.t_float, 'battery.cells_stat[1].u_max.value'))
id_tab.append(rct_id(0x3A873343, 199, 'energy.e_ac_day_sum', rct_id.t_float, 'energy.e_ac_day_sum'))
id_tab.append(rct_id(0x3A9D2680, 200, 'energy.e_ext_year_sum', rct_id.t_float, 'energy.e_ext_year_sum'))
id_tab.append(rct_id(0x3AA565FC, 201, 'net.package', rct_id.t_string, 'net.package'))
id_tab.append(rct_id(0x3AFEF139, 202, 'prim_sm.is_thin_layer', rct_id.t_bool, 'Thin-film solar module'))
id_tab.append(rct_id(0x3B0C6A53, 203, 'bat_mng_struct.profile_pdc_max', rct_id.t_string, 'bat_mng_struct.profile_pdc_max'))
id_tab.append(rct_id(0x3B5F6B9D, 204, 'rb485.f_wr[0]', rct_id.t_float, ''))
id_tab.append(rct_id(0x3B7FCD47, 205, 'fault[2].flt', rct_id.t_uint32, 'Error bit field 3'))
id_tab.append(rct_id(0x3BA1B77B, 206, 'battery.cells_stat[3].t_min.value', rct_id.t_float, 'battery.cells_stat[3].t_min.value'))
id_tab.append(rct_id(0x3C24F3E8, 207, 'inv_struct.cosinus_phi', rct_id.t_float, 'cos .'))
id_tab.append(rct_id(0x3C705F61, 208, 'io_board.rse_table[8]', rct_id.t_float, 'K4..K1: 1000'))
id_tab.append(rct_id(0x3C87C4F5, 209, 'energy.e_grid_feed_day', rct_id.t_float, 'Day energy grid feed-in [Wh]'))
id_tab.append(rct_id(0x3CA8E8D0, 210, 'hw_test.bt_time[0]', rct_id.t_float, 'hw_test.bt_time[0]'))
id_tab.append(rct_id(0x3CB1EF01, 211, 'grid_mon[0].u_under.threshold', rct_id.t_float, 'Min. voltage level 1 [V]'))
id_tab.append(rct_id(0x3D789979, 212, 'hw_test.bt_power[7]', rct_id.t_float, 'hw_test.bt_power[7]'))
id_tab.append(rct_id(0x3DBCC6B4, 213, 'io_board.rse_table[6]', rct_id.t_float, 'K4..K1: 0110'))
id_tab.append(rct_id(0x3E25C391, 214, 'bat_mng_struct.bat_calib_soc_thresh', rct_id.t_float, 'Part of max historical SOC for battery calibration in advance'))
id_tab.append(rct_id(0x3E722B43, 215, 'grid_mon[1].f_under.threshold', rct_id.t_float, 'Min. frequency level 2 [Hz]'))
id_tab.append(rct_id(0x3E728842, 216, 'power_spring_bat', rct_id.t_float, 'power_spring_bat'))
id_tab.append(rct_id(0x3EFEB931, 217, 'db.power_board.relays_state', rct_id.t_uint16, 'db.power_board.relays_state'))
id_tab.append(rct_id(0x3F98F58A, 218, 'battery.cells_stat[5].t_max.index', rct_id.t_uint8, 'battery.cells_stat[5].t_max.index'))
id_tab.append(rct_id(0x400F015B, 219, 'g_sync.p_acc_lp', rct_id.t_float, 'Battery power [W]'))
id_tab.append(rct_id(0x4077335D, 220, 'g_sync.s_ac_lp[1]', rct_id.t_float, 'Apparent power phase 2 [VA]'))
id_tab.append(rct_id(0x40B07CA4, 221, 'power_mng.schedule[6]', rct_id.t_string, 'power_mng.schedule[6]'))
id_tab.append(rct_id(0x40FF01B7, 222, 'battery.cells[6]', rct_id.t_string, 'battery.cells[6]'))
id_tab.append(rct_id(0x41744E11, 223, 'frt.u_min[0]', rct_id.t_float, 'Point 1 voltage [V]'))
id_tab.append(rct_id(0x41B11ECF, 224, 'battery.cells_stat[3].u_min.index', rct_id.t_uint8, 'battery.cells_stat[3].u_min.index'))
id_tab.append(rct_id(0x428CCF46, 225, 'battery.cells_stat[5].u_min.value', rct_id.t_float, 'battery.cells_stat[5].u_min.value'))
id_tab.append(rct_id(0x431509D1, 226, 'logger.month_eload_log_ts', rct_id.t_int32, 'logger.month_eload_log_ts'))
id_tab.append(rct_id(0x43257820, 227, 'g_sync.p_ac[0]', rct_id.t_float, 'AC1'))
id_tab.append(rct_id(0x437B8122, 228, 'rb485.available', rct_id.t_bool, 'Power Switch is available'))
id_tab.append(rct_id(0x4397D078, 229, 'nsm.cos_phi_p[1][1]', rct_id.t_float, 'Point 2 [cos(. )] (positive = overexcited)'))
id_tab.append(rct_id(0x43CD0B6F, 230, 'nsm.pf_delay', rct_id.t_float, 'Delay time after P(f) [s]'))
id_tab.append(rct_id(0x43F16F7E, 231, 'flash_state', rct_id.t_uint16, 'Flash state'))
id_tab.append(rct_id(0x43FF47C3, 232, 'db.power_board.afi_t60', rct_id.t_float, 'AFI 60 mA switching off time [s]'))
id_tab.append(rct_id(0x442A3409, 233, 'battery.cells_stat[4].t_min.time', rct_id.t_uint32, 'battery.cells_stat[4].t_min.time'))
id_tab.append(rct_id(0x4443C661, 234, 'battery.cells_stat[0].t_max.index', rct_id.t_uint8, 'battery.cells_stat[0].t_max.index'))
id_tab.append(rct_id(0x44D4C533, 235, 'energy.e_grid_feed_total', rct_id.t_float, 'Total energy grid feed-in [Wh]'))
id_tab.append(rct_id(0x4539A6D4, 236, 'can_bus.bms_update_response[0]', rct_id.t_uint32, 'can_bus.bms_update_response[0]'))
id_tab.append(rct_id(0x465DDB50, 237, 'battery_placeholder[0].cells_stat[2].t_min.value', rct_id.t_float, 'battery_placeholder[0].cells_stat[2].t_min.value'))
id_tab.append(rct_id(0x46635546, 238, 'net.n_descendants', rct_id.t_int8, 'Number of descendant slaves'))
id_tab.append(rct_id(0x4686E044, 239, 'battery_placeholder[0].cells_stat[1].u_min.index', rct_id.t_uint8, 'battery_placeholder[0].cells_stat[1].u_min.index'))
id_tab.append(rct_id(0x46892579, 240, 'flash_param.write_cycles', rct_id.t_uint32, 'Write cycles of flash parameters'))
id_tab.append(rct_id(0x46C3625D, 241, 'battery_placeholder[0].cells_stat[2]', rct_id.t_string, 'battery_placeholder[0].cells_stat[2]'))
id_tab.append(rct_id(0x474F80D5, 242, 'iso_struct.Rn', rct_id.t_float, 'Insulation resistance on negative DC input [Ohm]'))
id_tab.append(rct_id(0x4764F9EE, 243, 'battery_placeholder[0].cells_stat[3].t_max.value', rct_id.t_float, 'battery_placeholder[0].cells_stat[3].t_max.value'))
id_tab.append(rct_id(0x47A1DACA, 244, 'power_mng.schedule[8]', rct_id.t_string, 'power_mng.schedule[8]'))
id_tab.append(rct_id(0x485AD749, 245, 'g_sync.u_ptp_rms[1]', rct_id.t_float, 'Phase to phase voltage 2 [V]'))
id_tab.append(rct_id(0x488052BA, 246, 'logger.minutes_ul2_log_ts', rct_id.t_int32, 'logger.minutes_ul2_log_ts'))
id_tab.append(rct_id(0x48D73FA5, 247, 'g_sync.i_dr_lp[2]', rct_id.t_float, 'Current phase 3 (average) [A]'))
id_tab.append(rct_id(0x494FE156, 248, 'power_spring_offset', rct_id.t_float, 'power_spring_offset'))
id_tab.append(rct_id(0x495BF0B6, 249, 'energy.e_dc_year_sum[0]', rct_id.t_float, 'energy.e_dc_year_sum[0]'))
id_tab.append(rct_id(0x4992E65A, 250, 'update_is_allowed_id', rct_id.t_uint8, 'update_is_allowed_id'))
id_tab.append(rct_id(0x4A61BAEE, 251, 'nsm.p_u[3][0]', rct_id.t_float, 'Point 4 P/Pn'))
id_tab.append(rct_id(0x4AAEB0D2, 252, 'battery_placeholder[0].cells_stat[1]', rct_id.t_string, 'battery_placeholder[0].cells_stat[1]'))
id_tab.append(rct_id(0x4AE96C12, 253, 'dc_conv.dc_conv_struct[1].mpp.mpp_step', rct_id.t_float, 'MPP search step on input B [V]'))
id_tab.append(rct_id(0x4B51A539, 254, 'battery.prog_sn', rct_id.t_string, 'battery.prog_sn'))
id_tab.append(rct_id(0x4BC0F974, 255, 'buf_v_control.power_reduction_max_solar', rct_id.t_float, 'Solar plant peak power [Wp]'))
id_tab.append(rct_id(0x4BE02BB7, 256, 'energy.e_load_day_sum', rct_id.t_float, 'energy.e_load_day_sum'))
id_tab.append(rct_id(0x4C12C4C7, 257, 'cs_neg[1]', rct_id.t_float, ''))
id_tab.append(rct_id(0x4C14CC7C, 258, 'logger.year_ea_log_ts', rct_id.t_int32, 'logger.year_ea_log_ts'))
id_tab.append(rct_id(0x4C2A7CDC, 259, 'nsm.cos_phi_p[2][1]', rct_id.t_float, 'Point 3 [cos(. )] (positive = overexcited)'))
id_tab.append(rct_id(0x4C374958, 260, 'nsm.startup_grad_after_fault', rct_id.t_float, 'Startup gradient after fault [P/(Pn*s)]'))
id_tab.append(rct_id(0x4CB7C0DC, 261, 'battery.min_cell_voltage', rct_id.t_float, 'battery.min_cell_voltage'))
id_tab.append(rct_id(0x4D684EF2, 262, 'battery_placeholder[0].cells[0]', rct_id.t_string, 'battery_placeholder[0].cells[0]'))
id_tab.append(rct_id(0x4D985F33, 263, 'battery.cells_stat[5].u_max.value', rct_id.t_float, 'battery.cells_stat[5].u_max.value'))
id_tab.append(rct_id(0x4DB1B91E, 264, 'switch_on_cond.f_max', rct_id.t_float, 'Max. frequency'))
id_tab.append(rct_id(0x4DC372A0, 265, 'battery_placeholder[0].cells_stat[4].u_max.value', rct_id.t_float, 'battery_placeholder[0].cells_stat[4].u_max.value'))
id_tab.append(rct_id(0x4E04DD55, 266, 'battery.soc_update_since', rct_id.t_float, 'battery.soc_update_since'))
id_tab.append(rct_id(0x4E0C56F2, 267, 'flash_rtc.rtc_mcc_quartz_ppm_difference', rct_id.t_float, 'Quartz frequency difference between RTC and Microcontroller [ppm]'))
id_tab.append(rct_id(0x4E2B42A4, 268, 'hw_test.bt_power[0]', rct_id.t_float, 'hw_test.bt_power[0]'))
id_tab.append(rct_id(0x4E3CB7F8, 269, 'phase_3_mode', rct_id.t_bool, '3-phase feed in'))
id_tab.append(rct_id(0x4E49AEC5, 270, 'g_sync.p_ac_sum', rct_id.t_float, 'Real power [W]'))
id_tab.append(rct_id(0x4E699086, 271, 'battery.module_sn[4]', rct_id.t_string, 'Module 4 Serial Number'))
id_tab.append(rct_id(0x4E77B2CE, 272, 'hw_test.bt_cycle', rct_id.t_uint8, 'hw_test.bt_cycle'))
id_tab.append(rct_id(0x4E9D95A6, 273, 'logger.year_eext_log_ts', rct_id.t_int32, 'logger.year_eext_log_ts'))
id_tab.append(rct_id(0x4EE8DB78, 274, 'energy.e_load_year_sum', rct_id.t_float, 'energy.e_load_year_sum'))
id_tab.append(rct_id(0x4F330E08, 275, 'io_board.io2_usage', rct_id.t_enum, 'Digital I/O 2 usage'))
id_tab.append(rct_id(0x4F735D10, 276, 'db.temp2', rct_id.t_float, 'Heat sink (battery actuator) temperature [?C]'))
id_tab.append(rct_id(0x4FC53F19, 277, 'battery_placeholder[0].module_sn[3]', rct_id.t_string, 'Module 3 Serial Number'))
id_tab.append(rct_id(0x4FEDC1BE, 278, 'battery_placeholder[0].cells_stat[5].t_min.value', rct_id.t_float, 'battery_placeholder[0].cells_stat[5].t_min.value'))
id_tab.append(rct_id(0x4FF8CCE2, 279, 'battery_placeholder[0].stack_software_version[5]', rct_id.t_uint32, 'Software version stack 5'))
id_tab.append(rct_id(0x501A162D, 280, 'battery.cells_resist[5]', rct_id.t_string, 'battery.cells_resist[5]'))
id_tab.append(rct_id(0x50514732, 281, 'battery.cells_stat[6].u_min.index', rct_id.t_uint8, 'battery.cells_stat[6].u_min.index'))
id_tab.append(rct_id(0x508FCE78, 282, 'adc.u_ref_1_5v[3]', rct_id.t_uint16, 'Reference voltage 4 [V]'))
id_tab.append(rct_id(0x50B441C1, 283, 'logger.minutes_ea_log_ts', rct_id.t_int32, 'logger.minutes_ea_log_ts'))
id_tab.append(rct_id(0x5151D84C, 284, 'prim_sm.island_reset_retrials_counter_time', rct_id.t_float, 'Reset island trials counter in [min] (by 0 not used)'))
id_tab.append(rct_id(0x518C7BBE, 285, 'battery.cells_stat[5].u_min.time', rct_id.t_uint32, 'battery.cells_stat[5].u_min.time'))
id_tab.append(rct_id(0x51E5377D, 286, 'battery_placeholder[0].stack_cycles[1]', rct_id.t_uint16, 'battery_placeholder[0].stack_cycles[1]'))
id_tab.append(rct_id(0x5293B668, 287, 'logger.minutes_soc_log_ts', rct_id.t_int32, 'logger.minutes_soc_log_ts'))
id_tab.append(rct_id(0x53656F42, 288, 'battery_placeholder[0].cells_stat[2].u_max.index', rct_id.t_uint8, 'battery_placeholder[0].cells_stat[2].u_max.index'))
id_tab.append(rct_id(0x537C719F, 289, 'battery.cells_stat[0].t_max.value', rct_id.t_float, 'battery.cells_stat[0].t_max.value'))
id_tab.append(rct_id(0x53886C09, 290, 'wifi.connect_to_service', rct_id.t_uint8, 'wifi.connect_to_service'))
id_tab.append(rct_id(0x53EF7649, 291, 'nsm.p_u[0][0]', rct_id.t_float, 'Point 1 P/Pn'))
id_tab.append(rct_id(0x5411CE1B, 292, 'logger.minutes_ul1_log_ts', rct_id.t_int32, 'logger.minutes_ul1_log_ts'))
id_tab.append(rct_id(0x5438B68E, 293, 'grid_mon[1].u_over.threshold', rct_id.t_float, 'Max. voltage level 2 [V]'))
id_tab.append(rct_id(0x54829753, 294, 'p_rec_lim[1]', rct_id.t_float, 'Max. battery to grid power [W]'))
id_tab.append(rct_id(0x54B4684E, 295, 'g_sync.u_l_rms[1]', rct_id.t_float, 'AC voltage phase 2 [V]'))
id_tab.append(rct_id(0x54DBC202, 296, 'io_board.rse_table[12]', rct_id.t_float, 'K4..K1: 1100'))
id_tab.append(rct_id(0x554D8FEE, 297, 'logger.minutes_eac2_log_ts', rct_id.t_int32, 'logger.minutes_eac2_log_ts'))
id_tab.append(rct_id(0x5570401B, 298, 'battery.stored_energy', rct_id.t_float, 'Total energy flow into battery [Wh]'))
id_tab.append(rct_id(0x55C22966, 299, 'g_sync.s_ac[2]', rct_id.t_float, 'Apparent power phase 3 [VA]'))
id_tab.append(rct_id(0x55DDF7BA, 300, 'battery.max_cell_temperature', rct_id.t_float, 'battery.max_cell_temperature'))
id_tab.append(rct_id(0x5673D737, 301, 'wifi.connect_to_wifi', rct_id.t_bool, 'wifi.connect_to_wifi'))
id_tab.append(rct_id(0x57429627, 302, 'wifi.authentication_method', rct_id.t_string, 'WiFi authentication method'))
id_tab.append(rct_id(0x576D2A08, 303, 'battery_placeholder[0].cells_stat[3].t_min.time', rct_id.t_uint32, 'battery_placeholder[0].cells_stat[3].t_min.time'))
id_tab.append(rct_id(0x57945EE4, 304, 'battery_placeholder[0].maximum_charge_current', rct_id.t_float, 'Max. charge current [A]'))
id_tab.append(rct_id(0x58378BD0, 305, 'hw_test.bt_time[3]', rct_id.t_float, 'hw_test.bt_time[3]'))
id_tab.append(rct_id(0x5847E59E, 306, 'battery.maximum_charge_voltage_constant_u', rct_id.t_float, 'Max. charge voltage [V]'))
id_tab.append(rct_id(0x5867B3BE, 307, 'io_board.rse_table[2]', rct_id.t_float, 'K4..K1: 0010'))
id_tab.append(rct_id(0x58C1A946, 308, 'io_board.check_state', rct_id.t_uint8, 'io_board.check_state'))
id_tab.append(rct_id(0x592B13DF, 309, 'power_mng.schedule[4]', rct_id.t_string, 'power_mng.schedule[4]'))
id_tab.append(rct_id(0x59358EB2, 310, 'power_mng.maximum_charge_voltage', rct_id.t_float, ''))
id_tab.append(rct_id(0x5939EC5D, 311, 'battery.module_sn[6]', rct_id.t_string, 'Module 6 Serial Number'))
id_tab.append(rct_id(0x5952E5E6, 312, 'wifi.mask', rct_id.t_string, 'Netmask'))
id_tab.append(rct_id(0x5A120CE4, 313, 'battery.cells_stat[1].t_max.time', rct_id.t_uint32, 'battery.cells_stat[1].t_max.time'))
id_tab.append(rct_id(0x5A316247, 314, 'wifi.mode', rct_id.t_string, 'WiFi mode'))
id_tab.append(rct_id(0x5A9EEFF0, 315, 'battery.stack_cycles[4]', rct_id.t_uint16, 'battery.stack_cycles[4]'))
id_tab.append(rct_id(0x5AF50FD7, 316, 'battery.cells_stat[4].t_min.value', rct_id.t_float, 'battery.cells_stat[4].t_min.value'))
id_tab.append(rct_id(0x5B10CE81, 317, 'power_mng.is_heiphoss', rct_id.t_uint8, 'HeiPhoss mode'))
id_tab.append(rct_id(0x5BA122A5, 318, 'battery.stack_cycles[2]', rct_id.t_uint16, 'battery.stack_cycles[2]'))
id_tab.append(rct_id(0x5BB8075A, 319, 'dc_conv.dc_conv_struct[1].u_sg_lp', rct_id.t_float, 'Solar generator B voltage [V]'))
id_tab.append(rct_id(0x5BD2DB45, 320, 'io_board.io1_s0_imp_per_kwh', rct_id.t_int16, 'Number of impulses per kWh for S0 signal on I/O 1'))
id_tab.append(rct_id(0x5C93093B, 321, 'battery_placeholder[0].status2', rct_id.t_int32, 'Battery extra status'))
id_tab.append(rct_id(0x5CD75669, 322, 'db.power_board.afi_t150', rct_id.t_float, 'AFI 150 mA switching off time [s]'))
id_tab.append(rct_id(0x5D0CDCF0, 323, 'p_rec_available[2]', rct_id.t_float, 'Available Pac [W]'))
id_tab.append(rct_id(0x5D1B0835, 324, 'net.use_network_filter', rct_id.t_bool, 'net.use_network_filter'))
id_tab.append(rct_id(0x5D34D09D, 325, 'logger.month_egrid_load_log_ts', rct_id.t_int32, 'logger.month_egrid_load_log_ts'))
id_tab.append(rct_id(0x5E540FB2, 326, 'net.update_slaves', rct_id.t_bool, 'Activate aut. update slaves'))
id_tab.append(rct_id(0x5E942C62, 327, 'dc_conv.dc_conv_struct[1].mpp.fixed_voltage', rct_id.t_float, 'Fixed voltage Solar generator B [V]'))
id_tab.append(rct_id(0x5EE03C45, 328, 'io_board.alarm_home_relay_mode', rct_id.t_enum, 'Multifunctional relay usage'))
id_tab.append(rct_id(0x5EF54372, 329, 'battery_placeholder[0].cells_stat[0].u_max.index', rct_id.t_uint8, 'battery_placeholder[0].cells_stat[0].u_max.index'))
id_tab.append(rct_id(0x5F33284E, 330, 'prim_sm.state', rct_id.t_uint8, 'Inverter status'))
id_tab.append(rct_id(0x6002891F, 331, 'g_sync.p_ac_sc_sum', rct_id.t_float, 'Grid power (ext. sensors) [W]'))
id_tab.append(rct_id(0x60435F1C, 332, 'battery_placeholder[0].cells[6]', rct_id.t_string, 'battery_placeholder[0].cells[6]'))
id_tab.append(rct_id(0x60749E5E, 333, 'battery.cells_stat[6].u_min.time', rct_id.t_uint32, 'battery.cells_stat[6].u_min.time'))
id_tab.append(rct_id(0x60A9A532, 334, 'logger.day_eext_log_ts', rct_id.t_int32, 'logger.day_eext_log_ts'))
id_tab.append(rct_id(0x612F7EAB, 335, 'g_sync.s_ac[1]', rct_id.t_float, 'Apparent power phase 2 [VA]'))
id_tab.append(rct_id(0x61EAC702, 336, 'battery.cells_stat[0].t_min.value', rct_id.t_float, 'battery.cells_stat[0].t_min.value'))
id_tab.append(rct_id(0x6213589B, 337, 'battery.cells_stat[6].u_min.value', rct_id.t_float, 'battery.cells_stat[6].u_min.value'))
id_tab.append(rct_id(0x6279F2A3, 338, 'db.power_board.version_boot', rct_id.t_uint32, 'PIC bootloader software version'))
id_tab.append(rct_id(0x62B8940B, 339, 'dc_conv.start_voltage', rct_id.t_float, 'Inverter DC-voltage start value [V]'))
id_tab.append(rct_id(0x62D645D9, 340, 'battery.cells[5]', rct_id.t_string, 'battery.cells[5]'))
id_tab.append(rct_id(0x62FBE7DC, 341, 'energy.e_grid_load_total', rct_id.t_float, 'Total energy grid load [Wh]'))
id_tab.append(rct_id(0x63476DBE, 342, 'g_sync.u_ptp_rms[0]', rct_id.t_float, 'Phase to phase voltage 1 [V]'))
id_tab.append(rct_id(0x6383DEA9, 343, 'battery_placeholder[0].cells_stat[1].t_max.value', rct_id.t_float, 'battery_placeholder[0].cells_stat[1].t_max.value'))
id_tab.append(rct_id(0x6388556C, 344, 'battery.stack_software_version[0]', rct_id.t_uint32, 'Software version stack 0'))
id_tab.append(rct_id(0x6445D856, 345, 'battery.cells_stat[1].u_min.index', rct_id.t_uint8, 'battery.cells_stat[1].u_min.index'))
id_tab.append(rct_id(0x6476A836, 346, 'dc_conv.dc_conv_struct[0].mpp.enable_scan', rct_id.t_bool, 'Enable rescan for global MPP on solar generator A'))
id_tab.append(rct_id(0x649B10DA, 347, 'battery.cells_resist[0]', rct_id.t_string, 'battery.cells_resist[0]'))
id_tab.append(rct_id(0x650C1ED7, 348, 'g_sync.i_dr_eff[1]', rct_id.t_float, 'Current phase 2 [A]'))
id_tab.append(rct_id(0x652B7536, 349, 'battery_placeholder[0].cells_stat[3].t_min.index', rct_id.t_uint8, 'battery_placeholder[0].cells_stat[3].t_min.index'))
id_tab.append(rct_id(0x6599E3D3, 350, 'power_mng.schedule[3]', rct_id.t_string, 'power_mng.schedule[3]'))
id_tab.append(rct_id(0x65A44A98, 351, 'flash_mem', rct_id.t_string, 'flash_mem'))
id_tab.append(rct_id(0x65B624AB, 352, 'energy.e_grid_feed_month', rct_id.t_float, 'Month energy grid feed-in [Wh]'))
id_tab.append(rct_id(0x65EED11B, 353, 'battery.voltage', rct_id.t_float, 'Battery voltage [V]'))
id_tab.append(rct_id(0x663F1452, 354, 'power_mng.n_batteries', rct_id.t_uint8, 'power_mng.n_batteries'))
id_tab.append(rct_id(0x664A1326, 355, 'io_board.rse_table[14]', rct_id.t_float, 'K4..K1: 1110'))
id_tab.append(rct_id(0x669D02FE, 356, 'logger.minutes_eac_log_ts', rct_id.t_int32, 'logger.minutes_eac_log_ts'))
id_tab.append(rct_id(0x6709A2F4, 357, 'energy.e_ac_year_sum', rct_id.t_float, 'energy.e_ac_year_sum'))
id_tab.append(rct_id(0x672552DC, 358, 'power_mng.bat_calib_days_in_advance', rct_id.t_uint8, 'Battery calibration days in advance'))
id_tab.append(rct_id(0x6743CCCE, 359, 'battery_placeholder[0].cells_stat[6].t_max.index', rct_id.t_uint8, 'battery_placeholder[0].cells_stat[6].t_max.index'))
id_tab.append(rct_id(0x675776B1, 360, 'dc_conv.dc_conv_struct[1].u_target', rct_id.t_float, 'MPP on input B [V]'))
id_tab.append(rct_id(0x67BF3003, 361, 'display_struct.display_dir', rct_id.t_bool, 'Rotate display'))
id_tab.append(rct_id(0x67C0A2F5, 362, 'net.slave_p_total', rct_id.t_float, 'net.slave_p_total'))
id_tab.append(rct_id(0x682CDDA1, 363, 'power_mng.battery_type', rct_id.t_enum, ''))
id_tab.append(rct_id(0x6830F6E4, 364, 'io_board.rse_table[9]', rct_id.t_float, 'K4..K1: 1001'))
id_tab.append(rct_id(0x68BA92E1, 365, 'io_board.io2_s0_imp_per_kwh', rct_id.t_int16, 'Number of impulses per kWh for S0 signal on I/O 2'))
id_tab.append(rct_id(0x68BC034D, 366, 'parameter_file', rct_id.t_string, 'Norm'))
id_tab.append(rct_id(0x68EEFD3D, 367, 'energy.e_dc_total[1]', rct_id.t_float, 'Solar generator B total energy [Wh]'))
id_tab.append(rct_id(0x690C32D2, 368, 'battery_placeholder[0].module_sn[0]', rct_id.t_string, 'Module 0 Serial Number'))
id_tab.append(rct_id(0x6974798A, 369, 'battery.stack_software_version[6]', rct_id.t_uint32, 'Software version stack 6'))
id_tab.append(rct_id(0x69AA598A, 370, 'can_bus.requested_id', rct_id.t_int32, 'can_bus.requested_id'))
id_tab.append(rct_id(0x69B8FF28, 371, 'battery.cells[2]', rct_id.t_string, 'battery.cells[2]'))
id_tab.append(rct_id(0x6B5A56C2, 372, 'logger.month_eb_log_ts', rct_id.t_int32, 'logger.month_eb_log_ts'))
id_tab.append(rct_id(0x6BA10831, 373, 'db.power_board.afi_i30', rct_id.t_float, 'AFI 30 mA threshold [A]'))
id_tab.append(rct_id(0x6BBDC7C8, 374, 'line_mon.u_max', rct_id.t_float, 'Max line voltage [V]'))
id_tab.append(rct_id(0x6BFF1AF4, 375, 'hw_test.bt_power[2]', rct_id.t_float, 'hw_test.bt_power[2]'))
id_tab.append(rct_id(0x6C03F5ED, 376, 'battery_placeholder[0].bms_power_version', rct_id.t_uint32, 'Software version BMS Power'))
id_tab.append(rct_id(0x6C10E96A, 377, 'battery_placeholder[0].cells_stat[0].u_min.time', rct_id.t_uint32, 'battery_placeholder[0].cells_stat[0].u_min.time'))
id_tab.append(rct_id(0x6C243F71, 378, 'modbus.address', rct_id.t_uint8, 'RS485 address'))
id_tab.append(rct_id(0x6C2D00E4, 379, 'io_board.rse_table[1]', rct_id.t_float, 'K4..K1: 0001'))
id_tab.append(rct_id(0x6C44F721, 380, 'i_dc_max', rct_id.t_float, 'Max. DC-component of Iac [A]'))
id_tab.append(rct_id(0x6CFCD774, 381, 'energy.e_dc_year_sum[1]', rct_id.t_float, 'energy.e_dc_year_sum[1]'))
id_tab.append(rct_id(0x6D5318C8, 382, 'cs_map[1]', rct_id.t_uint8, 'Associate current sensor 1 with phase L'))
id_tab.append(rct_id(0x6D639C25, 383, 'battery_placeholder[0].cells_stat[0].t_min.value', rct_id.t_float, 'battery_placeholder[0].cells_stat[0].t_min.value'))
id_tab.append(rct_id(0x6D7C0BF4, 384, 'wifi.sockb_port', rct_id.t_int32, 'Port'))
id_tab.append(rct_id(0x6DB1FDDC, 385, 'battery.cells_stat[4].u_min.value', rct_id.t_float, 'battery.cells_stat[4].u_min.value'))
id_tab.append(rct_id(0x6DCC4097, 386, 'net.master_timeout', rct_id.t_float, 'net.master_timeout'))
id_tab.append(rct_id(0x6E1C5B78, 387, 'g_sync.p_ac_lp[1]', rct_id.t_float, 'AC power phase 2 [W]'))
id_tab.append(rct_id(0x6E24632E, 388, 'battery.cells_stat[5].u_max.time', rct_id.t_uint32, 'battery.cells_stat[5].u_max.time'))
id_tab.append(rct_id(0x6E3336A8, 389, 'battery_placeholder[0].cells_stat[5].t_max.index', rct_id.t_uint8, 'battery_placeholder[0].cells_stat[5].t_max.index'))
id_tab.append(rct_id(0x6E491B50, 390, 'battery.maximum_charge_voltage', rct_id.t_float, 'Max. charge voltage [V]'))
id_tab.append(rct_id(0x6F3876BC, 391, 'logger.error_log_time_stamp', rct_id.t_int32, 'Time stamp for error log reading'))
id_tab.append(rct_id(0x6FB2E2BF, 392, 'db.power_board.afi_i150', rct_id.t_float, 'AFI 150 mA threshold [A]'))
id_tab.append(rct_id(0x6FD36B32, 393, 'rb485.f_wr[1]', rct_id.t_float, 'Power Storage phase 2 frequency [Hz]'))
id_tab.append(rct_id(0x6FF4BD55, 394, 'energy.e_ext_month_sum', rct_id.t_float, 'energy.e_ext_month_sum'))
id_tab.append(rct_id(0x701A0482, 395, 'dc_conv.dc_conv_struct[0].enabled', rct_id.t_bool, 'Solar generator A connected'))
id_tab.append(rct_id(0x70349444, 396, 'battery.cells_stat[1].t_min.index', rct_id.t_uint8, 'battery.cells_stat[1].t_min.index'))
id_tab.append(rct_id(0x70A2AF4F, 397, 'battery.bat_status', rct_id.t_int32, 'battery.bat_status'))
id_tab.append(rct_id(0x70BD7C46, 398, 'logger.year_eac_log_ts', rct_id.t_int32, 'logger.year_eac_log_ts'))
id_tab.append(rct_id(0x70E28322, 399, 'grid_mon[0].f_under.time', rct_id.t_float, 'Min. frequency switch-off time level 1 [s]'))
id_tab.append(rct_id(0x71196579, 400, 'battery.cells_stat[5].t_min.index', rct_id.t_uint8, 'battery.cells_stat[5].t_min.index'))
id_tab.append(rct_id(0x71277E71, 401, 'frt.u_min_begin', rct_id.t_float, 'FRT begin undervoltage threshold [V]'))
id_tab.append(rct_id(0x71465EAF, 402, 'nsm.cos_phi_ts', rct_id.t_float, 'Time const for filter [s]'))
id_tab.append(rct_id(0x715C84A1, 403, 'adc.u_ref_1_5v[2]', rct_id.t_uint16, 'Reference voltage 3 [V]'))
id_tab.append(rct_id(0x71765BD8, 404, 'battery.status', rct_id.t_int32, 'Battery status'))
id_tab.append(rct_id(0x71B70DCE, 405, 'hw_test.bt_power[4]', rct_id.t_float, 'hw_test.bt_power[4]'))
id_tab.append(rct_id(0x71CB0B57, 406, 'battery.cells_resist[1]', rct_id.t_string, 'battery.cells_resist[1]'))
id_tab.append(rct_id(0x71E10B51, 407, 'g_sync.p_ac_lp[0]', rct_id.t_float, 'AC power phase 1 [W]'))
id_tab.append(rct_id(0x7232F7AF, 408, 'nsm.apm', rct_id.t_enum, 'nsm.apm'))
id_tab.append(rct_id(0x7268CE4D, 409, 'battery.inv_cmd', rct_id.t_uint32, 'battery.inv_cmd'))
id_tab.append(rct_id(0x72ACC0BF, 410, 'logger.minutes_ua_log_ts', rct_id.t_int32, 'logger.minutes_ua_log_ts'))
id_tab.append(rct_id(0x7301A5A7, 411, 'flash_rtc.time_stamp_factory', rct_id.t_uint32, 'Production date'))
id_tab.append(rct_id(0x73489528, 412, 'battery.module_sn[2]', rct_id.t_string, 'Module 2 Serial Number'))
id_tab.append(rct_id(0x73E3ED49, 413, 'prim_sm.island_max_trials', rct_id.t_uint16, 'Max island trials'))
id_tab.append(rct_id(0x742966A6, 414, 'db.power_board.afi_i300', rct_id.t_float, 'AFI 300 mA threshold [A]'))
id_tab.append(rct_id(0x74FD4609, 415, 'battery.cells_stat[2]', rct_id.t_string, 'battery.cells_stat[2]'))
id_tab.append(rct_id(0x751E80CA, 416, 'prim_sm.island_reset_retrials_operation_time', rct_id.t_float, ''))
id_tab.append(rct_id(0x75898A45, 417, 'battery_placeholder[0].cells_stat[5].t_max.time', rct_id.t_uint32, 'battery_placeholder[0].cells_stat[5].t_max.time'))
id_tab.append(rct_id(0x75AE19ED, 418, 'hw_test.hw_switch_time', rct_id.t_float, 'hw_test.hw_switch_time'))
id_tab.append(rct_id(0x7689BE6A, 419, 'io_board.home_relay_sw_on_delay', rct_id.t_float, 'Switching on delay [s]'))
id_tab.append(rct_id(0x76C9A0BD, 420, 'logger.minutes_soc_targ_log_ts', rct_id.t_int32, 'logger.minutes_soc_targ_log_ts'))
id_tab.append(rct_id(0x76CAA9BF, 421, 'wifi.encryption_algorithm', rct_id.t_string, 'wifi.encryption_algorithm'))
id_tab.append(rct_id(0x770A6E7C, 422, 'battery.cells_stat[0].u_max.index', rct_id.t_uint8, 'battery.cells_stat[0].u_max.index'))
id_tab.append(rct_id(0x777DC0EB, 423, 'iso_struct.r_min', rct_id.t_float, 'Minimum allowed insulation resistance [Ohm]'))
id_tab.append(rct_id(0x77A9480F, 424, 'battery_placeholder[0].minimum_discharge_voltage', rct_id.t_float, 'Min. discharge voltage [V]'))
id_tab.append(rct_id(0x77DD4364, 425, 'hw_test.bt_time[5]', rct_id.t_float, 'hw_test.bt_time[5]'))
id_tab.append(rct_id(0x77E5CEF1, 426, 'battery_placeholder[0].stack_software_version[0]', rct_id.t_uint32, 'Software version stack 0'))
id_tab.append(rct_id(0x78228507, 427, 'battery_placeholder[0].stack_cycles[6]', rct_id.t_uint16, 'battery_placeholder[0].stack_cycles[6]'))
id_tab.append(rct_id(0x7839EBCB, 428, 'battery_placeholder[0].cells_stat[3].u_min.time', rct_id.t_uint32, 'battery_placeholder[0].cells_stat[3].u_min.time'))
id_tab.append(rct_id(0x7924ABD9, 429, 'inverter_sn', rct_id.t_string, 'Serial number'))
id_tab.append(rct_id(0x792897C9, 430, 'battery_placeholder[0].cells_stat[4].t_min.time', rct_id.t_uint32, 'battery_placeholder[0].cells_stat[4].t_min.time'))
id_tab.append(rct_id(0x792A7B79, 431, 'io_board.s0_direction', rct_id.t_enum, 'S0 inputs single or bidirectional'))
id_tab.append(rct_id(0x7940547B, 432, 'inv_struct.force_dh', rct_id.t_bool, 'inv_struct.force_dh'))
id_tab.append(rct_id(0x7946D888, 433, 'i_dc_slow_time', rct_id.t_float, 'Time for slow DC-component of Iac [s]'))
id_tab.append(rct_id(0x79C0A724, 434, 'energy.e_ac_total_sum', rct_id.t_float, 'energy.e_ac_total_sum'))
id_tab.append(rct_id(0x79D7D617, 435, 'battery_placeholder[0].current', rct_id.t_float, 'Battery current [A]'))
id_tab.append(rct_id(0x79E66CDF, 436, 'battery_placeholder[0].cells_stat[6].t_min.index', rct_id.t_uint8, 'battery_placeholder[0].cells_stat[6].t_min.index'))
id_tab.append(rct_id(0x7A5C91F8, 437, 'nsm.p_u[1][0]', rct_id.t_float, 'Point 2 P/Pn'))
id_tab.append(rct_id(0x7A67E33B, 438, 'can_bus.bms_update_response[1]', rct_id.t_uint32, 'can_bus.bms_update_response[1]'))
id_tab.append(rct_id(0x7A9091EA, 439, 'rb485.u_l_grid[1]', rct_id.t_float, 'Grid phase 2 voltage [V]'))
id_tab.append(rct_id(0x7AB9B045, 440, 'energy.e_dc_month[1]', rct_id.t_float, 'Solar generator B month energy [Wh]'))
id_tab.append(rct_id(0x7AE87E39, 441, 'partition[2].last_id', rct_id.t_int32, 'partition[2].last_id'))
id_tab.append(rct_id(0x7AF0AD03, 442, 'power_mng.schedule[9]', rct_id.t_string, 'power_mng.schedule[9]'))
id_tab.append(rct_id(0x7AF779C1, 443, 'nsm.pu_mode', rct_id.t_bool, 'P(U) mode 0: Pn 1: Pload'))
id_tab.append(rct_id(0x7B1F7FBE, 444, 'wifi.gateway', rct_id.t_string, 'Gateway'))
id_tab.append(rct_id(0x7B8E811E, 445, 'battery_placeholder[0].cells_stat[6]', rct_id.t_string, 'battery_placeholder[0].cells_stat[6]'))
id_tab.append(rct_id(0x7BF3886B, 446, 'battery_placeholder[0].stack_cycles[2]', rct_id.t_uint16, 'battery_placeholder[0].stack_cycles[2]'))
id_tab.append(rct_id(0x7C0827C5, 447, 'partition[5].last_id', rct_id.t_int32, 'partition[5].last_id'))
id_tab.append(rct_id(0x7C556C7A, 448, 'io_board.io2_polarity', rct_id.t_bool, 'Inverted signal on input I/O 2'))
id_tab.append(rct_id(0x7C78CBAC, 449, 'g_sync.q_ac_sum_lp', rct_id.t_float, 'Reactive power [var]'))
id_tab.append(rct_id(0x7C863EDB, 450, 'battery_placeholder[0].cells[3]', rct_id.t_string, 'battery_placeholder[0].cells[3]'))
id_tab.append(rct_id(0x7D839AE6, 451, 'battery_placeholder[0].cells_resist[2]', rct_id.t_string, 'battery_placeholder[0].cells_resist[2]'))
id_tab.append(rct_id(0x7DA7D8B6, 452, 'db.power_board.version_main', rct_id.t_uint32, 'PIC software version'))
id_tab.append(rct_id(0x7DDE352B, 453, 'wifi.sockb_ip', rct_id.t_string, 'wifi.sockb_ip'))
id_tab.append(rct_id(0x7E096024, 454, 'energy.e_load_total_sum', rct_id.t_float, 'energy.e_load_total_sum'))
id_tab.append(rct_id(0x7E590128, 455, 'battery.cells_stat[0].u_max.time', rct_id.t_uint32, 'battery.cells_stat[0].u_max.time'))
id_tab.append(rct_id(0x7E75B17A, 456, 'nsm.q_u_max_u_high_rel', rct_id.t_float, 'Qmax at upper voltage level relative to Smax (positive = overexcited)'))
id_tab.append(rct_id(0x7F42BB82, 457, 'battery.cells_stat[6].u_max.index', rct_id.t_uint8, 'battery.cells_stat[6].u_max.index'))
id_tab.append(rct_id(0x7F813D73, 458, 'fault[3].flt', rct_id.t_uint32, 'Error bit field 4'))
id_tab.append(rct_id(0x7FF6252C, 459, 'battery.cells_stat[5].t_max.time', rct_id.t_uint32, 'battery.cells_stat[5].t_max.time'))
id_tab.append(rct_id(0x804A3266, 460, 'battery.cells_stat[6].u_max.value', rct_id.t_float, 'battery.cells_stat[6].u_max.value'))
id_tab.append(rct_id(0x80835476, 461, 'db.power_board.adc_p5V_W_meas', rct_id.t_float, 'db.power_board.adc_p5V_W_meas'))
id_tab.append(rct_id(0x8128228D, 462, 'battery_placeholder[0].cells_stat[1].u_max.value', rct_id.t_float, 'battery_placeholder[0].cells_stat[1].u_max.value'))
id_tab.append(rct_id(0x812E5ADD, 463, 'energy.e_dc_total_sum[1]', rct_id.t_float, 'energy.e_dc_total_sum[1]'))
id_tab.append(rct_id(0x8160539D, 464, 'battery.cells_stat[4].t_max.value', rct_id.t_float, 'battery.cells_stat[4].t_max.value'))
id_tab.append(rct_id(0x81AE960B, 465, 'energy.e_dc_month[0]', rct_id.t_float, 'Solar generator A month energy [Wh]'))
id_tab.append(rct_id(0x81AF854E, 466, 'nsm.pu_use', rct_id.t_bool, 'P(U) active'))
id_tab.append(rct_id(0x82258C01, 467, 'cs_neg[0]', rct_id.t_float, 'Multiply value of the current sensor 0 by'))
id_tab.append(rct_id(0x82CD1525, 468, 'grid_mon[1].u_under.threshold', rct_id.t_float, 'Min. voltage level 2 [V]'))
id_tab.append(rct_id(0x82E3C121, 469, 'g_sync.q_ac[1]', rct_id.t_float, ''))
id_tab.append(rct_id(0x8320B84C, 470, 'io_board.rse_data_delay', rct_id.t_float, 'Delay for new K4..K1 data [s]'))
id_tab.append(rct_id(0x8352F9DD, 471, 'battery_placeholder[0].cells_stat[4].t_min.value', rct_id.t_float, 'battery_placeholder[0].cells_stat[4].t_min.value'))
id_tab.append(rct_id(0x83A5333A, 472, 'nsm.cos_phi_p[0][0]', rct_id.t_float, 'Point 1 [P/Pn]'))
id_tab.append(rct_id(0x83BBEF0B, 473, 'frt.u_max_begin', rct_id.t_float, 'FRT begin overvoltage threshold [V]'))
id_tab.append(rct_id(0x84ABE3D8, 474, 'energy.e_grid_feed_year_sum', rct_id.t_float, 'energy.e_grid_feed_year_sum'))
id_tab.append(rct_id(0x85886E2E, 475, 'p_rec_lim[0]', rct_id.t_float, 'Max. compensation power [W]'))
id_tab.append(rct_id(0x8594D11E, 476, 'battery_placeholder[0].module_sn[6]', rct_id.t_string, 'Module 6 Serial Number'))
id_tab.append(rct_id(0x86782D58, 477, 'hw_test.bt_power[9]', rct_id.t_float, 'hw_test.bt_power[9]'))
id_tab.append(rct_id(0x867DEF7D, 478, 'energy.e_grid_load_day', rct_id.t_float, 'Day energy grid load [Wh]'))
id_tab.append(rct_id(0x872F380B, 479, 'io_board.load_set', rct_id.t_float, 'Dummy household load [W]'))
id_tab.append(rct_id(0x87E4387A, 480, 'current_sensor_max', rct_id.t_float, 'Power Sensor current range [A]'))
id_tab.append(rct_id(0x8822EF35, 481, 'battery_placeholder[0].stack_software_version[2]', rct_id.t_uint32, 'Software version stack 2'))
id_tab.append(rct_id(0x883DE9AB, 482, 'g_sync.s_ac_lp[2]', rct_id.t_float, 'Apparent power phase 3 [VA]'))
id_tab.append(rct_id(0x885BB57E, 483, 'battery.cells_stat[6].t_min.value', rct_id.t_float, 'battery.cells_stat[6].t_min.value'))
id_tab.append(rct_id(0x887D43C4, 484, 'g_sync.i_dr_lp[0]', rct_id.t_float, 'Current phase 1 (average) [A]'))
id_tab.append(rct_id(0x889DC27F, 485, 'battery.cells_stat[0].u_min.value', rct_id.t_float, 'battery.cells_stat[0].u_min.value'))
id_tab.append(rct_id(0x88BBF8CB, 486, 'battery.cells_stat[5].t_min.value', rct_id.t_float, 'battery.cells_stat[5].t_min.value'))
id_tab.append(rct_id(0x88C9707B, 487, 'io_board.rse_table[15]', rct_id.t_float, 'K4..K1: 1111'))
id_tab.append(rct_id(0x88DEBCFE, 488, 'nsm.q_u_max_u_high', rct_id.t_float, 'Qmax at upper voltage level [var] (positive = overexcited)'))
id_tab.append(rct_id(0x88DFDE8B, 489, 'frt.u_max_end', rct_id.t_float, 'FRT end overvoltage threshold [V]'))
id_tab.append(rct_id(0x88F36D45, 490, 'io_board.rse_data', rct_id.t_uint8, 'Actual K4..K1 data'))
id_tab.append(rct_id(0x89B21223, 491, 'frt.t_max[0]', rct_id.t_float, 'Point 1 time [s]'))
id_tab.append(rct_id(0x89B25F4B, 492, 'battery.stack_cycles[3]', rct_id.t_uint16, 'battery.stack_cycles[3]'))
id_tab.append(rct_id(0x89EE3EB5, 493, 'g_sync.i_dr_eff[0]', rct_id.t_float, 'Current phase 1 [A]'))
id_tab.append(rct_id(0x8A18539B, 494, 'g_sync.u_zk_sum_avg', rct_id.t_float, 'DC link voltage [V]'))
id_tab.append(rct_id(0x8AFD1410, 495, 'battery_placeholder[0].stack_cycles[4]', rct_id.t_uint16, 'battery_placeholder[0].stack_cycles[4]'))
id_tab.append(rct_id(0x8B4BE168, 496, 'battery_placeholder[0].soc', rct_id.t_float, 'SOC (State of charge)'))
id_tab.append(rct_id(0x8B9FF008, 497, 'battery.soc_target', rct_id.t_float, 'Target SOC'))
id_tab.append(rct_id(0x8BB08839, 498, 'battery.cells_stat[6].t_min.time', rct_id.t_uint32, 'battery.cells_stat[6].t_min.time'))
id_tab.append(rct_id(0x8C6E28E4, 499, 'battery_placeholder[0].cells_stat[2].t_max.time', rct_id.t_uint32, 'battery_placeholder[0].cells_stat[2].t_max.time'))
id_tab.append(rct_id(0x8CA00014, 500, 'wifi.result', rct_id.t_int8, 'WiFi result'))
id_tab.append(rct_id(0x8D33B6BC, 501, 'nsm.f_low_exit', rct_id.t_float, 'Exit frequency for P(f) under-frequency mode [Hz]'))
id_tab.append(rct_id(0x8D8E19F7, 502, 'line_mon.u_min', rct_id.t_float, 'Min line voltage [V]'))
id_tab.append(rct_id(0x8DD1C728, 503, 'dc_conv.dc_conv_struct[1].mpp.enable_scan', rct_id.t_bool, 'Enable rescan for global MPP on solar generator B'))
id_tab.append(rct_id(0x8DFFDD33, 504, 'battery.cells_stat[3].u_min.time', rct_id.t_uint32, 'battery.cells_stat[3].u_min.time'))
id_tab.append(rct_id(0x8E41FC47, 505, 'iso_struct.Rp', rct_id.t_float, 'Insulation resistance on positive DC input [Ohm]'))
id_tab.append(rct_id(0x8EBF9574, 506, 'power_mng.soc_min_island', rct_id.t_float, 'Min SOC target (island)'))
id_tab.append(rct_id(0x8EC23427, 507, 'battery.cells_stat[4].u_max.time', rct_id.t_uint32, 'battery.cells_stat[4].u_max.time'))
id_tab.append(rct_id(0x8EC4116E, 508, 'display_struct.blink', rct_id.t_bool, 'Display blinking enable'))