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|
%global _empty_manifest_terminate_build 0
Name: python-huawei-solar
Version: 2.2.6
Release: 1
Summary: A Python wrapper for the Huawei Inverter modbus TCP API
License: MIT License
URL: https://gitlab.com/EmilV2/huawei-solar
Source0: https://mirrors.aliyun.com/pypi/web/packages/e6/db/f4407b71756ad0063b4b2f0f5968a122a266f684b5b270763fd05ad1baf0/huawei-solar-2.2.6.tar.gz
BuildArch: noarch
Requires: python3-pymodbus
Requires: python3-pyserial-asyncio
Requires: python3-backoff
Requires: python3-pytz
Requires: python3-tox
Requires: python3-pytest
Requires: python3-pytest-asyncio
Requires: python3-black
Requires: python3-pytest-cov
Requires: python3-flake8
Requires: python3-codecov
Requires: python3-mutmut
Requires: python3-pylint
%description
[](https://gitlab.com/Emilv2/huawei-solar/commits/master)
[](https://codecov.io/gl/Emilv2/huawei-solar)
[](https://badge.fury.io/py/huawei-solar)
[](https://pypi.org/project/huawei-solar/)
[](https://choosealicense.com/licenses/mit/)
[](https://github.com/python/black)
# Python library for connecting to Huawei SUN2000 Inverters over Modbus
This library implements an easy to use interface to locally connect to Huawei SUN2000 inverters over
Modbus-TCP or Modbus-RTU following the 'Solar Inverter Modbus Interface Definitions' provided by Huawei.
It was primarily developed to add support for Huawei Solar inverters to Home Assistant, resulting
in the following integration: [wlcrs/huawei_solar](https://github.com/wlcrs/huawei_solar).
**Features:**
- Modbus-TCP support: connecting to the inverter via the SDongle, or over the WiFi-AP (`SUN2000-<serial_no>`)
broadcasted by the inverter
- Modbus-RTU support: connecting to the inverter via the RS485A1 and RS485B1 pins on the COM port
- Batched reading of Modbus registers and converting them into the correct units
- Reading Optimizer data via the specialized 'file' Modbus extension
- Writing to Modbus registers (mostly useful for setting battery parameters)
- Performing the login sequence to gain 'installer'-level access rights
Note t
## Installation
This library is [published on PyPI](https://pypi.org/project/huawei-solar/):
```bash
pip3 install huawei-solar
```
## Basic usage
The library consists out of a low level interface implemented in [huwei_solar.py](src/huawei_solar/huawei_solar.py) which implements all the Modbus-operations, and a high level interface in [bridge.py](src/huawei_solar/bridge.py) which facilitates easy usage (primarily meant for the HA integration).
### Using the high level interface
An example on how to read the most interesting registers from the inverter:
```py
bridge = await HuaweiSolarBridge.create(host="192.168.200.1", port=6607)
print(await bridge.update())
```
This results in the following output being printed:
```
{'input_power': Result(value=82, unit='W'), 'line_voltage_A_B': Result(value=233.4, unit='V'), 'line_voltage_B_C': Result(value=0.0, unit='V'), 'line_voltage_C_A': Result(value=0.0, unit='V'), 'phase_A_voltage': Result(value=247.2, unit='V'), 'phase_B_voltage': Result(value=0.3, unit='V'), 'phase_C_voltage': Result(value=0.0, unit='V'), 'phase_A_current': Result(value=0.408, unit='A'), 'phase_B_current': Result(value=0.0, unit='A'), 'phase_C_current': Result(value=0.0, unit='A'), 'day_active_power_peak': Result(value=2407, unit='W'), 'active_power': Result(value=70, unit='W'), 'reactive_power': Result(value=-1, unit='VA'), 'power_factor': Result(value=1.0, unit=None), 'grid_frequency': Result(value=50.02, unit='Hz'), 'efficiency': Result(value=100.0, unit='%'), 'internal_temperature': Result(value=24.4, unit='°C'), 'insulation_resistance': Result(value=30.0, unit='MOhm'), 'device_status': Result(value='On-grid', unit=None), 'fault_code': Result(value=0, unit=None), 'startup_time': Result(value=datetime.datetime(2022, 11, 18, 9, 2, 40, tzinfo=datetime.timezone.utc), unit=None), 'shutdown_time': Result(value=None, unit=None), 'accumulated_yield_energy': Result(value=3515.62, unit='kWh'), 'daily_yield_energy': Result(value=0.12, unit='kWh'), 'state_1': Result(value=['Grid-Connected', 'Grid-Connected normally'], unit=None), 'state_2': Result(value=['Locked', 'PV connected', 'DSP data collection'], unit=None), 'state_3': Result(value=['On-grid', 'Off-grid switch disabled'], unit=None), 'alarm_1': Result(value=[], unit=None), 'alarm_2': Result(value=[], unit=None), 'alarm_3': Result(value=[], unit=None), 'pv_01_voltage': Result(value=287.8, unit='V'), 'pv_01_current': Result(value=0.0, unit='A'), 'pv_02_voltage': Result(value=0.0, unit='V'), 'pv_02_current': Result(value=0.0, unit='A'), 'nb_online_optimizers': Result(value=10, unit=None), 'grid_A_voltage': Result(value=234.1, unit='V'), 'grid_B_voltage': Result(value=234.1, unit='V'), 'grid_C_voltage': Result(value=233.1, unit='V'), 'active_grid_A_current': Result(value=-0.48, unit='I'), 'active_grid_B_current': Result(value=-0.46, unit='I'), 'active_grid_C_current': Result(value=-0.56, unit='I'), 'power_meter_active_power': Result(value=-151, unit='W'), 'power_meter_reactive_power': Result(value=187, unit='Var'), 'active_grid_power_factor': Result(value=-0.428, unit=None), 'active_grid_frequency': Result(value=50.0, unit='Hz'), 'grid_exported_energy': Result(value=1705.65, unit='kWh'), 'grid_accumulated_energy': Result(value=1048.0, unit='kWh'), 'grid_accumulated_reactive_power': Result(value=0.0, unit='kVarh'), 'meter_type': Result(value=<MeterType.THREE_PHASE: 1>, unit=None), 'active_grid_A_B_voltage': Result(value=405.3, unit='V'), 'active_grid_B_C_voltage': Result(value=404.6, unit='V'), 'active_grid_C_A_voltage': Result(value=404.6, unit='V'), 'active_grid_A_power': Result(value=-72, unit='W'), 'active_grid_B_power': Result(value=-71, unit='W'), 'active_grid_C_power': Result(value=-7, unit='W'), 'storage_state_of_capacity': Result(value=22.0, unit='%'), 'storage_running_status': Result(value=<StorageStatus.RUNNING: 2>, unit=None), 'storage_bus_voltage': Result(value=454.2, unit='V'), 'storage_bus_current': Result(value=0.0, unit='A'), 'storage_charge_discharge_power': Result(value=12, unit='W'), 'storage_total_charge': Result(value=1094.26, unit='kWh'), 'storage_total_discharge': Result(value=1049.3, unit='kWh'), 'storage_current_day_charge_capacity': Result(value=0.39, unit='kWh'), 'storage_current_day_discharge_capacity': Result(value=0.15, unit='kWh')}
```
### Using the low level interface
Example code:
```py
from huawei_solar import AsyncHuaweiSolar, register_names as rn
slave_id = 0
client = await AsyncHuaweiSolar.create("192.168.200.1", 6607, slave_id)
# Reading a single register
result = await bridge.client.get(rn.NB_PV_STRINGS, slave_id)
print("Number of PV strings: ", result.value)
# Batched reading of multiple registers
# Only possible when they are located closely to each other in the Modbus register space
results = await self.client.get_multiple([rn.LINE_VOLTAGE_A_B, rn.LINE_VOLTAGE_B_C, rn.LINE_VOLTAGE_C_A], self.slave_id)
print("A-B voltage: ", results[0].value)
print("B-C voltage: ", results[1].value)
print("C-A voltage: ", results[2].value)
```
A good starting point to learn how to use the low level interface is to look at how the high level interface in
[bridge.py](src/huawei_solar/bridge.py) uses it.
# Acknowledgements
The initial implementation of v1 was done by [@Emilv2](https://gitlab.com/Emilv2/huawei-solar/-/tree/1.1.0).
Subsequent developement on v2 was done by [@wlcrs](https://github.com/wlcrs/huawei_solar).
%package -n python3-huawei-solar
Summary: A Python wrapper for the Huawei Inverter modbus TCP API
Provides: python-huawei-solar
BuildRequires: python3-devel
BuildRequires: python3-setuptools
BuildRequires: python3-pip
%description -n python3-huawei-solar
[](https://gitlab.com/Emilv2/huawei-solar/commits/master)
[](https://codecov.io/gl/Emilv2/huawei-solar)
[](https://badge.fury.io/py/huawei-solar)
[](https://pypi.org/project/huawei-solar/)
[](https://choosealicense.com/licenses/mit/)
[](https://github.com/python/black)
# Python library for connecting to Huawei SUN2000 Inverters over Modbus
This library implements an easy to use interface to locally connect to Huawei SUN2000 inverters over
Modbus-TCP or Modbus-RTU following the 'Solar Inverter Modbus Interface Definitions' provided by Huawei.
It was primarily developed to add support for Huawei Solar inverters to Home Assistant, resulting
in the following integration: [wlcrs/huawei_solar](https://github.com/wlcrs/huawei_solar).
**Features:**
- Modbus-TCP support: connecting to the inverter via the SDongle, or over the WiFi-AP (`SUN2000-<serial_no>`)
broadcasted by the inverter
- Modbus-RTU support: connecting to the inverter via the RS485A1 and RS485B1 pins on the COM port
- Batched reading of Modbus registers and converting them into the correct units
- Reading Optimizer data via the specialized 'file' Modbus extension
- Writing to Modbus registers (mostly useful for setting battery parameters)
- Performing the login sequence to gain 'installer'-level access rights
Note t
## Installation
This library is [published on PyPI](https://pypi.org/project/huawei-solar/):
```bash
pip3 install huawei-solar
```
## Basic usage
The library consists out of a low level interface implemented in [huwei_solar.py](src/huawei_solar/huawei_solar.py) which implements all the Modbus-operations, and a high level interface in [bridge.py](src/huawei_solar/bridge.py) which facilitates easy usage (primarily meant for the HA integration).
### Using the high level interface
An example on how to read the most interesting registers from the inverter:
```py
bridge = await HuaweiSolarBridge.create(host="192.168.200.1", port=6607)
print(await bridge.update())
```
This results in the following output being printed:
```
{'input_power': Result(value=82, unit='W'), 'line_voltage_A_B': Result(value=233.4, unit='V'), 'line_voltage_B_C': Result(value=0.0, unit='V'), 'line_voltage_C_A': Result(value=0.0, unit='V'), 'phase_A_voltage': Result(value=247.2, unit='V'), 'phase_B_voltage': Result(value=0.3, unit='V'), 'phase_C_voltage': Result(value=0.0, unit='V'), 'phase_A_current': Result(value=0.408, unit='A'), 'phase_B_current': Result(value=0.0, unit='A'), 'phase_C_current': Result(value=0.0, unit='A'), 'day_active_power_peak': Result(value=2407, unit='W'), 'active_power': Result(value=70, unit='W'), 'reactive_power': Result(value=-1, unit='VA'), 'power_factor': Result(value=1.0, unit=None), 'grid_frequency': Result(value=50.02, unit='Hz'), 'efficiency': Result(value=100.0, unit='%'), 'internal_temperature': Result(value=24.4, unit='°C'), 'insulation_resistance': Result(value=30.0, unit='MOhm'), 'device_status': Result(value='On-grid', unit=None), 'fault_code': Result(value=0, unit=None), 'startup_time': Result(value=datetime.datetime(2022, 11, 18, 9, 2, 40, tzinfo=datetime.timezone.utc), unit=None), 'shutdown_time': Result(value=None, unit=None), 'accumulated_yield_energy': Result(value=3515.62, unit='kWh'), 'daily_yield_energy': Result(value=0.12, unit='kWh'), 'state_1': Result(value=['Grid-Connected', 'Grid-Connected normally'], unit=None), 'state_2': Result(value=['Locked', 'PV connected', 'DSP data collection'], unit=None), 'state_3': Result(value=['On-grid', 'Off-grid switch disabled'], unit=None), 'alarm_1': Result(value=[], unit=None), 'alarm_2': Result(value=[], unit=None), 'alarm_3': Result(value=[], unit=None), 'pv_01_voltage': Result(value=287.8, unit='V'), 'pv_01_current': Result(value=0.0, unit='A'), 'pv_02_voltage': Result(value=0.0, unit='V'), 'pv_02_current': Result(value=0.0, unit='A'), 'nb_online_optimizers': Result(value=10, unit=None), 'grid_A_voltage': Result(value=234.1, unit='V'), 'grid_B_voltage': Result(value=234.1, unit='V'), 'grid_C_voltage': Result(value=233.1, unit='V'), 'active_grid_A_current': Result(value=-0.48, unit='I'), 'active_grid_B_current': Result(value=-0.46, unit='I'), 'active_grid_C_current': Result(value=-0.56, unit='I'), 'power_meter_active_power': Result(value=-151, unit='W'), 'power_meter_reactive_power': Result(value=187, unit='Var'), 'active_grid_power_factor': Result(value=-0.428, unit=None), 'active_grid_frequency': Result(value=50.0, unit='Hz'), 'grid_exported_energy': Result(value=1705.65, unit='kWh'), 'grid_accumulated_energy': Result(value=1048.0, unit='kWh'), 'grid_accumulated_reactive_power': Result(value=0.0, unit='kVarh'), 'meter_type': Result(value=<MeterType.THREE_PHASE: 1>, unit=None), 'active_grid_A_B_voltage': Result(value=405.3, unit='V'), 'active_grid_B_C_voltage': Result(value=404.6, unit='V'), 'active_grid_C_A_voltage': Result(value=404.6, unit='V'), 'active_grid_A_power': Result(value=-72, unit='W'), 'active_grid_B_power': Result(value=-71, unit='W'), 'active_grid_C_power': Result(value=-7, unit='W'), 'storage_state_of_capacity': Result(value=22.0, unit='%'), 'storage_running_status': Result(value=<StorageStatus.RUNNING: 2>, unit=None), 'storage_bus_voltage': Result(value=454.2, unit='V'), 'storage_bus_current': Result(value=0.0, unit='A'), 'storage_charge_discharge_power': Result(value=12, unit='W'), 'storage_total_charge': Result(value=1094.26, unit='kWh'), 'storage_total_discharge': Result(value=1049.3, unit='kWh'), 'storage_current_day_charge_capacity': Result(value=0.39, unit='kWh'), 'storage_current_day_discharge_capacity': Result(value=0.15, unit='kWh')}
```
### Using the low level interface
Example code:
```py
from huawei_solar import AsyncHuaweiSolar, register_names as rn
slave_id = 0
client = await AsyncHuaweiSolar.create("192.168.200.1", 6607, slave_id)
# Reading a single register
result = await bridge.client.get(rn.NB_PV_STRINGS, slave_id)
print("Number of PV strings: ", result.value)
# Batched reading of multiple registers
# Only possible when they are located closely to each other in the Modbus register space
results = await self.client.get_multiple([rn.LINE_VOLTAGE_A_B, rn.LINE_VOLTAGE_B_C, rn.LINE_VOLTAGE_C_A], self.slave_id)
print("A-B voltage: ", results[0].value)
print("B-C voltage: ", results[1].value)
print("C-A voltage: ", results[2].value)
```
A good starting point to learn how to use the low level interface is to look at how the high level interface in
[bridge.py](src/huawei_solar/bridge.py) uses it.
# Acknowledgements
The initial implementation of v1 was done by [@Emilv2](https://gitlab.com/Emilv2/huawei-solar/-/tree/1.1.0).
Subsequent developement on v2 was done by [@wlcrs](https://github.com/wlcrs/huawei_solar).
%package help
Summary: Development documents and examples for huawei-solar
Provides: python3-huawei-solar-doc
%description help
[](https://gitlab.com/Emilv2/huawei-solar/commits/master)
[](https://codecov.io/gl/Emilv2/huawei-solar)
[](https://badge.fury.io/py/huawei-solar)
[](https://pypi.org/project/huawei-solar/)
[](https://choosealicense.com/licenses/mit/)
[](https://github.com/python/black)
# Python library for connecting to Huawei SUN2000 Inverters over Modbus
This library implements an easy to use interface to locally connect to Huawei SUN2000 inverters over
Modbus-TCP or Modbus-RTU following the 'Solar Inverter Modbus Interface Definitions' provided by Huawei.
It was primarily developed to add support for Huawei Solar inverters to Home Assistant, resulting
in the following integration: [wlcrs/huawei_solar](https://github.com/wlcrs/huawei_solar).
**Features:**
- Modbus-TCP support: connecting to the inverter via the SDongle, or over the WiFi-AP (`SUN2000-<serial_no>`)
broadcasted by the inverter
- Modbus-RTU support: connecting to the inverter via the RS485A1 and RS485B1 pins on the COM port
- Batched reading of Modbus registers and converting them into the correct units
- Reading Optimizer data via the specialized 'file' Modbus extension
- Writing to Modbus registers (mostly useful for setting battery parameters)
- Performing the login sequence to gain 'installer'-level access rights
Note t
## Installation
This library is [published on PyPI](https://pypi.org/project/huawei-solar/):
```bash
pip3 install huawei-solar
```
## Basic usage
The library consists out of a low level interface implemented in [huwei_solar.py](src/huawei_solar/huawei_solar.py) which implements all the Modbus-operations, and a high level interface in [bridge.py](src/huawei_solar/bridge.py) which facilitates easy usage (primarily meant for the HA integration).
### Using the high level interface
An example on how to read the most interesting registers from the inverter:
```py
bridge = await HuaweiSolarBridge.create(host="192.168.200.1", port=6607)
print(await bridge.update())
```
This results in the following output being printed:
```
{'input_power': Result(value=82, unit='W'), 'line_voltage_A_B': Result(value=233.4, unit='V'), 'line_voltage_B_C': Result(value=0.0, unit='V'), 'line_voltage_C_A': Result(value=0.0, unit='V'), 'phase_A_voltage': Result(value=247.2, unit='V'), 'phase_B_voltage': Result(value=0.3, unit='V'), 'phase_C_voltage': Result(value=0.0, unit='V'), 'phase_A_current': Result(value=0.408, unit='A'), 'phase_B_current': Result(value=0.0, unit='A'), 'phase_C_current': Result(value=0.0, unit='A'), 'day_active_power_peak': Result(value=2407, unit='W'), 'active_power': Result(value=70, unit='W'), 'reactive_power': Result(value=-1, unit='VA'), 'power_factor': Result(value=1.0, unit=None), 'grid_frequency': Result(value=50.02, unit='Hz'), 'efficiency': Result(value=100.0, unit='%'), 'internal_temperature': Result(value=24.4, unit='°C'), 'insulation_resistance': Result(value=30.0, unit='MOhm'), 'device_status': Result(value='On-grid', unit=None), 'fault_code': Result(value=0, unit=None), 'startup_time': Result(value=datetime.datetime(2022, 11, 18, 9, 2, 40, tzinfo=datetime.timezone.utc), unit=None), 'shutdown_time': Result(value=None, unit=None), 'accumulated_yield_energy': Result(value=3515.62, unit='kWh'), 'daily_yield_energy': Result(value=0.12, unit='kWh'), 'state_1': Result(value=['Grid-Connected', 'Grid-Connected normally'], unit=None), 'state_2': Result(value=['Locked', 'PV connected', 'DSP data collection'], unit=None), 'state_3': Result(value=['On-grid', 'Off-grid switch disabled'], unit=None), 'alarm_1': Result(value=[], unit=None), 'alarm_2': Result(value=[], unit=None), 'alarm_3': Result(value=[], unit=None), 'pv_01_voltage': Result(value=287.8, unit='V'), 'pv_01_current': Result(value=0.0, unit='A'), 'pv_02_voltage': Result(value=0.0, unit='V'), 'pv_02_current': Result(value=0.0, unit='A'), 'nb_online_optimizers': Result(value=10, unit=None), 'grid_A_voltage': Result(value=234.1, unit='V'), 'grid_B_voltage': Result(value=234.1, unit='V'), 'grid_C_voltage': Result(value=233.1, unit='V'), 'active_grid_A_current': Result(value=-0.48, unit='I'), 'active_grid_B_current': Result(value=-0.46, unit='I'), 'active_grid_C_current': Result(value=-0.56, unit='I'), 'power_meter_active_power': Result(value=-151, unit='W'), 'power_meter_reactive_power': Result(value=187, unit='Var'), 'active_grid_power_factor': Result(value=-0.428, unit=None), 'active_grid_frequency': Result(value=50.0, unit='Hz'), 'grid_exported_energy': Result(value=1705.65, unit='kWh'), 'grid_accumulated_energy': Result(value=1048.0, unit='kWh'), 'grid_accumulated_reactive_power': Result(value=0.0, unit='kVarh'), 'meter_type': Result(value=<MeterType.THREE_PHASE: 1>, unit=None), 'active_grid_A_B_voltage': Result(value=405.3, unit='V'), 'active_grid_B_C_voltage': Result(value=404.6, unit='V'), 'active_grid_C_A_voltage': Result(value=404.6, unit='V'), 'active_grid_A_power': Result(value=-72, unit='W'), 'active_grid_B_power': Result(value=-71, unit='W'), 'active_grid_C_power': Result(value=-7, unit='W'), 'storage_state_of_capacity': Result(value=22.0, unit='%'), 'storage_running_status': Result(value=<StorageStatus.RUNNING: 2>, unit=None), 'storage_bus_voltage': Result(value=454.2, unit='V'), 'storage_bus_current': Result(value=0.0, unit='A'), 'storage_charge_discharge_power': Result(value=12, unit='W'), 'storage_total_charge': Result(value=1094.26, unit='kWh'), 'storage_total_discharge': Result(value=1049.3, unit='kWh'), 'storage_current_day_charge_capacity': Result(value=0.39, unit='kWh'), 'storage_current_day_discharge_capacity': Result(value=0.15, unit='kWh')}
```
### Using the low level interface
Example code:
```py
from huawei_solar import AsyncHuaweiSolar, register_names as rn
slave_id = 0
client = await AsyncHuaweiSolar.create("192.168.200.1", 6607, slave_id)
# Reading a single register
result = await bridge.client.get(rn.NB_PV_STRINGS, slave_id)
print("Number of PV strings: ", result.value)
# Batched reading of multiple registers
# Only possible when they are located closely to each other in the Modbus register space
results = await self.client.get_multiple([rn.LINE_VOLTAGE_A_B, rn.LINE_VOLTAGE_B_C, rn.LINE_VOLTAGE_C_A], self.slave_id)
print("A-B voltage: ", results[0].value)
print("B-C voltage: ", results[1].value)
print("C-A voltage: ", results[2].value)
```
A good starting point to learn how to use the low level interface is to look at how the high level interface in
[bridge.py](src/huawei_solar/bridge.py) uses it.
# Acknowledgements
The initial implementation of v1 was done by [@Emilv2](https://gitlab.com/Emilv2/huawei-solar/-/tree/1.1.0).
Subsequent developement on v2 was done by [@wlcrs](https://github.com/wlcrs/huawei_solar).
%prep
%autosetup -n huawei-solar-2.2.6
%build
%py3_build
%install
%py3_install
install -d -m755 %{buildroot}/%{_pkgdocdir}
if [ -d doc ]; then cp -arf doc %{buildroot}/%{_pkgdocdir}; fi
if [ -d docs ]; then cp -arf docs %{buildroot}/%{_pkgdocdir}; fi
if [ -d example ]; then cp -arf example %{buildroot}/%{_pkgdocdir}; fi
if [ -d examples ]; then cp -arf examples %{buildroot}/%{_pkgdocdir}; fi
pushd %{buildroot}
if [ -d usr/lib ]; then
find usr/lib -type f -printf "\"/%h/%f\"\n" >> filelist.lst
fi
if [ -d usr/lib64 ]; then
find usr/lib64 -type f -printf "\"/%h/%f\"\n" >> filelist.lst
fi
if [ -d usr/bin ]; then
find usr/bin -type f -printf "\"/%h/%f\"\n" >> filelist.lst
fi
if [ -d usr/sbin ]; then
find usr/sbin -type f -printf "\"/%h/%f\"\n" >> filelist.lst
fi
touch doclist.lst
if [ -d usr/share/man ]; then
find usr/share/man -type f -printf "\"/%h/%f.gz\"\n" >> doclist.lst
fi
popd
mv %{buildroot}/filelist.lst .
mv %{buildroot}/doclist.lst .
%files -n python3-huawei-solar -f filelist.lst
%dir %{python3_sitelib}/*
%files help -f doclist.lst
%{_docdir}/*
%changelog
* Thu Jun 08 2023 Python_Bot <Python_Bot@openeuler.org> - 2.2.6-1
- Package Spec generated
|
