nuc-data-tool 4.0.4

an automated processing tool for specific nuclear data

Nuclear Data Automated Processing

An automated processing tool for specific nuclear data.

Demo

Installation

Dependencies

nuc_tool requires:

• SQLAlchemy (>= 1.4.11)
• pandas (>= 1.2.4)
• toml (>= 0.10.2)
• protobuf (>= 3.15.8)
• openpyxl (>= 3.0.7)
• click (>= 7.1.2)
• pycaret (>=2.3.1)
• psycopg2 (>= 2.8.6)
• mysql-connector-python (>= 8.0.23)

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Set up a database

nuc-tool supports 3 different database servers and is officially supported with PostgreSQL, MySQL, and SQLite.
If you’re using PostgreSQL, you’ll need the psycopg2 package.
If you’re using MySQL or MariaDB, you’ll need a DB API driver like mysql-connector-python.
Recommend using docker container to run database servers.
You can refer these two example docker-compose files.

Install nuc-tool

You can install the Nuclear Data Automated Processing tool from PyPI:

pip install nuc-data-tool

The tool is supported on Python 3.8 and above.
And it is supported on postgresql(>= 13), mysql(>= 8.0)

How to use

The config.toml(config file) is distributed with package.
You can copy or download the configration file into the current working directory.
it will overide the default configration.

The Nuclear Data Automated Processing tool is a command line application, named nuctool

> nuctool --help
Usage: python -m nuc_data_tool [OPTIONS] COMMAND [ARGS]...

  app 命令行

Options:
  --version  Show the version and exit.
  --help     Show this message and exit.

Commands:
  compare  对文件列表进行两两组合，进行对比，计算并输出对比结果至工作簿(xlsx文件)...
  extract  从数据库导出选中的文件的数据到工作簿(xlsx文件) 参数为文件列表(默认为所有文件) nuc_data_tool...
  fetch    获取 文件、物理量信息
  pop      将输出文件(*.xml.out) 的内容填充进数据库

Populate database

> nuctool pop --help
Usage: python -m nuc_data_tool pop [OPTIONS]

  将输出文件(*.xml.out) 的内容填充进数据库

Options:
  -p, --path PATH                 输出文件路径，默认读取配置文件中的路径
  -pq, --physical_quantities [isotope|radioactivity|absorption|fission|decay_heat|gamma_spectra]
                                  物理量，默认为全部物理量
  -init, --initiation             初始化数据库
  --help                          Show this message and exit.

The first step has to get those data into the database.
We can specify the data file location with option -p, --path.
The option -pq, --physical_quantities can be input multiple times. So we could focus on the physical quantities we interest in.
Only those physical quantities will be get into the database.
If you want a "fresh new" database, you should append the -init, --initiation option.
It will drop all tables, of course, including data, and then create all tables.

> nuctool pop -p input_file -pq isotope -pq gamma_spectra -init
UO2Flux_CRAM_1ton_100steps:
found:     ['isotope']
not found: ['gamma_spectra']

homo-case001-006:
found:     ['isotope', 'gamma_spectra']
not found: []

View files and physical quantities

> nuctool fetch --help
Usage: python -m nuc_data_tool fetch [OPTIONS]

  获取 文件、物理量信息

Options:
  -f, --file               显示文件信息 NOTE: This argument is mutually exclusive
                           with  arguments: [physical_quantity].

  -p, --physical_quantity  显示物理量信息 NOTE: This argument is mutually exclusive
                           with  arguments: [files].

  -l, --list               以数组形式输出
  --help                   Show this message and exit.

This command is greatly straightforward.
The -f, --file option will list the file names.
The -p, --physical_quantity option will list the physical quantity names.
Attention, they are mutually exclusive to each other.

The last one, -l, --list option could be a combination with one of the above two options.
It affects the display in an array-like format.

> nuctool fetch -f
Name: UO2Flux_CRAM_1ton_100steps
Name: UO2Flux_CRAM_1ton_50steps
Name: homo-case001-006
...

> nuctool fetch -f -l
['UO2Flux_CRAM_1ton_100steps', ... 'homo-case001-006']

> nuctool fetch -p
Name: isotope
Name: gamma_spectra

> nuctool fetch -p -l
['isotope', 'gamma_spectra']

Filter and extract data

> nuctool extract --help
Usage: python -m nuc_data_tool extract [OPTIONS] [FILENAMES]...

  从数据库导出选中的文件的数据到工作簿(xlsx文件)

  参数为文件列表(默认为所有文件)

  nuc_data_tool extract 'homo-case001-006' 'homo-case007-012' 'homo-case013-018'
  nuc_data_tool extract 'homo-case001-006'

  文件名(没有后缀) 例如：001.xml.out -> 001
  文件名列表 例如： 001 002 003

Options:
  -p, --result_path PATH          输出文件路径，默认读取配置文件中的路径
  -pq, --physical_quantities [isotope|radioactivity|absorption|fission|decay_heat|gamma_spectra]
                                  物理量，默认为全部物理量
  -n, --nuclide [decay|fission_light|short_lives]
                                  核素列表，从配置文件 nuclide_list 项下读取，默认
                                  fission_light

  -all, --all_step                提取中间步骤
  -m, --merge                     将结果合并输出至一个文件
  --help                          Show this message and exit.

First, let's talk about the optional argument - FILENAMES.
This argument can accept as many as possible file names.
If you need all of the files, you can simply ignore the argument.
It will make all file names as its own arguments, which is the default behavior.

We can specify the exported file location with option -p, --result_path.
The option -pq, --physical_quantities can be input multiple times. So we could focus on the physical quantities we interest in.
Only those physical quantities will be extracted with data.

> nuctool extract 'homo-case097-102' 'homo-case139-144' -p result

> ls result
homo-case097-102.xlsx  homo-case139-144.xlsx

We filter data by nuclide list with -n, --nuclide option. You can find these details in the config.toml file.

Extracting all steps by using -all, --all_step option, if not, it just extracts the first step and the last step.

> nuctool extract 'homo-case097-102' 'homo-case139-144' -p result -all

> ls result
all_steps_homo-case097-102.xlsx  all_steps_homo-case139-144.xlsx

Appending the -m, --merge option, the extracted data will merge into a single file, instead of one by one file.

> nuctool extract 'homo-case097-102' 'homo-case139-144' -p result -m
> nuctool extract 'homo-case097-102' 'homo-case139-144' -p result -all -m
> ls result
all_steps_final.xlsx  final.xlsx

Compare and extract data

> nuctool compare --help
Usage: python -m nuc_data_tool compare [OPTIONS] REFERENCE_FILE
                                       [COMPARISON_FILES]...

  对文件列表进行两两组合，进行对比，计算并输出对比结果至工作簿(xlsx文件)
  第一个参数为基准文件，第二个参数为文件列表(默认为除基准文件以外的所有文件)

  nuc_data_tool compare 'homo-case001-006' 'homo-case007-012' 'homo-case013-018'
  nuc_data_tool compare 'homo-case001-006'

  文件名(没有后缀) 例如：001.xml.out -> 001
  文件名列表 例如： 001 002 003

Options:
  -p, --result_path PATH          输出文件路径，默认读取配置文件中的路径
  -pq, --physical_quantities [isotope|radioactivity|absorption|fission|decay_heat|gamma_spectra]
                                  物理量，默认为 isotope
  -n, --nuclide [decay|fission_light|short_lives]
                                  核素列表，从配置文件 nuclide_list 项下读取
  -dm, --deviation_mode [relative|absolute]
                                  偏差模式，分为绝对和相对，默认为相对
  -t, --threshold TEXT            偏差阈值，默认1.0E-12
  -all, --all_step                提取中间步骤
  --help                          Show this message and exit.

The last but not least command, we used to compare and extract data.

Like the former command, arguments first.
There are two arguments.
One, REFERENCE_FILE the first argument, is a required argument,
and the other one, COMPARISON_FILES the rest of arguments, is a variadic argument - more specifically, it can accept an unlimited number of arguments.

A little bit difference with FILENAMES argument, the default value of COMPARISON_FILES argument is all of file names, except REFERENCE_FILE argument's value.

You can set one file name as the REFERENCE_FILE, and skip the COMPARISON_FILES.
The nuctool program will compare all rest of the files with the reference file one by one.

We can specify the exported file location with option -p, --result_path.
The option -pq, --physical_quantities can be input multiple times. So we could focus on the physical quantities we interest in.
Only those physical quantities will be campared and extracted.

> nuctool compare 'UO2Flux_CRAM_1ton_50steps' 'homo-case007-012' 'homo-case013-018' -p result
('UO2Flux_CRAM_1ton_50steps', 'homo-case007-012')
('UO2Flux_CRAM_1ton_50steps', 'homo-case013-018')
('homo-case007-012', 'homo-case013-018')

> ls result/comparative_result
relative_1.0E-12_homo-case007-012_vs_homo-case013-018.xlsx
relative_1.0E-12_UO2Flux_CRAM_1ton_50steps_vs_homo-case007-012.xlsx
relative_1.0E-12_UO2Flux_CRAM_1ton_50steps_vs_homo-case013-018.xlsx

Like the former one, we filter data by nuclide list with -n, --nuclide option. You can find these details in the config.toml file.

Same, extracting all steps by using -all, --all_step option, if not, it just extracts the first step and the last step.

> nuctool compare 'UO2Flux_CRAM_1ton_50steps' 'homo-case007-012' 'homo-case013-018' -p result -all
('UO2Flux_CRAM_1ton_50steps', 'homo-case007-012')
('UO2Flux_CRAM_1ton_50steps', 'homo-case013-018')
('homo-case007-012', 'homo-case013-018')

> ls result/comparative_result
all_step_relative_1.0E-12_homo-case007-012_vs_homo-case013-018.xlsx
all_step_relative_1.0E-12_UO2Flux_CRAM_1ton_50steps_vs_homo-case007-012.xlsx
all_step_relative_1.0E-12_UO2Flux_CRAM_1ton_50steps_vs_homo-case013-018.xlsx

There are two deviation mode of calculation. The one is relative mode, the other one is absolute mode.
We use -dm, --deviation_mode option to choose one of them.

> nuctool compare 'UO2Flux_CRAM_1ton_50steps' 'homo-case007-012' 'homo-case013-018' -p result -dm absolute
('UO2Flux_CRAM_1ton_50steps', 'homo-case007-012')
('UO2Flux_CRAM_1ton_50steps', 'homo-case013-018')
('homo-case007-012', 'homo-case013-018')

> ls result/comparative_result
absolute_1.0E-12_homo-case007-012_vs_homo-case013-018.xlsx
absolute_1.0E-12_UO2Flux_CRAM_1ton_50steps_vs_homo-case007-012.xlsx
absolute_1.0E-12_UO2Flux_CRAM_1ton_50steps_vs_homo-case013-018.xlsx

The -t, --threshold option defines the threshold value of calculation.
The default value is 1.0E-12. I think maybe not touching it is a good idea.

> nuctool compare 'UO2Flux_CRAM_1ton_50steps' 'homo-case007-012' 'homo-case013-018' -p result -dm absolute -t 1.0E-10
('UO2Flux_CRAM_1ton_50steps', 'homo-case007-012')
('UO2Flux_CRAM_1ton_50steps', 'homo-case013-018')
('homo-case007-012', 'homo-case013-018')

> ls result/comparative_result
absolute_1.0E-10_homo-case007-012_vs_homo-case013-018.xlsx
absolute_1.0E-10_UO2Flux_CRAM_1ton_50steps_vs_homo-case007-012.xlsx
absolute_1.0E-10_UO2Flux_CRAM_1ton_50steps_vs_homo-case013-018.xlsx

Import as a package.

You can also call the Nuclear Data Automated Processing tool in your own Python code, by importing from the nuc_data_tool package:

>>> from nuc_data_tool.db.fetch_data import fetch_files_by_name
>>> for file in fetch_files_by_name('all'):
...     print(file.name)
... 
UO2Flux_CRAM_1ton_100steps
UO2Flux_CRAM_1ton_10steps
UO2Flux_CRAM_1ton_50steps
homo-case001-006
homo-case007-012
homo-case013-018
...