semvec/pypi-packages huggingface dataset:
xinabox-CW01-CW02-CORE 0.0.1
I2C Core
Requires Python: >=3.6

# Python CORE for CW01 and CW02
MicroPython Core handling I2C communication for **CW01**(ESP8266) and **CW02**(ESP32).

## Instructions ##
- Use [XinaBoxUploader](https://github.com/xinabox/XinaBoxUploader/releases/latest) and flash MicroPython to the CW01/CW02.

## Python IDE ##

### mu-editor ###
Use *mu-editor* (find it here https://codewith.mu) 
- *mu-editor* needs to recognize Product ID: `0x6001` and Vendor ID: `0x0403` - pull request submitted.
- In the meantime use XinaBox version of the *mu-editor* from here: [XinaBox mu-editor](https://github.com/xinabox/mu-editor/releases/latest).

### Visual Studio Code (VSC) ###
Use *VSC* (find it here https://code.visualstudio.com)
- You need a plugin, such as [Pymakr](https://docs.pycom.io/pymakr/installation/vscode/)

### ESPlorer ###
Use *ESPlorer* [ESPlorer](https://github.com/xinabox/ESPlorer/releases/latest)
- This IDE allows you to switch DTR/RTS off - see note regarding CW01 below

### Note using CW01 ###
- The CW01 doesn't have an "auto resetting" circutry on it like the CW02 has, therefore the the CW01 will be stuck in "bootloader" mode when inserted into your computer with a standard IP01. However if you have an old IP01 with switches, then you can bypass that by setting the A-B switch in position `A` when programming the CW01 using mu-editor. And when loading the MicroPython using the [XinaBoxUploader](https://github.com/xinabox/XinaBoxUploader/releases/latest), the switches should be in `B` and `DCE`
- You can also just use an IDE that allows you to control DTR/RTS, such as ESPlorer (see above)
nocton 0.1.3
Um app simples para API's que utiliza django-rest-framework
Requires Python: >=3.0

# **NOCTON**

Nocton é uma extensão que reúne alguns problemas recorrentes nas aplicações django que usam a lógica rest.

Ele foi criado para acelerar o processo de criação de API's utilizando [django-rest-framework](https://github.com/encode/django-rest-framework).


Para utilizá-lo, basta instalá-lo na sua venv através do comando ```pip install nocton```.

Feito isso, é necessário adicioná-lo aos ```INSTALLED_APPS``` no arquivo ```settings.py```. Além disso, crie um dicionário em branco com o nome ```NOCTON``` no mesmo arquivo. É nesse dicionário que as configurações das funcionalidades do nocton serão feitas, conforme será explicado melhor na documentação.

```python
INSTALLED_APPS = [
    ...
    "nocton",
]
...

NOCTON = {

}
```




Segue a documentação das features do nocton:

- [Validação de conta](https://github.com/PauloE314/nocton/blob/master/docs/account_validation.md#Account_Validation)
- [Views genéricas](https://github.com/PauloE314/nocton/blob/master/docs/generic_views.md#Generic+Views)
- [Exceptions](https://github.com/PauloE314/nocton/blob/master/docs/exceptions.md#Exceptions)
- [Permissões](https://github.com/PauloE314/nocton/blob/master/docs/permissions.md#Permissions)
- [Validações de campos para models](https://github.com/PauloE314/nocton/blob/master/docs/validators.md#Validators)
- ["Observador" de arquivos](https://github.com/PauloE314/nocton/blob/master/docs/watchers.md/#Watcher)
- [Ferramentas úteis](https://github.com/PauloE314/nocton/blob/master/docs/tools.md#Tools)
echem-EZ 1.0.32
EZ - Z vs E made easy
Requires Python: >=3.6

A python module to load, fit and plot impedance spectroscopy data. The datasets contain the impedance evolution as a function of the frequency of a perturbation (e.g. potential or light bias), recorded at different applied potentials. This data can be fitted using a model equivalent circuit or a custom model equation.

Documentation can be consulted [here](https://ez.readthedocs.io/en/latest/).