semvec/pypi-packages huggingface dataset:
gptpy 0.1.6
GPTPy: Your kind Python guide, powered by AI to fix errors and explain code

# GPTPy: Your kind Python guide, powered by AI to fix errors and explain code

[![asciicast](https://asciinema.org/a/momJh0P8YiZRY5IW0ZwTTynhA.svg)](https://asciinema.org/a/momJh0P8YiZRY5IW0ZwTTynhA)

## Installation

```bash
pip install -U gptpy
```

## Usage

### Simply run your code

```bash
gptpy runnable_python_code.py
```

### ..or run with arguments

```bash
gptpy runnable_python_code.py --arg1=1 --arg2=2
```

## Example

Here's a simple Python code, which has a syntax error.

```python
# test.py
def add(a, b):
    print("a + b)
```

If you run `test.py`, you will get an error.

```
$ python test.py 
  File "~/test.py", line 1
    print("a + b)
                 ^
SyntaxError: EOL while scanning string literal
```

Now, let's use `gptpy` to fix the error.

```
$ gptpy test.py 
--------------------------------------------------
[GPTPy] Your code has an error!
[GPTPy] Error Reason: 

# The user code is missing a closing quotation mark.
SyntaxError: EOL while scanning string literal

[GPTPy] Here's fixed code:

print("a + b")
--------------------------------------------------
```

## Limitations

- GPT-3 is not perfect. It may not be able to fix all errors.
- It may take a while to get the result.
requests-custom 0.0.6
Python's requests with custom configuration
Requires Python: >=3.6

Package to work with custom requests capabilities.

Current capabilities available:

- Custom timeout for all requests.
- Raise exception with certain HTTP status code responses.
- Retry on failure.

## Installation

~~~
pip install requests_custom
~~~

Pypi link: https://pypi.org/project/requests-custom/

## How to use

~~~
from requests_custom import requests_custom
requests = requests_custom.RequestsCustom(debug_full=True).get_requests()
requests.get('https://duckduckgo.com')
~~~

## Documentation

https://requests-custom.readthedocs.io/en/latest/

At the previous link you can see the references of this project.
finqmc 0.2
Quantum Monte Carlo framework
Requires Python: >=3.6

## FinQMC: A Quantum Monte Carlo Framework for Business Practitioners
FinQMC is a quantum Monte Carlo framework tailored for business practitioners who want to explore the potential of quantum computing for financial modeling. The primary contribution of this research is to establish a user-friendly software tool that enables financial analysts to experiment with quantum Monte Carlo methods without needing to be experts in quantum computing or computer programming.

### Features
- A simple and intuitive interface that allows users to specify financial models using familiar mathematical notation.
- Support for a wide range of probability distributions commonly used in financial modeling.
- The ability to simulate complex financial scenarios with high accuracy using quantum Monte Carlo methods.
- Integration with existing Python-based financial modeling libraries.

### Requirements
- Python 3.7 or higher
- NumPy, SciPy, and Matplotlib libraries
- qiskit, a Python-based quantum computing library


#### Introduction to FinQMC Modules
The framework is composed of several modules that work together to provide a comprehensive suite of tools for quantum computing:

#### Quantum Variable
The Quantum Variable module allows users to define quantum variables and assign either constant or distribution-based values. This module provides a flexible and intuitive way to define the inputs for the QMC simulation.

#### Quantum Arithmetic
The Quantum Arithmetic module provides efficient operations between any two variables. This module enables business practitioners to perform complex calculations involving quantum variables, without needing a deep understanding of the underlying quantum mechanics.

#### Quantum Walk
The Quantum Walk module simplifies the sampling and accumulation process. This module enables users to efficiently simulate the QMC process, by handling the necessary steps involved in quantum walks.

#### Quantum Estimation
The Quantum Estimation module calculates expected values or the minimum values within a distribution. This module provides a reliable and accurate way to estimate the outcomes of QMC simulations, enabling users to make informed business decisions based on the results.

## Installation
You can install the Quantum Monte Carlo Library using pip:

## Usage
Here is an example of how to use the Quantum Monte Carlo Library to do addtion using a quantum circuit:
```python
from QuantumMC.quantummc import QuantumMC
from QuantumMC.variable import Variable
qmc = QuantumMC()

# Define two quantum variables with constant values
var1 = Variable(2, "var1")
var1.load_constant(2)
var2 = Variable(2, "var2")
var2.load_constant(1)
qmc.add_variable(var1)
qmc.add_variable(var2)

# Add the two variables using QuantumArithmetic module
a, b = qmc.arithmetic("add", [var1, var2])
```

### Contribution Guidelines
We welcome contributions to FinQMC from the community. If you would like to contribute to the project, please fork the repository and submit a pull request with your changes.

### License
This software is released under the MIT License. See LICENSE.txt for details.