About

Nature-inspired algorithms are a very popular tool for solving optimization problems. Numerous variants of nature-inspired algorithms have been developed since the beginning of their era. To prove their versatility, those were tested in various domains on various applications, especially when they are hybridized, modified or adapted. However, implementation of nature-inspired algorithms is sometimes a difficult, complex and tedious task. In order to break this wall, NiaPy is intended for simple and quick use, without spending time for implementing algorithms from scratch.

Mission

Our mission is to build a collection of nature-inspired algorithms and create a simple interface for managing the optimization process. NiaPy will offer:

numerous benchmark functions implementations,
use of various nature-inspired algorithms without struggle and effort with a simple interface,
easy comparison between nature-inspired algorithms and
export of results in various formats (LaTeX, JSON, Excel).

Overview

Python micro framework for building nature-inspired algorithms. Official documentation is available here.

The micro framework features following algorithms:

basic:
- Artificial bee colony algorithm (see example)
- Bat algorithm (see example)
- Camel algorithm (see example)
- Differential evolution algorithm (see example)
- Evolution Strategy (see example, see example, see example, see example)
- Firefly algorithm (see example)
- Fireworks algorithm (see example, see example, see example, see example)
- Flower pollination algorithm (see example)
- Genetic algorithm (see example)
- Glowworm Swarm Optimization (see example, see example, see example, see example)
- Grey wolf optimizer (see example)
- Moth flame optimizer (see example)
- Harmony Search Algorithm (see example)
- Krill Herd Algorithm (see example, see example, see example, see example, see example)
- Monkey King Evolution (see example, see example, see example)
- Particle swarm optimization (see example)
- Sine Cosine Algorithm (see example)
modified:
- Hybrid bat algorithm (see example)
- Self-adaptive differential evolution algorithm (see example)
- Dynamic population size self-adaptive differential evolution algorithm (see example)
other:
- Anarchic society optimization (see example)
- Hill climb algorithm (see example)
- Multiple trajectory search (see example, see example)
- Nelder mead method (see example)
- Simulated annealing algorithm (see example)
- Tabu search algorithm (see example)

The following benchmark functions are included in NiaPy:

Ackley
Alpine
- Alpine1
- Alpine2
Bent Cigar
Chung Reynolds
Csendes
Discus
Dixon-Price
Elliptic
Griewank
Happy cat
HGBat
Katsuura
Levy
Michalewicz
Perm
Pintér
Powell
Qing
Quintic
Rastrigin
Ridge
Rosenbrock
Salomon
Schumer Steiglitz
Schwefel
- Schwefel 2.21
- Schwefel 2.22
Sphere
- Sphere2 -> Sphere with different powers
- Sphere3 -> Rotated hyper-ellipsoid
Step
- Step2
- Step3
Stepint
Styblinski-Tang
Sum Squares
Trid
Weierstrass
Whitley
Zakharov

Setup

Requirements

Python 3.6+ (backward compatibility with 2.7.14)
Pip

Dependencies

pytest == 3.7.1
coverage == 4.4.2
coverage-space == 1.0.2
click == 6.0
numpy == 1.14.0
scipy == 1.0.0
xlsxwriter == 1.0.2
matplotlib == 2.2.2

List of development dependencies and requirements can be found here.

Installation

Install NiaPy with pip:

$ pip install NiaPy

Install NiaPy with conda:

conda install -c niaorg niapy

or directly from the source code:

$ git clone https://github.com/NiaOrg/NiaPy.git
$ cd NiaPy
$ python setup.py install

Usage

After installation, the package can imported:

$ python
>>> import NiaPy
>>> NiaPy.__version__

For more usage examples please look at examples folder.

More advanced examples can also be found in the NiaPy-examples repository.

Cite us

Are you using NiaPy in your project or research? Please cite us!

Plain format

      Vrbančič, G., Brezočnik, L., Mlakar, U., Fister, D., & Fister Jr., I. (2018).
      NiaPy: Python microframework for building nature-inspired algorithms.
      Journal of Open Source Software, 3(23), 613\. <https://doi.org/10.21105/joss.00613>

Bibtex format

    @article{NiaPyJOSS2018,
        author  = {Vrban{\v{c}}i{\v{c}}, Grega and Brezo{\v{c}}nik, Lucija
                  and Mlakar, Uro{\v{s}} and Fister, Du{\v{s}}an and {Fister Jr.}, Iztok},
        title   = {{NiaPy: Python microframework for building nature-inspired algorithms}},
        journal = {{Journal of Open Source Software}},
        year    = {2018},
        volume  = {3},
        issue   = {23},
        issn    = {2475-9066},
        doi     = {10.21105/joss.00613},
        url     = {https://doi.org/10.21105/joss.00613}
    }

RIS format

    TY  - JOUR
    T1  - NiaPy: Python microframework for building nature-inspired algorithms
    AU  - Vrbančič, Grega
    AU  - Brezočnik, Lucija
    AU  - Mlakar, Uroš
    AU  - Fister, Dušan
    AU  - Fister Jr., Iztok
    PY  - 2018
    JF  - Journal of Open Source Software
    VL  - 3
    IS  - 23
    DO  - 10.21105/joss.00613
    UR  - http://joss.theoj.org/papers/10.21105/joss.00613

Contributing

We encourage you to contribute to NiaPy! Please check out the Contributing to NiaPy guide for guidelines about how to proceed.

Everyone interacting in NiaPy's codebases, issue trackers, chat rooms and mailing lists is expected to follow the NiaPy code of conduct.

Contributors


GregaVrbancic	firefly-cpp	lucijabrezocnik	mlaky88	rhododendrom	kb2623	Flyzoor

Licence

This package is distributed under the MIT License. This license can be found online at http://www.opensource.org/licenses/MIT.

Disclaimer

This framework is provided as-is, and there are no guarantees that it fits your purposes or that it is bug-free. Use it at your own risk!

kivancguckiran/NiaPy