_            _    _        _         _
      /\ \         /\ \ /\ \     /\_\      / /\
      \_\ \       /  \ \\ \ \   / / /     / /  \
      /\__ \     / /\ \ \\ \ \_/ / /     / / /\ \__
     / /_ \ \   / / /\ \ \\ \___/ /     / / /\ \___\
    / / /\ \ \ / / /  \ \_\\ \ \_/      \ \ \ \/___/
   / / /  \/_// / /   / / / \ \ \        \ \ \
  / / /      / / /   / / /   \ \ \   _    \ \ \
 / / /      / / /___/ / /     \ \ \ /_/\__/ / /
/_/ /      / / /____\/ /       \ \_\\ \/___/ /
\_\/       \/_________/         \/_/ \_____\/
python-wrapper 3.11.14
Dependencies: bash@5.2.37
Propagated dependencies: python@3.11.14
Channel: guix
Location: gnu/packages/python.scm (gnu packages python)
Home page: https://www.python.org
Licenses: Python Software Foundation License
Build system: trivial
Synopsis: Wrapper for the Python 3 commands
Description:

This package provides wrappers for the commands of Python 3.x such that they can also be invoked under their usual names---e.g., python instead of python3 or pip instead of pip3.

To function properly, this package should not be installed together with the python package: this package uses the python package as a propagated input, so installing this package already makes both the versioned and the unversioned commands available.

python-netcdf4 1.7.2
Dependencies: netcdf@4.9.2 hdf5@1.14.6 zlib@1.3.1
Propagated dependencies: python-certifi@2025.06.15 python-cftime@1.6.5 python-numpy@2.3.1
Channel: guix
Location: gnu/packages/python-xyz.scm (gnu packages python-xyz)
Home page: https://github.com/Unidata/netcdf4-python
Licenses: ISC Expat
Build system: pyproject
Synopsis: Python/numpy interface to the netCDF library
Description:

Netcdf4-python is a Python interface to the netCDF C library. netCDF version 4 has many features not found in earlier versions of the library and is implemented on top of HDF5. This module can read and write files in both the new netCDF 4 and the old netCDF 3 format, and can create files that are readable by HDF5 clients. The API is modelled after Scientific.IO.NetCDF, and should be familiar to users of that module.

python-p-winds 1.4.7
Propagated dependencies: python-astropy@7.2.0 python-flatstar@0.2.1-alpha python-numpy@2.3.1 python-scipy@1.16.3
Channel: ffab
Location: ffab/packages/astronomy.scm (ffab packages astronomy)
Home page: https://github.com/ladsantos/p-winds
Licenses: Expat
Build system: pyproject
Synopsis: Parker wind models for planetary atmospheres
Description:

Python implementation of Parker wind models for planetary atmospheres. p-winds produces simplified, 1-D models of the upper atmosphere of a planet, and perform radiative transfer to calculate observable spectral signatures.

The scalable implementation of 1D models allows for atmospheric retrievals to calculate atmospheric escape rates and temperatures. In addition, the modular implementation allows for a smooth plugging-in of more complex descriptions to forward model their corresponding spectral signatures (e.g., self-consistent or 3D models).

python-empymod 2.6.0
Propagated dependencies: python-libdlf@0.3.0 python-numba@0.62.1 python-numpy@2.3.1 python-scipy@1.16.3 python-scooby@0.11.0
Channel: guix-science
Location: guix-science/packages/geoscience.scm (guix-science packages geoscience)
Home page: https://empymod.emsig.xyz/
Licenses: ASL 2.0
Build system: pyproject
Synopsis: Full 3D electromagnetic modeller for 1D VTI media
Description:

The electromagnetic modeller empymod can model electric or magnetic responses due to a three-dimensional electric or magnetic source in a layered-earth model with vertical transverse isotropic (VTI) resistivity, VTI electric permittivity, and VTI magnetic permeability, from very low frequencies (DC) to very high frequencies (GPR). The computation is carried out in the wavenumber-frequency domain, and various Hankel- and Fourier-transform methods are included to transform the responses into the space-frequency and space-time domains.

python2-mpi4py 4.1.0
Dependencies: openmpi@4.1.6
Channel: guix-hpc
Location: guix-hpc/packages/solverstack.scm (guix-hpc packages solverstack)
Home page: https://github.com/mpi4py/mpi4py
Licenses: Modified BSD
Build system: pyproject
Synopsis: Python bindings for the Message Passing Interface standard
Description:

MPI for Python (mpi4py) provides bindings of the Message Passing Interface (MPI) standard for the Python programming language, allowing any Python program to exploit multiple processors.

mpi4py is constructed on top of the MPI-1/MPI-2 specification and provides an object oriented interface which closely follows MPI-2 C++ bindings. It supports point-to-point and collective communications of any picklable Python object as well as optimized communications of Python objects (such as NumPy arrays) that expose a buffer interface.

python-drizzle 2.2.0
Propagated dependencies: python-numpy@2.3.1
Channel: guix
Location: gnu/packages/astronomy.scm (gnu packages astronomy)
Home page: https://github.com/spacetelescope/drizzle
Licenses: Modified BSD
Build system: pyproject
Synopsis: Combining dithered images into a single image
Description:

The drizzle library is a Python package for combining dithered images into a single image. This library is derived from code used in DrizzlePac. Like DrizzlePac, most of the code is implemented in the C language. The biggest change from DrizzlePac is that this code passes an array that maps the input to output image into the C code, while the DrizzlePac code computes the mapping by using a Python callback. Switching to using an array allowed the code to be greatly simplified.

python-astroid 3.3.11
Propagated dependencies: python-lazy-object-proxy@1.11.0 python-typing-extensions@4.15.0 python-wrapt@2.0.1
Channel: guix
Location: gnu/packages/python-xyz.scm (gnu packages python-xyz)
Home page: https://github.com/PyCQA/astroid
Licenses: LGPL 2.1+
Build system: pyproject
Synopsis: Python source code base representation
Description:

python-astroid provides a common base representation of Python source code for projects such as pychecker, pyreverse, pylint, etc. It provides a compatible representation which comes from the _ast module. It rebuilds the tree generated by the builtin _ast module by recursively walking down the AST and building an extended ast. The new node classes have additional methods and attributes for different usages. They include some support for static inference and local name scopes. Furthermore, astroid builds partial trees by inspecting living objects.

python-mutagen 1.47.0
Channel: guix
Location: gnu/packages/music.scm (gnu packages music)
Home page: https://mutagen.readthedocs.io/
Licenses: GPL 2
Build system: pyproject
Synopsis: Read and write audio tags
Description:

Mutagen is a Python module to handle audio metadata. It supports ASF, FLAC, M4A, Monkey’s Audio, MP3, Musepack, Ogg FLAC, Ogg Speex, Ogg Theora, Ogg Vorbis, True Audio, WavPack and OptimFROG audio files. All versions of ID3v2 are supported, and all standard ID3v2.4 frames are parsed. It can read Xing headers to accurately calculate the bitrate and length of MP3s. ID3 and APEv2 tags can be edited regardless of audio format. It can also manipulate Ogg streams on an individual packet/page level.

python-boltons 25.0.0
Channel: guix
Location: gnu/packages/python-xyz.scm (gnu packages python-xyz)
Home page: https://github.com/mahmoud/boltons
Licenses: Modified BSD
Build system: pyproject
Synopsis: Extensions to the Python standard library
Description:

Boltons is a set of over 230 pure-Python utilities in the same spirit as — and yet conspicuously missing from — the standard library, including:

  • Atomic file saving, bolted on with fileutils

  • A highly-optimized OrderedMultiDict, in dictutils

  • Two types of PriorityQueue, in queueutils

  • Chunked and windowed iteration, in iterutils

  • Recursive data structure iteration and merging, with iterutils.remap

  • Exponential backoff functionality, including jitter, through iterutils.backoff

  • A full-featured TracebackInfo type, for representing stack traces, in tbutils

python-opcodes 0.3.14
Channel: guix
Location: gnu/packages/python-xyz.scm (gnu packages python-xyz)
Home page: https://github.com/Maratyszcza/Opcodes
Licenses: FreeBSD
Build system: pyproject
Synopsis: Database of processor instructions and opcodes
Description:

This project documents instruction sets in a format convenient for tools development. An instruction set is represented by three files:

  • an XML file that describes instructions;

  • an XSD file that describes the structure of the XML file;

  • a Python module that reads the XML file and represents it as a set of Python objects;

It currently provides descriptions for most user-mode x86, x86_64, and k1om instructions up to AVX-512 and SHA (including 3dnow!+, XOP, FMA3, FMA4, TBM and BMI2).

python-gammapy 2.0.1
Propagated dependencies: python-astropy@7.2.0 python-click@8.1.8 python-iminuit@2.32.0 python-matplotlib@3.10.8 python-numpy@2.3.1 python-pydantic@2.12.5 python-pyyaml@6.0.2 python-regions@0.11 python-scipy@1.16.3 python-healpy@1.18.1 python-ipywidgets@8.1.4 python-naima@0.10.3 python-numba@0.62.1 python-requests@2.32.5 python-tqdm@4.67.1
Channel: guix
Location: gnu/packages/astronomy.scm (gnu packages astronomy)
Home page: https://gammapy.org
Licenses: Modified BSD
Build system: pyproject
Synopsis: Gamma-ray astronomy in Python
Description:

Gammapy is an Python package for gamma-ray astronomy built on Numpy, Scipy and Astropy. It is used as core library for the Science Analysis tools of the Cherenkov Telescope Array (CTA), recommended by the H.E.S.S. collaboration to be used for Science publications, and is already widely used in the analysis of existing gamma-ray instruments, such as MAGIC VERITAS and HAWC.

python-cykhash 2.0.1
Channel: guix
Location: gnu/packages/python-xyz.scm (gnu packages python-xyz)
Home page: https://github.com/realead/cykhash
Licenses: Expat
Build system: pyproject
Synopsis: Khash-sets and maps
Description:

This package is a Cython wrapper for khash-sets/maps. It brings functionality of khash to Python and Cython and can be used seamlessly in numpy or pandas. Numpy's world is lacking the concept of a (hash-)set. This shortcoming is fixed and efficient (memory- and speedwise compared to pandas) unique and isin are implemented. Python-set/dict have a big memory-footprint. For some datatypes the overhead can be reduced by using khash by factor 4-8.

python-pyhepmc 2.16.1
Dependencies: hepmc3@3.2.5-0.591bccc
Propagated dependencies: python-numpy@2.3.1 python-packaging@25.0
Channel: guix-science
Location: guix-science/packages/physics.scm (guix-science packages physics)
Home page: https://scikit-hep.org/pyhepmc/
Licenses: Modified BSD
Build system: pyproject
Synopsis: Python bindings for HepMC3
Description:

This package provides a Pythonic Jupyter-friendly Python API for the HepMC3 library.

pyhepmc has been optimised for safety, usability, and efficiency by a human expert, something that an automatic tool cannot provide. It brings these unique features:

  • Python idioms are supported where appropriate.

  • Simple IO with pyhepmc.open.

  • An alternative Numpy API whih accelerates event processing.

  • The public API is fully documented with Python docstrings.

  • Objects are inspectable in Jupyter notebooks.

  • Events render as graphs in Jupyter notebooks.

python-sirilic 2.0.7
Propagated dependencies: python-requests@2.32.5 python-wxpython@4.2.2
Channel: guix
Location: gnu/packages/astronomy.scm (gnu packages astronomy)
Home page: https://gitlab.com/free-astro/sirilic
Licenses: GPL 3
Build system: pyproject
Synopsis: Acquisition files preparation software to process with SiriL
Description:

This package provides a plugin for SiriL, see the installation guide on the project's Wiki.

SiriLic (SiriL's Interactif Companion) is a software for preparing acquisition files (raw, Biases, Flat and Dark) for processing with SiriL software.

Features:

  • structuring the SiriL working directory into sub-folders

  • convert Raw, Biases , Dark or Flat files into SiriL sequence

  • automatically generate the SiriL script according to the files present and the options

  • batch process multiple channel and sessions

python-natsort 8.4.0
Propagated dependencies: python-fastnumbers@5.1.1 python-pyicu@2.15.2
Channel: guix
Location: gnu/packages/python-xyz.scm (gnu packages python-xyz)
Home page: https://github.com/SethMMorton/natsort
Licenses: Expat
Build system: pyproject
Synopsis: Natural sorting for python and shell
Description:

Natsort lets you apply natural sorting on lists instead of lexicographical. If you use the built-in sorted method in python on a list such as [a20, a9, a1, a4, a10], it would be returned as [a1, a10, a20, a4, a9]. Natsort provides a function natsorted that identifies numbers and sorts them separately from strings. It can also sort version numbers, real numbers, mixed types and more, and comes with a shell command natsort that exposes this functionality in the command line.

python-mofapy2 0.7.1
Propagated dependencies: python-anndata@0.12.7 python-h5py@3.15.1 python-numpy@2.3.1 python-pandas@2.3.3 python-scikit-learn@1.7.2 python-scipy@1.16.3
Channel: guix
Location: gnu/packages/bioinformatics.scm (gnu packages bioinformatics)
Home page: https://biofam.github.io/MOFA2/
Licenses: LGPL 3
Build system: pyproject
Synopsis: Multi-omics factor analysis
Description:

MOFA is a factor analysis model that provides a general framework for the integration of multi-omic data sets in an unsupervised fashion. Intuitively, MOFA can be viewed as a versatile and statistically rigorous generalization of principal component analysis to multi-omics data. Given several data matrices with measurements of multiple -omics data types on the same or on overlapping sets of samples, MOFA infers an interpretable low-dimensional representation in terms of a few latent factors. These learnt factors represent the driving sources of variation across data modalities, thus facilitating the identification of cellular states or disease subgroups.

python-authres 1.2.0
Channel: guix
Location: gnu/packages/mail.scm (gnu packages mail)
Home page: https://launchpad.net/authentication-results-python
Licenses: ASL 2.0
Build system: pyproject
Synopsis: Authentication-Results email header creator and parser
Description:

This Python module can be used to generate and parse RFC 5451/7001/7601 Authentication-Results email headers. It supports extensions such as:

  • RFC 5617 DKIM/ADSP

  • RFC 6008 DKIM signature identification (header.b)

  • RFC 6212 VBR

  • RFC 6577 SPF

  • RFC 7281 Authentication-Results registration for S/MIME

  • RFC 7293 The Require-Recipient-Valid-Since header field

  • RFC 7489 DMARC

  • ARC (draft-ietf-dmarc-arc-protocol-08)

python-pycotap 1.3.1
Channel: guix
Location: gnu/packages/python-check.scm (gnu packages python-check)
Home page: https://github.com/remko/pycotap
Licenses: Expat
Build system: pyproject
Synopsis: Tiny Python TAP test runner
Description:

This package provides a simple Python test runner for unittest that outputs Test Anything Protocol (TAP) results to standard output. Contrary to other TAP runners for Python, pycotap...

  • prints TAP (and only TAP) to standard output instead of to a separate file, allowing you to pipe it directly to TAP pretty printers and processors;

  • only contains a TAP reporter, so no parsers, no frameworks, no dependencies, etc;

  • is configurable: you can choose how you want the test output and test result diagnostics to end up in your TAP output (as TAP diagnostics, YAML blocks, or attachments).

python-pyogrio 0.10.0
Dependencies: gdal@3.8.2
Propagated dependencies: python-certifi@2025.06.15 python-numpy@2.3.1 python-packaging@25.0
Channel: guix
Location: gnu/packages/geo.scm (gnu packages geo)
Home page: https://pypi.org/project/pyogrio/
Licenses: Expat
Build system: pyproject
Synopsis: Vectorized spatial vector file format I/O using GDAL/OGR
Description:

Pyogrio provides a GeoPandas-oriented API to OGR vector data sources, such as ESRI Shapefile, GeoPackage, and GeoJSON. Vector data sources have geometries, such as points, lines, or polygons, and associated records with potentially many columns worth of data. Pyogrio uses a vectorized approach for reading and writing GeoDataFrames to and from OGR vector data sources in order to give you faster interoperability. It uses pre-compiled bindings for GDAL/OGR so that the performance is primarily limited by the underlying I/O speed of data source drivers in GDAL/OGR rather than multiple steps of converting to and from Python data types within Python.

python-fgivenx 2.4.2-0.cf51dbf
Propagated dependencies: python-matplotlib@3.10.8 python-numpy@2.3.1 python-scipy@1.16.3 python-getdist@1.5.4 python-joblib@1.5.2 python-tqdm@4.67.1
Channel: guix
Location: gnu/packages/python-science.scm (gnu packages python-science)
Home page: https://github.com/handley-lab/fgivenx
Licenses: Expat
Build system: pyproject
Synopsis: Functional Posterior Plotter
Description:

fgivenx is a Python package for plotting posteriors of functions. It is currently used in astronomy, but will be of use to any scientists performing Bayesian analyses which have predictive posteriors that are functions.

This package allows one to plot a predictive posterior of a function, dependent on sampled parameters. It assumes one has a Bayesian posterior Post(theta|D,M) described by a set of posterior samples theta_i~Post. If there is a function parameterised by theta y=f(x;theta), then this script will produce a contour plot of the conditional posterior P(y|x,D,M) in the (x,y) plane.

python-pcangsd 1.36.4
Propagated dependencies: python-numpy@2.3.1 python-scipy@1.16.3
Channel: guix-science
Location: guix-science/packages/bioinformatics.scm (guix-science packages bioinformatics)
Home page: https://github.com/Rosemeis/pcangsd
Licenses: GPL 3
Build system: pyproject
Synopsis: Framework for analyzing low-depth NGS data using PCA
Description:

Framework for analyzing low-depth NGS data in heterogeneous/structured populations using PCA. Population structure is inferred by estimating individual allele frequencies in an iterative approach using a truncated SVD model. The covariance matrix is estimated using the estimated individual allele frequencies as prior information for the unobserved genotypes in low-depth NGS data.

The estimated individual allele frequencies can further be used to account for population structure in other probabilistic methods. pcangsd can be used for the following analyses:

  • Covariance matrix

  • Admixture estimation

  • Inbreeding coefficients (both per-sample and per-site)

  • HWE test

  • Genome-wide selection scans

  • Genotype calling

  • Estimate NJ tree of samples

python-pandera 0.27.1
Dependencies: python-dask@2025.11.0 python-distributed@2025.11.0 python-geopandas@1.1.1 python-hypothesis@6.150.2 python-modin@0.37.1 python-numpy@2.3.1 python-pandas@2.3.3 python-scipy@1.16.3 python-shapely@2.1.1
Propagated dependencies: python-packaging@25.0 python-pydantic@2.12.5 python-typeguard@4.4.4 python-typing-extensions@4.15.0 python-typing-inspect@0.9.0
Channel: guix
Location: gnu/packages/python-science.scm (gnu packages python-science)
Home page: https://github.com/unionai-oss/pandera
Licenses: Expat
Build system: pyproject
Synopsis: Perform data validation on dataframe-like objects
Description:

python-pandera provides a flexible and expressive API for performing data validation on dataframe-like objects to make data processing pipelines more readable and robust. Dataframes contain information that python-pandera explicitly validates at runtime. This is useful in production-critical data pipelines or reproducible research settings. With python-pandera, you can:

  • Define a schema once and use it to validate different dataframe types.

  • Check the types and properties of columns.

  • Perform more complex statistical validation like hypothesis testing.

  • Seamlessly integrate with existing data pipelines via function decorators.

  • Define dataframe models with the class-based API with pydantic-style syntax.

  • Synthesize data from schema objects for property-based testing.

  • Lazily validate dataframes so that all validation rules are executed.

  • Integrate with a rich ecosystem of tools like python-pydantic, python-fastapi and python-mypy.

python-weblogo 3.7.12
Propagated dependencies: ghostscript@9.56.1 python-numpy@2.3.1 python-pluggy@1.6.0 python-scipy@1.16.3
Channel: guix
Location: gnu/packages/bioinformatics.scm (gnu packages bioinformatics)
Home page: https://github.com/gecrooks/weblogo
Licenses: Expat
Build system: pyproject
Synopsis: Sequence Logo Generator
Description:

WebLogo is a web based application designed to make the generation of sequence logos as easy and painless as possible.

WebLogo can create output in several common graphics' formats, including the bitmap formats GIF and PNG, suitable for on-screen display, and the vector formats EPS and PDF, more suitable for printing, publication, and further editing. Additional graphics options include bitmap resolution, titles, optional axis, and axis labels, antialiasing, error bars, and alternative symbol formats.

A sequence logo is a graphical representation of an amino acid or nucleic acid multiple sequence alignment. Each logo consists of stacks of symbols, one stack for each position in the sequence. The overall height of the stack indicates the sequence conservation at that position, while the height of symbols within the stack indicates the relative frequency of each amino or nucleic acid at that position. The width of the stack is proportional to the fraction of valid symbols in that position.

python-cheetah 3.3.1
Propagated dependencies: python-markdown@3.10
Channel: guix
Location: gnu/packages/python-xyz.scm (gnu packages python-xyz)
Home page: https://cheetahtemplate.org/
Licenses: X11-style
Build system: pyproject
Synopsis: Template engine
Description:

Cheetah is a text-based template engine and Python code generator.

Cheetah can be used as a standalone templating utility or referenced as a library from other Python applications. It has many potential uses, but web developers looking for a viable alternative to ASP, JSP, PHP and PSP are expected to be its principle user group.

Features:

  1. Generates HTML, SGML, XML, SQL, Postscript, form email, LaTeX, or any other text-based format.

  2. Cleanly separates content, graphic design, and program code.

  3. Blends the power and flexibility of Python with a simple template language that non-programmers can understand.

  4. Gives template writers full access to any Python data structure, module, function, object, or method in their templates.

  5. Makes code reuse easy by providing an object-orientated interface to templates that is accessible from Python code or other Cheetah templates. One template can subclass another and selectively reimplement sections of it.

  6. Provides a simple, yet powerful, caching mechanism that can dramatically improve the performance of a dynamic website.

  7. Compiles templates into optimized, yet readable, Python code.

Page: 16364656667177
Total packages: 4229