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gf-complete package

gf-complete 1.0.2+2017.04.10.git.ea75cdf-9.1build1 source package in Ubuntu

Changelog

gf-complete (1.0.2+2017.04.10.git.ea75cdf-9.1build1) noble; urgency=medium

  * No-change rebuild for CVE-2024-3094

 -- Steve Langasek <email address hidden>  Sun, 31 Mar 2024 05:43:21 +0000

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Uploaded by:
Steve Langasek
Uploaded to:
Noble
Original maintainer:
Ubuntu Developers
Architectures:
any
Section:
misc
Urgency:
Medium Urgency

See full publishing history Publishing

Series Pocket Published Component Section
Oracular release main misc
Noble release main misc

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gf-complete_1.0.2+2017.04.10.git.ea75cdf.orig.tar.xz 289.0 KiB 6a11e814556bda953c59510e893763bafafd346e05995c3c0fc6c0153c220069
gf-complete_1.0.2+2017.04.10.git.ea75cdf-9.1build1.debian.tar.xz 5.2 KiB 36b67d496c731c80c6488a702352f65fe5e6447b89b3d0215b6c88a4edd9fada
gf-complete_1.0.2+2017.04.10.git.ea75cdf-9.1build1.dsc 2.4 KiB 6791b233b0088f8fa438a4bd52025b310d5f25a92a360a00ef37455abf02c935

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Binary packages built by this source

gf-complete-tools: Galois Field Arithmetic - tools

 Galois Field arithmetic forms the backbone of erasure-coded storage systems,
 most famously the Reed-Solomon erasure code. A Galois Field is defined over
 w-bit words and is termed GF(2^w). As such, the elements of a Galois Field are
 the integers 0, 1, . . ., 2^w − 1. Galois Field arithmetic defines addition
 and multiplication over these closed sets of integers in such a way that they
 work as you would hope they would work. Specifically, every number has a
 unique multiplicative inverse. Moreover, there is a value, typically the value
 2, which has the property that you can enumerate all of the non-zero elements
 of the field by taking that value to successively higher powers.
 .
 This package contains miscellaneous tools for working with gf-complete.

gf-complete-tools-dbgsym: debug symbols for gf-complete-tools
libgf-complete-dev: Galois Field Arithmetic - development files

 Galois Field arithmetic forms the backbone of erasure-coded storage systems,
 most famously the Reed-Solomon erasure code. A Galois Field is defined over
 w-bit words and is termed GF(2^w). As such, the elements of a Galois Field are
 the integers 0, 1, . . ., 2^w − 1. Galois Field arithmetic defines addition
 and multiplication over these closed sets of integers in such a way that they
 work as you would hope they would work. Specifically, every number has a
 unique multiplicative inverse. Moreover, there is a value, typically the value
 2, which has the property that you can enumerate all of the non-zero elements
 of the field by taking that value to successively higher powers.
 .
 This package contains the development files needed to build against the shared
 library.

libgf-complete1t64: Galois Field Arithmetic - shared library

 Galois Field arithmetic forms the backbone of erasure-coded storage systems,
 most famously the Reed-Solomon erasure code. A Galois Field is defined over
 w-bit words and is termed GF(2^w). As such, the elements of a Galois Field are
 the integers 0, 1, . . ., 2^w − 1. Galois Field arithmetic defines addition
 and multiplication over these closed sets of integers in such a way that they
 work as you would hope they would work. Specifically, every number has a
 unique multiplicative inverse. Moreover, there is a value, typically the value
 2, which has the property that you can enumerate all of the non-zero elements
 of the field by taking that value to successively higher powers.
 .
 This package contains the shared library.

libgf-complete1t64-dbgsym: debug symbols for libgf-complete1t64