ssreflect 2.2.0-1build2 source package in Ubuntu

Changelog

ssreflect (2.2.0-1build2) oracular; urgency=medium

  * Rebuild against new OCAML ABI.

 -- Gianfranco Costamagna <email address hidden>  Wed, 05 Jun 2024 19:01:38 +0200

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Uploaded by:
Gianfranco Costamagna
Uploaded to:
Oracular
Original maintainer:
Debian OCaml Maintainers
Architectures:
any
Section:
math
Urgency:
Medium Urgency

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ssreflect_2.2.0.orig.tar.gz 1.8 MiB e7e8f3ebfebae10fd290a63fffdbe311d32df7eebc2e66777e194269e72697f5
ssreflect_2.2.0-1build2.debian.tar.xz 12.4 KiB e67c10e3b425c4d7824e75b0b1f3db547fe733c1d1ab30655b189d54feaab56b
ssreflect_2.2.0-1build2.dsc 2.6 KiB 9131871b1d007235af190d75618f1b22a2a3674ba3ff1e056e66ce315e9e3978

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Binary packages built by this source

libcoq-mathcomp: Mathematical Components library for Coq (all)

 The Mathematical Components Library is an extensive and coherent
 repository of formalized mathematical theories. It is based on the
 Coq proof assistant, powered with the Coq/SSReflect language.
 .
 These formal theories cover a wide spectrum of topics, ranging from
 the formal theory of general-purpose data structures like lists,
 prime numbers or finite graphs, to advanced topics in algebra.
 .
 The formalization technique adopted in the library, called "small
 scale reflection", leverages the higher-order nature of Coq's
 underlying logic to provide effective automation for many small,
 clerical proof steps. This is often accomplished by restating
 ("reflecting") problems in a more concrete form, hence the name. For
 example, arithmetic comparison is not an abstract predicate, but
 rather a function computing a Boolean.
 .
 This package installs the full Mathematical Components library.

libcoq-mathcomp-algebra: Mathematical Components library for Coq (algebra)

 The Mathematical Components Library is an extensive and coherent
 repository of formalized mathematical theories. It is based on the
 Coq proof assistant, powered with the Coq/SSReflect language.
 .
 These formal theories cover a wide spectrum of topics, ranging from
 the formal theory of general-purpose data structures like lists,
 prime numbers or finite graphs, to advanced topics in algebra.
 .
 The formalization technique adopted in the library, called "small
 scale reflection", leverages the higher-order nature of Coq's
 underlying logic to provide effective automation for many small,
 clerical proof steps. This is often accomplished by restating
 ("reflecting") problems in a more concrete form, hence the name. For
 example, arithmetic comparison is not an abstract predicate, but
 rather a function computing a Boolean.
 .
 This package installs the algebra part of the library (ring, fields,
 ordered fields, real fields, modules, algebras, integers, rationals,
 polynomials, matrices, vector spaces...).

libcoq-mathcomp-character: Mathematical Components library for Coq (character)

 The Mathematical Components Library is an extensive and coherent
 repository of formalized mathematical theories. It is based on the
 Coq proof assistant, powered with the Coq/SSReflect language.
 .
 These formal theories cover a wide spectrum of topics, ranging from
 the formal theory of general-purpose data structures like lists,
 prime numbers or finite graphs, to advanced topics in algebra.
 .
 The formalization technique adopted in the library, called "small
 scale reflection", leverages the higher-order nature of Coq's
 underlying logic to provide effective automation for many small,
 clerical proof steps. This is often accomplished by restating
 ("reflecting") problems in a more concrete form, hence the name. For
 example, arithmetic comparison is not an abstract predicate, but
 rather a function computing a Boolean.
 .
 This package installs the character theory part of the library
 (group representations, characters and class functions).

libcoq-mathcomp-field: Mathematical Components library for Coq (field)

 The Mathematical Components Library is an extensive and coherent
 repository of formalized mathematical theories. It is based on the
 Coq proof assistant, powered with the Coq/SSReflect language.
 .
 These formal theories cover a wide spectrum of topics, ranging from
 the formal theory of general-purpose data structures like lists,
 prime numbers or finite graphs, to advanced topics in algebra.
 .
 The formalization technique adopted in the library, called "small
 scale reflection", leverages the higher-order nature of Coq's
 underlying logic to provide effective automation for many small,
 clerical proof steps. This is often accomplished by restating
 ("reflecting") problems in a more concrete form, hence the name. For
 example, arithmetic comparison is not an abstract predicate, but
 rather a function computing a Boolean.
 .
 This package installs the field theory part of the library
 (field extensions, Galois theory, algebraic numbers, cyclotomic
 polynomials).

libcoq-mathcomp-fingroup: Mathematical Components library for Coq (finite groups)

 The Mathematical Components Library is an extensive and coherent
 repository of formalized mathematical theories. It is based on the
 Coq proof assistant, powered with the Coq/SSReflect language.
 .
 These formal theories cover a wide spectrum of topics, ranging from
 the formal theory of general-purpose data structures like lists,
 prime numbers or finite graphs, to advanced topics in algebra.
 .
 The formalization technique adopted in the library, called "small
 scale reflection", leverages the higher-order nature of Coq's
 underlying logic to provide effective automation for many small,
 clerical proof steps. This is often accomplished by restating
 ("reflecting") problems in a more concrete form, hence the name. For
 example, arithmetic comparison is not an abstract predicate, but
 rather a function computing a Boolean.
 .
 This package installs the finite groups theory part of the library
 (finite groups, group quotients, group morphisms, group presentation,
 group action...).

libcoq-mathcomp-solvable: Mathematical Components library for Coq (finite groups II)

 The Mathematical Components Library is an extensive and coherent
 repository of formalized mathematical theories. It is based on the
 Coq proof assistant, powered with the Coq/SSReflect language.
 .
 These formal theories cover a wide spectrum of topics, ranging from
 the formal theory of general-purpose data structures like lists,
 prime numbers or finite graphs, to advanced topics in algebra.
 .
 The formalization technique adopted in the library, called "small
 scale reflection", leverages the higher-order nature of Coq's
 underlying logic to provide effective automation for many small,
 clerical proof steps. This is often accomplished by restating
 ("reflecting") problems in a more concrete form, hence the name. For
 example, arithmetic comparison is not an abstract predicate, but
 rather a function computing a Boolean.
 .
 This package installs the second finite groups theory part of the
 library (abelian groups, center, commutator, Jordan-Holder series,
 Sylow theorems...).

libcoq-mathcomp-ssreflect: Mathematical Components library for Coq (small scale reflection)

 The Mathematical Components Library is an extensive and coherent
 repository of formalized mathematical theories. It is based on the
 Coq proof assistant, powered with the Coq/SSReflect language.
 .
 These formal theories cover a wide spectrum of topics, ranging from
 the formal theory of general-purpose data structures like lists,
 prime numbers or finite graphs, to advanced topics in algebra.
 .
 The formalization technique adopted in the library, called "small
 scale reflection", leverages the higher-order nature of Coq's
 underlying logic to provide effective automation for many small,
 clerical proof steps. This is often accomplished by restating
 ("reflecting") problems in a more concrete form, hence the name. For
 example, arithmetic comparison is not an abstract predicate, but
 rather a function computing a Boolean.
 .
 This package installs the small scale reflection language extension
 and the minimal set of libraries to take advantage of it (sequences,
 booleans and boolean predicates, natural numbers and types with decidable
 equality, finite types, finite sets, finite functions, finite graphs,
 basic arithmetics and prime numbers, big operators...).