C-CoRN
The Coq Constructive Repository at Nijmegen.
Meta
- Author(s):
- Evgeny Makarov
- Robbert Krebbers
- Eelis van der Weegen
- Bas Spitters
- Jelle Herold
- Russell O'Connor
- Cezary Kaliszyk
- Dan Synek
- Luís Cruz-Filipe
- Milad Niqui
- Iris Loeb
- Herman Geuvers
- Randy Pollack
- Freek Wiedijk
- Jan Zwanenburg
- Dimitri Hendriks
- Henk Barendregt
- Mariusz Giero
- Rik van Ginneken
- Dimitri Hendriks
- Sébastien Hinderer
- Bart Kirkels
- Pierre Letouzey
- Lionel Mamane
- Nickolay Shmyrev
- Coq-community maintainer(s):
- Bas Spitters (@spitters)
- License: GNU General Public License v2
- Compatible Coq versions: Coq 8.6 or greater
- Additional dependencies:
-
Math-Classes 8.8.1 or greater, which is a library of abstract interfaces for mathematical structures that is heavily based on Coq's type classes.
-
Building and installation instructions
The easiest way to install the latest released version is via OPAM:
opam repo add coq-released https://coq.inria.fr/opam/released
opam install coq-corn
To instead build and install manually, do:
git clone https://github.com/coq-community/corn
cd corn
./configure.sh
make # or make -j <number-of-cores-on-your-machine>
make install
After installation, the included modules are available under
the CoRN
namespace.
Building C-CoRN with SCons
C-CoRN supports building with SCons. SCons is a modern Python-based Make-replacement.
To build C-CoRN with SCons run scons
to build the whole library, or
scons some/module.vo
to just build some/module.vo
(and its dependencies).
In addition to common Make options like -j N
and -k
, SCons
supports some useful options of its own, such as --debug=time
, which
displays the time spent executing individual build commands.
scons -c
replaces Make clean
For more information, see the SCons documentation.
Building documentation
To build CoqDoc documentation, say scons coqdoc
.
Description of the repository
CoRN includes the following parts:
-
Algebraic Hierarchy
An axiomatic formalization of the most common algebraic structures, including setoids, monoids, groups, rings, fields, ordered fields, rings of polynomials, real and complex numbers
-
Model of the Real Numbers
Construction of a concrete real number structure satisfying the previously defined axioms
-
Fundamental Theorem of Algebra
A proof that every non-constant polynomial on the complex plane has at least one root
-
Real Calculus
A collection of elementary results on real analysis, including continuity, differentiability, integration, Taylor's theorem and the Fundamental Theorem of Calculus
-
Exact Real Computation
Fast verified computation inside Coq. This includes: real numbers, functions, integrals, graphs of functions, differential equations.