Difference between revisions of "Applications and libraries/Theorem provers"

From HaskellWiki
Jump to navigation Jump to search
(→‎Applications: Cayenne reappeared on the web => link updated)
(14 intermediate revisions by 9 users not shown)
Line 3: Line 3:
 
== Applications ==
 
== Applications ==
   
;[http://www.cs.chalmers.se/~catarina/agda/ Agda]
+
;[http://wiki.portal.chalmers.se/agda/agda.php Agda]
 
:Agda is a system for incrementally developing proofs and programs. Agda is also a functional language with [[Dependent type]]s. This language is very similar to cayenne and agda is intended to be a (almost) full implementation of it in the future.
 
:Agda is a system for incrementally developing proofs and programs. Agda is also a functional language with [[Dependent type]]s. This language is very similar to cayenne and agda is intended to be a (almost) full implementation of it in the future.
   
 
;[http://citeseer.ist.psu.edu/29367.html A resolution-based theorem prover for FOL]
 
;[http://citeseer.ist.psu.edu/29367.html A resolution-based theorem prover for FOL]
 
:Haskell implementation of a resolution based theorem prover for first order logic.
 
:Haskell implementation of a resolution based theorem prover for first order logic.
  +
  +
;[http://www-ps.iai.uni-bonn.de/cgi-bin/free-theorems-webui.cgi Automatic generation of free theorems]
  +
:Web interface for generating theorems from Haskell types.
   
 
;[http://wiki.di.uminho.pt/wiki/bin/view/PURe/Camila Camila]
 
;[http://wiki.di.uminho.pt/wiki/bin/view/PURe/Camila Camila]
 
:Camila is a system for software development using formal methods. Other materials on formal methods can be found also on the [[Analysis and design|analysis and design]] page.
 
:Camila is a system for software development using formal methods. Other materials on formal methods can be found also on the [[Analysis and design|analysis and design]] page.
   
;[http://www.cs.chalmers.se/~augustss/cayenne/index.html Cayenne]
+
;[http://www.augustsson.net/Darcs/Cayenne/html/ Cayenne]
:Cayenne is a functional language with a powerful [[Dependent type|dependent type system]]. The basic types are functions, products, and sums. Functions and products use dependent types to gain additional power. As with Epigram, a dependently typed language may be used to encode strong proofs in the type system.
+
:Cayenne is a functional language with a powerful [[Dependent type|dependent type system]]. The basic types are functions, products, and sums. Functions and products use dependent types to gain additional power. As with Epigram, a dependently typed language may be used to encode strong proofs in the type system. The language is no longer supportd; the link points to a page stored in the Web Archive.
  +
  +
;[http://www.lix.polytechnique.fr/dedukti Dedukti]
  +
:Dedukti is a proof checker for the λΠ-modulo calculus, a dependently typed λ-calculus with the addition of typed rewrite rules, capable of expressing proofs in Deduction Modulo.
   
 
;[http://www.cwi.nl/~jve/demo/ DEMO]
 
;[http://www.cwi.nl/~jve/demo/ DEMO]
Line 26: Line 32:
 
:Epigram is a prototype [[Dependent type|dependently typed]] functional programming language, equipped with an interactive editing and typechecking environment. High-level Epigram source code elaborates into a dependent type theory based on Zhaohui Luo's UTT. Programming with evidence lies at the heart of Epigram's design.
 
:Epigram is a prototype [[Dependent type|dependently typed]] functional programming language, equipped with an interactive editing and typechecking environment. High-level Epigram source code elaborates into a dependent type theory based on Zhaohui Luo's UTT. Programming with evidence lies at the heart of Epigram's design.
   
;[http://www.cs.chalmers.se/~koen/pubs/dagstuhl05-equinox.ppt Equinox]
+
;[http://www.cs.chalmers.se/~koen/folkung/ Equinox]
 
:Equinox is a new theorem prover for pure first-order logic with equality. It finds ground proofs of the input theory, by solving successive ground instantiations of the theory using an incremental SAT-solver. Equality is dealt with using a Nelson-Oppen framework.
 
:Equinox is a new theorem prover for pure first-order logic with equality. It finds ground proofs of the input theory, by solving successive ground instantiations of the theory using an incremental SAT-solver. Equality is dealt with using a Nelson-Oppen framework.
   
;[http://fldit-www.cs.uni-dortmund.de/~peter/#1 Expander2]
+
;[http://fldit-www.cs.uni-dortmund.de/~peter/ExpNeu/Welcome.html Expander2]
 
:Expander2 is a flexible multi-purpose workbench for rewriting, verification, constraint solving, flow graph analysis and related procedures that build up proofs or computation sequences. Moreover, tailor-made interpreters display terms as 2D structures ranging from trees and rooted graphs to tables, fractals and other turtle-system-generated pictures.
 
:Expander2 is a flexible multi-purpose workbench for rewriting, verification, constraint solving, flow graph analysis and related procedures that build up proofs or computation sequences. Moreover, tailor-made interpreters display terms as 2D structures ranging from trees and rooted graphs to tables, fractals and other turtle-system-generated pictures.
   
Line 35: Line 41:
 
:An implementation of a simple theorem prover in first-order logic using Haskell.
 
:An implementation of a simple theorem prover in first-order logic using Haskell.
   
;[http://taz.cs.wcupa.edu/~dmead/code/halp/ Halp]
+
;[http://taz.cs.wcupa.edu/~dmead/code/prover/ Halp]
:Haskell Logic Prover is written in Haskell supports first order logic with plans to add predicates. Also included is a simple frontend written in Java 5.
+
:Haskell Logic Prover is written in Haskell supports first order logic with plans to add predicates. Also included is a simple frontend written with gtk2hs
  +
  +
;[http://isabelle.in.tum.de/haskabelle.html Haskabelle]
  +
:Haskabelle is a converter from Haskell source files to Isabelle/HOL theories implemented in Haskell itself
  +
  +
;[http://www.informatik.uni-bremen.de/agbkb/forschung/formal_methods/CoFI/hets/ Hets]
  +
:The Heterogeneous Tool Set (Hets) is a parsing, static analysis and proof management tool combining various tools for different specification languages, thus providing a tool for heterogeneous specifications. It supports HasCASL for specification of Haskell programs, and uses Isabelle for proving
   
 
;[http://www.math.chalmers.se/~koen/paradox/ Paradox]
 
;[http://www.math.chalmers.se/~koen/paradox/ Paradox]
Line 46: Line 58:
 
;[http://www.haskell.org/yarrow/ Yarrow]
 
;[http://www.haskell.org/yarrow/ Yarrow]
 
:Yarrow is a proof-assistant for Pure Type Systems (PTSs) with several extensions. In Yarrow you can experiment with various pure type systems, representing different logics and programming languages.
 
:Yarrow is a proof-assistant for Pure Type Systems (PTSs) with several extensions. In Yarrow you can experiment with various pure type systems, representing different logics and programming languages.
  +
  +
;[[Zeno]]
  +
:Zeno is an automated proof system for Haskell program properties; developed at Imperial College London by William Sonnex, Sophia Drossopoulou and Susan Eisenbach. It aims to solve the general problem of equality between two Haskell terms, for any input value. Proofs and programs are output as [http://www.cl.cam.ac.uk/research/hvg/Isabelle/ Isabelle/HOL] theories which are then automatically verified by said tool.
   
 
== Libraries ==
 
== Libraries ==

Revision as of 20:22, 8 August 2012

Tools for formal reasoning, written in Haskell.

Applications

Agda
Agda is a system for incrementally developing proofs and programs. Agda is also a functional language with Dependent types. This language is very similar to cayenne and agda is intended to be a (almost) full implementation of it in the future.
A resolution-based theorem prover for FOL
Haskell implementation of a resolution based theorem prover for first order logic.
Automatic generation of free theorems
Web interface for generating theorems from Haskell types.
Camila
Camila is a system for software development using formal methods. Other materials on formal methods can be found also on the analysis and design page.
Cayenne
Cayenne is a functional language with a powerful dependent type system. The basic types are functions, products, and sums. Functions and products use dependent types to gain additional power. As with Epigram, a dependently typed language may be used to encode strong proofs in the type system. The language is no longer supportd; the link points to a page stored in the Web Archive.
Dedukti
Dedukti is a proof checker for the λΠ-modulo calculus, a dependently typed λ-calculus with the addition of typed rewrite rules, capable of expressing proofs in Deduction Modulo.
DEMO
Model checking for dynamic epistemic logic. DEMO is a tool for modelling change in epistemic logic (the logic of knowledge). Among other things, DEMO allows modeling epistemic updates, graphical display of update results, graphical display of action models, formula evaluation in epistemic models, translation of dynamic epistemic formulas to PDL (propositional dynamic logic) formulas. More materials and other Haskell resources on dynamic epistemic modelling (and more generally on logic and linguistics) can be found on Jan van Eijck's page.
Djinn
Djinn generates Haskell code from a type declaration, using a decision procedure from intuitionistic propositional calculus.
Dumatel
Dumatel is a prover based on many-sorted term rewriting (TRW) and equational reasoning
Epigram
Epigram is a prototype dependently typed functional programming language, equipped with an interactive editing and typechecking environment. High-level Epigram source code elaborates into a dependent type theory based on Zhaohui Luo's UTT. Programming with evidence lies at the heart of Epigram's design.
Equinox
Equinox is a new theorem prover for pure first-order logic with equality. It finds ground proofs of the input theory, by solving successive ground instantiations of the theory using an incremental SAT-solver. Equality is dealt with using a Nelson-Oppen framework.
Expander2
Expander2 is a flexible multi-purpose workbench for rewriting, verification, constraint solving, flow graph analysis and related procedures that build up proofs or computation sequences. Moreover, tailor-made interpreters display terms as 2D structures ranging from trees and rooted graphs to tables, fractals and other turtle-system-generated pictures.
FOL Resolution Theorem Prover
An implementation of a simple theorem prover in first-order logic using Haskell.
Halp
Haskell Logic Prover is written in Haskell supports first order logic with plans to add predicates. Also included is a simple frontend written with gtk2hs
Haskabelle
Haskabelle is a converter from Haskell source files to Isabelle/HOL theories implemented in Haskell itself
Hets
The Heterogeneous Tool Set (Hets) is a parsing, static analysis and proof management tool combining various tools for different specification languages, thus providing a tool for heterogeneous specifications. It supports HasCASL for specification of Haskell programs, and uses Isabelle for proving
Paradox
Paradox processes first-order logic problems and tries to find finite-domain models for them.
Proof General Kit
The Proof General Kit designs and implements a component-based framework for interactive theorem proving. The central middleware of the toolkit is implemented in Haskell. The project is the sucessor of the highly successful Emacs-based Proof General interface.
Yarrow
Yarrow is a proof-assistant for Pure Type Systems (PTSs) with several extensions. In Yarrow you can experiment with various pure type systems, representing different logics and programming languages.
Zeno
Zeno is an automated proof system for Haskell program properties; developed at Imperial College London by William Sonnex, Sophia Drossopoulou and Susan Eisenbach. It aims to solve the general problem of equality between two Haskell terms, for any input value. Proofs and programs are output as Isabelle/HOL theories which are then automatically verified by said tool.

Libraries

Ivor
is type theory based theorem proving library -- written by Edwin Brady (see also the author's homepage, there are a lot of materials concerning dependent type theory there).

This page contains a list of libraries and tools in a certain category. For a comprehensive list of such pages, see Applications and libraries.