ΛProlog
In today's article we are going to delve into the topic of ΛProlog, a question that has generated great interest in recent times. ΛProlog, whether on a personal, social or professional level, has a significant impact on our lives. In this article, we will explore the different facets of ΛProlog, analyzing its implications, challenges, and possible solutions. Additionally, we will examine how ΛProlog has evolved over time and its relevance today. Through a holistic approach, we will seek to better understand ΛProlog and its influence on our daily lives. Join us on this journey to discover more about ΛProlog and its importance in our current reality!
| Paradigm | Logic programming |
|---|---|
| Designed by | Dale Miller and Gopalan Nadathur |
| First appeared | 1987 |
| Typing discipline | strongly typed |
| License | GNU General Public License v3 |
| Website | www |
| Major implementations | |
| Teyjus, ELPI | |
| Influenced by | |
| Prolog | |
| Influenced | |
| Makam | |
λProlog, also written lambda Prolog, is a logic programming language featuring polymorphic typing, modular programming, and higher-order programming. These extensions to Prolog are derived from the higher-order hereditary Harrop formulas used to justify the foundations of λProlog. Higher-order quantification, simply typed λ-terms, and higher-order unification gives λProlog the basic supports needed to capture the λ-tree syntax approach to higher-order abstract syntax, an approach to representing syntax that maps object-level bindings to programming language bindings. Programmers in λProlog need not deal with bound variable names: instead various declarative devices are available to deal with binder scopes and their instantiations.
History
Since 1986, λProlog has received numerous implementations. As of 2023, the language and its implementations are still actively being developed.
The Abella theorem prover has been designed to provide an interactive environment for proving theorems about the declarative core of λProlog.
See also
- Curry's paradox#Lambda calculus — about inconsistency problems caused by combining (propositional) logic and untyped lambda calculus
- Comparison of Prolog implementations
- Prolog syntax and semantics
References
- ^ "FAQ: What implementations of lambda Prolog are available?". www.lix.polytechnique.fr. Retrieved 2019-12-16.
Tutorials and texts
- Dale Miller and Gopalan Nadathur have written the book Programming with higher-order logic, published by Cambridge University Press in June 2012.
- Amy Felty has written in a 1997 tutorial on lambda Prolog and its Applications to Theorem Proving.
- John Hannan has written a tutorial on Program Analysis in lambda Prolog for the 1998 PLILP Conference.
- Olivier Ridoux has written Lambda-Prolog de A à Z... ou presque (163 pages, French). It is available as PostScript, PDF, and html.
External links
- λProlog homepage
- Entry at the Software Preservation Group.
Implementations
- The Teyjus λProlog compiler is currently the oldest implementation still being maintained. This compiler project is led by Gopalan Nadathur and various of his colleagues and students.
- ELPI: an Embeddable λProlog Interpreter has been developed by Enrico Tassi and Claudio Sacerdoti Coen. It is implemented in OCaml and is available online. The system is described in a paper that appeared LPAR 2015. ELPI is also available as a Coq plugin: see Enrico Tassi's tutorial on this plugin.
- The Abella prover can be used to prove theorems about λProlog programs and specifications.
 | This programming-language-related article is a stub. You can help Wikipedia by expanding it. |
- ^ Nadathur, Gopalan; Dustin Mitchell (1999). System Description: Teyjus - A Compiler and Abstract Machine Based Implementation of lambda Prolog. LNAI. Vol. 1632. pp. 287–291. doi:10.1007/3-540-48660-7_25. ISBN 978-3-540-66222-8.
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