λProlog

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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. Since 1986, λProlog has received numerous implementations. As of 2013, 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

External links

Implementations

  • The Teyjus λProlog compiler is currently the most popular implementation to date.[1] This compiler project is led by Gopalan Nadathur and various of his colleagues and students.
  • The ELPI---Embeddable λProlog Interpreter---has been developed by Claudio Sacerdoti Coen and Enrico Tassi. It is implemented in OCaml and is available online. The system is described in a paper that appeared LPAR 2015.
  • The Abella prover can be used to prove theorems about λProlog programs and specifications.

Tutorials and Texts

References

  1. ^ Nadathur, Gopalan; Dustin Mitchell (1999). "System Description: Teyjus - A Compiler and Abstract Machine Based Implementation of lambda Prolog". Conference on Automated Deduction. LNAI. 1632: 287–291. doi:10.1007/3-540-48660-7_25.