https://wiki.tfpie.science.ru.nl/index.php?title=File:TFPIE2013_Structural_Induction_Principles.pdf&feed=atom&action=historyFile:TFPIE2013 Structural Induction Principles.pdf - Revision history2024-03-29T12:42:55ZRevision history for this page on the wikiMediaWiki 1.35.5https://wiki.tfpie.science.ru.nl/index.php?title=File:TFPIE2013_Structural_Induction_Principles.pdf&diff=129&oldid=prevPeter88: User defined recursive types are a fundamental feature of modern functional programming languages like Haskell and the ML family of languages. Properties of programs defined by recursion on the structure of a recursive types are generally proved by struct2013-05-12T22:35:23Z<p>User defined recursive types are a fundamental feature of modern functional programming languages like Haskell and the ML family of languages. Properties of programs defined by recursion on the structure of a recursive types are generally proved by struct</p>
<p><b>New page</b></p><div>User defined recursive types are a fundamental feature of modern functional programming languages like Haskell and the ML family of languages. Properties of programs defined by recursion on the structure of a recursive types are generally proved by structural induction on the type. It is well known in the theorem proving community how to generate a structural induction principle from the type signature. These methods deserve to be better know in the functional programming community. Existing functional programming textbooks gloss over this material. And yet, if functional programmers do not know how to write down the structural induction principle for a new type - how are they supposed to reason about it? In this paper we describe an algorithm to generate structural induction principles from type signatures. We also discuss how these methods are taught in the Functional Programming course at the University of Wyoming. A Haskell implementation of the algorithm is included in an appendix.</div>Peter88