Three Cuts for Accelerated Interval Propagation

This paper addresses the problem of nonlinear multivariate root finding. In an earlier paper we described a system called Newton which finds roots of systems of nonlinear equations using refinements of interval methods. The refinements are inspired by AI constraint propagation techniques. New...

Full description

Bibliographic Details
Main Authors: McAllester, D., Henlenryck, P. Van, Kapur, T.
Language:en_US
Published: 2004
Online Access:http://hdl.handle.net/1721.1/6642
_version_ 1826209116123561984
author McAllester, D.
Henlenryck, P. Van
Kapur, T.
author_facet McAllester, D.
Henlenryck, P. Van
Kapur, T.
author_sort McAllester, D.
collection MIT
description This paper addresses the problem of nonlinear multivariate root finding. In an earlier paper we described a system called Newton which finds roots of systems of nonlinear equations using refinements of interval methods. The refinements are inspired by AI constraint propagation techniques. Newton is competative with continuation methods on most benchmarks and can handle a variety of cases that are infeasible for continuation methods. This paper presents three "cuts" which we believe capture the essential theoretical ideas behind the success of Newton. This paper describes the cuts in a concise and abstract manner which, we believe, makes the theoretical content of our work more apparent. Any implementation will need to adopt some heuristic control mechanism. Heuristic control of the cuts is only briefly discussed here.
first_indexed 2024-09-23T14:17:29Z
id mit-1721.1/6642
institution Massachusetts Institute of Technology
language en_US
last_indexed 2024-09-23T14:17:29Z
publishDate 2004
record_format dspace
spelling mit-1721.1/66422019-04-11T02:52:39Z Three Cuts for Accelerated Interval Propagation McAllester, D. Henlenryck, P. Van Kapur, T. This paper addresses the problem of nonlinear multivariate root finding. In an earlier paper we described a system called Newton which finds roots of systems of nonlinear equations using refinements of interval methods. The refinements are inspired by AI constraint propagation techniques. Newton is competative with continuation methods on most benchmarks and can handle a variety of cases that are infeasible for continuation methods. This paper presents three "cuts" which we believe capture the essential theoretical ideas behind the success of Newton. This paper describes the cuts in a concise and abstract manner which, we believe, makes the theoretical content of our work more apparent. Any implementation will need to adopt some heuristic control mechanism. Heuristic control of the cuts is only briefly discussed here. 2004-10-08T20:36:08Z 2004-10-08T20:36:08Z 1995-05-01 AIM-1542 http://hdl.handle.net/1721.1/6642 en_US AIM-1542 174936 bytes 310056 bytes application/postscript application/pdf application/postscript application/pdf
spellingShingle McAllester, D.
Henlenryck, P. Van
Kapur, T.
Three Cuts for Accelerated Interval Propagation
title Three Cuts for Accelerated Interval Propagation
title_full Three Cuts for Accelerated Interval Propagation
title_fullStr Three Cuts for Accelerated Interval Propagation
title_full_unstemmed Three Cuts for Accelerated Interval Propagation
title_short Three Cuts for Accelerated Interval Propagation
title_sort three cuts for accelerated interval propagation
url http://hdl.handle.net/1721.1/6642
work_keys_str_mv AT mcallesterd threecutsforacceleratedintervalpropagation
AT henlenryckpvan threecutsforacceleratedintervalpropagation
AT kapurt threecutsforacceleratedintervalpropagation