This paper, Part 2 of a two part series, reviews and evaluates four (4) algorithms that identify fuzzy relational matrices by optimizing a user-speciÿed performance index [6,8,29,34]. The performance of the Recursive Parameter method [34] was unsatisfactory but the Probabilistic Descent [6], Neural
Identification algorithms for fuzzy relational matrices, Part 1: Non-optimizing algorithms
✍ Scribed by Mary M. Bourke; D. Grant Fisher
- Publisher
- Elsevier Science
- Year
- 2000
- Tongue
- English
- Weight
- 182 KB
- Volume
- 109
- Category
- Article
- ISSN
- 0165-0114
No coin nor oath required. For personal study only.
✦ Synopsis
This paper is the ÿrst of a two part series that reviews and critiques several identiÿcation algorithms for fuzzy relational matrices. Part 1 reviews and evaluates algorithms that do not optimize or minimize a speciÿed performance criteria [3,9,20,24]. It compliments and extends a recent comparative identiÿcation analysis by Postlethwaite [17]. Part 2 [1] evaluates algorithms that optimize or minimize a speciÿed performance criteria [6,8,23,26]. The relational matrix, learned by each algorithm from the Box-Jenkins gas furnace data [2], is compared for e ectiveness of the prediction based on a minimum distance from actual. A new, non-optimized identiÿcation algorithm with an on-line formulation that guarantees the completeness of the relational matrix, if su cient learning has taken place, is also presented. Results show that the proposed new algorithm ranks as the best among the non-optimized algorithms with prediction results very close to the optimization methods of Part 2.
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