This book studies different classification, detection and decision fusion algorithms, and helps practitioners deal with uncertainty in their data sets.
This book studies different classification, detection, and decision fusion algorithms, and it helps practitioners deal with uncertainty in their data sets. Data uncertainties are considered as a collection of linguistic/fuzzy values or a vector of fuzzy numbers, and fuzzy algorithms are used to analyze these data sets. There are many theories and applications developed based on fuzzy set theory.
The topics of classification and prediction using fuzzy algorithms are introduced in the chapters on K-nearest prototype, clustering, and neural networks. The linguistic/fuzzy algorithm is designed to work with linguistic data represented by fuzzy vectors. The linguistic K-nearest prototypes algorithm is particularly useful in fields where data is inherently imprecise or fuzzy, such as in management questionnaire analysis, where responses may not be strictly quantitative. The reader also learns about clustering algorithms, such as linguistic hard C-means and linguistic fuzzy C-means, for hard and fuzzy partitions, respectively. The book explores the integration of fuzzy multilayer perceptrons (FMLPs) with the cuckoo search (CS) algorithm to enhance the performance and applicability of neural networks in handling complex fuzzy data. The extended version of two commonly used fuzzy integrals covered include the Choquet and the Sugeno integrals. Mathematical analysis of these algorithms is included in the study of the different approaches each takes to the aggregation of uncertain data. Both integrals are powerful tools for handling fuzzy data, and their use in improving decision-making and analysis is demonstrated through real-world application examples using both of these algorithms. Very importantly, decision fusion is studied using fuzzy Dempster–Shafer theory with a real-world example of an application.
This book serves as a guide for practitioners, such as robotics engineers, computer scientists, and researchers working on computational intelligence. It is also suitable for graduate courses on fuzzy theories and fuzzy techniques.
1. Linguistic/Fuzzy Vectors: What and Why?.
2. Linguistic K-Nearest
Prototype.
3. Linguistic Clustering.
4. Fuzzy Multilayer Perceptrons.
5.
Fuzzy Self-Organizing Feature Map.
6. Linguistic Fuzzy Integral.
7. Fuzzy
Dempsters Rule of Combination.
Sansanee Auephanwiriyakul was formerly the Head of the Department of Computer Engineering and the Deputy Director of the Biomedical Engineering Institute, Chiang Mai University, Chiang Mai, Thailand. She joined the department in 2002 and is currently an Associate Professor and also the Head of the Computational Intelligence Research Laboratory. She currently serves as Associate Editor for IEEE Transactions on Neural Networks and Learning Systems, IEEE Transactions on Fuzzy Systems, IEEE Computational Intelligence Magazine, IEEE Transactions on Artificial Intelligence, Engineering Applications of Artificial Intelligence, Computers and Electrical Engineering, and ECTI Transactions on Computer and Information Technology (ECTI-CIT) and as the Vice President (member activities) for the IEEE Computational Intelligence Society.
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