An improved adaptive neuro-fuzzy inference system using probability trajectory-based clustering ensemble

Research findings established the usefulness of Adaptive neuro-fuzzy inference system (ANFIS) in predicting outcomes of events, processes or systems from their numerical representations (datasets). However, its effectiveness in terms of prediction accuracy and complexity depends on some factors spec...

Full description

Bibliographic Details
Main Authors: Alaba Timothy Owoseni, Olatubosun Olabode, Kolawole G. Akintola, Pius Adekunle Enikanselu
Format: Article
Language:English
Published: Elsevier 2020-09-01
Series:Scientific African
Subjects:
Online Access:http://www.sciencedirect.com/science/article/pii/S2468227620302581
id doaj-e695037962eb42d5b4d0293e454dc19d
record_format Article
spelling doaj-e695037962eb42d5b4d0293e454dc19d2020-11-29T04:18:55ZengElsevierScientific African2468-22762020-09-019e00520An improved adaptive neuro-fuzzy inference system using probability trajectory-based clustering ensembleAlaba Timothy Owoseni0Olatubosun Olabode1Kolawole G. Akintola2Pius Adekunle Enikanselu3Department of Mathematical Sciences, Kings University, Nigeria; Corresponding author.Department of Information Technology, The Federal University of Technology, Akure, NigeriaDepartment of Software Engineering, The Federal University of Technology, Akure, NigeriaDepartment of Applied Geophysics, The Federal University of Technology, Akure, NigeriaResearch findings established the usefulness of Adaptive neuro-fuzzy inference system (ANFIS) in predicting outcomes of events, processes or systems from their numerical representations (datasets). However, its effectiveness in terms of prediction accuracy and complexity depends on some factors specifically its set of rules that models data behavior, and tune-able parameters (antecedent, consequent and rule base). Although several promising non-heuristic and meta-heuristic optimization techniques like gradient descent, Ant Colony, Genetic Algorithm, Particle Swarm, and Invasive Weed have been proposed to improve on the prediction accuracy of ANFIS through proper optimization of its tune-able parameters, but absolutely no work has applied clustering ensemble to improving on ANFIS for better accuracy especially on rules improvement. Therefore, in this paper, we propose an improved ANFIS that uses an agglomerative-based clustering ensemble of fuzzy c-means to help extract rules from a given dataset that represent a process, event or system. The ensemble uses probability trajectories of random walk processes on base clustering partitions of the dataset so as to refine direct co-association relationships or links among data objects of the base partitions thereby improving on these relationships that later metamorphosed to fuzzy rules and finally, a better accuracy. Comparative analysis of our proposed improved ANFIS alongside with the conventional ANFIS using two standard petrophysical datasets for lithology prediction shows that the proposed ANFIS is better than the conventional ANFIS in terms of prediction model accuracy and stability although, both maintain the same architecture in terms of the number of rules and tune-able parameters as well as the training methods.http://www.sciencedirect.com/science/article/pii/S2468227620302581Probability trajectoryANFISImproved ANFISOptimized adaptive neuro-fuzzy inference systemClustering ensembleAgglomerative-based clustering ensemble
collection DOAJ
language English
format Article
sources DOAJ
author Alaba Timothy Owoseni
Olatubosun Olabode
Kolawole G. Akintola
Pius Adekunle Enikanselu
spellingShingle Alaba Timothy Owoseni
Olatubosun Olabode
Kolawole G. Akintola
Pius Adekunle Enikanselu
An improved adaptive neuro-fuzzy inference system using probability trajectory-based clustering ensemble
Scientific African
Probability trajectory
ANFIS
Improved ANFIS
Optimized adaptive neuro-fuzzy inference system
Clustering ensemble
Agglomerative-based clustering ensemble
author_facet Alaba Timothy Owoseni
Olatubosun Olabode
Kolawole G. Akintola
Pius Adekunle Enikanselu
author_sort Alaba Timothy Owoseni
title An improved adaptive neuro-fuzzy inference system using probability trajectory-based clustering ensemble
title_short An improved adaptive neuro-fuzzy inference system using probability trajectory-based clustering ensemble
title_full An improved adaptive neuro-fuzzy inference system using probability trajectory-based clustering ensemble
title_fullStr An improved adaptive neuro-fuzzy inference system using probability trajectory-based clustering ensemble
title_full_unstemmed An improved adaptive neuro-fuzzy inference system using probability trajectory-based clustering ensemble
title_sort improved adaptive neuro-fuzzy inference system using probability trajectory-based clustering ensemble
publisher Elsevier
series Scientific African
issn 2468-2276
publishDate 2020-09-01
description Research findings established the usefulness of Adaptive neuro-fuzzy inference system (ANFIS) in predicting outcomes of events, processes or systems from their numerical representations (datasets). However, its effectiveness in terms of prediction accuracy and complexity depends on some factors specifically its set of rules that models data behavior, and tune-able parameters (antecedent, consequent and rule base). Although several promising non-heuristic and meta-heuristic optimization techniques like gradient descent, Ant Colony, Genetic Algorithm, Particle Swarm, and Invasive Weed have been proposed to improve on the prediction accuracy of ANFIS through proper optimization of its tune-able parameters, but absolutely no work has applied clustering ensemble to improving on ANFIS for better accuracy especially on rules improvement. Therefore, in this paper, we propose an improved ANFIS that uses an agglomerative-based clustering ensemble of fuzzy c-means to help extract rules from a given dataset that represent a process, event or system. The ensemble uses probability trajectories of random walk processes on base clustering partitions of the dataset so as to refine direct co-association relationships or links among data objects of the base partitions thereby improving on these relationships that later metamorphosed to fuzzy rules and finally, a better accuracy. Comparative analysis of our proposed improved ANFIS alongside with the conventional ANFIS using two standard petrophysical datasets for lithology prediction shows that the proposed ANFIS is better than the conventional ANFIS in terms of prediction model accuracy and stability although, both maintain the same architecture in terms of the number of rules and tune-able parameters as well as the training methods.
topic Probability trajectory
ANFIS
Improved ANFIS
Optimized adaptive neuro-fuzzy inference system
Clustering ensemble
Agglomerative-based clustering ensemble
url http://www.sciencedirect.com/science/article/pii/S2468227620302581
work_keys_str_mv AT alabatimothyowoseni animprovedadaptiveneurofuzzyinferencesystemusingprobabilitytrajectorybasedclusteringensemble
AT olatubosunolabode animprovedadaptiveneurofuzzyinferencesystemusingprobabilitytrajectorybasedclusteringensemble
AT kolawolegakintola animprovedadaptiveneurofuzzyinferencesystemusingprobabilitytrajectorybasedclusteringensemble
AT piusadekunleenikanselu animprovedadaptiveneurofuzzyinferencesystemusingprobabilitytrajectorybasedclusteringensemble
AT alabatimothyowoseni improvedadaptiveneurofuzzyinferencesystemusingprobabilitytrajectorybasedclusteringensemble
AT olatubosunolabode improvedadaptiveneurofuzzyinferencesystemusingprobabilitytrajectorybasedclusteringensemble
AT kolawolegakintola improvedadaptiveneurofuzzyinferencesystemusingprobabilitytrajectorybasedclusteringensemble
AT piusadekunleenikanselu improvedadaptiveneurofuzzyinferencesystemusingprobabilitytrajectorybasedclusteringensemble
_version_ 1724412478324998144