TY - GEN
T1 - Detecting the tomato leaf disease using clustering based on fuzzy adaptive turbulence particle swarm optimization
AU - Anam, Syaiful
AU - Yanti, Indah
AU - Fitriah, Zuraidah
N1 - Publisher Copyright:
© 2022 American Institute of Physics Inc.. All rights reserved.
PY - 2022/10/11
Y1 - 2022/10/11
N2 - Early blight is one of diseases that infects tomato leaves. The symptoms of this disease are characterized by the appearance of dark spots on tomato leaves. This disease causes a decrease in the production of tomato plants. The early detection of this diseases is very important to maintain the tomato production. Monitoring tomato leaves health manually in large area is very time-consuming and inefficient. The drones and computer vision technology is an alternative in solving this problem. One of the important steps in detecting the tomato leaf disease based on computer vision is the segmentation area of the tomato leaf into the healthy and diseased tomato leaf. The K-means clustering is an image segmentation method that is simple, fast and works unsupervised. However, the solutions of the K-means clustering often be trapped into the local optimum. The Particle Swarm Optimization (PSO) offers a solution of this problem. The performance of PSO depends on the particle velocity of the PSO, if the particle velocity is not determined precisely then the PSO will converge prematurely. Fuzzy Adaptive Turbulence Particle Swarm Optimization (FATPSO) offers an adaptive minimum velocity control of the PSO particles to overcome the premature convergence problem in PSO. For this reason, these papers propose the FATPSO to detect the tomato leaf disease. The fitness function of FATPSO uses an objective function of K-means. The experimental results show that the FATPSO has a better performance than the PSO algorithm in detecting the tomato leaf disease.
AB - Early blight is one of diseases that infects tomato leaves. The symptoms of this disease are characterized by the appearance of dark spots on tomato leaves. This disease causes a decrease in the production of tomato plants. The early detection of this diseases is very important to maintain the tomato production. Monitoring tomato leaves health manually in large area is very time-consuming and inefficient. The drones and computer vision technology is an alternative in solving this problem. One of the important steps in detecting the tomato leaf disease based on computer vision is the segmentation area of the tomato leaf into the healthy and diseased tomato leaf. The K-means clustering is an image segmentation method that is simple, fast and works unsupervised. However, the solutions of the K-means clustering often be trapped into the local optimum. The Particle Swarm Optimization (PSO) offers a solution of this problem. The performance of PSO depends on the particle velocity of the PSO, if the particle velocity is not determined precisely then the PSO will converge prematurely. Fuzzy Adaptive Turbulence Particle Swarm Optimization (FATPSO) offers an adaptive minimum velocity control of the PSO particles to overcome the premature convergence problem in PSO. For this reason, these papers propose the FATPSO to detect the tomato leaf disease. The fitness function of FATPSO uses an objective function of K-means. The experimental results show that the FATPSO has a better performance than the PSO algorithm in detecting the tomato leaf disease.
UR - https://www.scopus.com/pages/publications/85140235387
U2 - 10.1063/5.0111988
DO - 10.1063/5.0111988
M3 - Conference contribution
AN - SCOPUS:85140235387
T3 - AIP Conference Proceedings
BT - 3rd International Conference on Mathematics and Sciences, ICMSc 2021
A2 - Nugroho, Rudy Agung
A2 - Allo, Veliyana Londong
A2 - Siringoringo, Meiliyani
A2 - Prangga, Surya
A2 - Wahidah, null
A2 - Munir, Rahmiati
A2 - Hiyahara, Irfan Ashari
PB - American Institute of Physics Inc.
T2 - 3rd International Conference on Mathematics and Sciences 2021: A Brighter Future with Tropical Innovation in the Application of Industry 4.0, ICMSc 2021
Y2 - 12 October 2021 through 13 October 2021
ER -