KIU Publications
Publications Archive
Explore research, reports, and scholarly works from the vibrant academic community at Kampala International University.
No matching results? Clear all filters to begin a fresh search.
An Intelligent System-Based Coffee Plant Leaf Disease Recognition Using Deep Learning Techniques on Rwandan Arabica Dataset
Author: Eric Hitimana; Omar Janvier Sinayobye; J. Chrisostome Ufitinema; Jane Mukamugema; Peter Rwibasira; Theoneste Murangira; Emmanuel Masabo; Lucy Cherono Chepkwony; Marie Cynthia Abijuru Kamikazi; Jeanne Aline Ukundiwabo Uwera; Simon Martin Mvuyekure; Gaurav Bajpai; and Jackson Ngabonziza
Publisher: MDPI
Published: 2023
Section: Uncategorised
Abstract
Rwandan coffee holds significant importance and immense value within the realm of agriculture, serving as a vital and valuable commodity. Additionally, coffee plays a pivotal role in generating foreign exchange for numerous developing nations. However, the coffee plant is vulnerable to pests and diseases weakening production. Farmers in cooperation with experts use manual methods to detect diseases resulting in human errors. With the rapid improvements in deep learning methods, it is possible to detect and recognize plan diseases to support crop yield improvement. Therefore, it is an essential task to develop an efficient method for intelligently
detecting, identifying, and predicting coffee leaf diseases. This study aims to build the Rwandan coffee plant dataset, with the occurrence of coffee rust, miner, and red spider mites identified to be the most popular due to their geographical situations. From the collected coffee leaves dataset of 37,939 images, the preprocessing, along with modeling used five deep learning models such as
InceptionV3, ResNet50, Xception, VGG16, and DenseNet. The training, validation, and testing ratio is 80%, 10%, and 10%, respectively, with a maximum of 10 epochs. The comparative analysis of the models’ performances was investigated to select the best for future portable use. The experiment proved the DenseNet model to be the best with an accuracy of 99.57%. The efficiency of the suggested
method is validated through an unbiased evaluation when compared to existing approaches with different metrics.