Journal
APPLIED SCIENCES-BASEL
Volume 12, Issue 5, Pages -Publisher
MDPI
DOI: 10.3390/app12052281
Keywords
smart cities; IoT; object detection; classification; deep learning; small objects; single shot; waste management
Categories
Funding
- Deputyship for Research & Innovation, Ministry of Education in Saudi Arabia [MoE-IF-20-02/10]
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Object detection is a challenging problem in computer vision, and recent studies have shown that deep learning models perform well in this area. This research presents a novel deep learning-based technique called DLSODC-GWM for garbage waste management, which focuses on detecting and classifying small garbage waste objects to assist intelligent waste management systems. The technique combines an arithmetic optimization algorithm and a functional link neural network to achieve high accuracy in object detection and waste classification.
In recent years, object detection has gained significant interest and is considered a challenging problem in computer vision. Object detection is mainly employed for several applications, such as instance segmentation, object tracking, image captioning, healthcare, etc. Recent studies have reported that deep learning (DL) models can be employed for effective object detection compared to traditional methods. The rapid urbanization of smart cities necessitates the design of intelligent and automated waste management techniques for effective recycling of waste. In this view, this study develops a novel deep learning-based small object detection and classification model for garbage waste management (DLSODC-GWM) technique. The proposed DLSODC-GWM technique mainly focuses on detecting and classifying small garbage waste objects to assist intelligent waste management systems. The DLSODC-GWM technique follows two major processes, namely, object detection and classification. For object detection, an arithmetic optimization algorithm (AOA) with an improved RefineDet (IRD) model is applied, where the hyperparameters of the IRD model are optimally chosen by the AOA. Secondly, the functional link neural network (FLNN) technique was applied for the classification of waste objects into multiple classes. The design of IRD for waste classification and AOA-based hyperparameter tuning demonstrates the novelty of the work. The performance validation of the DLSODC-GWM technique is performed using benchmark datasets, and the experimental results show the promising performance of the DLSODC-GWM method on existing approaches with a maximum accuy of 98.61%.
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