Sep 2026· International Conference on Data Technologies and Applications· Vol 11, pp. 234· 0 citations· 29 references
Municipal Solid Waste Management
TL;DR
This work developed a custom edge-node reverse-vending-machine data-collection station equipped with multimodal sensors to co-record RGB-D video streams and impact audio on a single local compute node within the same acquisition window to support research on multimodal waste recognition, sensor fusion, and resource-efficient classification.
Abstract
Automated classification of municipal solid waste remains challenging due to high variability in object appearance, deformation, contamination, and inconsistent consumer disposal behavior, creating a need for representative multimodal datasets that enable robust machine-learning models. In this work, we developed a custom edge-node reverse-vending-machine (RVM) data-collection station equipped with multimodal sensors (RGB-D and microphone array) to co-record RGB-D video streams and impact audio on a single local compute node within the same acquisition window. Strict data acquisition protocols were designed to ensure a consistent environment, controlled illumination, and uniform background conditions while capturing realistic variations associated with everyday Greek consumer waste. The resulting dataset comprises 3300 multimodal samples corresponding to 721 distinct household waste items. Each sample is fully annotated across six categories addressing features critical for recycling: Material (18 classes), Hue (16 classes), Top/Cap, Label, Contamination, and Deformation. In addition, Common Objects in Context (COCO) annotations were added to support segmentation and object detection problems. This dataset is intended to support research on multimodal waste recognition, sensor fusion, and resource-efficient classification, and to serve as a foundation for evaluating models targeting edge-deployed recycling systems.
Rapid urbanization and population growth have made efficient waste management a critical environmental challenge. While deep learning has advanced automated waste classification, most existing models either rely on computationally heavy architectures that are unsuitable for resource-constrained edge devices or are limi...
Muhammad Zeldy Nasution, Neil Abednego Hutagalung, Ghinaa Zain Nabiilah et al.· International Conferences on...· 0 citations
The growing volume of textile waste, driven by fast fashion and shortened garment lifespans, underscores the urgent need for scalable, automated sorting solutions. Progress is hindered by the absence of realistic, public datasets reflecting the variability of industrial textile sorting. We address this gap with TexSort...
Julian Schanz, Martin Kohnle, Fabian Kopf et al.· Italian National Conference...· 0 citations
Campus waste sorting remains challenging because of the substantial variability in the appearance, shape, and material characteristics of waste objects, including deformed packaging, transparent plastics, paper products, and visually similar materials. This paper presents a smart waste detection and sorting framework t...
V. Lê, V. Ngo, T. Tran et al.· International Conference on...· 0 citations
Waste mismanagement continues to represent a major environmental and operational challenge in urban areas, particularly due to inefficient waste segregation practices that reduce recycling effectiveness and contribute to increasing landfill accumulation. Although recent advances in deep learning have shown strong poten...
H. Kurniawan, Nina Adriani, M. Amin et al.· Journal of Tropical Resource...· 0 citations
Generating accurately annotated training data remains a major bottleneck for deploying computer-vision-based sorting systems in heterogeneous waste streams. This work evaluates whether general-purpose zero-shot object detectors can reduce annotation effort for lightweight packaging waste, post-shredder scrap, and post-...
G. Koinig, N. Kuhn, Hannah Weber et al.· International Conference on...· 0 citations
This work introduced a vision-based waste classification system that relies on Deep Meta-Learner Stacking with Explainable AI (DMLSE) to merge the unique feature representations of a BasicCNN, VGG16, ResNet50V2, and MobileNetV2 across the synthetic, garbage, and waste classification datasets.
T. V. Shareena, S. Padmavathi· SN Computer Science· 0 citations
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