CarboNeXT and CarboFormer: Dual Semantic Segmentation Architectures for Detecting and Quantifying Carbon Dioxide Emissions Using Optical Gas Imaging

• URL: http://arxiv.org/abs/2506.05360v1
• Date: Fri, 23 May 2025 18:01:42 GMT
• Title: CarboNeXT and CarboFormer: Dual Semantic Segmentation Architectures for Detecting and Quantifying Carbon Dioxide Emissions Using Optical Gas Imaging
• Authors: Taminul Islam, Toqi Tahamid Sarker, Mohamed G Embaby, Khaled R Ahmed, Amer AbuGhazaleh,
• Abstract summary: Carbon dioxide (CO$$) emissions are critical indicators of both environmental impact and various industrial processes, including livestock management.<n>We introduce CarboNeXT, a semantic segmentation framework for Optical Gas Imaging (OGI), designed to detect and quantify CO$$ emissions across diverse applications.
• Score: 0.0
• License: http://creativecommons.org/licenses/by/4.0/
• Abstract: Carbon dioxide (CO$_2$) emissions are critical indicators of both environmental impact and various industrial processes, including livestock management. We introduce CarboNeXT, a semantic segmentation framework for Optical Gas Imaging (OGI), designed to detect and quantify CO$_2$ emissions across diverse applications. Our approach integrates a multi-scale context aggregation network with UPerHead and auxiliary FCN components to effectively model both local details and global relationships in gas plume imagery. We contribute two novel datasets: (1) the Controlled Carbon Dioxide Release (CCR) dataset, which simulates gas leaks with systematically varied flow rates (10-100 SCCM), and (2) the Real Time Ankom (RTA) dataset, focusing on emissions from dairy cow rumen fluid in vitro experiments. Extensive evaluations demonstrate that CarboNeXT outperforms state-of-the-art methods, achieving 88.46% mIoU on CCR and 92.95% mIoU on RTA, with particular effectiveness in challenging low-flow scenarios. The model operates at 60.95 FPS, enabling real-time monitoring applications. Additionally, we propose CarboFormer, a lightweight variant with only 5.07M parameters that achieves 84.68 FPS, with competitive performance of 84.88% mIoU on CCR and 92.98% on RTA, making it suitable for resource-constrained platforms such as programmable drones. Our work advances both environmental sensing and precision livestock management by providing robust tools for CO$_2$ emission analysis, with a specific focus on livestock applications.

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