| 摘要: | ;The proposed technology is expected to generate significant impacts across environmental, scientific, economic, and societal dimensions, thereby contributing to sustainable development and technological advancement. From an environmental perspective, the adsorption system provides an effective solution for removing perfluorinated compounds (PFCs), which possess high global warming potential and long atmospheric lifetimes. By capturing these gases, the system supports emission reduction strategies, promotes a circular carbon economy, and aligns with Taiwan’s net-zero emissions target by 2050. In terms of energy transition, the integration of adsorption-based treatment with catalytic or plasma technologies offers potential for advancing low-carbon processes and mitigating harmful emissions, thereby supporting cleaner industrial operations. From a scientific perspective, this research bridges environmental engineering, materials science, and computational modeling, contributing to a deeper understanding of adsorption mechanisms and fostering the development of innovative methodologies that combine experimental and simulation approaches. Economically, the technology provides a cost-effective and scalable solution for emission control, enhancing industrial efficiency and enabling integration into existing semiconductor and chemical manufacturing systems, while also offering opportunities for value-added applications. Finally, the societal impact is reflected in its contribution to climate change mitigation, promotion of sustainable engineering practices, and development of skilled human resources, supporting the cultivation of expertise necessary to address future environmental challenges. |
