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<p>In the face of the global carbon emission crisis, there are many limitations of traditional emission reduction technologies. In this paper, a large-scale carbon dioxide capture system based on gas membrane technology and wireless sensor networks is proposed to realize efficient and low-cost carbon capture and storage through interdisciplinary synergistic optimization. The system adopts high-performance gas membrane structure, advanced adsorption materials and lightweight support skeleton, and combines intelligent control and renewable energy supply to significantly improve the carbon capture efficiency. Key technologies include hierarchical adsorption, low-energy desorption and modularized rapid deployment to ensure the applicability of the system in non-arable environments. Economic analysis shows that the system achieves a cost–benefit balance through material durability, scale effects, and carbon trading gains, while creating synergies with cold chain and microalgae farming industries, providing a viable solution to the global carbon neutrality goal.</p>

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The design and application of large-scale carbon dioxide capture system based on gas film technology

  • 期刊论文

  • 出版模式：

    开放获取

  • 发表日期：

    2025年7月23日

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  • Shaohua Hu,
  • Jun Feng,
  • Hao Xu

摘要

In the face of the global carbon emission crisis, there are many limitations of traditional emission reduction technologies. In this paper, a large-scale carbon dioxide capture system based on gas membrane technology and wireless sensor networks is proposed to realize efficient and low-cost carbon capture and storage through interdisciplinary synergistic optimization. The system adopts high-performance gas membrane structure, advanced adsorption materials and lightweight support skeleton, and combines intelligent control and renewable energy supply to significantly improve the carbon capture efficiency. Key technologies include hierarchical adsorption, low-energy desorption and modularized rapid deployment to ensure the applicability of the system in non-arable environments. Economic analysis shows that the system achieves a cost–benefit balance through material durability, scale effects, and carbon trading gains, while creating synergies with cold chain and microalgae farming industries, providing a viable solution to the global carbon neutrality goal.