Publication detail

Unveiling the potential of membrane in climate change mitigation and environmental resilience in ecosystem

AHMAD, T. KUMAR, N. KUMAR, A. MUBASHIR, M. BOKHARI, S. PASWAN, BK. QIBLAWEY, H.

English title

Unveiling the potential of membrane in climate change mitigation and environmental resilience in ecosystem

Type

journal article in Web of Science

Language

en

Original abstract

Carbon capture technologies are becoming increasingly crucial in addressing global climate change issues by lowering CO2 emissions from industrial and power generation activities. Post -combustion carbon capture, which uses membranes instead of adsorbents, has emerged as one of promising and environmentally friendly approaches among these technologies. The operation of membrane technology is based on the premise of selectively separating CO2 from flue gas emissions. This provides a number of different benefits, including improved energy efficiency and decreased costs of operation. Because of its adaptability to changing conditions and its low impact on the surrounding ecosystem, it is an appealing choice for a diverse array of uses. However, there are still issues to be resolved, such as those pertaining to establishing a high selectivity, membrane degradation, and the costs of the necessary materials. In this article, we evaluate and explore the prospective applications and roles of membrane technologies to control climate change by post -combustion carbon capturing. The primary proposition suggests that the utilization of membrane-based carbon capture has the potential to make a substantial impact in mitigating CO2 emissions originating from industrial and power production activities. This is due to its heightened ability to selectively absorb carbon, better efficiency in energy consumption, and its flexibility to various applications. The forthcoming challenges and potential associated with the application of membranes in post-carbon capture are also discussed.

English abstract

Carbon capture technologies are becoming increasingly crucial in addressing global climate change issues by lowering CO2 emissions from industrial and power generation activities. Post -combustion carbon capture, which uses membranes instead of adsorbents, has emerged as one of promising and environmentally friendly approaches among these technologies. The operation of membrane technology is based on the premise of selectively separating CO2 from flue gas emissions. This provides a number of different benefits, including improved energy efficiency and decreased costs of operation. Because of its adaptability to changing conditions and its low impact on the surrounding ecosystem, it is an appealing choice for a diverse array of uses. However, there are still issues to be resolved, such as those pertaining to establishing a high selectivity, membrane degradation, and the costs of the necessary materials. In this article, we evaluate and explore the prospective applications and roles of membrane technologies to control climate change by post -combustion carbon capturing. The primary proposition suggests that the utilization of membrane-based carbon capture has the potential to make a substantial impact in mitigating CO2 emissions originating from industrial and power production activities. This is due to its heightened ability to selectively absorb carbon, better efficiency in energy consumption, and its flexibility to various applications. The forthcoming challenges and potential associated with the application of membranes in post-carbon capture are also discussed.

Keywords in English

Post -combustion carbon capture; Energy-efficient carbon capture carbon capture and storage; Membrane technology

Released

15.03.2024

Publisher

ACADEMIC PRESS INC ELSEVIER SCIENCE

Location

SAN DIEGO

ISSN

0013-9351

Number

245

Pages from–to

117960–117960

Pages count

14

BIBTEX


@article{BUT197527,
  author="Syed Awais Ali Shah {Bokhari},
  title="Unveiling the potential of membrane in climate change mitigation and environmental resilience in ecosystem",
  year="2024",
  number="245",
  month="March",
  pages="117960--117960",
  publisher="ACADEMIC PRESS INC ELSEVIER SCIENCE",
  address="SAN DIEGO",
  issn="0013-9351"
}