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<p>MXenes are a burgeoning category of two-dimensional materials with many possible uses, such as gas sensing, energy storage, biological applications, and catalysis. The gas-sensing use of MXene materials is now receiving significant interest in academic research due to their heightened sensitivity toward a wide range of gases. However, this particular application remains relatively unexplored in the scientific community. Graphene has been identified as a very suitable host material for chemical gas sensors because of its several advantageous properties. These properties include a large surface area, strong electrical conductivity, and abundant surface functional groups. The carbon dioxide (CO<sub>2</sub>) escalation has deleterious consequences for the environment, human well-being, and agricultural output. Hence, it is important to employ diverse methodologies to monitor the content of CO<sub>2</sub> with high responsiveness. This study examines the advancements in Mxene-based nanomaterials as sensors for detecting CO<sub>2</sub>. This section will address the challenges and potential prospects of gas sensors utilizing Mxene materials.</p>

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MXene-enhanced CO₂ sensors: a comprehensive review on mechanisms, challenges, and environmental impact

  • 期刊论文

  • 出版模式：

    开放获取

  • 发表日期：

    2025年7月11日

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  • Nibedita Nath,
  • Subhendu Chakroborty,
  • Trishna Bal,
  • Rashmi Chourasia,
  • Amiya Ranjan Panda,
  • Pradeep Kumar Pandey,
  • Bhanu Pratap Singh,
  • Ratan Kumar Dey,
  • Jitendra Malviya,
  • Chandra Chakraborty

摘要

MXenes are a burgeoning category of two-dimensional materials with many possible uses, such as gas sensing, energy storage, biological applications, and catalysis. The gas-sensing use of MXene materials is now receiving significant interest in academic research due to their heightened sensitivity toward a wide range of gases. However, this particular application remains relatively unexplored in the scientific community. Graphene has been identified as a very suitable host material for chemical gas sensors because of its several advantageous properties. These properties include a large surface area, strong electrical conductivity, and abundant surface functional groups. The carbon dioxide (CO2) escalation has deleterious consequences for the environment, human well-being, and agricultural output. Hence, it is important to employ diverse methodologies to monitor the content of CO2 with high responsiveness. This study examines the advancements in Mxene-based nanomaterials as sensors for detecting CO2. This section will address the challenges and potential prospects of gas sensors utilizing Mxene materials.