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<p>Solar energy is pure and renewable and diminishes greenhouse gas releases, thus being essential for sustainability and environmental protection. Numerous prototypes for solar absorbers made from different materials were analyzed. MXene behaves as constituents in the Metamaterial MXene Solar Absorber (MMSA), a structure that is characterized by the combination of nanodisk and plus-shaped tiny wires geometries. The substrate used for the proposed MMSA was TiO<sub>2</sub>, while the MMSA bottom layer was aluminum. Particularly, MMSA operated throughout the UV-FIR spectrum. Polarization is essential for the ultra-wideband absorber of this MMSA, which exhibits a broad bandwidth of 2320 to 780&#xa0;nm, yielding absorptance rates of 90% and 93% over the 200–4000&#xa0;nm wavelength range. Among the detrimental metamaterial effects of the MMSA are those that increased the absorber’s dependability and absorptance. To evaluate the transverse electric (TE) and magnetic (TM) attributes to enhance the structure of the MMSA and other factors. The aforementioned absorber was utilized to examine alongside the investigated and reported MMSA magnetic and electric intensity of the MMSA. This MMSA has been used with its renewable energy in industrial heating applications due to its exceptional absorptance throughout an ultra-broadband spectrum.</p>

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Design of Metamaterial Surface Plasmon Resonance Solar Absorber Design Based onMXene-TiO2-Al Material for Renewable Energy Applications

  • 期刊论文

  • 发表日期：

    2025年3月26日

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  • Raj Agravat,
  • Shobhit K. Patel,
  • Arun Kumar U,
  • Taoufik Saidani,
  • Ammar Armghan

摘要

Solar energy is pure and renewable and diminishes greenhouse gas releases, thus being essential for sustainability and environmental protection. Numerous prototypes for solar absorbers made from different materials were analyzed. MXene behaves as constituents in the Metamaterial MXene Solar Absorber (MMSA), a structure that is characterized by the combination of nanodisk and plus-shaped tiny wires geometries. The substrate used for the proposed MMSA was TiO2, while the MMSA bottom layer was aluminum. Particularly, MMSA operated throughout the UV-FIR spectrum. Polarization is essential for the ultra-wideband absorber of this MMSA, which exhibits a broad bandwidth of 2320 to 780 nm, yielding absorptance rates of 90% and 93% over the 200–4000 nm wavelength range. Among the detrimental metamaterial effects of the MMSA are those that increased the absorber’s dependability and absorptance. To evaluate the transverse electric (TE) and magnetic (TM) attributes to enhance the structure of the MMSA and other factors. The aforementioned absorber was utilized to examine alongside the investigated and reported MMSA magnetic and electric intensity of the MMSA. This MMSA has been used with its renewable energy in industrial heating applications due to its exceptional absorptance throughout an ultra-broadband spectrum.