<p>This work investigates the application of ferroelectric single crystals of Imidazolium <span>l</span>-Camphorsulfonate (<span>l</span>-ImCS) as Piezoelectric Generators (PEGs) for mechanical energy harvesting. The viability of <span>l</span>-ImCS for this purpose stems from its polar monoclinic P2<sub>1</sub> crystal structure, which is inherently piezoelectric. Dielectric measurements confirmed the ferroelectric nature of the <span>l</span>-ImCS, supporting its functional capabilities. Second Harmonic Generation (SHG) measurements verified the presence of nonlinear optical properties. Intermolecular interactions in the crystal structure were examined using Hirshfeld surface analysis. The Vickers microhardness test assessed the mechanical strength of the grown crystal. The piezoelectric charge coefficient (d<sub>22</sub>) was calculated as equal to ± 7 pC N<sup>−1</sup>. UV-visible spectrum measurement indicated excellent transparency in the visible range, indicating its potential for optoelectronic applications. Photoluminescence analysis showed distinct blue and violet emission peaks. The antiviral potential of the synthesized material against pulmonary infections is assessed through molecular docking studies. This research highlights <span>l</span>-ImCS as a promising material for creating eco-friendly power sources capable of driving self-sustaining systems and active sensors.</p>

错误:搜索内容不能为空,请输入英文关键词
错误:关键词超出字数限制,请精简
高级检索

Structure, performance and application of imidazolium l-Camphorsulfonate crystals as piezoelectric generator for sustainable energy harvesting

  • Simran Bhardwaj,
  • Smita Yadav,
  • Karan Grover,
  • Pradeep Kumar,
  • Harsh Yadav

摘要

This work investigates the application of ferroelectric single crystals of Imidazolium l-Camphorsulfonate (l-ImCS) as Piezoelectric Generators (PEGs) for mechanical energy harvesting. The viability of l-ImCS for this purpose stems from its polar monoclinic P21 crystal structure, which is inherently piezoelectric. Dielectric measurements confirmed the ferroelectric nature of the l-ImCS, supporting its functional capabilities. Second Harmonic Generation (SHG) measurements verified the presence of nonlinear optical properties. Intermolecular interactions in the crystal structure were examined using Hirshfeld surface analysis. The Vickers microhardness test assessed the mechanical strength of the grown crystal. The piezoelectric charge coefficient (d22) was calculated as equal to ± 7 pC N−1. UV-visible spectrum measurement indicated excellent transparency in the visible range, indicating its potential for optoelectronic applications. Photoluminescence analysis showed distinct blue and violet emission peaks. The antiviral potential of the synthesized material against pulmonary infections is assessed through molecular docking studies. This research highlights l-ImCS as a promising material for creating eco-friendly power sources capable of driving self-sustaining systems and active sensors.