<p>Over the past three decades, microchip electrophoresis coupled with capacitively coupled contactless conductivity detection (ME-C<sup>4</sup>D) has garnered considerable interest due to its various merits, including minimal sample consumption, compact structure, immediate detection, and high analytical precision. Continuous technological innovation and improvement have significantly advanced ME-C<sup>4</sup>D in structural design, fabrication processes, and experimental methodologies. As a result, the application of this technology has expanded into a wider range of electrochemical analysis fields, including disease diagnosis, food safety assessment, environmental pollutant detection, and soil nutrient analysis. This review meticulously examines the forefront of ME-C<sup>4</sup>D over the last five years. It methodically categorizes and scrutinizes advancements from various dimensions, including newly emerged ME microchips, C<sup>4</sup>D electrodes, experimental protocols, and pioneering applications. Moreover, this paper critically summarizes these developments, identifying the prevailing limitations and challenges within ME-C<sup>4</sup>D. Ultimately, it projects potential future trajectories for innovation in the field of ME-C<sup>4</sup>D, suggesting pathways to overcome existing hurdles and hinting at the untapped possibilities that lie ahead. </p> Graphical abstract <p></p>

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Advancement of microchip electrophoresis coupled with capacitively coupled contactless conductivity detection—from design to application (2018–2024)

  • Mingpeng Yang,
  • Chaofan Wang,
  • Jun Cai,
  • Xiaochen Lai,
  • Mingyi Cao,
  • Xingqiang Zhao

摘要

Over the past three decades, microchip electrophoresis coupled with capacitively coupled contactless conductivity detection (ME-C4D) has garnered considerable interest due to its various merits, including minimal sample consumption, compact structure, immediate detection, and high analytical precision. Continuous technological innovation and improvement have significantly advanced ME-C4D in structural design, fabrication processes, and experimental methodologies. As a result, the application of this technology has expanded into a wider range of electrochemical analysis fields, including disease diagnosis, food safety assessment, environmental pollutant detection, and soil nutrient analysis. This review meticulously examines the forefront of ME-C4D over the last five years. It methodically categorizes and scrutinizes advancements from various dimensions, including newly emerged ME microchips, C4D electrodes, experimental protocols, and pioneering applications. Moreover, this paper critically summarizes these developments, identifying the prevailing limitations and challenges within ME-C4D. Ultimately, it projects potential future trajectories for innovation in the field of ME-C4D, suggesting pathways to overcome existing hurdles and hinting at the untapped possibilities that lie ahead.

Graphical abstract