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May 6, 20260 citations

Breaking boundaries for PFAS surveillance in water reservoirs: CRISPR-electrochemical synergies from MXene to microfluidics- A review.

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MAMuhammad AwaisYCYuehua ChenSBShakeela Bibi

Key Points

  • To explore innovative methods for PFAS surveillance in water through advanced technologies.
  • Review of CRISPR technologies and their application in detecting PFAS
  • Assessment of electrochemical techniques for sensitivity enhancement
  • Discussion on microfluidic network designs and their benefits for rapid analysis
  • Demonstrates how CRISPR-Cas12a enables detection with attomolar sensitivity
  • Shows microfluidic networks can reduce analysis time from hours to minutes
  • Highlights the potential of nanomaterials and synthetic biology in PFAS sensor development

Abstract

MXenes achieve picomolar affinity and rapid preconcentration of PFAS through biomimetic binding architectures. It also details the mechanism by which CRISPR-Cas12a, guided by PFAS-specific aptamers, enables single-molecule discrimination with attomolar sensitivity. Finally, this review paper demonstrates how microfluidic networks orchestrate this synergy, miniaturizing the entire assay into a portable, multiplexed platform that reduces analysis time from hours to minutes. Synergistically unifying breakthroughs in nanomaterials, synthetic biology, and lab-on-a-chip design, this work provides both a methodological blueprint for ultrasensitive PFAS sensors and a relevant roadmap for implementing proactive, decentralized water quality monitoring.

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Cite This Study

Awais et al. (2026) studied this question.

synapsesocial.com/papers/69fa989404f884e66b5325b7https://doi.org/10.1016/j.bios.2026.118756
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