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March 25, 2026Journal of Applied Polymer Science0 citations

Polyimide‐Based Single‐Ion Conducting Gel Polymer Electrolytes for Advanced Lithium‐Ion Batteries

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IAI. AHMADShenzhen Institute of Information TechnologySYSuzhu YuShenzhen Institute of Information TechnologyHRHafiz Talha Hasnain RanaShenzhen Institute of Information Technology

Key Points

  • This research reviews the advancement of polyimide-based single-ion conducting gel polymer electrolytes for lithium-ion batteries and their performance benefits.
  • Comprehensive review of PI-SIC-GPEs and their properties.
  • Analysis of design strategies and synthesis methods.
  • Evaluation of interfacial stability and performance advantages.
  • Discussion of challenges in scalability and plasticizer retention.
  • PI-SIC-GPEs demonstrate ultra-high thermal stability exceeding 300°C.
  • High ionic conductivity and nearly complete lithium-ion transference number approaching 1.0.
  • Wide electrochemical window up to 5.2 V observed.
  • Effective suppression of lithium dendrite formation noted.

Abstract

ABSTRACT The evolution of lithium‐ion battery (LIB) electrolytes has progressed from liquid electrolytes (LEs) to advanced polyimide‐based single‐ion conducting gel polymer electrolytes (PI‐SIC‐GPEs). Traditional liquid electrolytes are limited by flammability risks and lithium dendrite growth, which drives the development of solid polymer electrolytes (SPEs) to improve safety. However, SPEs suffer from low ionic conductivity, leading to the introduction of gel polymer electrolytes with the incorporation of plasticizers. Among these advanced polymer electrolytes, PI‐SIC‐GPEs represent a significant breakthrough. By covalently immobilizing anions on thermally robust polyimide backbones combined with stable gel networks, PI‐SIC‐GPEs achieve ultra‐high thermal stability (> 300°C), excellent mechanical properties, high ionic conductivity, near‐unity lithium‐ion transference number (tLi + , approaching 1.0), a wide electrochemical window (up to 5.2 V), and effective dendrite suppression, while maintaining performance across extreme temperatures and wide voltage ranges. This study provides a comprehensive review of PI‐SIC‐GPEs as next‐generation electrolytes for LIBs, detailing design strategies, synthesis methods, interfacial stability, and performance advantages. Challenges regarding scalable fabrication, interfacial compatibility, and plasticizer retention are also addressed. By overcoming these obstacles, PI‐SIC‐GPEs emerge as a promising solution for developing safer, more durable, and higher‐energy‐density batteries, paving the way for future energy storage technologies.

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Cite This Study

AHMAD et al. (2026) studied this question.

synapsesocial.com/papers/69c37bc2b34aaaeb1a67e722https://doi.org/10.1002/app.70708
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