Advances in Synthesis and Energy Applications of Conductive Polymers

Abstract

In this study provides a thorough summary of the latest advancements in conductive polymer manufacturing techniques and their diverse range of energy applications. Because of their distinctive electrical, optical, and electrochemical characteristics, conductive polymers have attracted a lot of attention and are now considered cutting-edge materials for energy-related technologies. The paper investigates a variety of synthesis medhods, including chemical, electrochemical polymerization, vapor phase synthesis, pyrolysis, solid-state method, plasma polymerization, etc. The focus is on adjusting synthesis parameters, such as dopants, functional groups, and nanostructured structures, to modify the characteristics of conductive polymers for certain energy uses. Furthermore, the important functions that these polymers play in a variety of energy conversion and storage technologies are thoroughly examined in this article. Elucidating their roles in improving energy density, cyclic stability, and power output, it highlights their importance in supercapacitors, batteries, and energy harvesting systems. In summary, this article presents a detailed on the synthesis techniques and diverse energy applications of conductive polymers, purposing to guide researchers, engineers, and practitioners toward harnessing for the development of energy technologies.

Keywords

• Conductive polymers
• Energy applications
• Synthesis methods of conductive polymers

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