Oxides free materials for flexible and paper-based supercapacitors

C. Justin Raj, Hyun Jung, Byung Chul Kim

Research output: Chapter in Book/Report/Conference proceedingChapterpeer-review

Abstract

Development in flexible and wearable smart electronics has a great demand for flexible, lightweight, and even stretchable energy storage devices. Flexible batteries and supercapacitors are two conventional powers sources for the continuous operation of flexible and wearable electronic devices. Among these, the flexible supercapacitors play a promising role in flexible and wearable devices owing to their higher power density, comparable volumetric energy density, fast charging/discharging, and exceptionally longer operation lifetimes than batteries. As electrode materials are a crucial component in determining the performance of the supercapacitors, a wide variety of electroactive materials like carbon nanostructures, metal-based compounds, and conducting polymers have been extensively studied and developed. This chapter elaborates on the recent development in oxide-free electrode materials like metal carbide, nitride, phosphides, and chalcogenides for flexible and paper-based supercapacitors. Besides, it discusses the major components like flexible substrates, electrolytes, and various device architectures of the flexible supercapacitors. Finally, summarizes the topic with the current challenges and future perspectives in developing high-performance flexible supercapacitors for the future flexible and wearable electronic appliances.

Original languageEnglish
Title of host publicationOxide Free Nanomaterials for Energy Storage and Conversion Applications
PublisherElsevier
Pages115-148
Number of pages34
ISBN (Electronic)9780128239360
DOIs
StatePublished - 1 Jan 2021

Keywords

  • Flexible supercapacitor
  • Metal carbide
  • Metal chalcogenides
  • Metal nitride
  • Wearable energy storage

Fingerprint

Dive into the research topics of 'Oxides free materials for flexible and paper-based supercapacitors'. Together they form a unique fingerprint.

Cite this