Search engine for discovering works of Art, research articles, and books related to Art and Culture
ShareThis
Javascript must be enabled to continue!

Development of nanomaterials in flexible electronics

View through CrossRef
Flexible electronics, with its excellent flexibility, leading-edge and lightweight, has become a frontier technology capability in the field of electronics, which integrates well with the characteristics of nanomaterials for applications in various disciplines such as sensors, information, medical, and energy. This paper systematically summarizes the main structures of flexible electronics featuring flexible substrates with their outstanding flexibility as well as mechanical and electrical properties. Afterwards, it delves into the four major properties of nanomaterials along with their extensive applications aboard flexible electronics. In particular, the development applications of carbon nanotube films in sensors and electronic devices by means of their great flexibility and electrical conductivity are mainly outlined. Then the practical applications of graphene in the domain of electronic displayer through its superior heat dissipation are introduced. In the final part, an exploration is made on how the advantages of flexible electronics and nanomaterials can be further used in frontier fields such as aerospace, smart medicine, and automated science if we combine them more effectively. However, as an emerging field, the development process of flexible electronics is still fraught with challenges. Two major challenges are still facing the field: mechanics, packaging, and cost. There is a long way to go for flexible electronics combined with nanomaterials, which can open numerous possibilities for electronic technology.
Title: Development of nanomaterials in flexible electronics
Description:
Flexible electronics, with its excellent flexibility, leading-edge and lightweight, has become a frontier technology capability in the field of electronics, which integrates well with the characteristics of nanomaterials for applications in various disciplines such as sensors, information, medical, and energy.
This paper systematically summarizes the main structures of flexible electronics featuring flexible substrates with their outstanding flexibility as well as mechanical and electrical properties.
Afterwards, it delves into the four major properties of nanomaterials along with their extensive applications aboard flexible electronics.
In particular, the development applications of carbon nanotube films in sensors and electronic devices by means of their great flexibility and electrical conductivity are mainly outlined.
Then the practical applications of graphene in the domain of electronic displayer through its superior heat dissipation are introduced.
In the final part, an exploration is made on how the advantages of flexible electronics and nanomaterials can be further used in frontier fields such as aerospace, smart medicine, and automated science if we combine them more effectively.
However, as an emerging field, the development process of flexible electronics is still fraught with challenges.
Two major challenges are still facing the field: mechanics, packaging, and cost.
There is a long way to go for flexible electronics combined with nanomaterials, which can open numerous possibilities for electronic technology.

Related Results

Nanomaterials: Synthesis and Applications in Theranostics
Nanomaterials: Synthesis and Applications in Theranostics
Nanomaterials are endowed with unique features and essential properties suitable for employing in the field of nanomedicine. The nanomaterials can be classified as 0D, 1D, 2D, and ...
Rock Breaking Mechanism and Trajectory Stabilization of Horizontal Well Section with Flexible Drilling Tool
Rock Breaking Mechanism and Trajectory Stabilization of Horizontal Well Section with Flexible Drilling Tool
ABSTRACT This paper examines the mechanics of rock-breaking and trajectory issues in ultra-short radius radial horizontal wells with flexible drilling tools that ...
Advances of hafnium based nanomaterials for cancer theranostics
Advances of hafnium based nanomaterials for cancer theranostics
Hafnium-based nanomaterials (Hf-NMs) have attracted the interest of numerous biomedical researchers by their unique properties. Recent years have witnessed significant advancements...
A Parylene-Based Ultra-Thin Printed Circuit Board As a New Platform for Flexible Sensors and Wearables
A Parylene-Based Ultra-Thin Printed Circuit Board As a New Platform for Flexible Sensors and Wearables
Flexible electronics and sensors are a key enabling element for the realization of wearables and geometry adaptive devices needed to follow current trends such as the Internet of t...
Latest Novelties on Plasmonic and Non-Plasmonic Nanomaterials for SERS Sensing
Latest Novelties on Plasmonic and Non-Plasmonic Nanomaterials for SERS Sensing
An explosion in the production of substrates for surface enhanced Raman scattering (SERS) has occurred using novel designs of plasmonic nanostructures (e.g., nanoparticle self-asse...
Selenium nanomaterials enabled flexible and wearable electronics
Selenium nanomaterials enabled flexible and wearable electronics
Selenium (Se), as an intriguing chalcogenide semiconductor, has traditionally been used for solar energy harvesting. The recent development of nanoscience and nanotechnology has en...
Navigating the Future of Wearable Devices with Flexible Electronics
Navigating the Future of Wearable Devices with Flexible Electronics
The future of wearable devices is being revolutionized by the advent of flexible electronics, which offer unparalleled advantages in terms of comfort, adaptability, and functionali...
Integrity of Buried Flexible Pipeline Using Numerical Approach
Integrity of Buried Flexible Pipeline Using Numerical Approach
Abstract Unbonded flexible pipe is being adopted by many operators worldwide for short pipelines and where scrapping is not mandated from the perspective of service ...

Back to Top