search

UMD    AML





Schematic of the hybrid solid-state composite electrolyte, where ceramic garnet nanofibers function as the reinforcement and lithium-ion–conducting polymer functions as the matrix. The interwelded garnet nanofiber network provides a continuous ion-conducting pathway in the electrolyte membrane.

Schematic of the hybrid solid-state composite electrolyte, where ceramic garnet nanofibers function as the reinforcement and lithium-ion–conducting polymer functions as the matrix. The interwelded garnet nanofiber network provides a continuous ion-conducting pathway in the electrolyte membrane.

 

UMD researchers have developed, for the first time, a flexible, solid-state, ion-conducting membrane based on a 3D Li-ion conducting ceramic nanofiber network. High capacity, high safety, and long lifespan are three of the most important key factors to developing rechargeable lithium batteries for applications including portable electronics and electrical vehicles. 

To develop a safer, higher performing lithium-ion battery, the membrane shows superior thermal stability and electrochemical stability to high voltage, and can replace conventional flammable organic liquid electrolyte systems in lithium-ion batteries.

The full article, “Flexible, solid-state, ion-conducting membrane with 3D garnet nanofiber networks for lithium batteries” was published online last week in the Proceeding of the National Academy of Sciences (PNAS).

The research is also featured in NanotechWeb.org, a website from the UK Institute of Physics.



June 16, 2016


«Previous Story  

 

 

Current Headlines

Engineering Students Fabricate Tomorrow’s Solutions Today

In Soft Robotics, Instability Can Be a Plus

Mack Receives 2024 MCAA Distinguished Service Award

CEEE Researcher Named Finalist in UMD’s 3MT Competition

Agents of Positive Change: Highlighting Women Maryland Engineers

Balachandran, Cameron, Yu Receive 2024 MURI Award

A Special Ceremony Honoring Bala Balachandran

Alumni Spotlight: José Cyrano Ruiz Cabarrús

3D and Beyond: UMD Researchers Explore Synthetic Dimensions

Celebrating Black Engineers: Philip Lovell

 
 
Back to top  
AML Home Clark School Home UMD Home ENME Home