Home > Press > A Research Hat-Trick: Mechanical engineering professor Bolin Liao receives third early-career award since September
Abstract:
To solve some of the world’s top energy needs, Bolin Liao is working at the front line of efforts to better understand the behaviors and interactions of the most fundamental energy carriers in materials, such as electrons, phonons and photons.
“By looking at particles on the atomic level in the smallest time and length scales, we can determine how particles collide, interact and transport heat and electrical current,” said Liao, an assistant professor of mechanical engineering at UC Santa Barbara. “Understanding the smallest details of energy transport and conversion processes will lead to more efficient and cost-effective energy technologies.”
Liao’s experimental and computational approach to creating more efficient energy devices continues to receive significant support and accolades. Most recently, the National Science Foundation (NSF) bestowed upon him its most prestigious honor for junior faculty, the Early Career Development Award. The recognition includes a five-year, $500,000 federal grant for research and educational activities.
“I am very fortunate to receive this honor,” said Liao, who supervises the Transport for Energy Applications Laboratory (TEALab) at UCSB. “The funding will allow me to focus on my work and spend more time running experiments to tackle fundamental issues.”
Liao plans to use the NSF grant to study phonon-electron scattering, which occurs when the two elementary particles collide, and how this process can be controlled to tune the thermal transport properties of materials. While electrons are responsible for a material’s electrical properties, phonons determine thermal properties and how fast heat can be transferred across the material. In particular, Liao's lab will explore mechanisms to introduce electrons into a material by applying an electric field or shining light to collide with phonons and modify how a material conducts heat.
“Understanding at the microscopic level will help us design thermal switches that turn on and off in response to temperature change,” said Liao. “The switches do not require a power source and could significantly improve thermal activity and efficiency in, for example, buildings and car engines.”
In the last six months, Liao has received three early career awards worth a combined $1,610,000 in research funding. Two months ago, the U.S. Army Research Office Young Investigator Program awarded him a total of $360,000 over a three-year period. The program recognizes outstanding young faculty whose research is relevant to the Army, in Liao’s case a focus on understanding the cooling process of electrons in two-dimensional materials. Because the energy carriers lose heat quickly, Liao will observe them using a scanning ultrafast electron microscope (SUEM). The microscope creates time-lapse images so scientists can visualize how electrons in a material cool, interact and move around.
“With further insight into the cooling process, we can design more efficient solar cells by harvesting electrons before they cool down,” added Liao, referring to devices that convert the energy of light directly into electricity. “The result will be more efficient photo-detectors and solar cells, which the Army sees as beneficial.”
In September 2018, Liao received an early-career research award from the U.S. Department of Energy (DOE), which included $750,000 in research funding to be spread over five years. The DOE project investigates the coherence of energy carriers in their transport process.
“I am thrilled to see Professor Bolin Liao receive three early-career research awards. He is another example of the high-quality young faculty we have in the College of Engineering,” said Rod Alferness, dean of the College of Engineering. “These awards are a testament to his exciting and innovative research into energy at the quantum scale in an effort to create more efficient and effective energy technology.”
Liao sees the culture of collaboration in the College of Engineering and throughout UC Santa Barbara as being key to his recognitions.
“My projects have collaborators from across campus, including materials science, chemical engineering, physics and more,” he said. “Collaboration at UCSB truly opens new horizons for researchers like myself.”
####
For more information, please click here
Contacts:
Sonia Fernandez
(805) 893-4765
Shelly Leachman
(805) 893-8726
Andrew Masuda
Copyright © University of California, Santa Barbara
If you have a comment, please Contact us.Issuers of news releases, not 7th Wave, Inc. or Nanotechnology Now, are solely responsible for the accuracy of the content.
Related News Press |
News and information
Beyond wires: Bubble technology powers next-generation electronics:New laser-based bubble printing technique creates ultra-flexible liquid metal circuits November 8th, 2024
Nanoparticle bursts over the Amazon rainforest: Rainfall induces bursts of natural nanoparticles that can form clouds and further precipitation over the Amazon rainforest November 8th, 2024
Nanotechnology: Flexible biosensors with modular design November 8th, 2024
Exosomes: A potential biomarker and therapeutic target in diabetic cardiomyopathy November 8th, 2024
Physics
Physicists unlock the secret of elusive quantum negative entanglement entropy using simple classical hardware August 16th, 2024
New method cracked for high-capacity, secure quantum communication July 5th, 2024
Finding quantum order in chaos May 17th, 2024
Possible Futures
Nanotechnology: Flexible biosensors with modular design November 8th, 2024
Exosomes: A potential biomarker and therapeutic target in diabetic cardiomyopathy November 8th, 2024
Turning up the signal November 8th, 2024
Nanofibrous metal oxide semiconductor for sensory face November 8th, 2024
Sensors
Beyond wires: Bubble technology powers next-generation electronics:New laser-based bubble printing technique creates ultra-flexible liquid metal circuits November 8th, 2024
Nanotechnology: Flexible biosensors with modular design November 8th, 2024
Nanofibrous metal oxide semiconductor for sensory face November 8th, 2024
Groundbreaking precision in single-molecule optoelectronics August 16th, 2024
Announcements
Nanotechnology: Flexible biosensors with modular design November 8th, 2024
Exosomes: A potential biomarker and therapeutic target in diabetic cardiomyopathy November 8th, 2024
Turning up the signal November 8th, 2024
Nanofibrous metal oxide semiconductor for sensory face November 8th, 2024
Energy
KAIST researchers introduce new and improved, next-generation perovskite solar cell November 8th, 2024
Unveiling the power of hot carriers in plasmonic nanostructures August 16th, 2024
Groundbreaking precision in single-molecule optoelectronics August 16th, 2024
Development of zinc oxide nanopagoda array photoelectrode: photoelectrochemical water-splitting hydrogen production January 12th, 2024
Grants/Sponsored Research/Awards/Scholarships/Gifts/Contests/Honors/Records
New discovery aims to improve the design of microelectronic devices September 13th, 2024
Physicists unlock the secret of elusive quantum negative entanglement entropy using simple classical hardware August 16th, 2024
Atomic force microscopy in 3D July 5th, 2024
Aston University researcher receives £1 million grant to revolutionize miniature optical devices May 17th, 2024
Solar/Photovoltaic
KAIST researchers introduce new and improved, next-generation perovskite solar cell November 8th, 2024
Groundbreaking precision in single-molecule optoelectronics August 16th, 2024
Development of zinc oxide nanopagoda array photoelectrode: photoelectrochemical water-splitting hydrogen production January 12th, 2024
Shedding light on unique conduction mechanisms in a new type of perovskite oxide November 17th, 2023
The latest news from around the world, FREE | ||
Premium Products | ||
Only the news you want to read!
Learn More |
||
Full-service, expert consulting
Learn More |
||