Home > Press > Livermore's DTEM earns innovation award from Microscopy Today
Working with the dynamic transmission electron microscope (DTEM). From left: Bryan Reed, Melissa Santala, William DeHope, Thomas LaGrange, Joseph McKeown. Photo by Jacqueline McBride/LLNL |
Abstract:
An innovation that can help scientists observe a reaction moving at greater than 10 meters per second, with a few nanometers spatial resolution, is a feat some would say is nearly impossible.
But not the Lawrence Livermore team of scientists who developed the dynamic transmission electron microscope (DTEM).
DTEM's ability to let researchers peer into the heart of scientific phenomena while it's happening has earned it one of the 10 winning microscopy innovations in the 2010 Microscopy Today Innovation Award competition.
Microscopy Today's MT-10 Awards recognize the best new products and methods across the entire field of microscopy. Five of the awards are primarily related to the life sciences and five are related to the physical sciences. In each of these areas, there may be interesting new developments in light microscopy, scanning probe microscopy, electron microscopy, ion microscopy, acoustic microscopy, microanalysis, specimen preparation, etc. These awards honor the best developments in microscopy from the previous calendar year.
The award will be given to the team at the 2010 Microscopy & Microanalysis meeting held Aug. 1-5 in Portland, Ore. Descriptions of the winning products and methods will be published in the print and digital editions of the September 2010 issue of Microscopy Today.
Unlike traditional transmission electron microscopes that are generally restricted to capturing images before and after some rapid transformation (such as a material deforming or the growth of a nanowire), the DTEM captures images during the process itself. DTEM goes beyond merely revealing that a transformation has happened; it provides crucial details of how, when and where it happened. For example, while a conventional electron microscope can produce static images of viruses before and after they have attacked cells, the DTEM could potentially capture a virus in the process of joining to a membrane and releasing its genetic material in a rapid sequence of short-exposure images.
The DTEM is able to take snapshots of the dynamics that occur in samples of material under strenuous conditions - extreme temperature, applied pressure, surface corrosion - creating a visual record of microstructural features as they rapidly evolve.
It combines all of the powerful techniques of the standard TEM with nanosecond time resolution for capturing dynamic processes while they occur with single-shot measurements. (The term "single shot" means the gathering of the required data, diffraction pattern or image, using only one bunch of electrons.)
The Livermore microscope already has produced new levels of scientific understanding of nanostructure growth, phase transformations and chemical reactions. But this is only the beginning.
DTEM provides an entirely new way of exploring material processes with a range of potential applications that have just been undertaken.
In a recent experiment, the team was able to peer into the inner workings of catalyst nanoparticles 3,000 times smaller than a human hair within nanoseconds.
The findings point the way toward future work that could greatly improve catalyst efficiency in a variety of processes that are crucial to the world's energy security, such as petroleum catalysis and catalyst-based nanomaterial growth for next-generation rechargeable batteries.
The research is funded by the Department of Energy's Office of Science, Office of Basic Energy Sciences, Division of Materials Sciences and Engineering.
Members of the team include: Wayne King, Michael Armstrong, Nigel Browning, Geoffrey Campbell, William DeHope, Judy Kim, Thomas LaGrange, Benjamin Pyke, Bryan Reed, Richard Shuttlesworth, Brent Stuart and former LLNL employees J. Bradley Pesavento Mitra Taheri and Benjamin Torralva.
####
About Lawrence Livermore National Laboratory
Founded in 1952, Lawrence Livermore National Laboratory is a national security laboratory, with a mission to ensure national security and apply science and technology to the important issues of our time. Lawrence Livermore National Laboratory is managed by Lawrence Livermore National Security, LLC for the U.S. Department of Energy's National Nuclear Security Administration.
For more information, please click here
Contacts:
Anne M. Stark
(925) 422-9799
Copyright © Lawrence Livermore National Laboratory
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 |
Chemistry
Breaking carbon–hydrogen bonds to make complex molecules November 8th, 2024
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
Govt.-Legislation/Regulation/Funding/Policy
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
Single atoms show their true color July 5th, 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
Academic/Education
Rice University launches Rice Synthetic Biology Institute to improve lives January 12th, 2024
Multi-institution, $4.6 million NSF grant to fund nanotechnology training September 9th, 2022
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
Tools
Turning up the signal November 8th, 2024
Quantum researchers cause controlled ‘wobble’ in the nucleus of a single atom September 13th, 2024
Faster than one pixel at a time – new imaging method for neutral atomic beam microscopes developed by Swansea researchers August 16th, 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
Battery Technology/Capacitors/Generators/Piezoelectrics/Thermoelectrics/Energy storage
What heat can tell us about battery chemistry: using the Peltier effect to study lithium-ion cells March 8th, 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
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 |
||