Using scanning
transmission electron microscopy combined with spectroscopy, researchers at UIC were able to measure the temperature of several two - dimensional materials at the atomic level, paving the way for much smaller and faster microprocessors.
(single particle analysis for resolution extension) an image processing environment with a particular emphasis
on transmission electron microscopy (TEM) structure determination.
Using
transmission electron microscopy imaging and powder X-ray diffraction to study the structural characteristics of the nanoparticles and Raman and photoluminescence spectroscopies to quantify lattice strain and photoluminescence behavior, the group found a correlation between the amount of tin in the core and how well the core's lattice matched that of the cadmium - sulfide outer shell.
The researchers subjected various grades of titanium samples to nanocompression tests and examined the resulting impact using advanced
transmission electron microscopy techniques and quantum mechanical predictions of defect structures.
The recent study, which was produced primarily through a research partnership between the University of Arkansas, Missouri State University and the University of Antwerp in Belgium, consisted of high -
resolution transmission electron microscopy combined with scanning tunneling microscopy and state - of - the - art computational molecular dynamics.
Following a PhD in
transmission electron microscopy at Cambridge, she spent three years at the National High Magnetic Field Laboratory at Los Alamos looking at the behaviour of the low temperature phases of strongly correlated electron systems.
Our experimental and theoretical analysis draws upon nuclear magnetic resonance (NMR) spectroscopy, a variety of microscopy techniques such
as transmission electron microscopy, computation tools such as the NWChem for high - performance computational chemistry as well as supercomputers, and other tools.
Whereas standard
transmission electron microscopy studies are unable to preserve the native state of chemically reactive and beam - sensitive battery materials after operation, such materials remain pristine at cryogenic conditions.
«We studied a range of authentic microfossils using the
same transmission electron microscopy technique and in all cases these reveal coherent, rounded envelopes of carbon having dimensions consistent with their origin from cell walls and sheaths.
Using high -
powered transmission electron microscopy, Dougherty discovered that the flashes are caused by specialized tissues that form a double layer, reflective to light on one side, but absorbent on the other.
Transmission electron microscopy reveals that the obtained graphene derivative (graphane) is crystalline and retains the hexagonal lattice, but its period becomes markedly shorter than that of graphene.
The Calgary Microscopy and Imaging Facility (MIF) is a world - class university - wide facility
housing transmission electron microscopy (TEM), scanning electron microscopy (SEM), advanced light microscopy, atomic force microscopy (AFM), including single cell force spectroscopy (SCFS), and advanced image processing for three - dimensional electron and light microscopy, directed by Professor Matthias Amrein.
«The susceptibility of candida albicans to several fatty acids was tested with a short inactivation time, and ultra-thin sections were studied
by transmission electron microscopy (TEM) after treatment with caprylic and capric acid.
«Using atomic - resolution scanning
transmission electron microscopy imaging, we visualized defects and defects clusters in MXene that are very important for future nano electronic devices and catalytic applications,» said lead author Xiahan Sang of the Center for Nanophase Materials Sciences (CNMS), a DOE Office of Science User Facility at ORNL.
In the first few years we successfully reconstructed an array of lamina cartridges and a medulla column using a newly developed automated reconstruction pipeline
for transmission electron microscopy (TEM) images.
Yuichi Ikuhara of Tohoku University's Advanced Institute for Materials Research with Johannes Georg Bednorz of Zürich Research Laboratory and colleagues used atom - resolved
scanning transmission electron microscopy combined with theoretical calculations to learn how adding oxygen atoms to strontium niobates affects their conductivity.
In addition to advanced optical imaging techniques, researchers led by co-author David Muller, professor of applied and engineering physics and director of Cornell's Kavli Institute, contributed
advanced transmission electron microscopy to test and characterize the quality of the films as they went along.
To help with understanding the crystal structure, Steve Hackney, professor of materials science at Michigan Tech, was able to provide crucial high - resolution images and diffraction patterns
using transmission electron microscopy on ultrathin samples prepared with a diamond knife by Owen Mills, director of Michigan Tech's Applied Chemical & Morphological Analysis Laboratory.
Transmission electron microscopy with colloidal gold immunocytochemistry showed structural damage in young and aged microvessel endothelium of ApoE4 animals extended to the cytoplasm of perivascular cells, perivascular nerve terminals and hippocampal neurons and glial cells.
Structure of these multicellular aggregates were studied under light microscope and also under scanning and
transmission electron microscopy in the Interdepartmental laboratory of electronic microscopy (ILEM) of the MSU biological faculty.
Pan, Schweitzer and their team used both scanning and
transmission electron microscopy to get microscopic details of the feather's surface and its internal structure.
The rendering is superimposed on
a transmission electron microscopy image of the carbon nanothreads.
The scientists used
transmission electron microscopy to study the high - pressure environment that formed the crystals and altered the minerals around it, and determined that the composition and shapes of the inclusions inside the diamonds must have formed at high pressures (above 20 gigapascals).
Researchers observed and investigated segregation - induced superstructures at randomly - selected general grain boundaries of a Ni - Bi polycrystalline alloy via aberration - corrected scanning
transmission electron microscopy (AC STEM), in conjunction with first - principles density functional theory calculations.
Researchers in Missouri used
transmission electron microscopy, a technique in which a beam of electrons is transmitted through an ultra-thin material, to confirm the crystalline properties.