Interference effects could be used to generate patterned
magnetic materials over large areas.
Not exact matches
This new technique enables tight control
over diameter, length and surface properties of the nanorods, whose optical, electrical,
magnetic and catalytic properties depend on the precursor
materials used and the dimensions of the nanorods.
They coincide with a sudden, violent reconfiguration of the
magnetic field, releasing huge amounts of energy that can eject billions of tons of solar
material into space at speeds of
over a thousand kilometers per second.
When this wave of
magnetic material washes
over the Earth, it interacts with the planet's
magnetic fields, causing a geomagnetic storm that can disrupt communications, GPS and the power grid.
A team of scientists working at the U.S. Department of Energy's (DOE) Argonne National Laboratory and led by Northern Illinois University physicist and Argonne
materials scientist Zhili Xiao has created a new
material, called «rewritable
magnetic charge ice,» that permits an unprecedented degree of control
over local
magnetic fields and could pave the way for new computing technologies.
By means of
material - dependent measurements
over a wide temperature range and with a varied thickness of the employed
magnetic material, a direct correlation between the amplitude of the voltage signal and the intrinsic properties of magnons was identified.
After sweeping a very small
magnetic field
over the setup, the researchers found the Majorana particles» distinct quantized signal — the telltale fingerprint of a specific type of quantum particles — in the electrical traffic between the two
materials.
In just a little
over a year of operation, Ames Laboratory's dynamic nuclear polarization (DNP) solid - state nuclear
magnetic resonance (NMR) spectrometer has successfully characterized
materials at the atomic scale level with more speed and precision than ever possible before.
SUMMARY OF TECHNICAL BACKGROUND * As a Chemist /
Materials scientist / engineer with over 30 years of higher education and experience in creation of novel electronic materials (bulk, film, and single crystal), devices and their characterizations (structural, transport, thermal, surface, electrochemical, spectroscopic, magnetic, and mechanical), energy and environmental research using several advanced te
Materials scientist / engineer with
over 30 years of higher education and experience in creation of novel electronic
materials (bulk, film, and single crystal), devices and their characterizations (structural, transport, thermal, surface, electrochemical, spectroscopic, magnetic, and mechanical), energy and environmental research using several advanced te
materials (bulk, film, and single crystal), devices and their characterizations (structural, transport, thermal, surface, electrochemical, spectroscopic,
magnetic, and mechanical), energy and environmental research using several advanced techniques.