ChE professor Laura Lewis and ECE professor Ali Abur are on a list of innovative cleantech inititatives that might be funded by the Breakthrough Energy Coalition led by Bill Gates.
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- B.A. (Physics with Specialization in Earth Sciences) University of California, San Diego, 1985
- M.S. (Electronic Materials) Massachusetts Institute of Technology, 1988
- Ph.D. (Materials Science and Engineering) University of Texas at Austin, 1993
- Felix Jiménez-Villacorta, Joshua L. Marion, John T. Oldham, Maria. Daniil, Matthew A. Willard and Laura H. Lewis, "Magnetism-Structure Correlations during the ε→τ Transformation in Rapidly-Solidified MnAl Nanostructured Alloys", invited article, Metals2014, 4(1), 8-19; doi:10.3390/met4010008.
- L. H. Lewis, A. Mubarok, E. Poirier, N. Bordeaux, P. Manchanda , A. Kashyap, R. Skomski, J. Goldstein, F. E. Pinkerton, R. K. Mishra, R. C. Kubic Jr., K. Barmak, "Inspired by Nature: Developing Tetrataenite for Permanent Magnet Applications"; invited article, special issue on Rare Earth Replacement Magnets, J. Phys.: Condens. Matter 26 064213 doi:10.1088/0953-8984/26/6/064213 2014.
- Laura H. Lewis and Félix Jiménez-Villacorta, "Perspectives on Permanent Magnetic Materials for Energy Conversion and Power Generation", invited review article, Metallurgical and Materials Transactions A, July 2012.
- K. Barmak, J. Kim, L. H. Lewis, K. R. Coffey, M. F. Toney, A. J. Kellock, J. Thiele, "On the Relationship of Magnetocrystalline Anisotropy and Stoichiometry in Epitaxial L10 CoPt (001) and FePt (001) Thin Films", J. Appl. Phys., 98 033904 (2005).
Magnetic materials are ubiquitous in society, providing functionality to advanced devices, sensors and motors of every kind. As the magnetic force maintains strength over large distances, it allows for communication between components that are physically separated. This unique property permits the conversion of electrical to mechanical energy, assists microwave devices in telecommunications, transmits and distributes electric power and provides the basis for data storage systems. Magnetic materials are increasingly employed in medical applications, not only in NMR diagnostic equipment but also in specialized targeted cancer treatments and drug delivery protocols. It is anticipated that specialized engineering of magnetic materials and careful tailoring of their properties will enable a new generation of stronger and more responsive materials and devices that can significantly impact the way we use and store energy.
Current research is devoted to understanding magnetostructural transitions, which comprise simultaneous magnetic and structural phase changes. These transitions are attracting new attention due to the recognition that they underlie an assortment of “extreme” phenomena with important technological implications, such as Colossal Magnetoresistance (CMR) of interest for magnetic sensors in the recording industry; the giant Magnetocaloric Effect (MCE) under intense development for CFC-free magnetic refrigeration, and exceptional magnetomechanical behavior for actuators. Magnetostructural transitions may be driven by multitude of physical inputs (magnetic field, temperature, pressure, electric field), implying they may be manipulated to yield a tailored functional response. Our research employs advanced materials probes and techniques (magnetic measurement, advanced electron microscopy and specialized synchrotron scattering and spectroscopic techniques) that are available both at Northeastern University and at the Brookhaven National Laboratory in Long Island, New York.
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Learn about Satoru Emori's research.
Chemical Engineering Professor Laura Lewis’s research into creating new supermagnets to replace rare-earth magnets was featured by the Boston Globe. Lewis uses modern equipment to synthesise...