msu electrosciences group · structures (64λ aircraft). Origami frequency selective surface. left:...
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msu electrosciences group — a tightly integrated and collaborative group of 16 faculty members together with their graduate students — Andrew Christlieb Tim Grotjohn Lee Harle Prem Chahal Satish Udpa Antonello Tamburrino John Verboncoeur Lalita Udpa Tim Hogan Leo Kempel Ed Rothwell Nelson Sepúlveda John Albrecht Rebecca Anthony Jes Asmussen Shanker Balasubramaniam — with research spanning multiple disciplines in applied physics ranging from nondestructive evaluation to plasma to classical electromagnetics. Our unique strength lies in building around a comprehensive core — including theory, experiment, and computation — offering decades of collaborative expertise for engineering a better tomorrow. COLLEGE OF ENGINEERING electro scıences mu ul lti ip ple m e t a m a t e r i a l s · · · n o n d e s t r u c t i v e e v a l u a t i o n · · · r a d a r · · · b e a m s & d e v i c e s · · · d i s c h a r g e s · · · a l g o r i t h m s / h p c · · · experiment theory computation contacts group Electroscience Group graduate students and faculty in the Nondestructive Evaluation Laboratory. Tim Grotjohn 428 S. Shaw Lane, Room 2120, East Lansing, MI 48824 tel (517) 353-8906 | [email protected] nondestructive evaluation lab http://www.egr.msu.edu/ndel/ electromagnetics http://www.egr.msu.edu/ece/research/electromagnetics electronic materials & devices http://www.egr.msu.edu/ece/research/electronic-materials-devices plasma theory & simulation http://ptsg.egr.msu.edu/#Workshops fraunhofer center for coatings & laser applications— ccl coatings technology division http://www.ccl-coatings.fraunhofer.org/
Transcript of msu electrosciences group · structures (64λ aircraft). Origami frequency selective surface. left:...
msu electrosciences group — a tightly integrated and collaborative
group of 16 faculty members together
with their graduate students —
AndrewChristlieb
TimGrotjohn
LeeHarle
PremChahal
SatishUdpa
AntonelloTamburrino
JohnVerboncoeur
LalitaUdpa
TimHogan
LeoKempel
EdRothwell
NelsonSepúlveda
JohnAlbrecht
RebeccaAnthony
JesAsmussen
ShankerBalasubramaniam
— with research spanning multiple disciplines
in applied physics ranging from nondestructive
evaluation to plasma to classical electromagnetics.
Our unique strength lies in building around a
comprehensive core — including theory, experiment,
and computation — offering decades of collaborative
expertise for engineering a better tomorrow.COLLEGE OF ENGINEERING
electroscıences
muulltiipple
meta
mater
ials
· · · nondestructive evaluation · · · radar
· · · beams & devices · · · discharges · · · alg
orithm
s/hp
c ·
· ·
experiment
theory computation
contacts
groupElectroscience Group graduate students and faculty in the Nondestructive Evaluation Laboratory.
Tim Grotjohn428 S. Shaw Lane, Room 2120, East Lansing, MI 48824tel (517) 353-8906 | [email protected]
nondestructive evaluation labhttp://www.egr.msu.edu/ndel/
electromagneticshttp://www.egr.msu.edu/ece/research/electromagnetics
electronic materials & deviceshttp://www.egr.msu.edu/ece/research/electronic-materials-devices
plasma theory & simulationhttp://ptsg.egr.msu.edu/#Workshops
fraunhofer center for coatings & laser applications—ccl coatings technology division
http://www.ccl-coatings.fraunhofer.org/
msu electrosciences group concept . computation . application
nondestructive evaluation
electro·magnetics
devices plasmasTheoretical development for fl aw/fi eld interaction
Numerical analysis of the underlying phenomena (both electromagnetic and acoustic)
Design and development of sensors and systems for nondestructive evaluation of metal and composite airframe structures, heat exchange tubes
Algorithms and software for large-scale time and frequency domain electromagnetic analysis
Higher-order integral and differential equation solvers
Light–matter interaction, coupled device electromagnetic models
Theoretical and experimental design of meta-surfaces, meta-material-inspired devices (antennas; THz imagers, sensors, and infrared detectors), optimization of metamaterial structures
Reconfi gurable and self-structuring antennas for air and land vehicles
Antenna miniaturization, reconfi gurable scatterers, cavities, microwave circuits, and wearable devices
Packaging and high-frequency interconnects, 3D and heterogeneous integration
Measurement of constitutive properties in from the MHz–THz regimes
Devices from RF to THz frequencies, nW to GW powers
Charge and phonon transport
Multi-scale device modeling
Thermoelectric devices, transport measurement systems
MEMS and optical devices based on phase-change materials
Basic plasma physics, wave propagation, and instabilities
Low-temperature plasmas for materials, lighting, jets, and thrusters
Beams, accelerator, and microwave devices and components
Plasma chemistry for combustion, surface physics, and laser pumping
Algorithms and high-performance computing
Particle, fl uid, and global models Microwave plasma source design including large area and microplasmas
Plasma diagnostics, plasma materials process including deposition, etching, and surface treatment of materials
Plasma-assisted chemical vapor deposition of diamond and plasma etching of diamond
above: In-line pipeline inspection tool.
right: Steam generator tube simulation GUI: (a) FE model mesh, (b) validation of simulation (top: experiment, bottom: simulation).
Electron density in a capacitively compled RF discharge.
ceso G
Charge
Multi-sc
DevicnW to
Scattering from large structures (64λ aircraft).
Origami frequency
selective surface.
left: Programmable MEMS: fully monolithically integrated MEMS memo-ries have been developed in our group. The devices use the structural phase transition in VO2 and hysteric behavior to allow for multiple state programmable micro actuators. The devices are operated completedly through electrical signals, but could also be acuated photo-thermally.
B
A
Current distributions in 3D fractal structures with 2D periodicity.
Graphene devices on fl ux substrate.
Multipactor discharge growth ina superconducting RF cavity.
Diamond materials fabrication in the Fraunhofer Center for Coatings &
Laser Applications laboratory.
Diamond substrate grown on MSU
campus for use in diamond active
electronic devices.
