MiNDS (Micro-Nano Device and Systems)

The courses and related projects developed by the team are
available to all undergraduate technical majors of junior class
standing regardless of specific discipline, making the program one
of the first efforts to bring the micro technology to a general
undergraduate audience. Since the time of the original grant the
program has grown both in size and in scope. Currently
multi-disciplinary teams of faculty and students are involved in a
wide variety of micro and nano technology related projects and
course work spanning the fields of material science, chemical
detection, optics, power generation and Bio-MEMS.As the nation's
leader in undergraduate engineering, math and science education,
Rose-Hulman Institute of Technology continually seeks to push the
boundaries of the student's experience. In 2002 multi-disciplinary
team of faculty from several different departments acquired a
$400,000 W. M. Keck Foundation grant to launch a program to teach
micro-electrical-mechanical systems (MEMS) technology to
undergraduate students. The original grant was supplemented by
equipment donations from ON Semiconductor and the renovation of a
cleanspace by the Institute, which brought a hands-on lab component
to the program.
Courses
Two lab-based courses are
currently taught in the MiNDS area. Courses are
cross-listed in six different academic departments and are
open to all Rose students of junior or senior class
standing.
Over the past few
years, an average of 36 students per year have taken the
introductory course, 83% of which have been undergraduates. An
average of 12 students per year go on to take the advanced course.
Eight different academic department have been represented
within the courses.
Research
The MiNDS program
is actively involved in a number of ongoing research projects
both
within the
areas of micro/nanotechnology and pedagogy. Some highlights
include:

MEMS Projects
- Meeting Educational Milestones - Enhancing
multidisciplinary undergraduate microelectronic education using a
"heads-on" MEMS laboratory experience (NSF grant
#0311400)
- Shape-Memory-Alloy MEMS: Heat engine, energy scavenger
and actuation
- Thin Film Deposition: Improve Reliability of Missile
Battery Igniter
- Microfluidics: Chemistry Lab-on-a-chip
- Design-Simulation- Characterization
- MUMPs: Heat actuators and
Mirrors
Nanoscale Projects
- Nanomagnetics: Data Storage
- Saturable Multiple Quantum Wells: Optical Switching &
ADC
- Carbon Nano-Tubes: Supercapacitor and Energy Storage
Application
- Nano Porous Silica: Water Treatment &
Photocatalysis
Publications
- A. Siahmakoun, T. Adams, E. Wheeler, and S. Kirkpatrick,
S., "Undergraduate MEMS-Nano Courses for Everyone," Proceedings
of MRS 2006 Conference, San Francisco, CA, April 17-21,
2006
- T. M. Adams, S. R. Kirkpatrick, Z. Wang, and A.
Siahmakoun, "NiTi Shape Memory Alloy Thin Films Deposited by
Co-Evaporation", Materials Letters, 59 (10), 1161-1164
(2005)
- Z. Wang, S. R. Kirkpatrick, T. M. Adams, and A.
Siahmakoun, "TiNi MEMS Heat Engine", Proceedings of SEM X
International Congress & Exposition, Costa Mesa, CA
(2004)
- A. Siahmakoun, S. Kirkpatrick, and T. Adams, "Shaped
memory alloy TiNi heat actuator," Nano and Microsystems
Technology and Metrology, Redstone Arsenal, AL, Nov. 17-18,
2004
- T. M. Adams, "An Undergraduate MEMS Course for Everyone"
Proceedings of the 2004 American Society for Engineering
Education Annual Conference & Exposition, Salt Lake City,
UT. (Recipient of Best Paper Award)
Facilities
In addition to the 2002 W. M. Keck Foundation grant, an NSF-CCLI
grant of $80,000 to upgrade the sputtering system was obtained in
2003, and in 2004 an NSF-MRI grant of $130,000 was obtained to
purchase an X-ray Diffraction system. In addition to the
fabrication equipment, a variety of metrology and testing systems
are available both within and without the clean space.
Equipment currently available in the MiNDS program
includes:
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Fabrication Facility
- Oxidation and diffusion furnaces
- E-beam evaporator
- Wet chemical processing stations
- Contact Aligner with IR backside Align
- Projection aligner
- Spin-rinse-dry system
- Plasma Asher
- Photoresist spinner system
- Wafer dicing system
- Deionized water filtration system
- Ultra-clean work-space
- Sputtering system
- Critical-point dry apparatus
- Anodic bonding apparatus
- High-temperature diffusion furnace
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Metrology and Testing Systems
- X-Ray diffraction System
- AFM STM system
- Optical Thin film measurement system
- Scanning-electron microscope
- Leak detector
- 4 HP Tablets computers
- Optical Microscope
- Micromanipulator system (2)
- Digital image processing system
- MEMS driver electronics
- Four-point probe
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Photo album of the microfabrication facility
and some of the available equipment.
For more information, contact the Director MiNDS, Azad Siahmakoun,
Professor of Physics & Optical Engineering.