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Microelectromechanical Systems (MEMS)
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MEMS technology allows incredibly
tiny electro-mechanical devices to be produced. Dozens of such devices are
on this 1 sq. cm. chip developed at SwRI. |
Institute engineers design and test MEMS actuators
that use wafer fabrication technology to achieve miniature moving parts as
small as 200 x 50 x 5 µm3 (tens of microns across) that respond to electrical and physical stimuli. These
actuators have been used to develop a variety of devices, including an optical
cross-connect switch and a miniature mechanical timed relay switch. The optical cross-connect switch
is a smaller, less expensive switch, with an increased port count, which can be
used in high-speed optical networks. The timed relay switch is the first MEMS device
to exert force over a significant distance on an object external to the MEMS
actuator. Other MEMS actuators are being used as components of a high current
electrical relay and a MEMS Materials Lab on a Chip for determination of
material properties and device lifetime studies. A 3D profiling system is being developed to make
accurate surface measurements of MEMS structures.
Division facilities suitable for MEMS research
include:
- A Class 1000 clean room
- Metrology tools
- Optical profilometer
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Staff members design and
test MEMS devices using wafer fabrication technology to achieve miniature
moving parts that respond to electrical and physical stimuli. Hundreds of
MEMS devices can be contained on a 1 cm2 chip. |
- Atomic force microscope
- Scanning electron microscope
- Operational analysis and packaging
- Probe station
- Wirebonder and ball bonder
- Processing tools
- Laser micromachining
- Direct write printer
- Spin coater
Joe Mitchell, Senior Research Engineer
Electromechanical and Optical Systems
Department
Applied
Physics
SwRI Technical Divisions
SwRI
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January 24, 2012
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