A Photonic MEMS Polarization Switch
p.63
p.63
Dynamic Liquid Optical Splitters and Interferometers Integrated into Micro-Fluidic-Systems
p.67
p.67
Flows in Microchannels and Cavities – Visco-Elasticity, Faradaic Charging and Surface Roughness Effects
p.73
p.73
Mixing Enhancement of a Passive Micromixer by Applying Boundary Protrusion Structures
p.77
p.77
Design and Characterization of a MEMS-Microfluidic Sensor for Rheological Applications
p.81
p.81
Development of Liquid Tunable Diffractive/Refractive Hybrid Lens Based on Combination of Diamond Turning and Soft Lithography
p.85
p.85
A Chip-Level Disposable Optofluidic Device for Biosensing
p.91
p.91
Label-Free Protein Detection via Gold Nanoparticles and Localized Surface Plasmon Resonance
p.95
p.95
Photothermal Techniques for Materials Characterization and Live Cells Monitoring
p.101
p.101
Design and Characterization of a MEMS-Microfluidic Sensor for Rheological Applications
Abstract:
We present our efforts to design, manufacture, and characterize a capillary viscometer aimed at performing very high shear rate rheology of complex fluids, and fabricated using hybrid MEMS/microfluidic technology. We demonstrate that microfluidic and MEMS technologies can be combined to integrate fluidic channels with microfabricated stress and flow sensors, enabling rheological measurements at shear rates up to 500000s-1 and beyond.
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Periodical:
Advanced Materials Research (Volume 74)
Pages:
81-84
Citation:
Online since:
June 2009
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© 2009 Trans Tech Publications Ltd. All Rights Reserved
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