Hyphenated Systems Announces Joint Development Project with Purdue Microfluidics Laboratory
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Purdue will use Hyphenated Systems’ 3Dmap™ to characterize structure in advanced microfluidic devices and to develop advanced techniques to characterize fluid flow through these structures.
Hyphenated Systems’ 3Dmap (Microfluidics Analysis Platform) uses confocal microscopy to visualize and measure 3D structure with sub-micron resolution.
The Purdue Microfluidics Laboratory performs fundamental research into the structure and function of microfluidic devices and is actively involved in the development of new designs and the experimental techniques needed to understand and predict their performance.
3Dmap enhances the laboratory’s commercial and research capabilities and will provide important feedback to Hyphenated Systems about the needs of the industry.
"We are truly excited to have the 3Dmap system in our laboratory," said Dr. Steve Wereley, director of the Purdue Microfluidics Laboratory.
"The system is unique in its ability to characterize some of the very complex structures that we are developing."
"Equally important, its advanced confocal technology has the potential to characterize flow in three dimensions as well."
"Existing two-dimensional flow characterization is limited by its inability to discriminate the relatively fast flow in the middle of the channel from the slower flow in the boundary layer at the bottom of the channel."
"In addition to its potential for 3D flow measurements, 3Dmap provides broad capability to measure the materials and structures typically found in microfluidic devices," said Terence Lundy, vice president and managing director, Hyphenated Systems.
"These include subsurface structures in transparent materials, rough surfaces, and steeply sloped surfaces-all of which are problematic for alternative technologies such as interferometry or scanning probe microscopy."
"3Dmap’s open architecture, both the hardware and software, is specifically designed to facilitate the incorporation of ancillary techniques like flow measurement."