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Princeton Docket # 15-3089-1Researchers at Princeton University, Department of Mechanical and Aerospace Engineering, have proposed an improvement to the current design and fabrication of liquid-infused surfaces. Rough or patterned surfaces, when chemically treated and infused with a lubricating, superhydrophobic liquid, have been shown to repel liquid....
Published: 3/30/2022
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Inventor(s): Jason Wexler, Ian Jacobi, Howard Stone, Marcus Hultmark
Keywords(s):
Category(s): Materials
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Princeton Docket # 15-3149-1Researchers at Princeton University, Department of Mechanical and Aerospace Engineering, have developed a method to reduce the drag on solid objects opposed to fluid flow. Most liquid repellent surfaces are superhydrophobic, which contain pockets of air within surface roughness. Traditional air-water drag reduction surfaces...
Published: 2/14/2024
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Inventor(s): Marcus Hultmark, Alexander Smits, Howard Stone, Matthew Fu, Brian Rosenberg, Jason Wexler, Ian Jacobi
Keywords(s):
Category(s): Materials
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Princeton Docket # 15-3089-1Researchers at Princeton University, Department of Mechanical and Aerospace Engineering, have proposed an improvement to the current design and fabrication of liquid-infused surfaces. Rough or patterned surfaces, when chemically treated and infused with a lubricating, superhydrophobic liquid, have been shown to repel liquid....
Published: 8/19/2015
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Inventor(s): Jason Wexler, Ian Jacobi, Howard Stone, Marcus Hultmark
Keywords(s):
Category(s): Ceramics/Material Sciences
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Measuring Thin Film Flows Using FRAP
(Fluorescence Recovery After Photobleaching)
Princeton Docket #14-2963
Industrial coating, painting, and printing processes all involve a thin liquid film flowing over a solid surface. To properly design an industrial system containing these processes, it is necessary to understand the characteristics of the flow...
Published: 3/30/2022
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Inventor(s): Jason Wexler, Ian Jacobi, Howard Stone
Keywords(s): semiconductor
Category(s): Computer Science and Information Technology
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Microfluidic Ultralow Interfacial Tensiometry: Accurate and Low Cost
Princeton Docket # 12-2778
Researchers at Princeton University have developed a novel technique to measure ultralow interfacial tensions using paramagnetic spheres in a microfluidic co-flow device. The resulting tensiometry device is accurate, low cost, compact in size, and easy...
Published: 3/30/2022
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Inventor(s): Scott Shao Hsiang Tsai, Jason Wexler, Jiandi Wan, Howard Stone
Keywords(s):
Category(s): Mechanical/Electrical Engineering
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