C
C. Ding
Researcher at University of California, Santa Barbara
Publications - 13
Citations - 184
C. Ding is an academic researcher from University of California, Santa Barbara. The author has contributed to research in topics: Heat pipe & Chemistry. The author has an hindex of 5, co-authored 11 publications receiving 169 citations. Previous affiliations of C. Ding include University of California.
Papers
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Journal ArticleDOI
A Flat Heat Pipe Architecture Based on Nanostructured Titania
TL;DR: In this article, the authors proposed a 3.5 mm-thick Ti-based flat heat pipe for thermal ground plane (TGP) applications, which is constructed by laser welding two microfabricated titanium substrates to form a hermetically sealed vapor chamber.
Patent
Titanium-based thermal ground plane
TL;DR: Titanium-based thermal ground planes are described in this article, where a titanium substrate comprising a plurality of pillars can be optionally oxidized to form nanostructured titania coated pillars, and a vapor cavity, in communication with the plurality of titanium pillars, can be used to transport thermal energy from one region of the thermal ground plane to another region.
Journal ArticleDOI
Direct imaging of aligned neurofilament networks assembled using in situ dialysis in microchannels.
H. C. Hesse,Roy Beck,C. Ding,Jayna B. Jones,Joanna Deek,Noel C. MacDonald,Youli Li,Cyrus R. Safinya +7 more
TL;DR: This technique to produce aligned neurofilament networks for direct imaging and diffraction studies using in situ dialysis in a microfluidic device can be expanded to facilitate structural studies of a wide range of filamentous proteins and their hierarchical assemblies under varying assembly conditions.
Proceedings ArticleDOI
Development of Bulk-Titanium-Based MEMS RF Switch for Harsh Environment Applications
C. Ding,X. Huang,Giuliano Gregori,E. R. Parker,Masaru P. Rao,David R. Clarke,Noel C. MacDonald +6 more
TL;DR: In this paper, the feasibility of the fabrication of titanium-based MEMS RF switches for harsh environment applications was investigated and two design generations of electrostatically-actuated Bulk-Titanium MEMS (BTMEMS) switches were fabricated and tested.
Journal ArticleDOI
Superhydrophilicity on microstructured titanium surfaces via a superficial titania layer with interconnected nanoscale pores
TL;DR: Static contact angle and dynamic spreading studies clearly demonstrate enhanced hydrophilicity of microstructured Ti surfaces with a superficial porous TiO2 layer, which promises interesting applications in the microfluidics and microsystems fields.