Sophia S. Yang
HRL Laboratories
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Publication
Featured researches published by Sophia S. Yang.
Advanced Materials | 2015
Christopher S. Roper; Randall C. Schubert; Kevin J. Maloney; David C. Page; Christopher J. Ro; Sophia S. Yang; Alan J. Jacobsen
A scalable method for fabricating architected materials well-suited for heat and mass exchange is presented. These materials exhibit unprecedented combinations of small hydraulic diameters (13.0-0.09 mm) and large hydraulic-diameter-to-thickness ratios (5.0-30,100). This process expands the range of material architectures achievable starting from photopolymer waveguide lattices or additive manufacturing.
international symposium on antennas and propagation | 2017
Adour V. Kabakian; Sophia S. Yang; Shuoqin Wang; Alan J. Jacobsen
A 3D multiphysics solver which combines beam propagation with chemical kinetics for simulating self-propagating photopolymer waveguides is presented. The solver is shown to predict various experimentally observed phenomena and is used to simulate the formation of micro-truss structures consisting of intersecting photopolymer waveguides.
Archive | 2017
Adam F. Gross; Andrew P. Nowak; Elena Sherman; Christopher J. Ro; Sophia S. Yang; Maryam Behroozi; April R. Rodriguez
Insect debris disrupts laminar flow, obstructs operator vision, and degrades vehicle aesthetics. To protect vehicle surfaces, anti-contamination coatings have been under development for 70 years, but no known homogeneous coating both adequately reduces debris and survives on vehicle surfaces. Coatings with synergistic combinations of physical properties and materials, however, may enable improved anti-fouling and maintain long-term durability. Transparent, spray-on coatings were developed that contain a combination of fluorinated and hygroscopic chemistries in which the fluorinated component reduces wetting of insect debris while the hygroscopic component produces a lubricating layer of absorbed water that interferes with debris adhesion. Debris area after insect impact was approximately twice as low on these coatings as compared to homogeneous control materials. Furthermore, the sensitivity of debris accumulation to hygroscopic content, and thus lubricity, was measured. At least 13 wt% hygroscopic content in the developed coatings was required for decreased debris accumulation compared to a pure fluorinated surface. Lastly, resistance to common vehicle fluids and scribe-tape adhesion was measured on fluorinated-hygroscopic coatings as initial demonstrations of durability.
Advanced Engineering Materials | 2014
Tobias A. Schaedler; Christopher J. Ro; Adam E. Sorensen; Zak C. Eckel; Sophia S. Yang; William B. Carter; Alan J. Jacobsen
Archive | 2014
Sophia S. Yang; Alan J. Jacobsen; Jacob M. Hundley; Eric C. Clough
Archive | 2012
Robert E. Doty; Richard W. Burns; Alan J. Jacobsen; Sophia S. Yang
Archive | 2014
Jacob M. Hundley; Zak C. Eckel; Sophia S. Yang; Alan J. Jacobsen; William B. Carter
Archive | 2013
Sophia S. Yang; Alan J. Jacobsen
Archive | 2013
Jacob M. Hundley; Tobias A. Schaedler; Sophia S. Yang; Alan J. Jacobsen
Archive | 2014
Tobias A. Schaedler; Alan J. Jacobsen; Zak C. Eckel; Sophia S. Yang; Adam E. Sorensen; Jacob M. Hundley; William B. Carter; Jenny Jiang