Bryan Huey
Professor & Department Head/Material Science and Engr
Storrs Mansfield
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Scholarly Contributions
261 Scholarly Contributions
Manipulation of Biological Structures with Scanning Probe Microscopy
2007
Research Type: Book Chapter
Correlations between adhesion hysteresis and friction at molecular scales.
2005
Research Type: Journal Article
Nanometer Scale Measurement and Control of Ferroelectric Polarization at MHZ Frequencies
2004
Research Type: Book Chapter
Comparison of surface-treated and untreated orthodontic bands: evaluation of shear force and surface roughness.
1998
Research Type: Journal Article
Degradation of PERC and Al-BSF cells with UV cutoff and white variations of EVA and POE encapsulant
Research Type: Conference Proceedings
Impact of surface passivation on UV stability of bifacial mc-Si PERC solar modules
Research Type: Conference Proceedings
Open Circuit Voltages for PERC Local Back Surface Fields Directly Resolved at the Nanoscale
Research Type: Conference Proceedings
Degradation of Bifacial PERC and Al-BSF Cell Minimodules with White and Clear Encapsulant Combinations in Modified Damp Heat
Research Type: Conference Proceedings
Laser Patterning Captured in Real-Time: Surface Modifications of Multilayer Thin-Films Under Nanosecond Laser Heating
Research Type: Journal Article
Reviving the “Schottky” Barrier for Flexible Polymer Dielectrics with a Superior 2D Nanoassembly Coating
Research Type: Journal Article
Edge enhancement of piezoactuation driven by strain relief in micropatterned ferroelectrics
Research Type: Journal Article
Defeating depolarizing fields with artificial flux closure in ultrathin ferroelectrics
Research Type: Journal Article
Disentangling ferroelectric domain wall geometries and pathways in dynamic piezoresponse force microscopy via unsupervised machine learning
Research Type: Journal Article
Nanoscale Ferroelectric Switching Dynamics Directly Resolved in Three Dimensions
Research Type: Journal Article
Modulation of the Contractility of Micropatterned Myocardial Cell Networks with Nanoscale Forces using Atomic Force Microscopy
Research Type: Journal Article