Ruikang K. Wang
University of Washington
824 Papers
4.2K Citations
Ruikang K. Wang is an academic researcher from University of Washington. The author has contributed to research in topics: Optical coherence tomography & Medicine. The author has an hindex of 73, co-authored 764 publications. Previous affiliations of Ruikang K. Wang include University of Miami & University of Washington Medical Center.
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Papers
Delineating corneal elastic anisotropy in a porcine model using non-contact optical coherence elastography and ex vivo mechanical tests
Mitchell A. Kirby,John J. Pitre,Hong-Cin Liou,David S. Li,Ruikang K. Wang,Ivan Pelivanov,Matthew O'Donnell,Tueng T. Shen +7 more
TL;DR: In this paper, the authors compare non-contact acoustic micro-tapping optical coherence elastography (AuT-OCE) with destructive mechanical tests to confirm corneal elastic anisotropy.
Performance of tuneable photo-refractive filters
Ian Watson,Ruikang K. Wang,R.C.D. Young,Chris Chatwin +3 more
- 10 Jul 1995
TL;DR: In this paper, the authors proposed a tuneable photo-refractive (TPR) filter that not only gives sharp correlation peaks and good discrimination ability but is updateable and tuneable in real time via a variable attenuator.
Optical microangiography enabling visualization of change in meninges after traumatic brain injury in mice in vivo
TL;DR: Intracranial OMAG imaging of the injured mouse brain during post-TBI phase shows interesting pathophysiological findings in the meningeal layers such as widening of subdural space as well as vasodilation of subarachnoid vessels, indicating potential of OMAG to explore mechanism involved following TBI on small animals in vivo.
Reflective type objective based spectral-domain phase-sensitive optical coherence tomography for high-sensitive structural and functional imaging of cochlear microstructures through intact bone of an excised guinea pig cochlea
TL;DR: In this paper, the authors presented the feasibility of using commercially available reflective type objective for high sensitive and high resolution structural and functional imaging of cochlear microstructures of an excised guinea pig through intact intact temporal bone.
4D dynamic blood flow observation achieved by inter-volume analysis in OCT
TL;DR: In vivo volumetric OMAG at 200 volumes/s is demonstrated by an inter-volume analysis to contrast dynamic cerebral blood flow and speed, sensitivity and temporal resolution become possible for a direct 4D observation of microcirculations.