C. Smith
University of Rochester
24 Papers
49 Citations
C. Smith is an academic researcher from University of Rochester. The author has contributed to research in topics: Thin film & Laser. The author has an hindex of 5, co-authored 21 publications.
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Papers
Plasma-ion-assisted coatings for 15 femtosecond laser systems.
TL;DR: Large-aperture deposition of high-laser-damage-threshold, low-dispersion optical coatings for 15 femtosecond pulses have been developed using plasma-ion-assisted electron-beam evaporation.
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Electron-beam–deposited distributed polarization rotator for high-power laser applications
James B. Oliver,Terrance J. Kessler,C. Smith,Brian Taylor,V. Gruschow,J. Hettrick,B. Charles +6 more
TL;DR: Low-modulation, low-loss transmittance with a high 351-nm laser-damage threshold is achieved in distributed polarization rotators suitable for smoothing the intensity of large-aperture, high-peak-power lasers.
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Glancing-angle–deposited magnesium oxide films for high-fluence applications
James B. Oliver,C. Smith,J. Spaulding,Amy L. Rigatti,B. Charles,Semyon Papernov,Brian Taylor,J. Foster,Christopher W. Carr,Ronald L. Luthi,B. Hollingsworth,David A. Cross +11 more
TL;DR: In this article, a large-aperture distributed-polarization rotator for use in vacuum with an ultimate laser-damage threshold of up to 12 J/cm2 for a 5-ns flat-in-time pulse was developed.
21
Driving simulators for evaluation of novel traffic-control devices: Protected-permissive left-turn signal display analysis
David A Noyce,C. Smith +1 more
TL;DR: In this paper, the authors evaluated drivers' comprehension of several experimental five-section protected-permissive left-turn (PPLT) signal displays and found that the type of signal display arrangement has very little effect on driver comprehension of the permissive left turn maneuver.
16
Glancing-angle-deposited silica films for ultraviolet wave plates.
TL;DR: Birefringent silica films are formed by glancing-angle deposition to fabricate quarter- and half-wave plates at a wavelength of 351 nm to achieve low-loss transmittance with a high 351-nm laser-induced damage threshold.
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