Faculty

Institution

Unit

Venue

C. David Andereck

Emeritus Professor

Ohio State University

Affiliations

College of Arts and Sciences

Physics

C. David Andereck is currently serving as a College Of Arts And Sciences Emeritus Professor at Ohio State University.

Honors

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Experiences

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Education

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C. David Andereck

Ohio State University

Emeritus Professor

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applied physics fluid dynamics physics fluid mechanics materials science laser science circular couette system condensed matter physics particle physics applied mathematics photonics taylor-dean system liquid crystals fluid flow plasma science phase dynamics computational fluid dynamics unsteady flows vortex dynamics taylor vortices two-layer rayleigh-benard system variable thickness pattern formation dynamical systems flow physics laser processing technology time-dependent patterns taylor-couette system intense lasers liquid crystal films diffusion coefficient taylor vortex flow engineering science magnetic resonance condensed matter molecular liquids atomic spectroscopy nuclear science thermal engineering hydrodynamic stability chaos theory optical engineering quantum liquids magnetic properties quantum magnetism bifurcation theory turbulence modeling laser-plasma interaction plasma photonics nuclear engineering hydraulics flow regimes spiral turbulence taylor-couette flow turbulent patterns high-energy-density matter chaotic mixing

Notable Scholarly Works

Notable Federal Grants

Collaborators

Study of Accelerated Ion Energy and Spatial Distribution With Variable Thickness Liquid Crystal Targets. arXiv (Cornell University) (2017)

P. L. PooleC. WillisC. D. AndereckL. Van WoerkomD. W. Schumacher

applied physicsspatial distributionaccelerated ion energy

Moderate Repetition Rate Ultra-Intense Laser Targets and Optics Using Variable Thickness Liquid Crystal Films. Applied Physics Letters (2016)

P. L. PooleC. WillisG. E. CochranR. T. HannaC. D. AndereckD. W. Schumacher

materials sciencelaser processing technologyoptical engineeringlaser scienceapplied mathematicsapplied physicsoptoelectronicsphotonics

ERRATUM: “Liquid Crystal Films as On-Demand, Variable Thickness (50–5000 Nm) Targets for Intense Lasers” [Phys. Plasmas 21, 063109 (2014)]. Physics of Plasmas (2015)

P. L. PooleC. D. AndereckD. W. SchumacherR. L. DaskalovaS. FeisterK. M. GeorgeC. WillisK. U. AkliE. A. Chowdhury

physicsplasma scienceliquid crystalsvariable thicknessintense laserslaser-plasma interactionlaser scienceastronomyliquid crystal filmsapplied physicsplasma photonics

In-Situ, Variable Thickness, Liquid Crystal Film Target Formation at Moderate Repetition Rate for Intense Laser Applications. arXiv (Cornell University) (2015)

P L PooleG E CochranR J HannaC WillisC D AndereckD W Schumacher

variable thicknessmaterials scienceliquid crystalsmoderate repetition ratelaser scienceapplied physicsintense laser applications

Liquid Crystal Film Development for Plasma Mirrors and Waveplates. Bulletin of the American Physical Society (2015)

G.E. CochranP.L. PooleC. WillisR.J. HannaK. PytelK.S. SullivanC.D. AndereckD.W. Schumacher

materials scienceliquid crystalsplasma scienceplasma mirrorsapplied physics

Liquid Crystals as High Repetition Rate Targets for Ultra Intense Laser Systems. Frontiers in Optics (2015)

Patrick PooleChristopher WillisGinevra CochranMatthew McMahonEnam ChowdhuryC. David AndereckDouglass Schumacher

applied physicslaser sciencephotonics

Optimized Ion Acceleration Using High Repetition Rate, Variable Thickness Liquid Crystal Targets. Bulletin of the American Physical Society (2015)

Patrick PooleChristopher WillisGinevra CochranC. David AndereckDouglass Schumacher

applied physicsion accelerationhigh repetition rate

Variable Thickness Liquid Crystal Films for High Repetition Rate Laser Applications. Bulletin of the American Physical Society (2015)

Patrick PooleChristopher WillisGinevra CochranRandall HannaC. David AndereckDouglass Schumacher

materials sciencelaser processing technologylaser scienceapplied physicsoptoelectronicsphotonics

Liquid Crystal Films as On-Demand, Variable Thickness (50–5000 Nm) Targets for Intense Lasers. Physics of Plasmas (2014)

P. L. PooleC. D. AndereckD. W. SchumacherR. L. DaskalovaS. FeisterK. M. GeorgeC. WillisK. U. AkliE. A. Chowdhury

physicsmaterials scienceplasma sciencevariable thicknessintense laserslaser scienceliquid crystal filmsapplied physicsphotonics

Liquid Crystals as On-Demand, Variable Thickness Targets for Intense Laser Applications. Bulletin of the American Physical Society (2014)

Patrick L. PooleC. David AndereckDouglass W. Schumacher

laser scienceapplied physicsvariable thickness targetsintense laser applicationsphotonics

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