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Vish Prasad

Title: Professor

Department: Mechanical Engineering

College: College of Engineering

Curriculum Vitae

Curriculum Vitae Link

Education

  • PhD, University of Delaware, 1983
    Major: Applied Sciences - Mechanical & Aerospace Engine
    Specialization: Mechanical Engineering
  • MS, Indian Institute of Technology, Kanpur, 1978
    Major: Mechanical Engineering
    Specialization: M. Tech., Research in Heat Transfer
  • BS, National Institute of Technology, 1971
    Major: Mechanical Engineering

Current Scheduled Teaching

MEEN 5240.001Energy: A World PerspectiveSpring 2025
MEEN 4810.013Topics in Mechanical & Energy EngineeringSpring 2025
MEEN 5311.001Convection Heat Transfer IIFall 2024
MEEN 6950.720Doctoral DissertationFall 2024
MEEN 5000.002Energy : The FundamentalsFall 2024
MEEN 5950.752Masters ThesisFall 2024
MEEN 4810.017Topics in Mechanical & Energy EngineeringFall 2024 Syllabus

Previous Scheduled Teaching

MEEN 5890.008Directed Study in Mechanical & Energy EngineeringSpring 2024
MEEN 6950.749Doctoral DissertationSpring 2024
MEEN 5240.001Energy: A World PerspectiveSpring 2024 SPOT
MEEN 5940.001Graduate Seminar in Mechanical and Energy EngineeringSpring 2024 SPOT
MEEN 4810.013Topics in Mechanical & Energy EngineeringSpring 2024 Syllabus SPOT
MEEN 5890.732Directed Study in Mechanical & Energy EngineeringFall 2023
MEEN 5000.002Energy : The FundamentalsFall 2023 SPOT
MEEN 3210.001Heat TransferFall 2023 Syllabus SPOT
MEEN 6940.753Individual ResearchFall 2023
MEEN 4810.017Topics in Mechanical & Energy EngineeringFall 2023 Syllabus SPOT
MEEN 5890.008Directed Study in Mechanical & Energy EngineeringSpring 2023
MEEN 5240.001Energy: A World PerspectiveSpring 2023 SPOT
MEEN 5940.001Graduate Seminar in Mechanical and Energy EngineeringSpring 2023 SPOT
MEEN 5900.001Special ProblemsSpring 2023
MEEN 4810.013Topics in Mechanical & Energy EngineeringSpring 2023 Syllabus SPOT
MEEN 6940.753Individual ResearchFall 2022
MEEN 5311.001Convection Heat Transfer IISpring 2022 SPOT
MEEN 5240.001Energy: A World PerspectiveSpring 2022 SPOT
MEEN 5940.001Graduate Seminar in Mechanical and Energy EngineeringSpring 2022 SPOT
MEEN 4810.013Topics in Mechanical & Energy EngineeringSpring 2022 Syllabus SPOT
MEEN 5000.002Energy : The FundamentalsFall 2021 Syllabus SPOT
MEEN 5000.607Energy : The FundamentalsFall 2021 Syllabus SPOT
MEEN 3210.001Heat TransferFall 2021 Syllabus SPOT
MEEN 4810.017Topics in Mechanical & Energy EngineeringFall 2021 Syllabus SPOT
MEEN 5311.001Convection Heat Transfer IISpring 2021 SPOT
MEEN 5311.601Convection Heat Transfer IISpring 2021 SPOT
MEEN 5240.001Energy: A World PerspectiveSpring 2021 SPOT
MEEN 6940.704Individual ResearchSpring 2021
MEEN 4810.013Topics in Mechanical & Energy EngineeringSpring 2021 Syllabus SPOT
MEEN 5890.704Directed Study in Mechanical & Energy EngineeringFall 2020
MEEN 5000.001Energy : The FundamentalsFall 2020
MEEN 5000.002Energy : The FundamentalsFall 2020 SPOT
MEEN 5000.607Energy : The FundamentalsFall 2020 SPOT
MEEN 5940.001Graduate Seminar in Mechanical and Energy EngineeringFall 2020 SPOT
MEEN 3210.001Heat TransferFall 2020 Syllabus SPOT
MEEN 4810.017Topics in Mechanical & Energy EngineeringFall 2020 Syllabus SPOT
MEEN 5311.001Convection Heat Transfer IISpring 2020
MEEN 5890.738Directed Study in Mechanical & Energy EngineeringSpring 2020
MEEN 5240.001Energy: A World PerspectiveSpring 2020
MEEN 4112.001Fundamentals of Nuclear EngineeringSpring 2020 Syllabus
MEEN 4810.013Topics in Mechanical & Energy EngineeringSpring 2020 Syllabus
MEEN 5000.002Energy : The FundamentalsFall 2019 SPOT
MEEN 5000.607Energy : The FundamentalsFall 2019 SPOT
MEEN 3210.001Heat TransferFall 2019 Syllabus SPOT
MEEN 4810.017Topics in Mechanical & Energy EngineeringFall 2019 Syllabus SPOT
MEEN 5890.715Directed Study in Mechanical & Energy EngineeringSummer 10W 2019
MEEN 5311.001Convection Heat Transfer IISpring 2019 SPOT
MEEN 5240.001Energy: A World PerspectiveSpring 2019 SPOT
MEEN 4112.001Fundamentals of Nuclear EngineeringSpring 2019 Syllabus SPOT
MEEN 5000.002Energy : The FundamentalsFall 2018 SPOT
MEEN 4112.001Fundamentals of Nuclear EngineeringFall 2018 Syllabus SPOT
MEEN 3210.001Heat TransferFall 2018 Syllabus SPOT
MEEN 5311.001Convection Heat Transfer IISpring 2018 SPOT
MEEN 5311.601Convection Heat Transfer IISpring 2018 SPOT
MEEN 5240.001Energy: A World PerspectiveSpring 2018 SPOT
MEEN 5000.002Energy : The FundamentalsFall 2017 SPOT
MEEN 5000.607Energy : The FundamentalsFall 2017 SPOT
MEEN 4112.001Fundamentals of Nuclear EngineeringFall 2017 Syllabus SPOT
MEEN 3210.001Heat TransferFall 2017 Syllabus SPOT
MEEN 5311.001Convection Heat Transfer IISpring 2017 SPOT
MEEN 5890.738Directed Study in Mechanical & Energy EngineeringSpring 2017 SPOT
MEEN 4112.001Fundamentals of Nuclear EngineeringSpring 2017 Syllabus SPOT
MEEN 3210.001Heat TransferSpring 2017 Syllabus SPOT
MEEN 5240.001Energy: A World PerspectiveFall 2016 SPOT
MEEN 3210.001Heat TransferFall 2016 SPOT
MEEN 5311.001Convection Heat Transfer IISpring 2016 SPOT
MEEN 3210.001Heat TransferSpring 2016 Syllabus SPOT
MEEN 5240.001Energy: A World PerspectiveFall 2015 SPOT
MEEN 5940.001Graduate Seminar in Mechanical and Energy EngineeringFall 2015 SPOT
MEEN 5940.001Graduate Seminar in Mechanical and Energy EngineeringSpring 2013

Published Intellectual Contributions

    Abstracts and Proceedings

  • Mishra D., Wong, S. L., Longtin J. P., Singh R. P., and Prasad V.. (2002). Iso-Gradient Lines in a Differentially Heated Cylindrical Fluid Layer using Coherent Gradient Sensing Interferometer.
  • Mishra D., Prasad V., Ferland M. and Lutjen P. M.. (2001). Liquid Crystal Flow Visualization and Measurement of Temperature Fields: Extension to Third Dimension.
  • Ma, R.-H., Zhang, H. , Prasad, V., Ha, S., and Skowronski, M.. (2001). Numerical simulation of RF heating for a SiC vapor growth system.
  • Sun, D., Chatterjee, A., Zhang, H., and Prasad, V.; eds. V. Ganeshan, T.S. Sudararajan and E.G. Tulapurkara. (2000). An Adaptive Multizone Numerical Method for Internal Flows and Phase-change Problems.
  • Wan, Y., Prasad, V., and Sampath, S.. (2000). Evaporation Modeling of Plasma Sprayed Powder Particles.
  • Mishra, D., Pal. A., Nemick, N., Saha, A. K., Prasad, V., and Zhang, H.. (2000). Experimental and Numerical Study of Transport Phenomena in a Simulated Hydrothermal Crystal Growth System of Fluid-Saturated Porous Layer.
  • Eds. M.S. Loknath, S.P. Venkateshan, B.V.S.S.S. Prasad, B. Basu, and V. Prasad. (2000). Heat and Mass Transfer, Proceeding of the 4th ISHMT-ASME Heat and Mass Transfer Conference.
  • Pendurti, S., Zhang, H., and Prasad, V.. (2000). Modeling of Transport Phenomena and Defects in Crystal Growth Processes.
  • Wang, G.-X., Prasad, V., and Sampath, S.. (2000). Rapid Solidification in Thermal Spray Deposition: Microstructure and Modeling.
  • Ferland, M., Mishra, D., and Prasad, V.. (2000). Study of Solidification in a Simulated Czochralski System via Liquid Crystal Tracers.
  • Xu, J., Ferland, M., Zhang, H., and Prasad, V.. (2000). Thermal Analysis of Solidification in a Czochralski-Type Rotating System.
  • Saha, A. K., Zhang, H., and Prasad, V.. (2000). Thermal Transport During Seeding and Shouldering in the Czochralski Crystal Growth.
  • Chatterjee, A., Sun, D., and Prasad, V.. (2000). Three-Dimensional Simulation of Low Pressure and LEC High Pressure Czochralski Growth.
  • Wang, G.X., Goswami, R., Sampath, S., and Prasad, V.. (2000). Understanding the Heat Transfer and Solidification of Plasma-Sprayed Yttria-Stabilized Zirconia Coatings.
  • Roy, A., Chen, Q.-S., Zhang, H., and Prasad, V.. (1999). An Integrated Model for Electromagnetic Field and Heat Transfer for Cylindrical Tube Growth System by EFG Method.
  • Wang, G.X., and Prasad, V.. (1999). Microscale Heat and Mass Transfer and Non-equilibrium Phase Change in Rapid Solidification.
  • Wan, Y.P., Gupta, V., Zhang, H., Varshney, A., Sampath, S., and Prasad, V.. (1999). Modeling and Visualization of Plasma Spray Process for Depositing Functionally Graded Materials.
  • Wan, Y.P., Fincke, J.R., Sampath, S., and Prasad, V.. (1999). Modeling the In-flight Oxidation of Plasma Sprayed Molybdenum Particles.
  • Yang, F., Prasad, V., and Kao, I.. (1999). Thermal Restriction Resistance of a Strip Contact Spot on a Thin Film.
  • Zhang, T., Ladeinde, F., and Prasad, V.. (1999). Turbulent Convection in Large Czochralski Melt.
  • Wang, G.-X., Sampath, S., Prasad, V., and Herman, H.. (1998). A Mathematical Model for Microsegregation in Rapidly Solidified Alloys.
  • Sahoo, R.K., Prasad, V., Zhang, H., Chui, C.K., Tangerman, F., and Glimm, J.. (1998). A Multizone Adaptive Parallel Scheme for Solidification in a Rectangular Cavity.
  • Bliss, D., Bryant, G., Jafri, I., Prasad, V., Gupta, K., Farmer, R., and Chandra, M.. (1998). A New High-Pressure System for Synthesis and Crystal Growth of Large Diameter InP.
  • Nunes, E.M., Naraghi, M.H.N., Zhang, H., and Prasad, V.. (1998). A Volume Radiation Heat Transfer Model for Czochralski Crystal Growth Process.
  • Zhang, H., Zheng, L.L., Prasad, V., and Larson, D.J.. (1998). Effect of Pulling Velocity on Interface Dynamics and Solute Segregation During Crystal Growth.
  • Kao, I., Prasad, V., Chiang, F.P., Bhagavat, M., Wei, S., Chandra, M., Costantini, M., Leyvraz, P., Talbott, J., and Gupta, K.P.. (1998). Modeling and Experiments on Wiresaw for Large Silicon Wafer Manufacturing.
  • Wan, Y.P., Prasad, V., Wang, G.-X., Sampath, S., and Fincke, J.. (1998). Modeling of Powder Particle Heating and Evaporation in Plasma Spraying Process.
  • Wang, G.-X., Sampath, S., Prasad, V., and Herman, H.. (1998). Modeling of Rapid Solidification during Splat Quenching.
  • Zhang, T., Wang, G.-X., Zhang, H., Ladeinde, F., and Prasad, V.. (1998). Oxygen Transport in Czochralski Growth of 300 mm Diameter Silicon Crystal.
  • Zhang, T., Wang, G.-X., Ladeinde, F., and Prasad, V.. (1998). Thermo-Solutal Issues In Large Silicon Crystal Growth.
  • Chatterjee, R. K. Sahoo and V. Prasad. (1998). Three Dimensional Simulation of Phase Change Processes: Application to Czochralski Crystal Growth.
  • Prasad, V., Zhang, H., and Sampath, S.. (1997). Dynamic Simulations of Multiple Splat Spreading and Solidification.
  • Zou, Y.F., Wang, G.-X., Zhang, H., Prasad, V., and Bliss, D.F.. (1997). Effect of Growth Conditions on Thermal Stress Development in High Pressure LEC Grown InP Crystals.
  • Eltribi, S., Mukherjee, D.K., and Prasad, V.. (1997). Experiments on Liquid Surface Deformation upon Impingement by a Gas Jet.
  • Zhang, H., and Prasad, V.. (1997). Heat and Mass Transfer in Czochralski Crystal Growth Systems.
  • Mukherjee, D.K., Prasad, V., and Tan, H.. (1997). Measurement of Thermal Gradients and Fluctuations using Liquid Crystals.
  • Hadjiloucas, C., Prasad, V., and Zhang, H.. (1997). Oscillatory Low Prandtl Number Convection in a Vertical Cavity: Effect of an Axial Magnetic Field and Aspect Ratio.
  • Zhang, H., and Prasad, V.. (1997). Thermo-mechanical Modeling of High Pressure Liquid-Encapsulated Czochralski Crystal Growth Systems.
  • Paniagua, J., Rohatgi, U.S., and Prasad, V.. (1997). Two-Phase Flow Instabilities During Startup Transients in Single Heated Channel Loops.
  • Zhang, T., Ladeinde, F., Zhang, H., and Prasad, V.. (1996). A Comparison of Turbulence Models for Natural Convection in Enclosures: Applications to Crystal Growth.
  • Zou, Y.F., Zhang, T., Nunes, E., Zhang, H., Prasad, V., Ladeinde, F., Naraghi, M., Anselmo, A., Bliss, D.F., and Gupta, K.P.. (1996). A Comprehensive Model for High Pressure Growth of InP Crystals.
  • Zhang, H., Hou, T.Y. and Prasad, V.. (1996). A Numerical Scheme for Liquid-Liquid Systems: Deformation of a Falling Liquid Droplet.
  • Nunes, E.M., Naraghi, M.H.N., Zhang, H., and Prasad, V.. (1996). Combined Radiative-Convective Modeling for Material Processes: Application to Crystal Growth.
  • Zhang, H., and Prasad, V.. (1996). Effect of an Applied Magnetic Field on Buoyancy-Driven Flows in an Enclosure.
  • Paniagua, J., Rohatgi, U.S., and Prasad, V.. (1996). Modeling of Two-Phase Flow Instabilities During Startup Transient Utilizing RAMONA-4B Methodology.
  • Si, W., Chung, H., Dudley, M., Anselmo, A., Bliss, D.F., and Prasad, V.. (1996). Study of Defect Structures in MLEK Grown InP Single Crystals by Synchrotron White Beam X-Ray Topography.
  • Eds. Prasad, V., et al.. (1996). Transport Phenomena in Manufacturing and Materials Processing.
  • Zhang, H., and Prasad, V.. (1995). A High Resolution Numerical Model for Phase Change and Free Surface Problems.
  • Fang, C. C., and Prasad, V.. (1995). A Process Model for Thin Film Deposition by Sputtering: Study for Bottom Coverage of Sub-micron Contact Holes.
  • Zhang, H., Prasad, V., and Moallemi, K.. (1995). A Solution Adaptive Scheme for Deformable Free Surface Flow and Heat Transfer.
  • Fang, C. C., Hsieh, J. J., Joshi, R. V., Jones, F., and Prasad, V.. (1995). Collimated Sputter-deposition of Metal Liners: Modeling of Microstructure and Step Coverage.
  • Zou, Y.F., Zhang, H., and Prasad, V.. (1995). Coupled Melt Flow and Stress Predictions for Czochralski Crystal Growth Processes.
  • Zhang, H., and Prasad, V.. (1995). Multizone Adaptive Simulations for High Pressure Crystal Growth.
  • Mukherjee, D.K., Prasad, V., and Zhang, H.. (1995). Non-Invasive Thermography of Convection in a Rotating System.
  • Zhang, H., and Prasad, V.. (1995). Transport Phenomena of Czochralski Crystal Growth at Low and High Pressures.
  • Eds. Himasekhar, K., Prasad, V, Osswald, T., and Batch, G.. (1994). Advances in Computer-Aided Engineering of Polymer Processing.
  • Anselmo, A., Prasad, V., and Koziol, J.. (1994). Buoyancy-Driven Flows in Low Aspect Ratio Melts for the Czochralski Crystal Growth Process.
  • Eds. Prasad, V. and others. (1994). Thermal Processing of Materials: Thermo-Mechanics, Control and Composites.
  • Mukherjee, D. K., Shih, J., and Prasad, V.. (1994). Visualization Study of Melting of an Ice Sphere in a Pool of Water.
  • Eds. Prasad, V. and Arimilli, R. V.. (1993). Advanced Computations in Materials Processing.
  • Eds. Zumbrunnen, D. A., Seyed-Yagoobi, J., Prasad, V. and Charmchi, M.. (1993). Heat and Mass Transfer in Materials Processing and Manufacturing.
  • Adetutu, O., and Prasad, V.. (1993). Melting in Rectangular and Cylindrical Cavities : Effects of Curvature, Aspect Ratio and Buoyancy Forces.
  • Fang, C. C., Jones, F., and Prasad, V.. (1993). Molecular Dynamics Modeling of Growth, Microstructure and Stress in Sputter-Deposited Thin Films with Impurity Atom Incorporation.
  • Bliss, D. F., Adamski, J. A., Higgins, W. M., Prasad, V., and Zach, F. X.. (1993). Phosphorus-Rich InP Grown by a One-Step In-Situ MLEK Crystal Growth Process.
  • Bijlani, C., Patti, F., and Prasad, V.. (1993). Thermal Analysis and Design of a Passive Reflux Condenser for the Simplified Boiling Water Reactor.
  • Eds. Chan, C.-L., Incropera, F. P. and Prasad, V.. (1993). Transport Phenomena in Non-Conventional Manufacturing and Materials Processing.
  • Prasad, V., Lauriat, G., and Kladias, N.; Eds. M. Quintard and M. Todorovic. (1992). "Non-Darcy Effects on Natural Convection in a Vertical Porous Cavity," Heat and Mass Transfer in Porous Media.
  • Murtugudde, R., Cane, M. A., and Prasad, V.. (1992). A Reduced Gravity, Primitive Equation Ocean GCM With An Isopycnal Vertical Coordinate.
  • Adetutu, O., and Prasad, V.. (1992). Effect of Buoyancy on Melting in a Horizontal Cylinder.
  • Adetutu, O., and Prasad, V.. (1992). Melting in a Cylindrical Cavity: Combined Effects of Curvature, Aspect Ratio, Buoyancy and Surface Tension Forces.
  • Prasad, V.; S. Kakac et al., eds.. (1991). "Convective Flow Interaction and Heat Transfer Between Fluid and Porous Layers," Proc. NATO ASI, Convective Heat and Mass Transfer in Porous Media.
  • Lai, F.C., Kulacki, F. A., and Prasad, V.; S. Kakac et al., eds.. (1991). "Mixed Convection in Porous Media," NATO ASI, Convective Heat and Mass Transfer in Porous Media.
  • Lauriat, G., and Prasad, V.; S. Kakac et al., eds.. (1991). "Natural Convection in a Vertical Porous Annulus," NATO ASI, Convective Heat and Mass Transfer in Porous Media.
  • Prasad, V., and Kladias, N.; S. Kakac et al., eds.. (1991). "Non-Darcy Convection in Saturated Porous Media," Proc. NATO Advanced Study Institute, Convective Heat and Mass Transfer in Porous Media.
  • Eds., Pepper et al.. (1991). Computational Techniques and Numerical Heat Transfer on PCs and Workstations.
  • Fang, C. C., Jones, F., and Prasad, V.. (1991). Evaluation of Constant Temperature Control Algorithms in Modeling of Sputter-Deposited Thin Film Processes.
  • Prasad, V. (1991). Flow Instabilities and Heat Transfer in Fluid overlying Horizontal Porous Layers.
  • Eds., Couvillion, R. J., Prasad, V., Krause, W. B., and Kececioglu, I.. (1991). Heat Transfer in Geophysical Media.
  • Anselmo, A., Prasad, V., and Koziol, A.. (1991). Melting of a Sphere when Dropped in a Pool of Melt with Applications to Partially-Immersed Silicon Pellets.
  • Joshi, R. V., Prasad, V., and Anselmo, A.. (1991). Modeling of Growth Behavior of Low Pressure Chemical Vapor Deposition of Tungsten Films.
  • Shukla, V., Murtugudde, R., Prasad, V., and Cane, M.. (1991). Natural Convection in a Horizontal Cavity with a Linear Temperature Variation on the Top.
  • Eds., Alam et al.. (1991). Thin Film Heat Transfer - Properties and Processing.
  • Prasad, V., and Tian, Q.. (1990). An Experimental Study of Thermal Convection in Fluid-Superposed Porous Layers Heated From Below.
  • Esmaili, E., Bijlani, C., Prasad, V., Shimura, K., and Manatsuki, I.. (1989). Analytical Evaluation of Natural Convective Cooling of the Nuclear Reactor Enclosure Structure.
  • Kladias, N., and Prasad V.. (1989). Convective Instabilities in Horizontal Porous Layers Heated From Below: Effects of Grain Size and its Properties.
  • Shen, R., Prasad, V., and Keyhani, M.. (1989). Effect of Aspect Ratio and Size of Heat Source on Free Convection in a Discretely Heated Vertical Cavity.
  • Prasad, V., Brown, K., and Tian, Q.. (1989). Flow Visualization and Heat Transfer Experiments in Fluid-Superposed Porous Layers Heated From Below.
  • David, E., Lauriat, G., and Prasad, V.. (1989). Non-Darcy Natural Convection in Packed-Sphere Beds between Concentric Vertical Cylinders.
  • Keyhani, M., Prasad, V., Shen, R., and Wong, T. -T. (1988). Free Convection Heat Transfer from Discrete Heat Sources in a Vertical Cavity.
  • Kladias, N. and Prasad V.. (1988). Non-Darcy, Oscillating Convection in Horizontal Porous layers Heated From Below.
  • Prasad, V., Lauriat, G., and Kladias, N.. (1988). Reexamination of Darcy-Brinkman Solutions for Free Convection in Porous Media.
  • Lai, F. -C., Prasad, V., and Kulacki, F. A.. (1987). Effects of the Size of Heat Source on Mixed Convection in Horizontal Porous Layers Heated from Below.
  • Eds., Vafai, K., Prasad, V., and Catton, I.. (1987). Heat Transfer in Geophysical and Geothermal Systems.
  • Eds., Prasad, V., Catton, I., and Cheng, P.. (1987). Mixed Convection Heat Transfer - 1987.
  • Lai, F. -C., Kulacki, F. A., and Prasad, V.. (1987). Mixed Convection in Horizontal Porous Layers: Effects of Thermal Boundary Conditions.
  • Prasad, V., and Kulacki, F. A.. (1986). Effects of the Size of Heat Source on Natural Convection in Horizontal Porous Layers Heated from Below.
  • Prasad, V., Kulacki, F. A., and Stone, K.. (1986). Free Convection in a Porous Cavity with a Finite Wall Heat Source.
  • Book

  • Prasad, V., Jaluria, Y., Zhang, Z. Annual Review of Heat Transfer Vol. 25. 25 Begell House.
  • Prasad, V., Jaluria, Y., Zhang, Z. Annual Review of Heat Transfer Vol. 24. Annual Review of Heat Transfer.
  • Prasad, V., Jaluria, Y., Zhang, Z. (2020). Annual Review of Heat Transfer Vol. 23. Annual Review of Heat Transfer.
  • Chen, G., Prasad, V., Jaluria, Y. (2019). Annual Review of Heat Transfer Vol. 22. 22 Redding, CT, Begell House.
  • Chen, G., Prasad, V., Jaluria, Y. (2018). Annual Review of Heat Transfer Vol. 21. 265. Redding, CT, Begell House.
  • Chen, G., Prasad, V., Jaluria, Y. (2017). Annual Review of Heat Transfer Vol. 20. XX Danbury, CT, Begell House.
  • Chen, G., Prasad, V., Jaluria, Y. (2016). Annual Review of Heat Transfer Vol. 19. XIX Danbury, CT, Begell House. begellhouse.com
  • Chen, G., Prasad, V., Jaluria, Y. (2015). Annual Review of Heat Transfer Vol. 18. XVIII Danbury, CT, Begell House.
  • Chen, G., Prasad, V., Jaluria, Y. (2014). Annual Review of Heat Transfer Vol. 17. XVII Danbury, CT, Begell House.
  • Chen, G., Prasad, V., Jaluria, Y. (2013). Annual Review of Heat Transfer Vol. 16. XVI Danbury, CT, Begell House.
  • Editor/Co-editor with Y. Jaluria (Rutgers) and G. Chen (MIT); (Founding Editor: C.-L. Tien). (2012). Annual Review of Heat Transfer Vol. 15. XV Danbury, CT, Begell House.
  • , G., , Byrappa, K., Dudley, M. (2010). Springer Handbook of Crystal Growth. 1816. Springer-Verlag.
  • Chen, G., Prasad, V., Jaluria, Y. (2005). Annual Review of Heat Transfer Vol. 14. XIV Danbury, CT, Begell House.
  • Prasad, V. (2003). Annual Review of Heat Transfer Vol. 13. XIII Danbury, CT, Begell House.
  • Tien, C., Prasad, V., Incropera, F. (2002). Annual Review of Heat Transfer Vol. 12. XII Danbury, CT, Begell House.
  • Book Chapter

  • Dhanraj, G., K, B., Prasad, V., Dudley, M. (2010). Crystal Growth Techniques and Characterization: An Overview. Springer Handbook of Crystal Growth. 3-16. Heidelberg, Springer-Verlag.
  • Editors: G. Dhanaraj, K. Byrappa, V. Prasad and M. Dudley. (2010). Models for Stress and Dislocation Generation in Melt Based Compound Crystal Growth. Springer Handbook of Crystal Growth. 1335-1378.
  • Chen, Q.-S., Zhang, H., and Prasad, V.; ed. G.V. Karas. (2006). Physics and Modeling of Ammonothermal Growth of Gallium Nitride Single Crystals. Other. 151-169.
  • Chen, Q. S., and Prasad, V.; K. Byrappa, T. Ohachi, H. Klapper and R. Fornari, eds.. (2003). "Modeling of Ammonothermal Growth of Nitrides and Applications," in Crystal Growth of Technologically Important Materials.
  • Dhanaraj, G., Huang, X.-R., Dudley, M., Prasad, V., and Ma, R.; K. Byrappa and T. Ohachi, eds.. (2003). "Silicon Carbide Crystals" Part I: Growth and Characterization," in Crystal Growth for Modern Technology.
  • Chen, Q. S., Prasad, V., Zhang, H., and Dudely, M.; K. Byrappa and T. Ohachi, eds.. (2003). "Silicon Carbide Crystals" Part II: Process Physics and Modeling," in Crystal Growth for Modern Technology.
  • Dhanaraj, G., Dudley, M., Ma, R.H. , Zhang, H., and Prasad, V.; K. Byrappa, T. Ohachi, H. Klapper and R. Fornari, eds.. (2003). Growth and Characterization of SiC Single Crystals,.
  • Mishra, D., Prasad, V., and Mukherjee, D.K.. (2003). Liquid Crystal Thermography : Application to Convection and Phase Change Problems. Annual Review of Heat Transfer. 13
  • Zhang, H., and Prasad, V.; eds. J.S. Szmyd and K. Suzuki. (2000). "Modeling of High Pressure Liquid-Encapsulated Czochralski Processes," in Modelling of Transport Phenomena in Crystal Growth.
  • Conference Proceeding

  • Bamido, A., Pyle, T., Thyagarajan, A., Dhir, V.K., Prasad, V., Banerjee, D. (2020). A Numerical Study of Forced Convective Heat Transfer Characteristics of Supercritical Fluid in a Horizontal Circular-Pipe. ASME.
  • Loknath, M., Venkateshan, S., Prasad, B., Basu, B., Prasad, V. (2000). Heat and Mass Transfer 2000, Proceeding of the 4th ISHMT-ASME Heat and Mass Transfer Conference. New Delhi, Tata-McGraw Hill.
  • Journal Article

  • Wang, G., Prasad, V. (2025). Unified, Integral Approach to Modeling and Design of High-Pressure Pipelines: Assessment of Various Flow and Temperature Models for Supercritical Fluids. ASME Journal of Fluids Engineering. 147 (021402) 1-18. ASME.
  • Wang, G., Almara, L.M., Prasad, V. (2024). Thermodynamic Analysis of Anomalous Region, Critical Point, and Transitions from Subcritical to Supercritical State: Applications to van der Waals and Five Real Fluids. Denton, Physics of Fluids. Department of Mechanical Engineering
  • Almara, L., Wang, G., Prasad, V. (2023). Thermophysical Properties of Hydrocarbons and Natural Gas for Pipeline Transport: Dense Phase and Anomalous Supercritical Conditions. Gas Science and Engineering. 117 (September) 20. Elsevier's.
  • Prasad, V., Almara, L., Wang, G. (2023). Ultra-long-distance Transport of Supercritical Natural Gas (SNG) at Very High-Mass Flow Rates via Pipelines through Land, Underground, Water Bodies, and Ocean. Gas Science and Engineering. 117 17. Elsevier's.
  • Prasad, V., Kakroo, K., Banerjee, D. (2022). Existence of Supercritical “Liquid-like” State in Subcritical Region, Optimal Heat Transfer Enhancement, and Argon as a Non-reacting, Non-corroding SC Heat Transfer Fluid. Heat Transfer Research. 53 (9) 1-27. Begell House.
  • Zhu, P., Cheng, Q. S. , , V. (2021). Elastic-plastic Behaviors of Silicon Carbide Crystals. Materials Today. Elsevier.
  • Choi, W., Prasad, V., Mehta, G., kim, j., lee, e. (2021). Asymmetric 2D MoS2 for Scalable and High-Performance Piezoelectric Sensors. ACS Applied Materials & Interfaces. ACS Publications.
  • Cha, E., Patel, M., Bhoyate, S., Prasad, V., Choi, W. (2020). Nanoengineering to achieve high efficiency practical lithium-sulfur batteries. The Royal Society of Chemistry. (1:5(5)) 808-831. doi: 10.1039/c9nh00730j
  • Cha, E., Patel, M.D., Park, J.G., Hwang, J., Prasad, V., Cho, K., Choi, W. (2018). 2D MoS2 as an efficient protective layer for lithium metal anodes in high-performance Li-S batteries.. Nature Nanotechnology.
  • , Chen, Q., Jiang, Y., Yan, J., Li, W., Prasad, V. (2011). Modeling of ammonothermal growth processes of GaN crystal in large-size pressure systems. Other. 37 467-477.
  • Jiang, Y., Chen, Q., Prasad, V. (2011). Numerical Simulation of Ammonothermal Growth Processes of GaN Crystals. Journal of Crystal Growth. 318 (1) 411-414.
  • Roy, S., Vedala, H., Roy, A.D., Kim, D.H., Doud, M., Mathee, K., Shin, H.K., Shimamoto, N., Prasad, V., Choi, W. (2008). Direct electrical measurements on single-molecule genomic DNA using single-walled carbon nanotubes.. Nano Letters. 8 (1) 26-30.
  • Chen, Q., Yan, J., Prasad, V. (2007). Application of flow-kinetics model to the PVT growth of SiC crystals. Journal of Crystal Growth. 303 (1) 357-361.
  • Chen, Q., Deng, G., Ebadian, A., Prasad, V. (2007). Numerical Study on Flow Field and Temperature Distribution in Growth Process of 200 mm Czochralski Silicon Crystals. Other. 25 (2) 345-348.
  • Pendurti, S., Jun, S., Lee, I., Prasad, V. (2006). Cooperative atomic motions and core rearrangement in dislocation cross slip. Applied Physics Letters. 88 (20) 201908.
  • Chen, Q.S., Lu, J., Zhang, Z.-B., Wei, G.-D., and Prasad, V.. (2006). Growth of Silicon Carbide Bulk Crystals by Physical Vapor Transport Method and Modeling Efforts in the Process Optimization.
  • Pendurti, S., Chen, Q., Prasad, V. (2006). Modeling ammonothermal growth of GaN single crystals: The role of transport. Journal of Crystal Growth. 296 (2) 150-158.
  • Chen, Q.-S., Pendurti, S., and Prasad, V.. (2006). Modeling of Ammonothermal Growth of Gallium Nitride Single Crystals.
  • Zhang, Z.-B., Lu, J., Chen, Q.-S., and Prasad, V.. (2006). Thermoelastic Stresses in SiC Single Crystals Grown by the Physical Vapor Transport Method.
  • Mishra, D., Longtin, J., Singh, R., Prasad, V. (2005). Coherent gradient sensing interferometry: application in convective fluid medium for tomographic measurements. Experiments in Fluids. 38 (1) 59-69.
  • Pendurti, S., Prasad, V., and Zhang, H.. (2005). Modeling Dislocation Generation in High Pressure Czochralski Growth of InP Crystals: Part 1, Construction of a Visco-Elastic Deformation Model. Modelling and Simulation in Materials Science and Engineering. 13 (2) 249.
  • Pendurti, S., Prasad, V., and Zhang, H.. (2005). Modeling Dislocation Generation in High Pressure Czochralski Growth of InP Crystals: Part 2. Modelling and Simulation in Materials Science and Engineering. 13 (2) 267.
  • Chen, Q.-S. , Wegrzyn, J., and Prasad, V.. (2004). Analysis of Temperature and Pressure Changes in Liquefied Natural Gas (LNG) Cryogenic Tanks.
  • Dhanaraj, G., Dudley, M., Ma, R-H., Zhang, H,. and Prasad, V.. (2004). Design and Fabrication of Physical Vapor Transport System for the Growth of SiC Crystals.
  • Chen, Q.-S., Pendurti, S., and Prasad, V.. (2004). Effects of Baffle Design on Fluid Flow and Heat Transfer in Ammonothermal Growth Systems of Nitrides.
  • Wu, B., Ma, R., Zhang, H., and Prasad, V.. (2004). Modeling and Simulation of AlN Bulk Sublimation Growth Systems.
  • D., M., Longtin, J., Singh, R., Prasad, V. (2004). Performance evaluation of iterative tomography algorithms for incomplete projection data. Applied Optics. 43 (7) 1522-1532.
  • Dhanaraj, G., Dudley, M., Liu, F., Zhang, H., and Prasad, V.. (2004). PVT Growth of 6H SiC Crystals and Defect Characterization.
  • Wang, G., Goswami, R., Sampath, S., Prasad, V. (2004). Understanding the heat transfer and solidification of plasma-sprayed yttria-partially stabilized zirconia coatings. Materials and Manufacturing Processes. 19 (2) 259-272.
  • Wan, Y., Sampath, S., Prasad, V., Williamson, R., Fincke, J. (2003). An advanced model for plasma spraying of functionally graded materials. Journal of Materials Processing Technology. 137 (1) 110-116.
  • Chen, Q.-S., Prasad, V., and Hu, W.R.. (2003). Modeling of Ammonothermal Growth of Nitrides.
  • Ma, R., Zhang, H., Dudley, M., Prasad, V. (2003). Thermal system design and dislocation reduction for growth of wide band gap crystals: application to SiC growth. Journal of Crystal Growth. 258 (3) 318-330.
  • Sahoo, R.K., and Prasad, V.. (2002). A Composite Adaptive Grid Generation and Migration Technique for Materials Processing Problems.
  • Nunes, E. M., Naraghi, M. H. N., Zhang, H., and Prasad, V.. (2002). A Volume Radiation Heat Transfer Model for Czochralski Crystal Growth Processes.
  • Sahoo, R.K., and Prasad, V.. (2002). Application of Composite Adaptive Grid Generation and Migration (CAGGM) Scheme for Phase-Change Materials Processes.
  • Mishra D., Wong S. L., Longtin J. P., Singh R. P., and Prasad V.. (2002). Development of a Coherent Gradient-Sensing Tomographic Interferometer for Three-dimensional Refractive-index Based Measurements.
  • Ma, R.-H., Zhang, H. , Prasad, V., and Dudley, M.. (2002). Growth Kinetics and Thermal Stress of Silicon Carbide.
  • Wan, Y.P., Fincke, J.R., Sampath, S., Prasad, V., and Herman, H.. (2002). Modeling and Experimental Observation of Evaporation from Oxidizing Molybdenum Particles Entrained in a Thermal Plasma Jet.
  • Wong S. L., Mishra D., Longtin J. P., Singh R. P. and Prasad V.. (2002). Visualization of Iso-Gradient Lines in Convective and Diffusive Systems using Gradient-Sensing Interferometry.
  • Jafri, I., Chandra, M., Zhang, H., Prasad, V. Reddy, C., Amato-Wierda, C., Landry, M., and Ciszek, T. (2001). Enhanced Bulk Polysilicon production using silicon tubes.
  • Chen, Q.-S., Zhang, H., Prasad, V., Balkas, C.M., Yushin, N.K. and Wang, S.. (2001). Kinetics and Modeling of Sublimation Growth of Silicon Carbide Bulk Crystals.
  • Lutjen, P., Mishra, D., and Prasad, V.. (2001). Liquid Crystal Thermography and Scanning Flow Tomoscopy for Three-Dimensional Temperature Field Measurement.
  • Wan, Y.P., Gupta, V., Deng, Q., Sampath, S., Prasad, V., Williamson, R., and Fincke, J.R.. (2001). Modeling and Visualizatoion of Plsama Spraying of FGMs and its Applications to Optimization of Spray Conditions.
  • Wan, Y.P., J.R. Fincke, X.Y. Jiang, Sampath, S., Prasad, V., and Herman, H.. (2001). Modeling of Oxidation of Molybdenum Particles during Plasma Spray Deposition.
  • Chen, Q.-S., Zhang, H., Ma, R.-H., Prasad, V., Balkas, C.M. and Yushin, N.K.. (2001). Modeling of Transport Processes and Kinetics of Silicon Carbide Bulk Growth.
  • Wan, Y.P., Zhang, H., Jiang, X.Y., Sampath, S., and Prasad, V.. (2001). Role of Solidification, Substrate Temperature and Reynolds Number on Droplet Spreading in Thermal Spray Deposition: Measurements and Modeling.
  • Wang, G.-X., and Prasad, V.; ed. C.-L. Tien. (2000). "Rapid Solidification: Fundamentals and Modeling," Annual Review of Heat Transfer.
  • Chatterjee, A., and Prasad, V.. (2000). A Full Three-Dimensional Adaptive Finite Volume Scheme for Transport and Phase-Change Processes, Part I: Theory and Validation.
  • Chatterjee, A., Prasad, V., and Sun, D.. (2000). A Full Three-Dimensional Adaptive Finite Volume Scheme for Transport and Phase-Change Processes, Part II: Application to Crystal Growth.
  • Prasad, V., Chen, Q.S., and Zhang, H.. (2000). A Process Model for Silicon Carbide Growth by Physical Vapor Transport.
  • Wang, G.X., Prasad, V., and Sampath, S.. (2000). An Integrated Model for Dendrite and Planar Interface Growth and Morphological Transition in Rapid Solidification.
  • Bhagavat, M., Kao, I., and Prasad, V.. (2000). Elasto-Hydrodynamic Interaction in the Free Abrasive Wafer Slicing Using a Wiresaw: Modeling and Finite Element Analysis.
  • Roy, A., Zhang, H., and Prasad, V.. (2000). Growth of Large Diameter Silicon Tube by EFG Technique: Modeling and Experiment.
  • Chen, Q.-S., Zhang, H. and Prasad, V.. (2000). Heat Transfer and Kinetics of Bulk Growth of Silicon Carbide.
  • Mishra, D., Lutjen, P., Chen, Q.-S., and Prasad, V.. (2000). Tomographic Reconstruction of Three-Dimensional Temperature Field using Liquid Crystal Scanning Thermography.
  • Ferland, M., Mishra D., and Prasad, V.. (2000). Visualization of Solidification in a Simulated Czochralski System.
  • Roy, A., Mackintosh, B., Kalejs, J. P., Chen, Q.-S., Zhang, H., Prasad, V.. (1999). A Numerical Model for Inductively Heated Cylindrical Silicon Tube Growth System.
  • Chen, Q.S., Chatterjee, A., Prasad, V., and Larkin, J.. (1999). A Porous Media-Based Transport Model for Hydrothermal Growth.
  • Wan, Y.P., Sampath, S., V. Prasad, Williamson, R., and Fincke, J.R.. (1999). An Advanced Model for Plasma Spraying of Functionally Graded Materials.
  • Bliss, D., Bryant, G., Lancto, R., Zhao, J., Dudley, M., Prasad, V., and Zhang, H.. (1999). Dislocation Generation and Propagation Near the Seed-Crystal Interface During MLEC Crystal Growth OF Sulfur -Doped InP.
  • Chen, Q.S., Hu, W.R., and Prasad, V.. (1999). Effect of Liquid Bridge Volume on the Instability in Small-Prandtl-Number Half Zones.
  • Zou, Y.F., Wang, G.-X., Zhang, H., and Prasad, V.. (1999). Mechanisms of Thermal-Solutal Transport and Segregation in a High Pressure Liquid-Encapsulated Czochralski System.
  • Chen, Q.S., Zhang, H., Prasad, V., Balkas C.M., and Yushin, N.K.. (1999). Modeling of Heat Transfer and Kinetics of Physical Vapor Transport Growth of Silicon Carbide Crystals.
  • Ma, R. H., Chen, Q.-S., Zhang, H., Prasad, V., Balkas, C., and Yushin, N. K.. (1999). Modeling of Silicon Carbide Crystal Growth by Physical Vapor Transport Method.
  • Zhang, H., Zheng, L.L., Prasad, V., and Hou, T.Y.. (1998). A Curvilinear Level set Formulation for Highly Deformable Free Surface Problems with Application to Solidification.
  • Zhang. H., Zheng, L.-L., Prasad, V., and Larson, D. J., Jr.. (1998). Diameter Controlled Czochralski Growth of Silicon Crystal.
  • Rudraiah, N., and Prasad, V.. (1998). Effect of Brinkman Boundary Layer on the Onset of Marangoni Convection in a Fluid-saturated Porous Layer.
  • Zhang, H., Zheng, L.L., Prasad, V., and Larson, D.J.. (1998). Local and Global Simulations for Bridgman and Czochralski Growth.
  • Chen, Q.S., Prasad, V., and Chatterjee, A.. (1998). Modeling of Fluid Flow and Heat Transfer in a Hydrothermal Crystal Growth System: Use of Fluid-Superposed Porous Layer Theory.
  • Li, J., Kao, I., and Prasad, V.. (1998). Modeling of Stresses of Contacts in Wiresaw Slicing of Polycrystalline and Crystalline Ingots: Application to Silicon Wafer Production.
  • Chung, H., Dudley, M., Larson, D.J., Hurle, D.T.J., Bliss, D. F., and Prasad, V.. (1998). The Mechanism of Growth-Twin Formation in Zincblende Crystals: New Insights from a Study of Magnetic Liquid-Encapsulated Kyropoulos Grown InP Single Crystals.
  • Beg, O.A., Takhar, H.S., Soundalgekar, V.M., and Prasad, V.. (1998). Thermoconvective Flow in a Sarurated Porous Mediumusing Brinkman's Model: Numerical Study.
  • 104. Zheng, L.L., Zhang, H., Larson, D.J., and Prasad, V.. (1998). Thermoelectric Interface Demarcation during Directional Solidification with Varying Gravitationally-dependent Buoyancy Convection.
  • Sahoo, R.K., Prasad, V., Kao, I., Talbott, J., and Gupta, K. P.. (1998). Towards an Integrated Approach for Analysis and Design of Wafer Slicing by a Wire Saw.
  • Zhang, T., Wang, G.X., Zhang, H., Ladeinde, F., and Prasad, V.. (1998). Turbulent Transport of Oxygen in the Czochralski Growth of Large Silicon Crystals.
  • Zhang, H., and Prasad, V.. (1997). An Advanced Numerical Scheme for Materials Process Modeling.
  • Wang, G.-X., Prasad, V., and Matthys, E.F.. (1997). An Interface Tracking Numerical Method for Rapid Planar Solidification of Binary Alloys with Application to Microsegregation.
  • Chung, H., Si, W., Dudley, M., Bliss, D. F., Kalan, R., Maniatty, A., Zhang, H., and Prasad, V.. (1997). Characterization of Defect Structures in Magnetic Liquid-Encapsulated Kyropoulos Grown InP Single Crystals.
  • Chung, H., Si, W., Dudley, M., Anselmo, A.P., Bliss, D. F., Maniatty, A., Zhang, H., and Prasad, V.. (1997). Characterization of Structural Defects in MLEK Grown InP Single Crystals Using Synchrotron White Beam X-ray Topography.
  • Zou, Y.F., Wang, G.-X., Zhang, H., Prasad, V., Bliss, D.F.. (1997). Macrosegregation, Dynamics of Interface and Stresses in High Pressure LEC Grown Crystals.
  • Wang, G.-X., and Prasad, V.. (1997). Non-equilibrium Phenomena in Rapid Solidification: Theoretical Treatment for Process Modeling.
  • Wang, G.-X., Sampath, S., Prasad, V., and Herman, H.. (1997). On the Stability of Rapid Planar Solidification during Melt-Substrate Quenching.
  • Chui, W., Glimm, J., Tangerman, F., Zhang, H., and Prasad, V.. (1997). Parallel Computations for Crystal Growth Modeling.
  • Wang, G.-X., Prasad, V., and Matthys, E.F.. (1997). Solute Distribution during Rapid Solidification into an Undercooled Melt.
  • Zhang, H., Prasad, V., Anselmo, A., Bliss, D.F., and Iseler, G.. (1997). Transport Phenomena in a High Pressure Crystal Growth System: In-situ Synthesis for InP Melt.
  • Prasad, V., Zhang, H., and Anselmo, A.. (1997). Transport Phenomena in Crystal Growth Processes.
  • Mukherjee, D.K., and Prasad, V.. (1997). Visualization of Transient Temperature Field in a Rotating System using Liquid Crystals.
  • Zhang, H., Prasad, V., and Moallemi, K.. (1996). A Numerical Algorithm Using Multizone Adaptive Grid Generation for Multiphase Transport Processes with Moving and Free Boundaries.
  • Fang, C.C., Prasad, V., Joshi, R.V., Jones, F., and Hsieh, J.J.; Eds. S. Rossnagel and A. Ulman. (1996). A Process Model for Sputter-Deposition of Thin Films Using Molecular Dynamics.
  • Zou, Y.F., Zhang, H., and Prasad, V.. (1996). Dynamics of Melt-Crystal Interface and Thermal Stresses in Czochralski Grown Crystal.
  • Mukherjee, D.K., Prasad, V., Dutta, P., and Yuan, T.. (1996). Liquid Crystal Visualization of the Effects of Crucible Rotation on CZ Melt Flows.
  • Fang, C. C., Joshi, R. V., Prasad, V., and Ouyang, C.. (1996). Modeling of Intrinsic Stresses of Titanium Thin Films Deposited by Collimated Sputtering.
  • Zhang, H., Prasad, V., and Bliss, D.F.. (1996). Transport Phenomena in High Pressure Crystal Growth Systems for III-V Compounds.
  • Zhang, H., and Prasad, V.. (1995). A Multizone Adaptive Process Model for Low and High Pressure Crystal Growth Processes.
  • Prasad, V., and Zhang, H.. (1995). Challenging Issues in Bulk Crystal growth Modeling.
  • Jafri, I., Prasad, V., Anselmo, A., and Gupta, K.P.. (1995). Role of Crucible Partition in Improving Czochralski Melt Conditions.
  • Prasad, V., Bliss, D. F., and Adamski, J. A.. (1994). Thermal Characterization of the HPCG System for In-Situ Synthesis and MLEK Growth of InP Single Crystals.
  • Fang, C. C., Jones, F., and Prasad, V.. (1993). Effects of Gas Impurity and Ion Bombardment on Stresses in Sputter-Deposited Thin Films: A Molecular Dynamics Approach.
  • Fang, C. C., Prasad, V., and Jones, F.. (1993). Molecular Dynamics Modeling of Microstructure and Stresses in Sputter-Deposited Thin Films.
  • Anselmo, A., Prasad, V., Koziol, J., and Gupta, K. P.. (1993). Numerical and Experimental Study of a Solid-Pellet Feed Continuous Czochralski Growth Process for Silicon Single Crystals.
  • Anselmo, A., Prasad, V., Koziol, J., and Gupta, K. P.. (1993). Oscillatory Convection in Low Aspect Ratio Czochralski Melts.
  • Fang, C.C., Jones, F., Kola, R.R., Celler, G.K., and Prasad, V.. (1993). Stress and Microstructure of Sputter-Deposited Thin Films: Molecular Dynamics Simulations and Experiment.
  • Elpidorou, G., Prasad, V., and Modi, V.. (1991). Convection in a Vertical Channel with a Finite Wall Heat Source.
  • Kladias, N., and Prasad, V.. (1991). Experimental Verification of DBF Flow Model for Natural Convection in Porous Media: A Case Study for Horizontal Layers.
  • Joshi, R., Prasad, V., and Yu, M.. (1991). Non-Self Limiting Nature of Silicon Reduction of WF6 in Cold Wall Systems.
  • Kladias, N., and Prasad, V.. (1990). Flow Transitions in Buoyancy-Induced Non-Darcy Convection in Horizontal Porous Layers Heated From Below.
  • Prasad, V., Keyhani, M., and Shen, R.. (1990). Free Convection in a Discretely Heated Vertical Enclosure: Effects of Prandtl Number and Cavity Size.
  • Joshi, R.V., Prasad, V., Krusin-Elbaum, L., Yu. M., and Norcott, M.. (1990). Mechanisms Controlling Temperature Dependent Mechanical and Electrical Behavior of SiH4 Reduced Chemically Vapor Deposited W.
  • Prasad, V., Kladias, N., Bandyopadhaya, A. and Tian, Q.. (1989). Evaluation of Correlation for Stagnant Thermal Conductivity of Liquid-Saturated Porous Beds of Spheres.
  • Lauriat, G., and Prasad, V.. (1989). Non-Darcian Effects on Natural Convection in a Vertical Porous Enclosure.
  • Prasad, V. and Chui, A.. (1989). Thermal Convection in a Cylindrical Porous Enclosure with Internal Heat Generation.
  • F. C. Lai, Prasad, V., and Kulacki, F. A.. (1988). Aiding and Opposing Mixed Convection in a Vertical Porous Layer with a Finite Wall Heat Source.
  • Keyhani, M., Prasad, V., and Cox, R.. (1988). An Experimental Study of Natural Convection in a Vertical Cavity with Discrete Heat Sources.
  • Prasad, V., Lai, F. -C., and Kulacki, F A.. (1988). Mixed Convection in Horizontal Porous Layers Heated from Below.
  • Kladias, N., and Prasad V.. (1988). Natural Convection in Horizontal Porous Layers: Effects of Darcy and Prandtl Numbers.
  • El-Khatib, G., and Prasad, V.. (1987). Effects of Stratification on Thermal Convection in Horizontal Porous Layers with Localized Heating from Below.
  • Prasad, V., and Tuntomo, A.. (1987). Inertia Effects on Natural Convection in a Vertical Porous Cavity.
  • Prasad, V., and Kulacki, F. A.. (1987). Natural Convection in Horizontal Porous Layers with Localized Heating from Below.
  • Lauriat, G., and Prasad, V.. (1987). Natural Convection in Vertical Porous Cavity - A Numerical Study of Brinkman-Extended Darcy Formulation.
  • Prasad, V.. (1987). Thermal Convection in a Heat Generating, Darcy Porous Medium in a Rectangular Cavity.
  • Keyhani, M., Prasad, V., and Kulacki, F. A.. (1986). An Approximate Analysis for Thermal Convection with Application to Vertical Annulus.
  • Prasad, V., Kulacki, F. A., and Kulkarni, A. V.. (1986). Free Convection in a Vertical Porous Annulus with Constant Heat Flux on the Inner Wall - Experimental Results.
  • Prasad, V.. (1986). Numerical Study of Natural Convection in a Vertical Porous Annulus with Constant Heat Flux on the Inner Wall.
  • Prasad, V., and Kulacki, F. A.. (1985). Free Convection Heat Transfer in a Liquid-Filled Vertical Annulus.
  • Prasad, V., Kulacki, F. A. and Keyhani, M.. (1985). Natural Convection in Porous Media.
  • Prasad, V., and Kulacki, F. A.. (1985). Natural Convection in Porous Media Bounded by Short Concentric Vertical Cylinders.
  • Prasad, V., and Kulacki, F. A.. (1984). Convective Heat Transfer in a Rectangular Porous Cavity-Effect of Aspect Ratio on Flow Structure and Heat Transfer.
  • Prasad, V., and Kulacki, F. A.. (1984). Natural Convection in a Rectangular Porous Cavity with Constant Heat Flux on One Vertical Wall.
  • Prasad, V., and Kulacki, F. A.. (1984). Natural Convection in a Vertical Porous Annulus.
  • Prasad, V., and Jaluria, Y.. (1982). Transient film Condensation on a Finite Horizontal Plate.
  • Prasad, V., and Jaluria, Y.. (1981). Film Condensation on a Horizontal Isothermal Surface.

Contracts, Grants and Sponsored Research

    Grant - Research

  • Prasad, V., Bostanci, H., Sadat, H., "Collaborative Research: Supercritical Fluids and Heat Transfer - Delineation of Anomalous Region, Ultra-long Distance Gas Transport without Recompression, and Thermal Management," sponsored by NSF, Federal, $370657 Funded. (2023 - 2026).
  • Prasad, V. (Principal), Bostanci, H. (Co-Principal), "EAGER: Experimental Methods and Measurements of Anomalous Properties of Supercritical Fluids and their Mixtures," sponsored by NSF, Federal, $150000 Funded. (2022 - 2023).
  • Prasad, V. (Principal), Bostanci, H. (Co-Principal), "EAGER: Experimental Methods and Measurements of Anomalous Properties of Supercritical Fluids and their Mixtures for Super-enhanced Heat Transfer and Innovative Thermal Management," sponsored by NSF, Federal, $150000 Funded. (2022 - 2023).
  • Choi, W., Prasad, V. (Other), "High-Energy, High-Performance Li-S Battery with Novel 2D- & 3D-Nanostructured Electrodes," sponsored by Ark Power Tech Corporation/NAVAIR, Federal, $121998 Funded. (2022 - 2023).
  • choi, w. (Principal), prasad, v. (Co-Principal), "High-Performance Li-S Battery with Novel 2D- & 3D-Nanostructured Electrodes,," sponsored by NAVAIR, State, $121998 Funded. (2021 - 2022).
  • choi, w. (Principal), Prasad, V. (Other), "Integrated Flexible Energy System based on Two-Dimensional (2D) Materials," sponsored by US AFOSR, Federal, $300000 Funded. (2018 - 2021).
  • Mishra, R.S. (Principal), Prasad, V. (Co-Principal), "Joining R3-3 FSW of Sealed Box Structures," sponsored by ALMMI, Private, $71738 Funded. (2018 - 2019).
  • Prasad, V. (Principal), Dahotre, N.B. (Co-Principal), , H.L. (Co-Principal), Omary, M.A. (Co-Principal), Banerjee, R. (Co-Principal), Scharf, T.W. (Co-Principal), "Modernization of Multi-scale Characterization, Analysis, and Synthesis Facility for Materials and Devices: Remote Access, Visualization, and Public Engagement," sponsored by National Science Foundation, Federal, $1046053 Funded. (2010 - 2013).
  • Sitar, Z. (Principal), Prasad, V. (Co-Principal), "MURI Research Center for Modeling, Growth and Characterization of III-Nitride," sponsored by ONR, Federal, $5000000 Funded. (2001 - 2006).
  • Herman, H. (Principal), Sampath, S. (Co-Principal), Prasad, V. (Co-Principal), "Materials Research Science and Engineering Center (MRSEC): Novel Materials, Processes and Functional Surfaces by Thermal Spray," sponsored by National Science Foundation, Federal, $8743987 Funded. (1996 - 2006).
  • Prasad, V. (Principal), Schoephoerster, R. (Co-Principal), "Partnership for Innovation (PFI): The Biomedical Engineering Partnership Program at FIU," sponsored by National Science Foundation, Federal, $599612 Funded. (2002 - 2005).
  • Dudley, M. (Principal), Prasad, V. (Co-Principal), , H.Z. (Co-Principal), "Defect Nucleation during the PVT Growth of Silicon Carbide Single Crystals," sponsored by ONR, Federal, $430000 Funded. (2000 - 2003).
  • Prasad, V., "Research on Vehicles Fueling Station for Compressed/Liquified Natural Gas," sponsored by DOE Brookhaven National Laboratory, Federal, $90000 Funded. (2001 - 2002).
  • Longtin, J. (Principal), Dhadwal, H. (Co-Principal), Singh, R. (Co-Principal), Prasad, V. (Co-Principal), "Major Research Instrumentation Grant: Development of Coherent Gradient-Sensing Tomographic Interferometer: Application to 3D Transient Temperature, Concentration and Refractive Index Measurement," sponsored by National Science Foundation, Federal, $230000 Funded. (2000 - 2002).
  • Larson, D. (Principal), Kao, I. (Co-Principal), Longtin, J. (Co-Principal), Dudley, M. (Co-Principal), Prasad, V., "Integrated Crystal Growth and Wafer Manufacturing Research Facility," sponsored by National Science Foundation, Federal, $1000000 Funded. (1998 - 2001).
  • Prasad, V., "Integrated Intelligent Modeling, Design and Control of Crystal Growth Processes," sponsored by AFOSR and DARPA, Federal, $5000000 Funded. (1995 - 2000).
  • Kao, I. (Principal), Chiang, F. (Co-Principal), Prasad, V. (Supporting), "Modeling and Control of Wire Saw Manufacturing," sponsored by National Science Foundation, Federal, $260000 Funded. (1996 - 1999).
  • Prasad, V. (Principal), Koziol, J. (Co-Principal), "Continuous Czochralski Growth of Silicon Single Crystals," sponsored by National Science Foundation, Federal, $530642 Funded. (1991 - 1999).
  • Prasad, V. (Principal), "Molecular Dynamics Simulation of Thin Film Deposition on Plane Substrates and in Vias," sponsored by National Science Foundation, Federal, $256342 Funded. (1993 - 1997).
  • Prasad, V. (Principal), "Modeling of Stresses in Sputter-Deposited Thin Films," sponsored by IBM Corporation, Private, $90736 Funded. (1990 - 1993).
  • Cane, M. (Principal), Prasad, V. (Co-Principal), Bluementhal, M. (Co-Principal), "Numerical Methods for Global Ocean Models," sponsored by National Science Foundation, Federal, $480000 Funded. (1990 - 1993).
  • Prasad, V. (Principal), "Industry Internship: Characterization of Process Parameters for Continuous Czochralski Growth of Silicon Single Crystals," sponsored by National Science Foundation, Federal, $22111 Funded. (1990 - 1991).
  • Prasad, V. (Principal), "NSF Internship: Summer Faculty Internship in Tribology," sponsored by National Science Foundation, Federal, $19995 Funded. (1987 - 1988).
  • Prasad, V. (Principal), "Natural Convection in Horizontal Porous Layers - Effects of Porous Matrix Structure, Its Confinement and Thermophysical Properties," sponsored by National Science Foundation, Federal, $70000 Funded. (1985 - 1987).
  • Mishra, R.S. (Principal), Prasad, V. (Co-Principal), "FSW of Sealed Box Structures (Joining R3-3)," sponsored by Amer Ltwt Mtrl Mfg Innovation Inst, NFP, Funded. (2018 - 2019).
  • Prasad, V. (Principal), Dahotre, N. (Co-Principal), , H.L. (Co-Principal), Omary, M.A. (Co-Principal), Banerjee, R. (Co-Principal), Scharf, T.W. (Co-Principal), "Modernization of Multi-scale Characterization, Analysis, and Synthesis Facility for Materials and Devices: Remote Access, Visualization, and Public Engagement," sponsored by National Science Foundation, Federal, Funded. (2010 - 2013).
  • Sponsored Research

  • D'Souza, N.A., Prasad, V., Tao, Y., Allen, M.S., "PFI: Farmer-Academic-Industry Partnership for the Development of Sustainable, Energy Efficient, Multifunctional Bioproducts for the Built Environment," sponsored by NSF, Federal, $600000 Funded. (2011 - 2015).
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Overall
Summative Rating
Challenge and
Engagement Index
Response Rate

out of 5

out of 7
%
of
students responded
  • Overall Summative Rating (median):
    This rating represents the combined responses of students to the four global summative items and is presented to provide an overall index of the class’s quality. Overall summative statements include the following (response options include a Likert scale ranging from 5 = Excellent, 3 = Good, and 1= Very poor):
    • The course as a whole was
    • The course content was
    • The instructor’s contribution to the course was
    • The instructor’s effectiveness in teaching the subject matter was
  • Challenge and Engagement Index:
    This rating combines student responses to several SPOT items relating to how academically challenging students found the course to be and how engaged they were. Challenge and Engagement Index items include the following (response options include a Likert scale ranging from 7 = Much higher, 4 = Average, and 1 = Much lower):
    • Do you expect your grade in this course to be
    • The intellectual challenge presented was
    • The amount of effort you put into this course was
    • The amount of effort to succeed in this course was
    • Your involvement in course (doing assignments, attending classes, etc.) was
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