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Engineering and Technology

D-Index
39
Citations
6585
World Ranking
7659
National Ranking
2107

Overview

David P. Schmidt is a researcher affiliated with the University of Massachusetts Amherst in the United States. Their primary field of study is Engineering, with a focus on Computational Mechanics, Aerospace Engineering, Fluid Flow and Transfer Processes, Statistical and Nonlinear Physics, and Ocean Engineering.

Their research covers a range of topics including:

  • Combustion and flame dynamics
  • Advanced Combustion Engine Technologies
  • Model Reduction and Neural Networks
  • Wind Energy Research and Development
  • Fluid Dynamics and Heat Transfer
  • Fluid Dynamics and Vibration Analysis
  • Fluid Dynamics and Turbulent Flows

Recent publications by David P. Schmidt showcase contributions in various areas related to wind energy and fluid dynamics. Notable papers include:

  • "Floating platform effects on power generation in spar and semisubmersible wind turbines," 2021, Wind Energy
  • "Collaborative investigation of the internal flow and near-nozzle flow of an eight-hole gasoline injector (Engine Combustion Network Spray G)," 2020, International Journal of Engine Research
  • "CFD Simulations of Feeder Tube Pressure Oscillations and Prediction of Clogging in Cold Spray Nozzles," 2020, Journal of Thermal Spray Technology
  • "Large eddy simulations of offshore wind turbine wakes for two floating platform types," 2020, Journal of Physics Conference Series
  • "Machine learning accelerated turbulence modeling of transient flashing jets," 2021, Physics of Fluids

Frequent coauthors include Majid Haghshenas, Niccolò Dal Santo, Peetak Mitra, and Hannah M. Johlas, with collaboration counts ranging from four to nine publications.

Their work has been published repeatedly in venues such as:

  • arXiv (Cornell University)
  • Physics of Fluids
  • Wind Energy
  • International Journal of Engine Research
  • Energies

David P. Schmidt has also contributed to book publications, with at least one book published by Columbia University Press titled "The Long Year," released in 2022.

Best Publications

  • A new droplet collision algorithm

    David P. Schmidt;C. J. Rutland

  • Modeling high-speed viscous liquid sheet atomization

    P.K Senecal;D.P Schmidt;I Nouar;C.J Rutland

  • Pressure-Swirl Atomization in the Near Field

    David P. Schmidt;Idriss Nouar;P. K. Senecal;C. J. Rutland

  • The internal flow of diesel fuel injector nozzles: A review:

    D. P. Schmidt;M. L. Corradini

  • A FULLY COMPRESSIBLE, TWO-DIMENSIONAL MODEL OF SMALL, HIGH-SPEED, CAVITATING NOZZLES

    David P. Schmidt;Christopher J. Rutland;Michael L. Corradini

  • A Numerical Study of Cavitating Flow Through Various Nozzle Shapes

    David P. Schmidt;Christopher J. Rutland;M. L. Corradini

  • Multi-dimensional simulation of thermal non-equilibrium channel flow

    D.P. Schmidt;S. Gopalakrishnan;Hrvoje Jasak

  • Aerosol generation by reactive boiling ejection of molten cellulose

    Andrew R. Teixeira;Kyle G. Mooney;Jacob S. Kruger;C. Luke Williams

  • A moving mesh interface tracking method for 3D incompressible two-phase flows

    Shaoping Quan;David P. Schmidt

  • Cavitation in Two-Dimensional Asymmetric Nozzles

    David P. Schmidt;C. J. Rutland;M. L. Corradini;P. Roosen

  • Multidimensional Modeling of Condensing Two-Phase Ejector Flow

    Michael Colarossi;Nathaniel Trask;David P. Schmidt;Mark J. Bergander

  • An Eulerian CFD model and X-ray radiography for coupled nozzle flow and spray in internal combustion engines

    Q. Xue;M. Battistoni;C.F. Powell;D.E. Longman

  • Accuracy and conservation properties of a three-dimensional unstructured staggered mesh scheme for fluid dynamics

    Xing Zhang;David Schmidt;Blair Perot

  • ANALYTICAL PREDICTION OF THE EXIT FLOW OF CAVITATING ORIFICES

    David P. Schmidt;Michael L. Corradini

  • Adaptive tetrahedral meshing in free-surface flow

    Meizhong Dai;David P. Schmidt

  • Internal and near nozzle measurements of Engine Combustion Network “Spray G” gasoline direct injectors

    Daniel J. Duke;Daniel J. Duke;Alan L. Kastengren;Katarzyna E. Matusik;Andrew B. Swantek

  • Internal and Near-Nozzle Flow in a Multi-Hole Gasoline Injector Under Flashing and Non-Flashing Conditions

    Maryam Moulai;Ronald Grover;Scott Parrish;David Schmidt

  • String flash-boiling in gasoline direct injection simulations with transient needle motion

    E.T. Baldwin;R.O. Grover;S.E. Parrish;D.J. Duke

  • X-ray Imaging of Cavitation in Diesel Injectors

    Daniel Duke;Andrew Swantek;Zak Tilocco;Alan Kastengren

  • Modeling merging and breakup in the moving mesh interface tracking method for multiphase flow simulations

    Shaoping Quan;Jing Lou;David P. Schmidt

Frequent Co-Authors

Matthew A. Lackner
Matthew A. Lackner University of Massachusetts Amherst
Michael L. Corradini
Michael L. Corradini University of Wisconsin–Madison
Christopher J. Rutland
Christopher J. Rutland University of Wisconsin–Madison
Matthew J. Churchfield
Matthew J. Churchfield National Renewable Energy Laboratory
Raul Payri
Raul Payri Universitat Politècnica de València
Paul J. Dauenhauer
Paul J. Dauenhauer University of Minnesota
Jonathan P. Rothstein
Jonathan P. Rothstein University of Massachusetts Amherst
Sibendu Som
Sibendu Som Argonne National Laboratory
Michael Chertkov
Michael Chertkov University of Arizona
Chris Wolverton
Chris Wolverton Northwestern University

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