Match tier Confirmed
Presence Current · Arkansas
Last published 2026
Sources OpenAlex · ORCID
Refreshed 2026-10-05

Paul C. Millett

Affiliation confirmed via AI analysis of OpenAlex, ORCID, and web sources.

High Impact

Associate Professor

Also affiliated: National Institute of Aerospace (2008); Los Alamos National Laboratory (2012); Idaho National Laboratory (2007–2013); University of Florida (2009)

36 h-index 108 pubs 3,664 cited

  • Models, Cardiovascular
  • Computer Simulation
  • Hemodynamics
  • Humans
  • Williams Syndrome
  • Aorta
  • Blood Flow Velocity
  • Female
  • Male
  • Heart Defects, Congenital
  • Aortic Valve
  • Child, Preschool
  • Echocardiography
  • Infant
  • Severity of Illness Index

Biography and Research Information

OverviewAI-generated summary

Paul C. Millett's research interests include computational modeling and simulation, with a focus on multiphysics problems and phase field simulations. He has investigated the stabilization of nanocrystalline materials using dopants and has published on the atomic-scale observation of irradiation-induced void formation. His work also extends to the atomistic modeling of fission gas diffusion in nuclear fuel materials, with implications for nuclear fuel performance modeling.

Millett's publication record includes studies on phase-field modeling of void nucleation and growth in irradiated metals and the molecular dynamics of grain size stabilization in nanocrystalline materials. He has collaborated with researchers such as Morten Ø. Jensen and Justin T. Jack at the University of Arkansas at Fayetteville, and Elijah H. Bolin and Joshua Daily at the University of Arkansas for Medical Sciences. Millett holds an h-index of 36 and has accumulated over 3,658 citations across his 110 publications.

Metrics

  • h-index: 36
  • Publications: 108
  • Citations: 3,664

Positions

  • Associate Professor 2019–present
    University of Arkansas Department of Mechanical Engineering ORCID

Selected Publications

  • Experimental and computational models for intracardiac flow analysis with blood speckle imaging (2026)
    PLoS ONE DOI OpenAlex
  • Oscillatory flow improves hydrodynamic ordering of soft suspensions in rectangular channels (2025)
    Soft Matter DOI OpenAlex
  • Numerical study of hemodynamic flow in the aortic vessel of Williams syndrome patient with congenital heart disease (2024)
    Journal of Biomechanics 10 citations DOI OpenAlex
  • Order–disorder transitions within deformable particle suspensions in planar Poiseuille flow (2024)
    Journal of Fluid Mechanics 5 citations DOI OpenAlex
  • Numerical Study of Hemodynamic Flow in the Aortic Vessel of Williams Syndrome Patient with Congenital Heart Disease (2024)
    SSRN Electronic Journal DOI OpenAlex
  • Numerical Studies of Hemodynamic Flow in the Aortic Vessel of Patients With Congenital Heart Disease (2023)
  • Rheology and structure of elastic capsule suspensions within rectangular channels (2023)
    Soft Matter 4 citations DOI OpenAlex
  • A Patient-based Computational Model that Predicts Pressure Drop in Supravalvar Aortic Stenosis in Patients with Williams Syndrome (2021)
    PEDIATRICS 1 citation DOI OpenAlex
  • The Sinotubular Junction-to-Aortic Annulus Ratio as a Determinant of Supravalvar Aortic Stenosis Severity* (2021)
    The American Journal of Cardiology 4 citations DOI OpenAlex
  • A review on models and simulations of membrane formation via phase inversion processes (2021)
    Journal of Membrane Science 145 citations DOI OpenAlex
  • Nanoscale investigation and control of photothermal action of gold nanostructure-coated surfaces (2021)
    Journal of Materials Science 7 citations DOI OpenAlex
  • A Patient-based Computational Model that Predicts Pressure Drop in Supravalvar Aortic Stenosis in Patients with Williams Syndrome (2021)
    2 citations DOI OpenAlex
  • Numerical study of the phase behavior of rod-like colloidal particles with attractive tips (2021)
    AIP Advances 7 citations DOI OpenAlex
  • Nanoscale Investigation and Control of Photothermal Action of Gold Nanostructure-coated Surfaces (2020)
  • Fluid-Structure Interaction Modeling and Validation of Idealized Left Ventricular Blood Flow (2020)

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Collaboration Network

78 Collaborators 21 Institutions 3 Countries

Top Collaborators

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