CV

Manuel A. Diaz

Ph.D. in Applied Mechanics · CFD · GPU computing

manuel.ade@gmail.com
+32 496 52 20 62
Nivelles, Belgium, BE

Summary

Senior Research Engineer with 10+ years developing high-performance GPU-accelerated algorithms and solvers for computational fluid dynamics (CFD) and aeroacoustics (CAA). Currently at Cenaero ASBL (Gosselies, Belgium).

Education

  • Ph.D. in Applied Mechanics
    2015
    National Taiwan University (NTU)
    GPA: 3.85
  • M.S. in Applied Mechanics
    2012
    National Taiwan University (NTU)
    GPA: 3.93
  • Chinese Language Studies
    2010
    National Taiwan Normal University (NTNU)
  • B.S. in Mechanical Engineering
    2008
    Universidad Centroamericana José Simeón Cañas (UCA)
    GPA: 8.23
  • Technical High School Diploma in Mechanics
    2002
    Instituto Técnico Ricaldone (ITR)
    GPA: 9.2

Work Experience

  • Senior Research Engineer
    2022 - present
    Cenaero ASBL
    • GPU port and optimization of FIDELIO (WINGS-II) with CUDA C++ and HIP/ROCm
    • Developed a GPU-accelerated FV-LB solver for rarefied gas flows (MaiSoVI)
    • Assessed GPU particle / MPM methods for mechanical engineering (VirtualLab)
  • Postdoctoral Researcher ANR MAMIES
    2022 - 2022
    Institut Pprime — University of Poitiers
    • Experimental–computational work on time-reversal aeroacoustics for the MAMIES project
    • Project lead: Vincent Valeau
  • Postdoctoral Researcher FEDER/NAE
    2020 - 2021
    ISAE-ENSMA — Institut Pprime
    • High-order immersed boundary methods (IBM) for aeroacoustics in Xcompact3d
    • Project leads: Véronique Fortuné and David Marx
  • Postdoctoral Researcher ANR MAMIES
    2019 - 2020
    Institut Jean Le Rond d'Alembert — Sorbonne University
    • CFD/CAA algorithms; DG solvers and data assimilation / time-reversal for acoustic sources
    • Project leads: Régis Marchiano and Vincent Valeau
  • Postdoctoral Researcher NSC
    2016 - 2018
    Institute of Biomedical Engineering and Nanomedicine (NHRI)
    • Multi-GPU WENO solvers for nonlinear acoustic propagation (CUDA, MPI, OpenMP)
    • Project lead: Maxim Solovchuk
  • Junior Mechanical Designer
    2008 - 2009
    Ingendehsa S.A. de C.V.
    • Design of valves, cranes, and pressurized pipelines for hydroelectric plants
    • AutoCAD and Autodesk Inventor parameterized models linked to Excel calculations

Skills

Languages

  • Spanish (Native)
  • English (C2)
  • Chinese (B1)
  • French (A2)

Programming

  • Python 3
  • MATLAB
  • Mathematica
  • C/C++
  • Fortran
  • LaTeX
  • Git
  • Bash
  • CMake

Libraries

  • CUDA
  • HIP/ROCm
  • MPI
  • MPI-IO
  • HDF5
  • OpenMP
  • PETSc

Tools

  • Visual Studio Code
  • Vim
  • Emacs
  • Jupyter
  • NSight Compute
  • valgrind

Interests

  • CFD
  • computational aeroacoustics (CAA)
  • thermoacoustics
  • data assimilation
  • time reversal
  • WENO/FVM/FDM/FEM/DG
  • GPU computing

Publications

  • Asymptotic-Preserving Weno Schemes for Boltzmann Model Equations and Rarefied Gas Flow Simulation
    2014
    In the proceedings of Proceedings of the Korea Society of Computational Fluids Engineering
  • Numerical Solutions of Ideal Quantum Gas Dynamical Flows Governed by Semiclassical Ellipsoidal-Statistical Distribution
    2014
    In the proceedings of Proc. R. Soc. A
  • High-Order Conservative Asymptotic-Preserving Schemes for Modeling Rarefied Gas Dynamical Flows with Boltzmann-BGK Equation
    2015
    Communications in Computational Physics
  • Modeling Rarefied Gas Flows of Arbitrary Statistics with the Semiclassical Boltzmann-BGK Equation
    2015
    Institute of Applied Mechanics, Taiwan University
  • An Efficient Direct Solver for Rarefied Gas Flows with Arbitrary Statistics
    2016
    Journal of Computational Physics
  • A Conservative Numerical Scheme for Modeling Nonlinear Acoustic Propagation in Thermoviscous Homogeneous Media
    2018
    Journal of Computational Physics
  • High-performance multi-GPU solver for describing nonlinear acoustic waves in homogeneous thermoviscous media
    2018
    Computers & Fluids
  • Aeroacoustic Source Identification with Effects of Solid Boundaries Using a Numerical Time-reversal Technique
    2020
    In the proceedings of Forum Acusticum
  • Identification of Aeroacoustics Sources with Data Assimilation
    2020
    In the proceedings of Forum Acusticum
  • A High-Order Immersed Boundary Technique for Computational Aeroacoustics
    2022
    In the proceedings of Congrès Français d'Acoustique
  • An efficient three-level weighted essentially non-oscillatory scheme for hyperbolic equations
    2023
    Computational and Applied Mathematics
  • Localizing aeroacoustic sources in complex geometries: A hybrid method coupling 3D microphone array and time-reversal
    2024
    Journal of Sound and Vibration

Presentations

  • Asymptotic-Preserving WENO Schemes for Boltzmann Model Equations and Rarefied Gas Flow Simulation
    2014
    Korea Society of Computational Fluids Engineering
    Korea
  • Best Paper Presentation, NHRI Research Day
    2018
    National Health Research Institutes (NHRI)
    Zhunan, Taiwan
  • Identification of Aeroacoustics Sources with Data Assimilation
    2020
    Forum Acusticum
    Lyon, France
  • Aeroacoustic Source Identification with Effects of Solid Boundaries Using a Numerical Time-reversal Technique
    2020
    Forum Acusticum
    Lyon, France
  • A High-Order Immersed Boundary Technique for Computational Aeroacoustics
    2022
    Congrès Français d'Acoustique
    France

Teaching

  • Teaching Assistant — Nanoscale Energy Transport
    2014
    Institute of Applied Mechanics, National Taiwan University (NTU)
    Role: Teaching assistant
  • Fluid Mechanics Lab Instructor
    2020
    ENSIP — University of Poitiers
    Role: Laboratory
  • LaTeX Instructor
    2021
    Tecnológico Nacional de México
    Role: Certification course

Portfolio

  • Portfolio item number 1
    Portfolio
    Short description of portfolio item number 1