01
LEHAR
Compressible CFD
Curated shock-flow cases with direct experimental comparison and high-accuracy benchmark verification.
Academic profile
Naseem Uddin
Computational Thermal Sciences
I study turbulent heat transfer, gas-turbine cooling and predictive computational fluid dynamics. My work connects physical modelling, carefully designed validation and scientific computing for complex thermal-flow systems.
Research areas
Turbulent heat transfer and predictive CFD
A research programme centred on gas-turbine thermal management, turbulence modelling and reliable simulation methods, with applications to high-speed and multiphase flows.
Gas-turbine coolingHeat transferTurbulenceScientific computing
Solver laboratory
Explore the codes
Each code opens a different part of computational engineering, from classical gas dynamics to reacting hypersonic flow.
02
LIQUIDA
Multiphase flow
Validated liquid-column collapse with experimental front-position comparison, bounded VOF transport and converged pressure projections.
03
LEHAR Multi
Multi-material CFD
Shock–bubble interaction, material interfaces, mixing and four-equation models.
04
BOLT
Hypersonics and chemistry
High-enthalpy flow, finite-rate chemistry, wall heating and shock-layer physics.
Start with a benchmark
Popular test cases
Every pathway connects physical theory to setup choices, solver output and validation evidence.
Mach 5.1 shock diffraction
Compare experimental and numerical schlieren while learning what qualitative validation can and cannot establish.
Martin–Moyce liquid-column collapse
Compare the computed dimensionless front position with the 1952 experiment and inspect pressure and divergence convergence.
Krypton shock–bubble
Follow interface deformation, vortex formation and transmitted wave structures.
HEG-I cylinder
Compare hypersonic wall pressure and heat flux with digitized experimental data.
Verification and validation evidence
LEHAR Validation Test Cases
Validated and verified LEHAR cases with experimental, analytical and benchmark comparisons.
Research vision
Predictive methods for complex thermo-fluid systems
A focused programme connecting turbulent thermal-flow physics, validated computation and engineering design.
My research develops predictive and computationally efficient methods for thermal-flow systems. The programme grows from a foundation in turbulent heat transfer and gas-turbine cooling, supported by turbulence modelling, high-fidelity simulation, careful validation and modern scientific computing.
Turbulent heat transfer and gas-turbine cooling
Impingement cooling, ribbed internal passages, scalar transport and heat-transfer enhancement using LES, RANS and experimentally anchored analysis.
Predictive CFD and turbulence modelling
Reliable closure development, verification and validation for separated, compressible and thermally coupled flows, including data-informed improvements where they add physical value.
High-performance simulation of complex flows
GPU-oriented finite-volume methods and reproducible research software for high-speed, multiphase and multi-material applications. Nanofluids, hypersonics and interface flows serve as application domains rather than separate programmes.
Future programme
Thermal-flow modelling with measurable engineering value
I aim to build a student-engaged programme linking gas-turbine thermal management, validated turbulence modelling and accelerator computing. Natural collaboration and funding directions include thermal transport, energy systems, aerothermodynamics, high-performance computing and industry-supported cooling research. These directions align with programmes commonly supported by NSF, the US Department of Energy, NASA and industrial partners.
Sponsored research
Research Funding and Grants
Competitive external support and institutional awards for turbulent heat transfer, applied fluid engineering and computational thermal systems.
External and internal supportResearch leadership across Pakistan, Brunei and international collaboration
Current directionNumerical thermal analysis and heat-exchanger optimization
Heat-Transfer Enhancement under Turbulent Impinging Jets Using CFD
Higher Education Commission, Pakistan · Approximately Rs. 5 million / US$54,000
Thermal Analysis and Optimization of a Heat Exchanger Using Numerical Simulation
Research Initiation Grant · B$6,000 · 18-month project
Thermal and Flow Dynamics Using Jets and Obstacles of Different Shapes
Internal research grant · B$8,000
Influence of Turbulent-Jet Inflow Conditions on Target-Wall Heat Transfer
Internal research grant · B$8,000
Brunei River Cleaning Project
Royal Brunei Technical Services · B$10,000
High-Fidelity Simulations to Understand Complex Flows
Special research grant · B$4,000
Academic record
Publications
Selected publications organized separately from the technical learning articles and validation case studies.
Heat transfer by jet impingement: A review of heat transfer correlations and high-fidelity simulations
Naseem Uddin, Priscilla Tang Wei Kee and Bernhard Weigand
DOI: 10.1016/j.applthermaleng.2024.124258Flow and heat transfer dynamics of an altered impinging plane jet using an insert
Naseem Uddin and co-authors
CFD-based parametric study of swirl effects on combustion in an industrial natural-gas combustor
Naseem Uddin and co-authors
LES investigation of a passively excited impinging jet
Naseem Uddin and co-authors
DOI: 10.1016/j.ijheatmasstransfer.2020.120705Nanoscale heat-transfer investigation of jet arrays under crossflow with and without pin fins
Naseem Uddin and co-authors
DOI: 10.1002/htj.21986Heat-transfer enhancement by alumina-water impinging jets on a micro-pin-fin surface under crossflow
Naseem Uddin and co-authors
DOI: 10.1615/JEnhHeatTransf.2020033413Numerical study of impinging-jet heat transfer with inlet temperature-field excitations
Naseem Uddin and co-authors
DOI: 10.1080/10407782.2019.1647712Comparative study of turbulent impinging-jet enhancement using swirl and active or passive excitation
Naseem Uddin and co-authors
DOI: 10.1016/j.icheatmasstransfer.2018.12.002Numerical investigation of impinging-jet heat transfer using alumina-water nanofluid
Naseem Uddin and co-authors
DOI: 10.1080/10407782.2018.1538293Heat-transfer enhancement by velocity-field excitation for an impinging round jet
Naseem Uddin and co-authors
DOI: 10.1080/10407782.2015.1090840Jet-impingement heat-transfer enhancement using detached ribs under crossflow
Naseem Uddin and co-authors
DOI: 10.1080/10407782.2013.757155LES simulations of an impinging jet: Origin of the second Nusselt-number peak
Naseem Uddin and co-authors
DOI: 10.1016/j.ijheatmasstransfer.2012.10.052Heat and mass transfer from a suddenly moved plate in nanofluids
Naseem Uddin and co-authors
DOI: 10.1177/1740349912456786Buongiorno model for Blasius flow of nanofluids
Naseem Uddin and co-authors
DOI: 10.2514/1.T3916Large-eddy simulations and heat-flux modelling in a turbulent impinging jet
Naseem Uddin and co-authors
Numerical simulation of supersonic jet impingement
Conference paper
DOI: 10.1049/cp.2018.1516Large eddy simulation of heat transfer due to swirling and non-swirling jet impingement
Paper HT2008-56422, Jacksonville, Florida
Search on ResearchGateEffect of inlet velocity-field excitation on turbulent impinging-jet heat transfer
Conference paper, Berlin
Google Scholar recordThree-dimensional adjustable horizontal-axis wind-turbine blade
Conference paper
Google Scholar recordComputational Fluid Dynamics: Numerical Methods and Applications
Book
Publisher recordFluid Mechanics: A Problem-Solving Approach
Book
Publisher recordHeat Transfer: A Systematic Learning Approach
Book
Publisher recordThermodynamics: Fundamentals and Applications
Book
Publisher recordTurbulence Modeling of Complex Flows in CFD
Doctoral thesis in Aerospace Engineering
University repositoryNo public records are listed in this category yet.
Books and learning resources
Build the fundamentals first
Books from the original Thermal-Engineering.Net collection, covering the core subjects that support the simulation cases on this site.
Computational
Fluid DynamicsNumerical Methods and Applications
Fluid DynamicsNumerical Methods and Applications
Computational fluid dynamics · 2026
Computational Fluid Dynamics: Numerical Methods and Applications
A dual treatment of finite-difference and finite-volume methods, including iterative solvers, practical stabilization, verification using the Grid Convergence Index and LES grid-independence assessment.
“A comprehensive and modern textbook on Computational Fluid Dynamics.” Wu Tao, Northwestern Polytechnical UniversityView at CRC Press / Routledge →
Fluid mechanics
Fluid Mechanics: A Problem-Solving Approach
A structured route from fluid properties and conservation laws to internal, external and compressible-flow problem solving.
“The book reads easily… Highly recommended.” Mohammad-Reza Alam, University of California, BerkeleyView at CRC Press / Routledge →
Heat transfer
Heat Transfer: A Systematic Learning Approach
A progressive treatment of conduction, convection and radiation with emphasis on engineering reasoning and worked applications.
View at CRC Press / Routledge →
Thermodynamics
Thermodynamics: Fundamentals and Applications
Fundamental thermodynamic principles developed through practical engineering systems and applications.
“The didactics of the book are excellent.” Philipp Epple, Coburg UniversityView at CRC Press / Routledge →
Turbulence Modeling of Complex Flows in CFDDoctoral thesis · Universität Stuttgart
Doctoral thesis · Aerospace Engineering
Turbulence Modeling of Complex Flows in CFD
Research on the modelling and large-eddy simulation of complex turbulent flows, including impinging jets and separated internal flows.
View in the Universität Stuttgart repository →Graduate supervision
Doctoral mentoring and research training
Current doctoral work develops independence in physical modelling, numerical methods, validation, scholarly writing and reproducible computation. Topics are summarized without identifying students.
Advanced scalar-flux modelling for turbulent impinging jets
RANS and LES studies of passive nozzle inserts across practical Reynolds numbers, with emphasis on scalar-flux anisotropy, experimental validation and improved subgrid-scale closure.
LESRANSHeat transfer
Machine-learning-augmented turbulence modelling
Multi-fidelity correction of Reynolds-stress predictions for separated heat transfer, using DNS-informed learning and deployment in engineering RANS calculations for ribbed ducts.
Machine learningRSMSeparated flow
TPMS-enhanced heat-exchanger optimization
Optimization of twisted-tape heat exchangers with Diamond, Gyroid and Primitive structures across water, oil and nanofluid operating conditions, including performance correlations.
TPMSNanofluidsOptimization
Teaching
Teaching contribution
Broad preparation for mechanical and aerospace engineering curricula, supported by evidence of teaching quality.
I teach thermodynamics, fluid mechanics, heat transfer and CFD by connecting governing equations with worked analysis, numerical simulation, verification and engineering interpretation. My approach emphasizes outcome-based course design, transparent assessment, reproducible computation and progressive student independence.
Teaching portfolio
Courses Taught
Advanced Heat and Mass Transfer
Applied Fluid Dynamics
Heat Transfer
Advanced Thermodynamics
Applied Thermodynamics
Fluid Mechanics II
Computational Fluid Dynamics
Energy and Environment
Thermodynamics for Biomedical Engineers
Biomimetic Flow Systems
Group Design Project
Teaching quality
Peer Reviews of Teaching
201682.6%
201882.0%
201989.8%
202289.76%
202490.6%
2020: Excellent qualitative evaluation. Numeric results from the other review years range from 82.0% to 90.6%.
Curricular fit
Ready to contribute across thermal-fluid engineering
Teaching coverage includes undergraduate and graduate thermodynamics, fluid mechanics, heat transfer, computational fluid dynamics, applied fluid dynamics, turbulence and energy systems. Research cases are used selectively to connect governing equations, computation, verification and engineering judgement.
Professor profile
Dr.-Ing. Naseem Uddin
Senior Assistant Professor · Universiti Teknologi Brunei · CEng MIMechE · MIEAust CPEng NER
Professional Registration
Chartered Professional EngineerEngineers Australia · Issued January 2018
Registered Professional EngineerBoard of Professional Engineers of Queensland · Issued January 2020
National Engineering RegisterEngineers Australia · Issued September 2020
Chartered EngineerInstitution of Mechanical Engineers, United Kingdom · Issued January 2018
Chartered EngineerEngineers Australia · Issued January 2018
MemberAmerican Society of Mechanical Engineers, United States
Dr.-Ing. Naseem Uddin is a mechanical-engineering academic and computational-fluid-dynamics researcher. He earned his Dr.-Ing. in Aerospace Engineering from the Institute of Aerospace Thermodynamics at Universität Stuttgart, Germany, with the distinction “Sehr Gut” (excellent), supported by HEC and DAAD fellowships. His doctoral research centred on gas-turbine cooling technologies, particularly turbulent impingement cooling, ribbed internal passages and scalar-transport modelling. His thesis, Turbulence Modeling of Complex Flows in CFD, combined turbulence modelling and large-eddy simulation for complex thermal-flow systems.
Before joining Universiti Teknologi Brunei, he served as Professor of Mechanical Engineering at NED University of Engineering and Technology. His current work spans turbulence modelling, compressible and hypersonic CFD, heat transfer, multiphase flow and GPU-accelerated scientific computing. He develops the LEHAR, LIQUIDA, LEHAR Multi and BOLT research codes and uses their verification and validation cases to connect active research with university teaching.
View LinkedIn profile View the original full profile