Muhammad Hassan Asghar

Modelling and Volume-of-fluid-based simulations for wetting processes and software development - Automate the pre- and post-processing using Bash and Python scripts - Performed droplet contour analysis using image processing techniques and spline-based methods - Integrated CI/CD pipelines using Docker, unit testing with Google Test, and Jupyter workflows for reproducible research. - Skills & Tools: OpenFOAM, GitHub, GitLab, C, C++, Python, MATLAB, Bayesian Optimization

- Software Development - Distributed-memory parallelization and performance analysis of Sparse Matrix-Vector Multiplication (SpMVM) with MPI on multi-core clusters - Storage Formats for SpMVM): Compressed Row Storage (CRS), Jagged Diagonal Storage (JDS) and SELL-C-sigma - Performance analysis on both shared and distributed memory architectures

Topic: Development of a benchmark suite for investigating MPI communication behavior Tasks: - Developing the software to investigate startup and throughput of a single message transfer and to estimate communication and computation overlap for non-blocking MPI collective and pairwise routines - Performance analysis of numerous communication patterns on diverse architectures with distinct network topologies - Programming Language: C - Parallel Programming Model: MPI

Topic: Bubble simulation and its analysis Tasks: - Modification of the source code for solvers in OpenFOAM for bubble simulation - Analysis of the behavior of bubble formation, it’s rising under the user-defined environment - Development Tool: OpenFOAM - Programming Language: C++

Publications 1. Asymmetry During Fast Stretching of a Liquid Bridge - Parametric study for a range of fluid properties and stretching acceleration - DOI: https://doi.org/10.1002/ceat.202300240 Projects - Development of benchmark suite for verification and validation of wetting processes - Analytical and numerical validation of a plate-plate tribometer for measuring wall slip - Development of libraries for complex/viscoelastic fluid simulations - Modelling of contact angle hysteresis

This course is focused on 3 major modules: 1. Informatik (Computer Science): Python, C, C++, etc, computer architecture, high-performance computing (HPC) 2. Applied Mathematics: Functional Analysis, Numerical Methods and Optimization techniques 3. Technical Application Field: a. Thermo and Fluid Dynamics: Numerical Methods in Thermo & Fluid Dynamics, Turbulence Physics b. Solid Mechanics and Dynamics: Material Modelling, Finite Element Methods.

This course is focused on 3 major modules: 1. Informatik (Computer Science): Python, C, C++, etc, computer architecture, high-performance computing (HPC) 2. Applied Mathematics: Functional Analysis, Numerical Methods and Optimization techniques 3. Technical Application Field: a. Thermo and Fluid Dynamics: Numerical Methods in Thermo & Fluid Dynamics, Turbulence Physics b. Solid Mechanics and Dynamics: Material Modelling, Finite Element Methods.

This course is focused on 3 major modules: 1. Informatik (Computer Science): Python, C, C++, etc, computer architecture, high-performance computing (HPC) 2. Applied Mathematics: Functional Analysis, Numerical Methods and Optimization techniques 3. Technisches Anwendungsfach (Technical Application Field): a. Thermo and Fluid Dynamics: Numerical Methods in Thermo & Fluid Dynamics, Turbulence Physics b. Solid Mechanics and Dynamics: Material Modelling, Finite Element Methods.

This course is focused on 3 major modules: 1. Informatik (Computer Science): Python, C, C++, etc, computer architecture, high-performance computing (HPC) 2. Applied Mathematics: Functional Analysis, Numerical Methods and Optimization techniques 3. Technisches Anwendungsfach (Technical Application Field): a. Thermo and Fluid Dynamics: Numerical Methods in Thermo & Fluid Dynamics, Turbulence Physics b. Solid Mechanics and Dynamics: Material Modelling, Finite Element Methods.

This course is focused on 3 major modules: 1. Informatik (Computer Science): Python, C, C++, etc, computer architecture, high-performance computing (HPC) 2. Applied Mathematics: Functional Analysis, Numerical Methods and Optimization techniques 3. Technisches Anwendungsfach (Technical Application Field): a. Thermo and Fluid Dynamics: Numerical Methods in Thermo & Fluid Dynamics, Turbulence Physics b. Solid Mechanics and Dynamics: Material Modelling, Finite Element Methods.

Grade: CGPA 1.7

Grade: CGPA 1.7

Grade: CGPA 1.7