Bridging university research with industrial sectors to solve complex piping, thermalhydraulic, and vibration integrity challenges. Specializing in high-value, R&D-heavy engineering solutions that unite rigorous continuum mechanics with international standards including ASME codes and ISO 14692 for metallic and composite piping systems.
Hands-on industrial engineering experience delivering code-compliant design verification and advanced diagnostics for North American power utilities and technology leaders.
2020 – 2022 Power utility piping qualification against ASME Boiler and Pressure Vessel Code (Section III and B31.1), hydraulic validation of compressed gas, service water, and sanitary systems, field walkdowns, and aging-piping vibration mitigation.
2017 Noise and Vibration Engineering division: electronic cooling fan NVH testing in ultra-low-noise anechoic facilities, transient and steady-state signal analysis, statistical root-cause diagnostics, and psycho-acoustic user perception studies.
Physics-driven diagnostics, advanced numerical modeling, and standards-compliant qualification workflows for mission-critical industrial applications.
Advanced structural and dynamic evaluation of metallic and composite piping systems under complex thermo-mechanical, seismic, and fluid-induced dynamic loads. Combines compliance with ASME codes and ISO 14692 for glass-reinforced plastics (GRP) with experimental and analytical failure diagnostics.
High-fidelity computational fluid dynamics and fluid-structure interaction simulations for mission-critical industrial flow components. Employs Large Eddy Simulation (LES) and unsteady URANS in OpenFOAM and ANSYS Fluent to resolve vortex dynamics, pressure pulsations, and acoustic energy exchange.
Precision acoustic and vibration diagnostics for electronics cooling assemblies, ducted machinery, and industrial enclosures. Integrates ultra-low-noise anechoic testing, psycho-acoustic evaluation, and passive shear-layer aerodynamic control.
Advanced dynamic structural modeling coupled with time-frequency wavelet transform methods to identify instantaneous resonance lock-in regimes, nonlinear galloping dynamics, and vibration damping solutions.
For specialized R&D solutions in piping integrity, advanced CFD and multiphysics modeling, flow-induced vibration investigations, or standard code evaluations (ASME and ISO 14692), contact Dr. Mahmoud Shaaban.