ali cherif

Results-driven Mechanical and Chemical Engineer with extensive experience in industrial process optimization and energy systems design. Demonstrated success in developing innovative solutions that deliver measurable business value, including reducing carbon emissions by 35% through advanced reactor design and decreasing membrane surface requirements by 80% while maintaining high performance. Strong track record of leading cross-functional teams and implementing process improvements across energy, manufacturing, and quality control operations. Combines hands-on industrial experience with deep technical expertise in process simulation, CFD modeling, and optimization algorithms. Proficient in industry-standard software, including Aspen Plus, HYSYS, and Ansys Fluent, along with programming capabilities in Python and MATLAB, C++, and FORTRAN. Proven ability to translate complex technical concepts into practical, cost-effective solutions that drive operational efficiency and sustainability.

I am a dedicated researcher with extensive expertise in hydrogen energy, carbon capture and utilization (CCUS), and process modeling and optimization. Currently serving as a Postdoctoral Fellow at the University of Texas at Austin, I focus on cutting-edge projects like membrane reactor optimization, in-situ combustion for hydrogen production, and green ammonia cracking. My work has led to significant advancements, including a 35% reduction in carbon emissions in hydrogen production and a 61% increase in hydrogen yield from ammonia cracking.

Previously, as a Research Professor at Chung-Ang University, I achieved a 32.6% increase in CO2-to-formic acid conversion and spearheaded research on hydrogen reservoirs and thermal management of Li-batteries. My Ph.D. research further honed my skills in thermo-fluids and catalytic reaction engineering, enabling breakthroughs in autothermal steam methane reforming and hydrogen supply chain optimization.

With a strong track record of international collaborations, I have published over 20 peer-reviewed papers, contributed to 14 conference presentations, and actively reviewed manuscripts for leading journals. My technical skills span CFD simulation, Aspen Plus, and Python programming, complementing my leadership in interdisciplinary research and my commitment to sustainable energy solutions.

I hold a Ph.D. in Science and Technology with a specialization in Mechanical Energetics from the University of Science and Technology Houari Boumediene, Algeria. My doctoral research focused on optimizing hydrogen production processes through steam methane reforming, where I explored the effects of metal foams on reactor performance. This work achieved significant milestones, including a 45% reduction in maximum reactor temperatures and enhanced material utilization.

Additionally, I completed a Master’s degree in Mechanical Energetics, where I developed expertise in heat exchangers and turbofan energy analysis, culminating in a GUI software for evaluating turbofan performance. My academic foundation is further strengthened by a Bachelor’s degree in Mechanical Energetics, emphasizing thermo-fluids and energy systems.

My education has been instrumental in equipping me with advanced skills in process modeling, energy optimization, and decarbonization technologies, laying a strong groundwork for my research and professional endeavors in sustainable energy solutions.