Hi, my name is
Chemical Engineer seeking to specialize in process design, optimization, and simulation. I leverage data-driven analysis to solve complex challenges, having prior simulation experience in industrial ammonia synthesis to climate technology.
Hello! I'm Tammam (Tam), a Chemical Engineering graduate from UC San Diego pursuing a career in process design, simulation, and optimization. My academic training provided a rigorous foundation in heat transfer, mass transport, and reaction engineering, equipping me to model and analyze systems relevant to the petrochemical, energy, and environmental sectors.
Through extensive capstone design projects, I applied these principles to complex engineering scenarios ranging from traditional manufacturing to emerging technologies. I utilized industry-standard tools like Aspen Plus and HYSYS to simulate an industrial-scale ammonia synthesis plant and model a direct air capture system for climate technology.
Sep 2023 - Jun 2025
Sep 2020 - Jun 2023
June 2023 - September 2023
Presenting our organometallic iridium(III) complex research at ACS Spring 2025, San Diego Convention Center. Proud to be part of this collaborative team that successfully synthesized and characterized multiple metal complexes using advanced analytical techniques including NMR, FTIR, and X-ray crystallography
August 2024 - June 2025
Senior capstone project designing a scalable DAC system capable of removing 1 million metric tons of CO₂ annually from the atmosphere. Complete process engineering with economic analysis achieving $39,770 capital savings through optimization.
Comprehensive four-quarter capstone project designing a complete ammonia synthesis plant using the Haber-Bosch process. Achieved 943.2 kmol/h NH₃ production with 48.9% efficiency improvement through advanced heat integration.
Analyzed thermal performance of 7-plate stainless steel heat exchanger by determining empirical Nusselt correlation coefficients. Developed predictive models with R² > 0.98 correlation for design optimization.
Investigated effects of operating pressure on water and salt transport in RO configurations. Achieved 68% water recovery with comprehensive selectivity analysis for desalination optimization.
Optimized liposome nanoparticle fabrication using extrusion method. Achieved minimum particle size of 109.8 nm with 51% reduction and polydispersity index of 0.082 for pharmaceutical applications.
Investigated photocatalytic degradation of methylene blue using TiO₂ catalyst and UV light. Applied pseudo-first-order kinetics with maximum rate constant of 0.0797 s⁻¹ achieved through H₂O₂ optimization.
05. What's Next?
Actively seeking Chemical Engineering opportunities nationwide in manufacturing, environmental tech, and specialty chemicals. I am eager to apply my expertise in process simulation, scale-up, and optimization to drive development and continuous improvement.
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