CO₂ Capture & Utilization
Hybrid membrane–absorption processes, alkanolamine systems, and direct air capture for energy-efficient CO₂ separation — paired with catalytic pathways that convert captured CO₂ into fuels and chemicals.
PhD — Clean Energy & Sustainable Chemical Conversion
Research-active chemical engineer with a PhD and 15+ years across academia, research, and industry. My work integrates CO₂ capture and utilization, catalytic conversion, membrane-enabled separations, high-pressure thermodynamics, and data-driven process modeling to advance clean energy and sustainable chemical manufacturing.
I am a research-active chemical engineer with a PhD from Universiti Teknologi PETRONAS and 15+ years of combined academic, research, and industrial experience. I am the author or co-author of 28 peer-reviewed publications, a book chapter, and authored monographs, and I have served as PI or investigator on competitively funded research — spanning CO₂ capture and utilization, catalytic conversion, membrane-enabled separations, high-pressure thermodynamics, phase equilibria, and machine learning.
As an Assistant Professor at the University of Nizwa, Oman and earlier at NUST, Pakistan, I taught thermodynamics, process simulation, plant design, natural gas processing, catalysis, and numerical methods, while leading externally funded research on hydrate equilibria, CO₂ capture and conversion, and heterogeneous catalysis. My work appears in journals such as the Journal of Natural Gas Science & Engineering, The Canadian Journal of Chemical Engineering, and Neural Computing and Applications.
Today, as an independent researcher in Virginia, I focus on integrated CO₂ capture and catalytic conversion, catalytic membrane reactors, and data-driven process design — alongside STEM education — continuing to translate fundamental science into industrially useful tools for carbon-efficient chemical manufacturing.
From fundamental phase behavior to deployed machine-learning models, my research targets the capture and processing of CO₂-rich gas systems.
Hybrid membrane–absorption processes, alkanolamine systems, and direct air capture for energy-efficient CO₂ separation — paired with catalytic pathways that convert captured CO₂ into fuels and chemicals.
CO₂ hydrogenation to methanol, carbon-supported and carbon nanofiber-based catalysts, heterogeneous catalysis, and plasma-assisted conversion of H₂O/CO₂ — from kinetics studies to process-level design.
Intensified reaction–separation systems — including a TRC-funded catalytic membrane reactor for propane oxidative dehydrogenation — where selective transport coupled with reaction unlocks new operating regimes.
High-pressure PVT and VLE measurement with hybrid physics-informed machine-learning models that predict hydrate equilibria and accelerate reaction and process design — replacing costly experiments with fast, reliable surrogates.
Fifteen years across industry, doctoral and postdoctoral research, and university faculties in Malaysia, Pakistan, and Oman.
Continuing research in CO₂ capture and utilization, catalytic conversion, and data-driven process design; preparing manuscripts and collaborative research proposals within the U.S. clean-energy ecosystem, alongside STEM education in Virginia.
Taught thermodynamics, process simulation, plant design, natural gas processing, catalysis, and numerical methods at undergraduate and graduate levels. Developed flipped-classroom and simulation-based approaches, mentored 50+ students, and led ABET-aligned curriculum redesign and lab safety training for 100+ students using high-pressure equipment.
Taught core and elective chemical engineering courses at undergraduate and graduate levels; supervised research and final-year design projects; contributed to curriculum development and accreditation activities.
Measured and modeled vapor–liquid equilibria and gas-hydrate phase behavior using high-pressure PVT systems; delivered project milestones for sponsored research and developed external collaborations.
Supervised water-treatment plant and laboratory operations; served as Independent Shift Engineer responsible for plant operations and emergency response, with process optimization using Aspen HYSYS, Aspen Plus, ChemStation, CHEMCAD, and ProSim.
Dissertation: Thermodynamic and Phase Behaviour of Fluid and Clathrate Hydrate of Carbon Dioxide Rich Gas Mixture.
Middlesbrough, Tees Valley.
Quaid-i-Azam Campus, Lahore.
Extensive undergraduate and graduate instruction across core chemical-engineering subjects, with applied, industry-relevant course materials, flipped-classroom methods, and simulation-based laboratories.
Mentoring is an extension of my teaching philosophy: I advise undergraduate and graduate students on research and final-year design projects spanning separation processes, catalysis, gas hydrates, process modeling, and AI/ML applications. My approach structures work around progressively increasing independence — clarifying questions and expectations, establishing short milestones, and requiring students to explain their decisions and uncertainty — with several mentored projects receiving departmental recognition.
Author/co-author of 28 peer-reviewed publications, a book chapter, and authored monographs spanning CO₂ capture and utilization, catalysis, phase equilibria, and machine learning. Citation counts reflect Google Scholar.
Open to research collaboration, consulting, and teaching opportunities in clean energy, CO₂ capture and utilization, catalytic conversion, and chemical engineering education.