About Uzoma Ajugwe
Professional Biography
His academic foundation combines petroleum engineering with environmental systems analysis, enabling him to approach energy transition challenges from both technical and sustainability perspectives. He earned his Master of Science in Environmental Engineering from the University of South Florida, where his thesis, Quantifying Wellbore Effects During COâ‚‚ Sequestration in a Saline Aquifer, investigated the impact of wellbore pressure dynamics on carbon storage performance and modeling reliability. His research incorporated advanced simulation tools such as TOUGHREACT to evaluate multiphase flow behavior and geochemical reactions in saline formations.
Uzoma’s doctoral research at UT Austin builds on this foundation, advancing computational modeling techniques for geological carbon storage. His work examines pressure evolution, reactive transport processes, reservoir integrity, and long-term storage security under varying geological conditions. He integrates numerical modeling, reservoir simulation, and subsurface characterization to develop scalable, technically sound carbon sequestration frameworks.
Beyond academia, Uzoma brings meaningful industry experience across regulatory, upstream, and infrastructure environments. As a Graduate Research Assistant at USF, he contributed to the feasibility assessment of a COâ‚‚ sequestration project for Tampa Electric Company (TECO), supporting modeling efforts that informed a federally approved grant exceeding $200 million. He developed numerical models incorporating permeability, porosity, hydrostatic pressure, temperature, salinity, and pH variations to evaluate storage viability and optimize injection strategies.
His professional experience also includes roles with the Nigerian Federal Ministry of Petroleum Resources and Saipem Oil Contracting Nigeria. At the Ministry, he participated in rig inspections across national subsidiaries, contributed to research and review of Nigeria’s Petroleum Industry Act, and supported technical documentation and policy-related analyses. At Saipem, he assisted offshore field operations, performed reservoir characterization using porosity and permeability clustering, and supported pipeline and infrastructure engineering projects in compliance with HSE standards.
Uzoma’s research interests include:
Carbon capture and geological storage
Multiphase flow in porous media
Reactive transport modeling
Geothermal and underground hydrogen storage
Climate-focused energy systems
Numerical simulation of subsurface processes
He is actively engaged in professional organizations including the Society of Petroleum Engineers (SPE), the American Geophysical Union (AGU), the American Chemical Society (ACS), and the American Water Works Association (AWWA). He also holds the Envision Sustainability Professional (ENV SP) credential, reflecting his commitment to sustainable infrastructure development.
Throughout his academic and professional journey, Uzoma has maintained a record of excellence, including recognition through the Florida High Tech Corridor Award and the Nigerian Government Scholarship Award. He combines analytical rigor with interdisciplinary awareness, and he is particularly interested in advancing practical, policy-aware engineering solutions that support global decarbonization goals.
Uzoma welcomes collaboration with academic researchers, industry partners, and policy stakeholders working at the forefront of subsurface energy systems and carbon storage innovation.
Professional Affiliations
Research And Technical Focus
Focused on advancing applied research and technical innovation through rigorous methodology, data-driven inquiry, and interdisciplinary collaboration.
Carbon capture and storage
Studied effects of wellbore pressure during CO₂ injection into saline aquifers — focusing on sustainable and safe implementation methods.
Carbon sequestration into saline aquifers
This study investigates the impact of wellbore dynamics on COâ‚‚ injection and storage performance within saline aquifers.
Fluid flow through porous media
Fluid flow through porous media examines how liquids or gases move within interconnected pore spaces of materials such as soil, rock, or sediment, governed by permeability, pressure gradients, and fluid properties.