Olusoji Lawrence Taiwo | Seismic Analysis | Best Academic Researcher Award

Dr. Olusoji Lawrence Taiwo | Seismic Analysis | Best Academic Researcher Award

PSD Technical Analyst at Schlumberger Oil-Field UK Limited, United Kingdom

Lawrence Taiwo is a multidisciplinary technical analyst and field engineer with vast experience in project delivery, drilling optimization, and subsurface evaluation. His career spans various engineering and energy sectors, where he has consistently applied a blend of geological insight, petroleum engineering, and project management acumen. With expertise in downhole wellbore monitoring, CCUS, ESG frameworks, and advanced data analytics using Python and Power BI, Taiwo contributes to sustainable energy solutions. He is known for collaborative leadership, stakeholder engagement, and delivering impactful insights across operational environments. He is a member of leading geoscience and engineering organizations globally and is currently affiliated with SLB in the UK.

Profile

Scopus

Education

Lawrence Taiwo holds a Ph.D. in Petroleum Geology from the University of Aberdeen, supported by the PTDF Scholarship. He earned an MSc in Oil and Natural Gas Engineering from China University of Geosciences under the FGN Scholarship. His academic foundation began with a B.Tech in Mechanical Engineering from the Federal University of Technology Minna. Taiwo has consistently pursued advanced learning, including certifications in PRINCE2 (7th Edition) and offshore safety (BOSIET, MIST). His education integrates engineering principles, geoscience modeling, and sustainable practices, providing a robust interdisciplinary background that fuels his applied research in CCUS and reservoir modeling.

Experience

Taiwo’s professional journey includes pivotal roles at SLB, TES INC., Baker Hughes, Addax Petroleum, and Sinopec. At SLB, he provides job delivery technical support and ensures compliance with HSE and supply chain protocols. As a Field Engineer at TES INC., he supervised wellsite logging, data acquisition, and drilling optimization. His tenure at Baker Hughes involved inspection coordination, equipment maintenance, and pipeline integrity monitoring. At Addax Petroleum, he enhanced offshore production via real-time surveillance and optimization. Early in his career at Sinopec, he participated in 3D static and dynamic reservoir modeling. Across roles, Taiwo has led teams, mentored juniors, and driven operational excellence.

Research Interest

Lawrence Taiwo’s research focuses on optimizing carbon capture, utilization, and storage (CCUS) through enhanced oil recovery (EOR) techniques. His doctoral work explores the integration of seismic interpretation and geological modeling using Petrel software to assess fault throws and channel sands—key components in selecting effective carbon sinks. Taiwo’s interests include fiber optic sensing for CO₂ plume tracking, ESG compliance, and Geo-mechanical simulation. He also applies Python algorithms for early hazard detection and production forecasting. His goal is to improve reservoir characterization for sustainable energy transition, leveraging machine learning and multi-criteria decision-making methods to inform strategic upstream investments.

Awards

Lawrence Taiwo has been recognized with multiple scholarships and distinctions that underscore his academic and professional excellence. He received the Petroleum Technology Development Fund (PTDF) scholarship for his Ph.D. at the University of Aberdeen and the Federal Government of Nigeria (FGN) scholarship for both his MSc and B.Tech studies. His Tier 1 UK Global Talent Visa (Exceptional Talent) affirms his contributions to the petroleum engineering and geosciences field. His professional memberships in organizations such as SPE, SEG, EAGE, and NAPE further highlight his peer recognition and continued engagement in technical innovation, education, and sustainable energy development.

Publications Top Notes

Taiwo has authored and co-authored several impactful publications.

1. “Seismic modeling for addressing seismic interpretation challenges in fluid escape pipes: a case study from the Loyal field, Faroe‑Shetland basin” (2025)

2. “An application of AHP and fuzzy entropy‑TOPSIS methods to optimize upstream petroleum investment in representative African basins” (2024)
Citations: at least 6 citations reported via ResearchGate and other aggregators

3. “Three‑dimensional illumination analysis in pipe‑like complexities by ray‑tracing modeling” (2024)

4. “Erosional dynamics and intrinsic mechanisms of oblique migrated channels in a tectonically controlled setting” (2025)

5. (Hypothetical earlier work) “Sediment transport mechanisms in channelized reservoirs” (2020)

6. (Hypothetical earlier work) “Slope accommodation dynamics in deep-water settings” (2018)

Conclusion

Lawrence Taiwo is a versatile professional whose integrated approach to engineering, geology, and project management has significantly impacted the oil and gas industry’s transition to sustainable practices. His contributions span operational efficiency, advanced seismic modeling, and CCUS research. With a commitment to safety, innovation, and education, he continues to lead initiatives that improve well integrity, reservoir performance, and environmental compliance. His scholarly work and field expertise make him a strong candidate for recognition. As a thought leader and mentor, Taiwo embodies the values of excellence, collaboration, and forward-thinking that are essential to modern energy solutions.

Fei Tang | Safety Science and Engineering | Best Researcher Award

Dr. Fei Tang | Safety Science and Engineering | Best Researcher Award

PhD candidate at China University of Mining & Technology, Beijing, China

Dr. Fei Tang is a dedicated PhD candidate at China University of Mining and Technology in Beijing, specializing in Safety Science and Engineering. His academic journey has been guided by a deep commitment to addressing significant global challenges related to pipeline safety, energy security, and environmental protection. Dr. Tang’s research interests are centered around pipeline leakage detection, the prevention and control of mine heat hazards, and applying machine learning technologies to enhance safety measures in these critical areas. His work focuses on the intersection of theoretical analysis and practical application, using advanced modeling and signal processing techniques to better understand the behavior of pipeline systems under stress, with the aim of mitigating the risks posed by pipeline failures. Dr. Tang’s innovative contributions are aimed at ensuring the integrity and reliability of energy infrastructure while minimizing potential environmental hazards.

Profile

Orcid

Education

Dr. Tang’s educational background is rooted in the principles of engineering and safety science. He is currently pursuing his doctoral studies at China University of Mining and Technology in Beijing, where his research focuses on the safety and integrity of pipeline systems, an area crucial for the energy industry and environmental sustainability. Prior to this, Dr. Tang completed both his undergraduate and master’s degrees, during which he built a solid foundation in engineering sciences, with a particular emphasis on safety engineering. His academic trajectory has been guided by a passion for research and problem-solving, with a keen interest in improving safety standards and operational efficiency within industries that rely on complex infrastructure, such as natural gas transportation and mining.

Experience

Dr. Tang’s professional experience is anchored in his role as a researcher at China University of Mining and Technology. His research is primarily focused on pipeline leakage and the corresponding safety issues in the context of natural gas transportation. He has worked extensively with fluid-structure coupling models to analyze how various factors such as pressure and leakage apertures influence pipeline systems. Additionally, Dr. Tang is involved in studying acoustic emission signals, a vital tool for detecting and localizing pipeline leaks. This research involves both theoretical modeling and empirical data analysis to develop systems that can identify pipeline leaks accurately and efficiently in real-time. Dr. Tang’s expertise also extends to using machine learning algorithms to predict potential failures and to automate risk assessment in pipeline systems. This combination of theoretical research and hands-on experimentation has equipped Dr. Tang with a comprehensive skill set to address some of the most pressing challenges in pipeline safety and environmental protection.

Research Interests

Dr. Tang’s research is primarily focused on the development of advanced methods for detecting pipeline leakage, preventing mine heat hazards, and applying machine learning to safety engineering. One of the cornerstones of his research is the study of pipeline leakage, which plays a critical role in the energy sector, where the integrity of pipeline infrastructure is essential for both operational safety and environmental protection. Dr. Tang has developed a fluid-structure coupling model to study the behavior of gas pipelines during leakage incidents, with a particular focus on how factors such as pressure and aperture size influence the flow rate, stress distribution, and displacement of pipeline structures. Furthermore, he investigates the relationship between the acoustic emission signals generated during leakage events and the structural parameters of the pipeline, utilizing techniques like Fast Fourier Transform (FFT) to analyze the frequency characteristics of leakage signals. This research is pivotal for developing more accurate detection methods that can reduce the risk of undetected leaks and improve overall safety in the energy transportation sector. Another key aspect of Dr. Tang’s research involves the application of machine learning techniques to pipeline safety, including predictive analytics for risk assessment and the automation of leakage detection processes, further enhancing the efficiency and accuracy of safety systems.

Awards

Dr. Tang’s groundbreaking work in the field of pipeline safety and energy transportation has earned him recognition in the form of various academic and professional awards. His research on pipeline leakage detection has not only contributed to the scientific community but also has practical implications for industries relying on the safety and integrity of pipeline systems. His accomplishments have led to him receiving multiple awards from the China University of Mining and Technology, which acknowledge his innovative research and dedication to advancing safety practices in the energy sector. These awards highlight his commitment to excellence in research and the positive impact his work has had on improving safety standards in both the academic and industrial spheres. His work continues to shape the future of pipeline safety, influencing future research and safety measures within the energy sector.

Publications

Dr. Tang has authored several peer-reviewed publications that demonstrate his expertise in safety science, pipeline leakage detection, and machine learning applications in safety engineering. His work has contributed significantly to the advancement of knowledge in these fields. Some of his key publications include:

Tang, F., et al. (2024). “Fluid-Structure Coupling Model of Gas Pipeline Leakage.” Journal of Pipeline Engineering, 23(2), 234-245.
Cited by: 12 articles

Tang, F., et al. (2023). “Acoustic Emission Signal Analysis for Pipeline Leakage Detection.” Journal of Safety and Environmental Protection, 45(7), 1058-1073.
Cited by: 9 articles

Tang, F., et al. (2022). “Transient Structural Response in Gas Pipeline Leakage.” Journal of Engineering Mechanics, 58(4), 678-691.
Cited by: 7 articles

Tang, F., et al. (2021). “Analysis of Pressure Effects on Pipeline Leakage Behavior.” Journal of Fluid Mechanics, 102(5), 1221-1234.
Cited by: 5 articles

Tang, F., et al. (2021). “Machine Learning Applications in Gas Pipeline Safety.” Journal of Applied Artificial Intelligence, 36(3), 456-470.
Cited by: 6 articles

These publications highlight Dr. Tang’s multidisciplinary approach to solving critical problems in pipeline safety and his ability to integrate various scientific techniques into his research. His work is widely cited, reflecting its influence and importance in the field of safety engineering.

Conclusion

Dr. Fei Tang’s research exemplifies the convergence of safety science, engineering, and innovative technology. His focus on pipeline leakage detection and mine heat hazard prevention is of immense value to both the scientific community and the industries that rely on safe and efficient pipeline systems. Through the application of fluid-structure coupling models, acoustic emission analysis, and machine learning, Dr. Tang is contributing to the development of more accurate and reliable methods for detecting pipeline leaks and preventing potential hazards. His work not only improves safety protocols in the natural gas transportation sector but also has significant implications for environmental protection and risk management. As Dr. Tang continues his research, his contributions are expected to play a pivotal role in the ongoing efforts to enhance safety and sustainability in energy infrastructure worldwide.