Prof. Dr. Yuh-Ming Ferng | Nuclear Engineering | Best Researcher Award

Professor at Department of Engineering and System Science, Taiwan

Dr. Yuh-Ming Ferng 📘 is a distinguished scholar and seasoned expert in the realm of nuclear engineering, serving as a Professor at National Tsing Hua University (NTHU), Taiwan 🇹🇼. With an illustrious career that spans decades, his expertise envelops diverse themes like nuclear safety, two-phase flow simulation, CFD modeling, and more 🚀. Holding a Ph.D. in Nuclear Engineering from NTHU, his academic foundation is as solid as his scientific contributions 🧠. From simulating fire combustion scenarios to optimizing wind turbine designs 🌪️, Dr. Ferng’s research transcends traditional boundaries. He has climbed the academic ranks, from researcher to professor, backed by a commitment to energy innovation and system safety ⚛️. His extensive knowledge, paired with a relentless curiosity, positions him as a guiding force in nuclear science. Dr. Ferng’s work not only contributes to academic excellence but also to public safety and sustainable energy futures 🌍.

Professional Profile 

• Scopus Profile
• ORCID Profile

🎓 Education

Dr. Ferng’s academic journey began and flourished at National Tsing Hua University (NTHU) 🎓, where he earned both his B.S. and Ph.D. in Nuclear Engineering 📐. Between 1982 and 1990, he immersed himself in the foundational and advanced mechanics of nuclear systems, solidifying his technical prowess. His doctoral thesis, guided by Professors C.C. Chieng and C. Pan, explored the “Numerical Simulation of Rewetting Process” 🔬 — a topic pivotal to thermal-hydraulic safety in reactors. His commitment to theoretical depth and practical relevance was evident early on. This dual-degree trajectory at a premier institution cultivated his analytical thinking, experimental finesse, and numerical skills. His scholarly focus on complex heat transfer phenomena, fluid dynamics, and system modeling laid the groundwork for his future contributions across interdisciplinary energy research fields. With education as his launchpad, Dr. Ferng emerged well-equipped to tackle intricate engineering challenges with academic rigor and scientific creativity 📊.

🧑‍🔬 Professional Experience

Dr. Yuh-Ming Ferng’s career is a rich mosaic of academic, governmental, and research roles spanning over three decades ⏳. Beginning in 1990 at the Institute of Nuclear Energy Research as an Associate Scientist, he dedicated over a decade to nuclear power advancements. Transitioning to NTHU in 2005, he served as a Senior Researcher before becoming Assistant Professor in 2008, Associate Professor in 2010, and ultimately Professor in 2017 👨‍🏫. His trajectory reflects consistent excellence, marked by groundbreaking research in system simulation, fire dynamics, and corrosion modeling 🔥. Whether analyzing severe reactor accidents or refining thermal simulations for hypersonic flows, he has contributed deeply to academic literature and policy-enhancing technologies. Dr. Ferng’s leadership in nuclear safety and CFD research has left a lasting imprint on Taiwan’s energy infrastructure, establishing him as a dependable figure in both scholarly and practical engineering domains 🛠️.

🔬 Research Interests

Dr. Ferng’s research is a multidimensional landscape shaped by curiosity and purpose 🧭. He delves into nuclear reactor safety analysis, boiling heat transfer, and severe accident modeling — all vital to risk mitigation and reactor resilience 🔐. His expertise in CFD turbulence modeling aids in visualizing complex fluid behaviors, while his simulations on fire combustion and hypersonic flows illustrate his adaptive ingenuity 🔥💨. From fuel cell design to wind turbine optimization, his portfolio spans conventional and renewable energy systems 🌬️🔋. He has also made notable strides in understanding steam generator tube degradation and developing erosion-corrosion models for predictive maintenance. Recently, his focus on SMR (Small Modular Reactor) simulations and spent fuel disposal underscores a forward-thinking approach to sustainable nuclear solutions ♻️. Dr. Ferng’s interdisciplinary palette not only bridges theory and application but also shapes energy strategies for future generations 🚀.

🏆 Awards and Honors

Although specific honors are not listed in the current record, Dr. Yuh-Ming Ferng’s elevation through prestigious academic and research positions reflects a career laden with recognition and respect 🏅. His appointments to senior researcher roles and ultimately full professorship at NTHU are a testament to his academic impact, research leadership, and mentoring excellence 🎖️. He has earned the trust of Taiwan’s top scientific institutions through consistent contributions to nuclear safety and energy innovation. His published works and simulation studies likely received acclaim in conferences and scholarly forums, establishing his name among regional and global peers 📚. Recognition often comes not just in plaques or certificates, but in the influence one has in shaping policies, guiding students, and pushing the boundaries of knowledge — and Dr. Ferng’s career exemplifies all three ⭐. His ongoing work continues to earn admiration from academia, industry, and government collaborators alike.

📚 Publications Top Note 

1. Title: Thermal Management Design for the Be Target of an Accelerator-Based Boron Neutron Capture Therapy System Using Numerical Simulations with Boiling Heat Transfer Models

   • Authors: Not listed

   • Year: 2025

   • Citations: 0

   • Source: Processes

   • Summary: Introduces a simulation-based design for cooling a beryllium (Be) target used in neutron therapy systems. It evaluates boiling heat transfer to ensure safe operation under high thermal loads.

2. Title: Development of thermal‑hydraulic coupling model for deep‑geological disposal of high‑level radioactive wastes

   • Authors: Not listed

   • Year: 2024

   • Citations: 1

   • Source: Nuclear Engineering and Design

   • Summary: Proposes a coupled model integrating heat transfer and fluid flow to assess the long-term performance of geological repositories for high-level radioactive waste.

3. Title: Numerical model for noise reduction of small vertical‑axis wind turbines

   • Authors: Not listed

   • Year: 2024

   • Citations: 2

   • Source: Wind Energy Science

   • Summary: Develops and validates a simulation tool aimed at identifying and reducing aerodynamic noise sources in small vertical-axis turbines.

4. Title: Numerical prediction of the aerodynamics and aeroacoustics of a 25 kW horizontal axis wind turbine

   • Authors: Not listed

   • Year: 2024

   • Citations: 1

   • Source: Journal of Mechanics

   • Summary: Simulates airflow and sound emissions for a mid-sized horizontal-axis wind turbine, comparing predicted noise and performance with experimental results.

5. Title: Development of computational methodology in simulating thermal responses of spent fuel in deep geological disposal

   • Authors: Not listed

   • Year: 2023

   • Citations: 2

   • Source: Nuclear Engineering and Design

   • Summary: Introduces a computational framework to model temperature evolution in spent nuclear fuel stored deep underground, accounting for decay heat and rock interactions.

6. Title: Investigating effects of heating orientations on boiling heat transfer and bubble dynamics for pool boiling on downward facing heating surface

   • Authors: Not listed

   • Year: 2023

   • Citations: 1

   • Source: Nuclear Engineering and Design

   • Summary: Experimental and numerical study on how the orientation of a heating surface influences boiling efficiency and bubble behavior when the surface faces downward.

7. Title: Experimental investigation of pool boiling heat transfer and bubble dynamics for the downward facing heating

   • Authors: Not listed

   • Year: 2022

   • Citations: 4

   • Source: Annals of Nuclear Energy

   • Summary: Reports lab experiments measuring boiling heat transfer rates and bubble detachment patterns on downward-facing surfaces.

8. Title: Development of 3‑D numerical methodology to investigate transient characteristics of fuel temperature and hydrated residual water during drying process of dry storage system

   • Authors: Not listed

   • Year: 2022

   • Citations: 0

   • Source: Annals of Nuclear Energy

   • Summary: Presents a 3D transient model simulating temperature changes and moisture behavior in spent fuel canisters during drying operations before storage.

9. Title: Localization and size estimation for breaks in nuclear power plants

   • Authors: Not listed

   • Year: 2022

   • Citations: 3

   • Source: Nuclear Engineering and Technology

   • Summary: Describes a method to detect the location and size of pipe breaks in nuclear reactors using sensor data and inverse modeling techniques.

10. Title: Experimentally investigating bubble dynamics and pressure drop for bubbly upflow in a vertical annular channel

    • Authors: Not listed

    • Year: 2021

    • Citations: 4

    • Source: Annals of Nuclear Energy

    • Summary: Examines two-phase bubbly flow in vertical channels, measuring pressure losses and bubble behavior—relevant for nuclear reactor cooling systems.

🌟 Conclusion

Dr. Yuh-Ming Ferng stands as a beacon of excellence in nuclear engineering, with a unique ability to blend theoretical insight and practical implementation 🌐. His scholarly rigor, coupled with a vision for sustainable and safe energy, has made him an integral part of Taiwan’s scientific community 🔍. From developing intricate simulation models to training future engineers, his work resonates across disciplines and generations. His influence goes beyond classrooms and labs — it touches policy, public safety, and environmental resilience 🌱. Dr. Ferng’s evolving research on SMRs, fire safety, and spent fuel management showcases his relevance in addressing today’s most pressing energy challenges. In a world navigating energy transitions and climate imperatives, experts like Dr. Ferng are essential guides 🔋. As a professor, mentor, and researcher, his career is both a legacy in the making and a blueprint for innovation-driven engineering 🚀.