Benkun Tan | Engineering | Best Researcher Award

Benkun Tan | Engineering | Best Researcher Award

Dr Benkun Tan, Hunan University of Arts and Sciences, China

Dr. Benkun Tan is a Ph.D. candidate at Changsha University of Science and Technology, specializing in Civil Engineering. His research focuses on steel-concrete composite structures, with significant contributions including studies on temperature field prediction and fatigue damage analysis. Notable publications include “Temperature Field Prediction of Steel-Concrete Composite Decks” and “Fatigue Crack Propagation in Stud Connectors.” Dr. Tan’s work is published in reputable journals such as Journal of Zhejiang University-SCIENCE A and Sustainability. His innovative approach enhances the understanding of structural integrity and performance. 🌉📚✨

Publication profile

Orcid

Education 

Changsha University of Science and Technology, located in Changsha, China, has been the academic home of a Ph.D. candidate in the School of Civil Engineering since September 1, 2019. This institution is renowned for its comprehensive engineering programs, providing a robust curriculum that integrates theoretical knowledge with practical application. The focus on civil engineering equips students with the skills needed to tackle modern infrastructure challenges. Engaging with experienced faculty and participating in cutting-edge research, the candidate is poised to make significant contributions to the field. 📚🏗️🌍 

Research focus 

Benkun Tan is an emerging researcher in the field of civil engineering, specifically focusing on steel-concrete composite structures. His research encompasses temperature field prediction, multiaxial fatigue damage analysis, and fatigue crack propagation in composite beams and connectors. Tan employs innovative methods, including ensemble algorithms and numerical simulations, to enhance the durability and performance of composite materials in construction. His contributions aim to optimize design and layout for temperature measurement in bridges, thereby improving structural integrity and safety. With a commitment to sustainability, Tan’s work is significant for advancing engineering practices in the built environment. 🔧🏗️📊 

Publication top notes

Temperature field prediction of steel-concrete composite decks using TVFEMD-stacking ensemble algorithm

Multiaxial Fatigue Damage Analysis of Steel–Concrete Composite Beam Based on the Smith–Watson–Topper Parameter

Optimization Method of Temperature Measuring Point Layout for Steel-Concrete Composite Bridge Based on TLS-IPDP

Fatigue Crack Propagation and Life Analysis of Stud Connectors in Steel-Concrete Composite Structures

Numerical Study on Stress Intensity Factors for Stud Connectors of Steel–Concrete Connection

Conclusion 

Dr. Tan’s research portfolio demonstrates consistent contributions to the fields of temperature modeling, fatigue analysis, and lifecycle assessment of steel-concrete composite structures, underscoring his suitability for the Best Researcher Award in civil engineering. His innovative methodologies and practical applications in composite structures align with the award’s focus on impactful and forward-thinking research in the field. 

 

 

Milad Heidari | Engineering | Best Researcher Award

Milad Heidari | Engineering | Best Researcher Award

Dr Milad Heidari, Global college of engineering and technology, Oman

Dr. Milad Heidari appears to be a strong candidate for the Best Researcher Award based on his diverse academic background, professional experience, and significant contributions to mechanical engineering research. Here’s an evaluation:

Publication profile

google scholar

Educational Background and Credentials

Dr. Heidari has an impressive academic portfolio, with advanced degrees in Mechanical Engineering from prestigious institutions like Universiti Sains Malaysia and Universiti Teknologi Malaysia. His fellowships and professional certifications, such as being a Chartered Engineer with IMechE and a Fellow of the Higher Education Academy (FHEA), highlight his continued pursuit of excellence in his field.

Research Contributions

Dr. Heidari has contributed significantly to the study of nanofluids, heat transfer, and renewable energy systems. His publications, such as in International Communications in Heat and Mass Transfer and Physics of Fluids, reflect cutting-edge research in mechanical and energy systems. Key publications, like studies on graphene-based nanofluids and technological advancements in solar energy, show a focus on innovative and sustainable solutions, aligning with modern engineering challenges.

Academic Leadership and Teaching

Dr. Heidari serves as a program leader and quality assurance officer at the Global College of Engineering and Technology in Oman, demonstrating his leadership in academic administration. He has also supervised numerous postgraduate and undergraduate projects, further showcasing his mentorship abilities.

Industry Experience

His experience as a technical manager in the Persian Gulf Lo Lo Company demonstrates practical engineering expertise, particularly in inspection management and quality control.

Conclusion

Dr. Heidari’s combination of academic achievement, research impact, leadership roles, and professional certifications makes him a highly suitable candidate for the Best Researcher Award. His focus on mechanical engineering advancements and sustainability aligns with the award’s objectives of recognizing impactful and forward-thinking research.

Publication top notes

The thermophysical properties and the stability of nanofluids containing carboxyl-functionalized graphene nano-platelets and multi-walled carbon nanotubes

Study of pressure-swirl atomizer with spiral path at design point and outside of design point

Natural convection from the outside surface of an inclined cylinder in pure liquids at low flux

Study of spiral path angle in pressure-swirl atomizer with spiral path

Comparison between Nucleate Pool Boiling Heat Transfer of Graphene Nanoplatelet-and Carbon Nanotube-Based Aqueous Nanofluids

Technological advancements in sustainable and renewable solar energy systems

Design and Simulation of Radial Flow Turbine Impeller and Investigation Thermodynamic Properties of Flow in LE and TE.