Hen Friman | Biotechnology | Best Researcher Award

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Hen Friman | Biotechnology | Best Researcher Award

Dr. Hen Friman, Faculty of Engineering H.I.T – Holon Institute Of Technology, Israel

Dr. Hen Friman 🎓 is a dedicated lecturer at the Holon Institute of Technology (HIT) in Israel, specializing in energy systems and biotechnology. With a Ph.D. in Biology and Life Sciences from Bar-Ilan University 🔬, Dr. Friman has made significant contributions to sustainable energy through bio-fuel cell research. He serves as Head of the Renewable Energy and Smart Grid Excellence Center ⚡ and actively manages national training programs in collaboration with Israel’s Ministry of Energy. His leadership in academic advising, student retention, and ecological projects reflects his commitment to education, innovation, and public service 🌱📘.

Profile :

🎓Education & Experience :

Dr. Hen Friman 🎓 began his academic journey with a B.Sc. in Chemical Engineering and Biotechnology from Ariel University (with honors) in 2004 🧪. He continued with an M.Sc. in Biology and Life Sciences at Bar-Ilan University in 2007 🧬, followed by a Ph.D. in Biology and Life Sciences from the same institution in 2013 🔋. His doctoral research focused on energy generation from aromatic-compound-degrading bacteria using bio-fuel cells, under the guidance of Prof. Yeshayahu Nitzan and Dr. Rivka Cahan 👨‍🏫. Professionally, Dr. Friman joined the Holon Institute of Technology (HIT) in 2012 as a Junior Lecturer 📅 and has served as a Lecturer in the Faculty of Electrical and Electronics Engineering since 2015 🎓. He held the role of Acting Head of the Undergraduate Program in 2022–2023 👨‍🏫 and is currently the Academic Advisor for Student Drop-out Prevention for the 2023–2024 academic year 👨‍🎓.

📚 Professional Development :

Dr. Friman has been deeply involved in advancing energy education and public outreach initiatives in Israel 🌍. He has led national and school-based projects such as “Ecological Garden” 🌻 and “Decentralized Energy” ⚡, promoting sustainability in young minds. As Manager of the “Energy Supervisor” program at HIT, in collaboration with the Ministry of Energy 💼, he trains professionals in renewable technologies. A frequent speaker and advisory board member at international conferences 🗺️, he’s chaired sessions in cities like Amsterdam, Berlin, and Seville, contributing to academic excellence and cross-border collaborations 🌐📊.

🔬 Research Focus :

Dr. Friman’s research bridges biotechnology and energy science 🔬⚡. He focuses on microbial fuel cells, renewable energy, and sustainable power generation using bio-based systems 🌱🔋. His doctoral work on using bacteria to degrade aromatic compounds for electricity generation is a pioneering step in bio-electrochemical energy. As Head of HIT’s Renewable Energy and Smart Grid Excellence Center, he explores decentralized energy systems, smart grids, and clean energy technologies for practical deployment in educational and community settings 🏫🏘️. His multidisciplinary work positions him at the intersection of life sciences, engineering, and energy innovation 🔧💡.

🏆 Awards and Honors :

Dr. Hen Friman has received multiple recognitions for his academic and professional contributions 🏆. He served as a Member of the International Advisory Board for ICERI conferences in 2016 and 2017, and as a Session Chair at the ICBTS 2017 conferences held in Amsterdam and Berlin 🏅. He was also a Member of the Advisory Board for EDULEARN17 📚. In 2017, he contributed as a Research Associate in Prof. Dr. Gabi Drochioiu’s laboratory at Alexandru Ioan Cuza University in Romania 🔬. Domestically, he led impactful sustainability initiatives such as the “Ecological Garden” and “Decentralized Energy” school projects 🌿. Dr. Friman currently heads the Renewable Energy and Smart Grid Center at HIT ⚡ and manages the “Energy Supervisor” program, a national training initiative in collaboration with the Ministry of Energy 🛠️.

Publication Top Notes :

1. Soft Skills Education is Valuable—Perception of Engineering Students

  • Citation:
    Balberg, M., Friman, H., Ragones, H., Baner, I., Shechter, R., & Kurtz, G. (2025). Soft Skills Education is Valuable—Perception of Engineering Students. IEEE Transactions on Education, 68(1), 1–11.

  • Summary:
    This study evaluates the impact of a dedicated soft skills course within an undergraduate electrical engineering program. The course focused on enhancing skills such as teamwork, time management, and communication. Findings indicate that students’ appreciation for soft skills and their confidence in applying them improved significantly post-course, underscoring the importance of integrating soft skills training into engineering curricula.

2. Nurturing Eco-Literate Minds: Unveiling the Pathways to Minimize Ecological Footprint in Early Childhood Education

  • Citation:
    Friman, H., Banner, I., Sitbon, Y., Sahar-Inbar, L., & Shaked, N. (2024). Nurturing Eco-Literate Minds: Unveiling the Pathways to Minimize Ecological Footprint in Early Childhood Education. Social Sciences, 13(4), 187. 

  • Summary:
    This article explores the role of early childhood education in promoting sustainability and reducing ecological footprints. It emphasizes the importance of environmental education in developing critical thinking and pro-environmental behaviors among young learners. The study highlights successful programs like “Green Ambassadors in the Community,” demonstrating the effectiveness of experiential learning in fostering ecological awareness.

3. Shaping the Engineers of Tomorrow: Integrating Renewable Energies and Advanced Technologies in Electrical and Electronics Engineering Education

  • Citation:
    Friman, H. (2024). Shaping the Engineers of Tomorrow: Integrating Renewable Energies and Advanced Technologies in Electrical and Electronics Engineering Education. Energies, 17(16), 4146.

  • Summary:
    This paper discusses the integration of renewable energy technologies and advanced tools into electrical and electronics engineering education. It presents a model for incorporating practical laboratory experiences, such as fuel cell experiments and smart grid simulations, to enhance students’ understanding of sustainable energy systems. The study reports positive feedback from students, indicating increased engagement and comprehension of renewable energy concepts.

4. Experiential Learning for Sustainability: A Catalyst for Global Change

  • Citation:
    Friman, H. (2024). Experiential Learning for Sustainability: A Catalyst for Global Change. Educational Administration: Theory and Practice, 30(2), 45–60.

  • Summary:
    This article examines the impact of experiential learning approaches on promoting sustainability education. It argues that hands-on experiences and real-world problem-solving activities are effective in instilling sustainable values and behaviors in students. The study highlights case studies where experiential learning led to increased environmental awareness and proactive engagement in sustainability initiatives.

5. Reducing Fossil Fuel Consumption by Incorporating Renewable Energy Sources in Wastewater Treatment Processes

  • Citation:
    Friman, H. (2023). Reducing Fossil Fuel Consumption by Incorporating Renewable Energy Sources in Wastewater Treatment Processes. Renewable Energy and Power Quality Journal, 21, 360. 

  • Summary:
    This study explores the integration of renewable energy sources, such as solar and wind power, into wastewater treatment processes to reduce reliance on fossil fuels. It presents a case study demonstrating the feasibility and benefits of using renewable energy in wastewater management, including cost savings and decreased greenhouse gas emissions.

🏁 Conclusion:

Dr. Hen Friman exemplifies the qualities of a Best Researcher Award recipient—combining scientific rigor, technological innovation, and public service. His research in bio-fuel cells and leadership in renewable energy initiatives have made a tangible impact in both academia and national energy policy, making him a truly deserving candidate.

 

Prof. Dr. Ketut Aria Pria Utama | Maritime Engineering | Best Researcher Award

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Ketut Aria Pria Utama | Maritime Engineering | Best Researcher Award

Ketut Aria Pria Utama | Institut Teknologi Sepuluh Nopember | Indonesia

I Ketut Aria Pria Utama is a distinguished Professor of Ship Hydrodynamics at Institut Teknologi Sepuluh Nopember (ITS), Surabaya, Indonesia. With a background in Naval Architecture and Ship Science, he has contributed significantly to maritime engineering, specializing in the resistance, powering, and seakeeping of multihull vessels and submarines. Prof. Utama’s research spans the impact of biofouling on ship energy efficiency and emissions, as well as the development of ocean renewable energy. His dedication to maritime safety and sustainability is reflected in his global collaborations and leadership roles within prestigious institutions like the Royal Institution of Naval Architects (RINA).

Professional profile : 

scopus

orcid

Google scholar

Summary of Suitability :

Prof. I Ketut Aria Pria Utama is a highly distinguished academic and researcher in the field of maritime engineering, particularly in ship hydrodynamics. As a Professor at Institut Teknologi Sepuluh Nopember (ITS), Surabaya, Indonesia, his contributions to the maritime industry are of significant global relevance. Prof. Utama’s expertise covers a wide range of critical topics, including the resistance, powering, and seakeeping of multihull vessels and submarines, as well as the impact of biofouling on ship energy efficiency and emissions. His work not only addresses the practical concerns of ship performance but also explores innovative solutions to maritime sustainability.

Education : 

  • Bachelor’s degree in Naval Architecture (1991) – Institut Teknologi Sepuluh Nopember (ITS), Surabaya, Indonesia 📚🎓

  • Master’s degree in Maritime Engineering Science (1996) – University of Southampton, UK 🎓🌍

  • Ph.D. in Ship Science (1999) – University of Southampton, UK 🎓🏆

Research Focus :

Prof. Utama’s research focuses on maritime engineering and sustainability. His key areas include:

  • Resistance, powering, and seakeeping of multihull vessels and submarines ⚓

  • Impact of biofouling on ship hulls, energy efficiency, and emissions 🌱💨

  • Passenger safety, seafarer protection, and fisher safety in the context of COVID-19 ⛴️🦠

  • Development of ocean renewable energy, specifically VAOCT and FSF ⚡🌊

Professional Development :

Prof. Utama is deeply committed to the progression of maritime engineering through professional engagement and research. He has served as:

  • Hon. Secretary and Fellow Council Member of the Royal Institution of Naval Architects (RINA) since 2005 🎖️

  • Vice President of RINA Asia since 2019 🌏

  • A National Consultant for the MO Glofouling Project in Indonesia (2021-2025) 📈 He has led several significant international research collaborations and worked extensively on projects related to renewable energy and ship efficiency 🔋⚙️

Awards and Honors:

  • Distinction Medal Award, RINA (2015) 🏅

  • Certificate of Appreciation, RINA (2015) 📜

  • Wira Adhi Acharya Award, ITS (2018) 🏆

  • RINA – Lloyd Register Maritime Safety Award (2023) 🏅

  • Certificate of Appreciation, SONAME, Philippines (2018) 🏅

Publication Top Notes :

1. “Calm water powering predictions for high-speed catamarans”

  • Authors: PR Couser, AF Molland, NA Armstrong, I Utama

  • Published in: Proceedings of International Conference on Fast Sea Transportation, 1997

  • Citations: 96

  • Summary: This paper investigates the power prediction for high-speed catamarans in calm water conditions. The study offers insights into the performance predictions of high-speed catamaran vessels, focusing on their resistance and power requirements in calm water, which is crucial for design and operational efficiency in maritime transportation.

2. “Reducing ship emissions: a review of potential practical improvements in the propulsive efficiency of future ships”

  • Authors: AF Molland, SR Turnock, DA Hudson, I Utama

  • Published in: International Journal of Maritime Engineering, 156 (A2), 2014

  • Citations: 76

  • Summary: This review paper discusses various methods to reduce emissions from ships by improving their propulsive efficiency. The authors explore innovations and technologies that could lead to more energy-efficient propulsion systems, thereby minimizing the environmental impact of shipping. The study also examines the integration of these methods into future ship designs for a sustainable maritime industry.

3. “An investigation into the resistance components of converting a traditional monohull fishing vessel into catamaran form”

  • Authors: S Samuel, M Iqbal, I Utama

  • Published in: International Journal of Technology, 6 (3), 432-441, 2015

  • Citations: 68

  • Summary: This paper presents an investigation into the hydrodynamic resistance components involved in the conversion of a traditional monohull fishing vessel into a catamaran form. The research explores the benefits and challenges of such a conversion, including performance improvements in terms of fuel efficiency and stability. The study highlights the effects on resistance components and provides valuable insights for the maritime industry in vessel design.

4. “Investigation of fuel consumption on an operating ship due to biofouling growth and quality of anti-fouling coating”

  • Authors: ML Hakim, B Nugroho, MN Nurrohman, IK Suastika, I Utama

  • Published in: IOP Conference Series: Earth and Environmental Science, 339 (1), 012037, 2019

  • Citations: 60

  • Summary: This study investigates how biofouling growth affects fuel consumption on operating ships and the role of anti-fouling coatings in mitigating this issue. The authors conduct a comprehensive analysis of biofouling’s impact on the fuel efficiency of ships and the effectiveness of various anti-fouling coatings. The research provides practical insights for improving fuel consumption and reducing operational costs in the maritime industry.

5. “The influence of time step setting on the CFD simulation result of vertical axis tidal current turbine”

  • Authors: D Satrio, IKAP Utama

  • Published in: Journal of Mechanical Engineering and Sciences, 12 (1), 3399, 2018

  • Citations: 60

  • Summary: This paper investigates the influence of time step settings on the results of computational fluid dynamics (CFD) simulations for vertical axis tidal current turbines. The authors examine how different time step configurations affect the accuracy and reliability of simulation results, which is crucial for the design and optimization of tidal current energy systems. The study emphasizes the importance of selecting the appropriate time step to achieve precise simulation outcomes.

 

Ms. Xiaodong Zhan Zhang | Bonded materials | Best Researcher Award

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Xiaodong Zhan Zhang | Bonded materials | Best Researcher Award

Xiaodong Zhan Zhang | Bonded materials | Best Researcher Award

Xiaodong Zhan Zhang , Changchun University of science and technology , China.

Short Biography :

Prof. Yiquan Li 🎓 is a highly esteemed professor at Changchun University of Science and Technology, China 🇨🇳, specializing in micro-cutting and interface mechanics 🔧🧠. With a strong academic foundation from Zhejiang University and Vanderbilt University, he has dedicated decades to advancing materials science, micro-manufacturing, and engineering mechanics. As a doctoral supervisor 👨‍🏫, he leads national and provincial research projects on friction laws, bonded materials, and thermo-sensitive hydrogels. His extensive publication record in renowned journals underscores his impact in the field 📚🌍. Prof. Li continues to mentor young researchers while driving innovation in material interface dynamics and microscale mechanics ⚙️🔬.

Professional profile :

scopus

Suitability for the Award

  • Pioneering Research: Prof. Li has led multiple national and provincial research projects addressing complex challenges in friction laws, bonded material behavior, and thermo-sensitive hydrogels—areas that have broad industrial and scientific relevance.

  • Innovative Impact: His research in material interface dynamics and microscale mechanics not only advances fundamental understanding but also translates into practical applications in micro-manufacturing and engineering mechanics.

  • Scholarly Excellence: With a robust publication record in top-tier international journals, his work has been widely cited, reflecting both depth and impact.

  • Mentorship: As a doctoral supervisor, he is shaping the next generation of engineers and scientists, further multiplying his influence in academia and industry.

📘Education & Experience :

  • 🎓 B.Sc. in Mechanics – Zhejiang University, 1988–1992

  • 🎓 M.Sc. in Civil Engineering – Vanderbilt University, USA, 2003

  • 👨‍🏫 Professor & Doctoral Supervisor – Changchun University of Science and Technology

  • 🔬 Led multiple national defense research projects and provincial-level science grants

  • 📚 Published extensively in mechanics, material science, and micro-cutting journals

  • 🧪 Directed research on micro friction, bonded materials, and interface mechanics

Professional Development :

Prof. Yiquan Li has consistently contributed to both theoretical and experimental research in micro-manufacturing and materials mechanics 🛠️🧪. He has led critical scientific projects funded by the Jilin Provincial Science and Technology Department and national defense institutions 🇨🇳. His focus on interface behavior and elastoplastic stress analysis in micro-environments has shaped the academic dialogue around microscale precision machining and cutting mechanics 📏🔬. He actively mentors Ph.D. students 👨‍🎓👩‍🎓, collaborates across disciplines, and explores innovations in smart materials, thin-film mechanics, and phase transition dynamics. Prof. Li remains committed to bridging academic knowledge with advanced engineering applications 🚀📘.

Research Focus :

Prof. Li’s research revolves around micro-cutting mechanics, bonded materials, and interface dynamics ⚙️🧠. His work delves deep into the mechanical behavior of thin films, friction at micro-scales, and fundamental solutions in complex material systems 🔍📐. He also explores thermo-sensitive hydrogel kinetics and stress field analysis in multilayered structures 🌡️🧪. His interdisciplinary approach incorporates solid mechanics, materials science, and engineering applications across defense and microfabrication domains 💡🔧. Through publications and projects, he has contributed to advancing the knowledge and practical applications of microscale processing, material stress responses, and interface interaction dynamics 🌐🔬.

🏅 Awards & Honors :

  • 🏆 Director of Jilin Provincial Science and Technology Project (2007–2009) – Research on micro friction

  • 🎖️ Key Contributor – National Defense Basic Research (2008–2010)

  • 🧩 Lead Researcher – Eleventh Five-Year Weapons Pre-research Support Fund (2007–2009)

  • 📜 Extensive Publications – Top journals in mechanics and material sciences

  • 🧑‍🏫 Doctoral Supervisor – Renowned for mentoring and academic leadership

Publication top notes : 

Prediction of microgroove performance indicators based on BP neural network in micro-EDM

Conclusion :

Prof. Yiquan Li’s groundbreaking work, leadership in high-impact research, and commitment to scientific excellence make him an outstanding candidate for the Best Researcher Award. His interdisciplinary expertise and innovative contributions continue to push the frontiers of materials science and microengineering, affirming his place among the most influential researchers in his field.

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