Instructor at Gazi University, Turkey.
Dr. Atilla Biyikoglu is a distinguished academic and researcher in the field of mechanical engineering, specializing in energy systems, fuel cells, and thermal sciences. His scholarly journey reflects a commitment to advancing sustainable technologies, with a research portfolio that spans fuel cell models, thermal modeling, refrigeration systems, nanofluids, and energy efficiency in buildings. Over the years, he has published extensively in internationally recognized journals such as the International Journal of Hydrogen Energy and Optics & Laser Technology. Dr. Biyikoglu has also contributed to the practical applications of renewable energy, fuel cell technologies, and energy-efficient designs, shaping both theoretical and applied aspects of the field. His work is characterized by a balance between scientific rigor and industrial relevance, demonstrating his capacity to link research with real-world challenges. Through impactful publications, collaborative projects, and innovative ideas, he has become a recognized figure in sustainable engineering solutions.
Professional Profile
ORCID | Google Scholar
Education
Dr. Atilla Biyikoglu pursued his higher education with a strong focus on mechanical engineering and energy systems, laying the foundation for his career in advanced research and innovation. His academic training provided him with a comprehensive understanding of thermodynamics, energy conversion, and applied mechanics, enabling him to transition seamlessly into specialized areas such as hydrogen energy, fuel cells, and renewable energy technologies. With a deep interest in sustainable engineering solutions, his educational background combined rigorous technical knowledge with multidisciplinary approaches, which later guided his research in energy-efficient building systems, clean energy integration, and advanced modeling techniques. Throughout his studies, Dr. Biyikoglu was actively involved in academic projects that emphasized problem-solving and innovation, skills that continue to define his research career today. His education not only shaped his expertise in mechanical and energy engineering but also instilled in him a vision of bridging science with real-world technological applications.
Experience
Dr. Atilla Biyikoglu has built a strong academic and research career marked by significant contributions to mechanical engineering and energy sciences. His professional journey includes extensive teaching, research supervision, and leadership in collaborative projects. He has contributed to the development of advanced fuel cell technologies, renewable energy systems, and energy-efficient building solutions, often working at the intersection of academia and industry. His experiences extend to publishing high-impact journal articles, presenting at international conferences, and engaging with multidisciplinary teams to address global energy challenges. In addition, Dr. Biyikoglu has demonstrated expertise in simulation, modeling, and optimization of thermal and energy systems, enhancing their performance and sustainability. His collaborative spirit has led to co-authored works with national and international researchers, broadening the scope and impact of his studies. Over the years, he has also been recognized with awards for scientific publication, further underlining the value of his contributions to the academic and engineering community.
Research Focus
Dr. Atilla Biyikoglu’s research focuses on sustainable energy systems, fuel cell technologies, thermal modeling, and energy efficiency in engineering applications. His work covers a wide range of areas, including proton exchange membrane fuel cell models, syngas production through coal gasification, advanced thermal modeling for selective laser melting processes, and optimization of organic Rankine cycle turbines. A key aspect of his research is improving the efficiency and sustainability of energy conversion systems, integrating nanofluids into refrigeration, and developing solutions for heat removal in complex systems. In building sciences, he has investigated optimum insulation thickness using life cycle cost analysis, contributing to sustainable residential construction practices. His research strategy combines modeling, experimental studies, and multi-objective optimization to produce results with both scientific and industrial relevance. By addressing critical issues such as clean energy transition, renewable integration, and energy-efficient design, his research aligns with global sustainability goals and future-oriented energy innovations.
Awards and Honors
Throughout his career, Dr. Atilla Biyikoglu has received several awards and recognitions for his scholarly achievements and contributions to energy systems research. His work has been acknowledged through national scientific publication awards, reflecting the impact and quality of his contributions in leading international journals. These honors underscore his consistent dedication to advancing the field of fuel cells, renewable energy, and mechanical engineering. In addition to his publication awards, he has been involved in research projects supported by funding institutions, highlighting both the academic and practical relevance of his work. His contributions have also been recognized within academic communities, where he has been invited to present his findings and engage in collaborative research initiatives. These accolades not only validate his research excellence but also affirm his leadership in bridging innovative science with engineering applications. His awards and honors collectively establish him as a leading figure in sustainable and renewable energy research.
Publication Top Notes
Title: RETRACTED: Review of proton exchange membrane fuel cell models
Authors: A. Biyikoglu
Summary: A review of proton exchange membrane fuel cell (PEMFC) models, covering theoretical and computational approaches for performance prediction. Later retracted, but an early effort to synthesize PEMFC modeling knowledge.
Title: Development of thermal model for the determination of SLM process parameters
Authors: K. Ökten, A. Biyikoglu
Summary: Proposed a thermal model for optimizing parameters in Selective Laser Melting (SLM), improving heat transfer understanding and material quality in additive manufacturing.
Title: Design and multi-objective optimization of organic Rankine turbine
Authors: M. Erbaş, A. Biyikoglu
Summary: Designed and optimized an organic Rankine cycle turbine, focusing on efficiency and sustainability in power generation.
Title: Determination of optimum insulation thickness by life cycle cost analysis for residential buildings in Turkey
Authors: N. Aydin, A. Biyikoglu
Summary: Identified optimal insulation thickness using life cycle cost analysis to improve energy efficiency in residential buildings.
Title: A parametric study on coal gasification for the production of syngas
Authors: A. Gungor, M. Ozbayoglu, C. Kasnakoglu, A. Biyikoglu, B.Z. Uysal
Summary: Analyzed parameters affecting coal gasification efficiency and syngas composition for cleaner fuel production.
Title: Production of anhydrous borax from borax pentahydrate
Authors: A. Biicoglu, E. Jackson
Summary: Investigated production of anhydrous borax from borax pentahydrate, focusing on process efficiency and product quality.
Title: Enhancing the performance of a vapour compression refrigerator system using R134a with a CuO/CeO2 nano-refrigerant
Authors: H.E. Mohamed, U. Camdali, A. Biyikoglu, M. Aktas
Summary: Improved refrigeration system efficiency by using R134a with CuO/CeO2 nanoparticles as a nano-refrigerant.
Title: Heat removal improvement in an enclosure with electronic components for air conditioning devices
Authors: M.Z. Yilmazoglu, O. Gokalp, A. Biyikoglu
Summary: Proposed enhanced thermal management techniques for better heat removal in electronic enclosures of air conditioning devices.
Title: Historical development, working principles and current status of fuel cells
Authors: A. Biyikoglu
Summary: Reviewed the evolution, principles, and current advancements in fuel cell technology.
Title: Determination of heat transfer coefficient between heated floor and space using ANSI/ASHRAE standard 138 test chamber
Authors: M.F. Evren, A. Ozsunar, A. Biyikoglu, B. Kilkis
Summary: Evaluated heat transfer coefficients in heated floor systems using ASHRAE standard test chamber methodology.