Farzad Habibi | Materials Science | Best Researcher Award Published on 02/08/202504/08/2025 by Cryogenicist Dr. Farzad Habibi | Materials Science | Best Researcher Award Researcher, Sahand University of Technology, Iran Dr. Farzad Habibi is a materials scientist and engineer with an extensive background in joining metallurgy, surface engineering, and materials characterization. He currently serves as CEO of Fara Sakht Karan Azerbaijan Co., while maintaining key research and teaching roles at Sahand University of Technology. With over a decade of academic, industrial, and research experience, Dr. Habibi has contributed significantly to the development of innovative joining technologies and high-performance coatings. His expertise spans thermodynamic simulations, microstructural analysis, and advanced welding methods, positioning him as a leading figure in both academic and industrial materials engineering communities. Professional Profile ORCID | Google Scholar Education Dr. Habibi earned his Ph.D. in Materials Science and Engineering from Sahand University of Technology. His doctoral studies built upon a Master of Science in Welding Metallurgy and a Bachelor of Science degree in Materials Science and Engineering from Tabriz University. He began his academic journey with a High School Diploma in Mathematics and Physics, laying the foundation for his analytical and engineering skills. Experience Dr. Habibi has held diverse roles in academia and industry, reflecting his interdisciplinary proficiency he has been the CEO of Fara Sakht Karan Azerbaijan Co., where he oversees advanced materials solutions for industrial applications. He also serves on the Board of Directors of Sahand Nanolotus Co., and has been a lead researcher at Iran Mavad Co. His academic roles include laboratory assistant at Sahand University’s Advanced Manufacturing Research Center and past teaching assistant positions. He has also worked in quality control and R&D management in automotive and heat treatment industries. Research Focus Dr. Habibi’s research centers on joining metallurgy, including brazing, soldering, and diffusion bonding techniques for dissimilar materials. He is also active in the development of electro-spark deposition (ESD) coatings and investigates the physical metallurgy of phase transformations and thermodynamics. His work extends into archaeometry and the analysis of ancient metallic artifacts. Current projects include the development of HEA coatings, interlayer engineering for tungsten carbide/steel joints, and electro-spark deposition of titanium- and zirconium-based coatings. Awards and Honors Dr. Habibi has received several professional recognitions for his contributions to materials science and engineering. He was honored by the Nano Headquarters for securing research funding and was named Best Reviewer by the Journal of Advanced Joining Processes (Elsevier). He also holds a patent related to the use of electro-spark deposition (ESD) for dissimilar material joining. Additionally, Dr. Habibi has led multiple industrial projects focused on wear-resistant coatings for major manufacturing companies. Publication Top Notes Title: Feasibility of Electrical Discharge Machining (EDM) of AZ31 Lightweight Magnesium Alloy in Dielectric Fluids of Hydrocarbon Oil and Deionized WaterAuthors: Saeed Asghari, Mohammad Reza Shabgard, Maghsoud Shalvandi, S. Abolfazl Roudehchi, Farzad HabibiJournal: International Journal of Lightweight Materials and ManufactureSummary: This research evaluates EDM machining of AZ31 magnesium alloy using hydrocarbon oil and deionized water as dielectric fluids. The study investigates machining efficiency, surface quality, and tool wear to assess the feasibility of EDM for lightweight magnesium alloys. Title: Microstructural Evaluation and Mechanical Properties of WC-6%Co/AISI 1045 Steel Joints Brazed by Copper, Brass, and Ag-based Filler Metals: Selection of the Filler MaterialAuthors: Farzad Habibi, Amir Mostafapour, Karim HeydarpourJournal: Journal of Advanced Joining ProcessesSummary: The article compares copper, brass, and silver-based filler metals in brazing WC-6%Co to AISI 1045 steel. It focuses on microstructural changes and mechanical properties to determine the optimal filler for joint strength and durability. Title: In-situ Formation of Ultra-hard Titanium-based Composite Coatings on Carbon Steel through Electro-Spark Deposition in Different Gas MediaAuthors: Farzad Habibi, Ahad SamadiJournal: Surface and Coatings TechnologySummary: Explores the influence of various gas atmospheres on electro-spark deposition of titanium-based composite coatings on carbon steel. The study examines coating hardness, phase composition, and microstructural characteristics. Title: Microstructural Evolution During Low-temperature Brazing of WC-Co Cemented Carbide to AISI 4140 Steel Using a Silver-based Filler AlloyAuthors: Farzad Habibi, Ahad Samadi, Mohammad NouriJournal: International Journal of Refractory Metals and Hard MaterialsSummary: Investigates the microstructural development and bonding mechanisms in low-temperature brazing of WC-Co cemented carbide to AISI 4140 steel with silver-based filler alloys, aiming to improve joint quality. Title: Interfacial Reactions in Actively Brazed Cu-Al₂O₃ Composites and Copper Using a Newly Developed Cu-Sn-Ag-Ti Filler AlloyAuthors: Farzad Habibi, Ahad SamadiJournal: Science and Technology of Welding and JoiningSummary: This study presents a novel Cu-Sn-Ag-Ti active filler alloy for brazing copper to Cu-Al₂O₃ composites. It examines interfacial reactions, phase formation, and joint integrity to enhance metal-ceramic joining techniques. Conclusion Dr. Farzad Habibi is a dedicated scientist whose multifaceted work in materials science bridges academic theory and industrial application. His innovations in joining technologies and surface engineering, combined with a strong publication record and commitment to education, make him a highly deserving nominee for distinction in materials science and engineering. Through continued research, leadership, and mentorship, Dr. Habibi contributes meaningfully to the advancement of advanced manufacturing and materials characterization in both national and international contexts.
Dr. Farzad Habibi is a materials scientist and engineer with an extensive background in joining metallurgy, surface engineering, and materials characterization. He currently serves as CEO of Fara Sakht Karan Azerbaijan Co., while maintaining key research and teaching roles at Sahand University of Technology. With over a decade of academic, industrial, and research experience, Dr. Habibi has contributed significantly to the development of innovative joining technologies and high-performance coatings. His expertise spans thermodynamic simulations, microstructural analysis, and advanced welding methods, positioning him as a leading figure in both academic and industrial materials engineering communities. Professional Profile ORCID | Google Scholar Education Dr. Habibi earned his Ph.D. in Materials Science and Engineering from Sahand University of Technology. His doctoral studies built upon a Master of Science in Welding Metallurgy and a Bachelor of Science degree in Materials Science and Engineering from Tabriz University. He began his academic journey with a High School Diploma in Mathematics and Physics, laying the foundation for his analytical and engineering skills. Experience Dr. Habibi has held diverse roles in academia and industry, reflecting his interdisciplinary proficiency he has been the CEO of Fara Sakht Karan Azerbaijan Co., where he oversees advanced materials solutions for industrial applications. He also serves on the Board of Directors of Sahand Nanolotus Co., and has been a lead researcher at Iran Mavad Co. His academic roles include laboratory assistant at Sahand University’s Advanced Manufacturing Research Center and past teaching assistant positions. He has also worked in quality control and R&D management in automotive and heat treatment industries. Research Focus Dr. Habibi’s research centers on joining metallurgy, including brazing, soldering, and diffusion bonding techniques for dissimilar materials. He is also active in the development of electro-spark deposition (ESD) coatings and investigates the physical metallurgy of phase transformations and thermodynamics. His work extends into archaeometry and the analysis of ancient metallic artifacts. Current projects include the development of HEA coatings, interlayer engineering for tungsten carbide/steel joints, and electro-spark deposition of titanium- and zirconium-based coatings. Awards and Honors Dr. Habibi has received several professional recognitions for his contributions to materials science and engineering. He was honored by the Nano Headquarters for securing research funding and was named Best Reviewer by the Journal of Advanced Joining Processes (Elsevier). He also holds a patent related to the use of electro-spark deposition (ESD) for dissimilar material joining. Additionally, Dr. Habibi has led multiple industrial projects focused on wear-resistant coatings for major manufacturing companies. Publication Top Notes Title: Feasibility of Electrical Discharge Machining (EDM) of AZ31 Lightweight Magnesium Alloy in Dielectric Fluids of Hydrocarbon Oil and Deionized WaterAuthors: Saeed Asghari, Mohammad Reza Shabgard, Maghsoud Shalvandi, S. Abolfazl Roudehchi, Farzad HabibiJournal: International Journal of Lightweight Materials and ManufactureSummary: This research evaluates EDM machining of AZ31 magnesium alloy using hydrocarbon oil and deionized water as dielectric fluids. The study investigates machining efficiency, surface quality, and tool wear to assess the feasibility of EDM for lightweight magnesium alloys. Title: Microstructural Evaluation and Mechanical Properties of WC-6%Co/AISI 1045 Steel Joints Brazed by Copper, Brass, and Ag-based Filler Metals: Selection of the Filler MaterialAuthors: Farzad Habibi, Amir Mostafapour, Karim HeydarpourJournal: Journal of Advanced Joining ProcessesSummary: The article compares copper, brass, and silver-based filler metals in brazing WC-6%Co to AISI 1045 steel. It focuses on microstructural changes and mechanical properties to determine the optimal filler for joint strength and durability. Title: In-situ Formation of Ultra-hard Titanium-based Composite Coatings on Carbon Steel through Electro-Spark Deposition in Different Gas MediaAuthors: Farzad Habibi, Ahad SamadiJournal: Surface and Coatings TechnologySummary: Explores the influence of various gas atmospheres on electro-spark deposition of titanium-based composite coatings on carbon steel. The study examines coating hardness, phase composition, and microstructural characteristics. Title: Microstructural Evolution During Low-temperature Brazing of WC-Co Cemented Carbide to AISI 4140 Steel Using a Silver-based Filler AlloyAuthors: Farzad Habibi, Ahad Samadi, Mohammad NouriJournal: International Journal of Refractory Metals and Hard MaterialsSummary: Investigates the microstructural development and bonding mechanisms in low-temperature brazing of WC-Co cemented carbide to AISI 4140 steel with silver-based filler alloys, aiming to improve joint quality. Title: Interfacial Reactions in Actively Brazed Cu-Al₂O₃ Composites and Copper Using a Newly Developed Cu-Sn-Ag-Ti Filler AlloyAuthors: Farzad Habibi, Ahad SamadiJournal: Science and Technology of Welding and JoiningSummary: This study presents a novel Cu-Sn-Ag-Ti active filler alloy for brazing copper to Cu-Al₂O₃ composites. It examines interfacial reactions, phase formation, and joint integrity to enhance metal-ceramic joining techniques. Conclusion Dr. Farzad Habibi is a dedicated scientist whose multifaceted work in materials science bridges academic theory and industrial application. His innovations in joining technologies and surface engineering, combined with a strong publication record and commitment to education, make him a highly deserving nominee for distinction in materials science and engineering. Through continued research, leadership, and mentorship, Dr. Habibi contributes meaningfully to the advancement of advanced manufacturing and materials characterization in both national and international contexts.