PD researcher, Japan Advanced Institute of Science and Technology, Japan.
Dr. Mostafa Khoshsefat is an accomplished research scientist specializing in polymerization catalysis and materials science. Born in 1991, he currently serves as a postdoctoral researcher at the Japan Advanced Institute of Science and Technology (JAIST), contributing to advanced catalyst development for olefin polymerization. With a strong foundation in polymer engineering and chemistry, Dr. Khoshsefat has cultivated over a decade of research experience spanning academic and industrial settings across Iran, China, Canada, and Japan. His work focuses on Ziegler-Natta and late-transition metal catalysts, polyolefins, and high-throughput experimentation combined with machine learning. He is widely published, with over 20 peer-reviewed journal articles and a significant citation record. Driven by a passion for innovation, he has collaborated with top-tier international researchers and received multiple fellowships and awards for academic excellence. Fluent in English and Persian, Dr. Khoshsefat represents a new generation of cross-disciplinary scientists shaping the future of polymer science.
Profile
Education
Dr. Khoshsefat holds a Ph.D. in Polymer Engineering from Iran Polymer and Petrochemical Institute (IPPI), in collaboration with the University of Alberta, Canada, graduating with honors and a GPA of 3.88/4.00. His doctoral thesis focused on the polymerization of ethylene and 1-hexene using a series of mono- and dinuclear Ni- and Fe-based catalysts. Prior to that, he earned an M.Sc. in Polymer Chemistry from Ferdowsi University of Mashhad with a GPA of 3.70/4.00, where he conducted research on late transition metal catalysts for ethylene polymerization. He completed his B.Sc. in Pure Chemistry at the University of Tehran and Ferdowsi University of Mashhad, graduating with a GPA of 3.13/4.00. His educational path reflects a consistent commitment to excellence and a strong grounding in both theoretical and experimental aspects of polymer chemistry and materials science.
Experience
Dr. Khoshsefat’s professional experience spans academia, industry, and international research institutions. Since 2021, he has worked as a full-time postdoctoral researcher at JAIST/DPI, Japan, focusing on Ziegler-Natta catalysts for polypropylene production. From 2019 to 2021, he held another postdoctoral position at the Institute of Chemistry, Chinese Academy of Sciences (ICCAS), studying multinuclear late transition metal (LTM) catalysts. He also contributed to the University of Alberta’s catalyst design team during his Ph.D. program. Between 2015 and 2019, he supervised research at Rayan Polymer Industry in Tehran and held multiple part-time research roles at institutions such as Amirkabir University, Hayan Co., and JPC. His roles have involved catalyst synthesis, polymer characterization, and advanced data-driven experimentation. This diverse and hands-on experience has provided him with both theoretical and applied expertise in polymerization chemistry, making him a valuable contributor to both academic and industrial projects.
Awards and Honors
Dr. Khoshsefat has received numerous prestigious honors throughout his academic and research career. He was awarded the NEO Postdoctoral Fellowship in 2020 and the BMS Junior Fellowship at ICCAS in 2019. He earned the title of National Elite Award Recipient in Iran for three consecutive years (2016–2018) in recognition of his scientific excellence. In 2017, he received a Research Award from the University of Alberta for outstanding academic performance. Both his M.Sc. and Ph.D. degrees were completed with top honors—he graduated first in his M.Sc. class in Polymer Chemistry in 2016. He was awarded full academic scholarships for both his Master’s (FUM, 2013) and Ph.D. (IPPI, 2015) programs. These accolades reflect his dedication, innovation, and sustained contribution to polymer science, particularly in the design and application of advanced polymerization catalysts. His achievements mark him as one of the emerging leaders in his field.
Research Focus
Dr. Mostafa Khoshsefat’s research centers on the design and development of catalysts for olefin polymerization, particularly Ziegler-Natta and late transition metal (Ni, Fe, Co)-based systems. His work explores the mechanisms behind mono- and dinuclear catalyst systems and their ability to control polymer microstructure, branching, crystallinity, and molecular weight distribution. He integrates experimental synthesis with computational modeling and high-throughput techniques, enhancing catalyst screening and development. More recently, his research has involved applying machine learning for catalyst optimization. His polymer targets include polyethylene, polypropylene, and copolymers with tailored mechanical, thermal, and morphological properties. He also investigates nanocomposites and polymer functionalization strategies for advanced material applications. His interdisciplinary approach bridges organometallic chemistry, data science, and polymer engineering. Through his international collaborations and innovative techniques, Dr. Khoshsefat is contributing to the next generation of sustainable and high-performance polymeric materials.
Publication Top Notes
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“Data Driven Modeling of Ziegler–Natta Polypropylene Catalysts: Revisiting the Role of the Internal Donor” (2025)
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This study focuses on improving Ziegler–Natta catalysts used for polypropylene polymerization by employing a data-driven approach. The paper revisits the role of internal donors, which are critical in controlling the polymerization process and the structure of polypropylene. It provides new insights into how the design of internal donors can impact catalyst activity and polymer properties.
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“End-to-end high-throughput approach for data-driven internal donor development in heterogeneous Ziegler–Natta propylene polymerization” (2024)
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The authors introduce a high-throughput, end-to-end methodology for developing internal donors in Ziegler–Natta catalysts used in propylene polymerization. This approach accelerates the discovery of more efficient and effective catalysts by automating the screening and optimization process, thus improving polymerization outcomes.
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“Ethylene/α-olefin homo-and copolymerization using a dinuclear catalyst of nickel” (2024)
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This paper explores the use of dinuclear nickel catalysts in the homo- and copolymerization of ethylene with α-olefins. The research highlights the versatility of dinuclear nickel catalysts, showing how they can be fine-tuned to produce various polymer structures with different molecular weights and properties, making them promising for advanced polymer production.
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“Parallel Catalyst Synthesis Protocol for Accelerating Heterogeneous Olefin Polymerization Research” (2023)
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This publication presents a protocol for parallel synthesis of catalysts, which is designed to accelerate the research and development of catalysts for heterogeneous olefin polymerization. By enabling the simultaneous synthesis and testing of multiple catalysts, this protocol helps researchers explore a wide range of catalytic systems and optimize them more efficiently.
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“From tetramerization to oligomerization/polymerization of ethylene by dinuclear pyridyl‐imine Co‐and Ni‐based catalysts” (2023)
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The study investigates the performance of dinuclear Co- and Ni-based catalysts in ethylene tetramerization, oligomerization, and polymerization. These catalysts are shown to exhibit versatile activity across these processes, producing a range of polymer and oligomer products with different chain lengths and architectures, which could be valuable for specialized applications.
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“Functionalization of Poly (1‐hexene) with Maleic Anhydride: The Effect of Reaction Parameters” (2023)
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This paper explores how reaction parameters, such as temperature and time, affect the functionalization of poly(1-hexene) with maleic anhydride. The authors demonstrate that these parameters play a significant role in controlling the degree of functionalization and the thermal, mechanical, and chemical properties of the modified polymer, which is crucial for applications like grafting and crosslinking.
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“Multinuclear late transition metal catalysts for olefin polymerization” (2021)
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This review discusses the development of multinuclear late transition metal catalysts, particularly for olefin polymerization. The authors focus on the advantages of using multinuclear systems, such as enhanced catalyst activity, selectivity, and stability, and their ability to produce polymers with tailored properties, making them an important class of catalysts for the industrial polymerization of olefins.
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“Microstructural study on MMA/1‐hexene copolymers made by mononuclear and dinuclear α‐diimine nickel (II) catalysts” (2021)
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The paper examines the microstructure of MMA/1-hexene copolymers synthesized using mononuclear and dinuclear α-diimine nickel(II) catalysts. By comparing the two types of catalysts, the study provides insights into how catalyst architecture affects the polymer’s molecular weight distribution, branching, and crystallinity, which are key factors in determining the polymer’s physical properties.
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“Zn‐assisted cooperative effect for copolymers made by heterodinuclear Fe− Ni catalyst” (2020)
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This paper discusses the cooperative effect between zinc and heterodinuclear Fe-Ni catalysts in the copolymerization of olefins. The authors demonstrate that the addition of zinc enhances catalyst performance, resulting in copolymers with unique properties, such as improved chain length control and better mechanical performance, providing a new direction for designing advanced catalysts.
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“Topological and Electronic Properties of Chlorine-Substituents on the α-Diimine Ni-based Catalysts” (2020)
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The study investigates the impact of chlorine substituents on the α-diimine nickel catalysts, focusing on how these substituents influence the electronic and topological properties of the catalysts. The results suggest that chlorine substitution can fine-tune catalyst reactivity and selectivity, enabling better control over polymerization processes.
Conclusion
Dr. Mostafa Khoshsefat is a highly accomplished and internationally active polymer researcher with strong publication metrics, impactful contributions to catalyst and polyolefin research, and a solid academic foundation. While there is room for further leadership and outreach development, his research productivity, originality, and interdisciplinary expertise make him a compelling and deserving candidate for a Best Researcher Award.