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Dr. Sungjin Kim is an Assistant Professor in the Department of Chemical and Biological Engineering at The University of New Mexico (UNM). He earned his Ph.D. in Materials Science and Engineering from MIT (2020) as a Samsung Scholarship Fellow, with prior degrees from KAIST (M.S. 2011, B.S. 2009) and exchange experience at Georgia Tech (2008). His research focuses on bioinspired, energy-efficient materials design for sustainability and healthcare. Education: Ph.D., MIT (2020) M.S. and B.S., KAIST (2011, 2009) Exchange Student, Georgia Tech (2008) Research Interests: Dynamic crosslinking in polymers, bioinspired mineralization for CO2 utilization and hard-tissue engineering, vitrimers for recyclable composites, and sustainable additive manufacturing. His work bridges fundamental chemistry (e.g., metal-coordinate bonds) and applied engineering (e.g., 3D printing). Notable Publications (2025-2022): Explore polyisocyanurate foams, dynamic vitrimer composites, and bioinspired mineralization strategies. Common themes include sustainable materials, dynamic bonding, and hybrid organic-inorganic systems. Awards: Samsung Scholarship Fellow (2014-2019) Government Scholarship (Korea, 2009-2011) Research Report of the Year Award (2012, SKC Co., Ltd.) Outstanding New Researcher Award (2011, SKC Co., Ltd.) Students: Advisees include graduate students Leila Shahriari and Michael Nelwood, and undergraduates Tyrus Antonson and Jacqueline Buenviaje. Former members include Catherine Biju (M.S. candidate) and Lillian Elam (undergraduate).

• Polymer Science
• Dynamic Crosslinking
• Bioinspired Mineralization
• +7 more

Bradley D. Olsen is a full professor in the Department of Chemical Engineering at the Massachusetts Institute of Technology (MIT), where he leads research at the intersection of polymer science, soft matter physics, and bioengineering. His work focuses on designing materials for critical applications in biotechnology, hemostasis, and sustainable polymer development while advancing fundamental understanding of polymer network mechanics and self-assembly. Education: Ph.D. in Chemical Engineering, University of California Berkeley (2007) S.B. in Chemical Engineering, Massachusetts Institute of Technology (2003) Olsen's research spans protein-based materials, block copolymer phase behavior, and mechanochemical hydrogels. He has pioneered methods for quantifying polymer network topology, developing hemostatic nanoparticles, and creating bio-inspired materials for selective biomolecular transport and medical applications. His recent publications emphasize data-driven approaches to polymer characterization and educational outreach in materials science. Scientific Awards: American Physical Society (APS) Fellow (2023) Fulbright Amazonia Scholar (2023) Alexander and I. Michael Kasser Chair in Chemical Engineering (2021) ACS Macro Letters Young Investigator Award (2021) MIT Committed to Caring Honor (2019) AIChE Owens Corning Early Career Award (2019) APS Dillon Medal (2018) Kavli Emerging Leader in Chemistry (2017) ACS Polymer Division Fellow (2016) Camille Dreyfus-Teacher Scholar (2015) Alfred P. Sloan Research Fellow (2014) NSF Career Grant (2013) NIH Postdoctoral Fellowship (2008-2009) Hertz Fellow (2003-2007) Barry M. Goldwater Scholarship (2002) Olsen has received significant grant support including NSF Career (2013) and AFOSR (2012) awards. His teaching activities include innovative international outreach like the 2025 soccer-themed science camp in Brazil. The Olsen Group at MIT explores advanced materials with applications ranging from trauma care to sustainable polymers.

• Polymer Science
• Materials Engineering
• Soft Condensed Matter Physics
• +4 more

Dr. Samir H. Mushrif is a Professor in the Department of Chemical and Materials Engineering at the University of Alberta . Prior to this role, he served as faculty at the School of Chemical and Biomedical Engineering at Nanyang Technological University (NTU), Singapore . He holds a PhD in Chemical Engineering from McGill University and completed postdoctoral research at the University of Delaware, USA . Education : PhD (Chemical Engineering, McGill University), Postdoc (University of Delaware) His research focuses on computational catalysis , molecular modeling , and reaction engineering for biomass conversion and CO2 reduction . He develops novel catalysts, solvents, and reactor systems using integrated quantum mechanical and classical molecular simulations , synergized with experimental data to enable sustainable energy and chemical production . Recent publications highlight trends in condensed phase chemistry for biomass reactions, machine learning applications in solvent configuration prediction, and mechanistic studies of lignin-carbohydrate complex deconstruction. His work bridges methane activation on metal oxides, hydrodeoxygenation of bio-oil compounds, and polymerization pathways in lignin structures. Scientific Awards include: NSERC Doctoral and Post-doctoral Fellowships Discovery International Award 2017 (Australian Research Council) NANYANG EDUCATION AWARD 2016 (Singapore) SCBE Teaching Excellence Awards (Silver 2015, Gold 2016) Bharat Gaurav (Pride of India) Award 2014 Dr. Mushrif's NSERC Discovery Grant (2018), CFI John R. Evans Leaders Fund Grant (2022), and AcRF Tier-2 Grant (Singapore, 2015) have advanced his work. Current PhD and Master's students include José Carlos Velasco Calderón , Arul Mozhi Devan Padmanathan , and Sagar Bathla , among others. The CARES Lab (Catalysis Research for Sustainability) under his leadership combines ab initio molecular dynamics , machine learning potentials , and Density Functional Theory to design materials for renewable energy . Collaborations span institutions in France , Canada , India , and the UK .

• Computational Catalysis
• Molecular Modeling
• Reaction Engineering
• +7 more

Ovijit Chaudhuri is an Associate Professor of Mechanical Engineering at Stanford University, with a courtesy appointment in Bioengineering. He leads research at the interface of mechanics and biology, focusing on how cellular and extracellular mechanical properties influence biological processes like cancer progression and tissue formation. His work employs advanced tools such as atomic force microscopy and 3D cell culture systems. Education: Ph.D., University of California, Berkeley/San Francisco (Bioengineering, 2009) B.S., University of California, Berkeley (Engineering Physics, 2003) Postdoctoral Fellow, Harvard University (Biomaterials, 2013) Research Interests: His lab explores molecular mechanisms behind cellular mechanics, extracellular matrix dynamics, and how mechanical cues regulate cell behavior. Key areas include cancer metastasis, mechanotransduction, and engineered biomaterials for 3D cell culture. Publications Trends: Recent work emphasizes viscoelastic hydrogels, matrix mechanics in cancer progression, and mechanistic insights into cell migration. Over 50 publications since 2015 highlight interdisciplinary approaches in biomaterials and mechanobiology. Awards: Not explicitly listed in provided materials. Advising & Labs: No specific advisee names listed, but his lab focuses on collaborative projects in mechano-biology. Active in developing biomaterial systems for drug discovery and tissue engineering applications. Labs/Teams: Leads the Chaudhuri Lab at Stanford, which integrates engineering principles with biological systems to address complex disease mechanisms and therapeutic strategies.

• Mechanobiology
• Cellular Mechanics
• Extracellular Matrix
• +5 more

H. Jerry Qi is a Professor in the Department of Mechanical Engineering at the Georgia Institute of Technology. He specializes in finite deformation multiphysics modeling of soft active materials, with a focus on shape memory polymers, 4D printing, and material recycling. His research integrates experimental and computational approaches to advance additive manufacturing technologies. Education: Sc.D., Massachusetts Institute of Technology, 2003 Ph.D., Tsinghua University, China, 1999 B.S., Tsinghua University, China, 1994 Research Interests: Dr. Qi's work spans 4D printing of active materials, mechanics in 3D printing, and sustainable polymer processing. His group develops hybrid printing methods and recyclable thermosetting polymers, collaborating with institutions like SUTD and AFRL. Key areas include smart material design, photomechanical experiments, and finite element modeling. Scientific Awards: ASME Fellow (2015) Woodruff Faculty Fellow (2015) J. T. Oden Faculty Fellowship (2012) NSF Career Award (2007) Advising & Grants: Dr. Qi actively seeks undergraduate, PhD, and postdoc researchers. His projects are funded by NSF, AFOSR, and industry partnerships. He leads a research group focused on advancing active materials and sustainable manufacturing. Labs & Teams: His lab integrates computational modeling, experimental mechanics, and additive manufacturing to create innovative materials and structures for applications in aerospace, biomedical, and environmental engineering.

• Soft Active Materials
• 4D Printing
• 3D Printing Technologies
• +5 more

Christopher Bates is an Associate Professor in the Department of Chemistry & Biochemistry at the University of California, Santa Barbara (UCSB), with a joint appointment in the Division of Chemistry and Biochemistry (DCB). He leads the Bates Research Group, focusing on the design, synthesis, and application of soft materials. His lab develops advanced polymers and copolymers with tailored properties for applications in electronics, energy storage, and sustainable materials. Contact information includes cbates@ucsb.edu and an office in Engineering II Building. Research interests emphasize polymer architecture design, including block copolymers, bottlebrush networks, and degradable materials. Key areas include molecular cross-linking for photovoltaic stability, slide-ring gels for mechanical performance, and physics-informed machine learning for phase identification. The group also explores recyclable materials and sustainable synthesis methods. Recent work highlights advancements in α-lipoic acid-based materials, dynamic covalent networks, and electrochemical degradation strategies. The Bates Lab collaborates on projects such as tunable polyborosiloxane networks and self-healing elastomers. Advising includes Dr. Elizabeth Murphy (PhD 2025). No scientific awards are explicitly listed in the provided texts. The lab’s work is supported by grants such as the NSF CAREER award (2019) for block copolymer research. Labs and teams: The Bates Group operates within the UCSB Materials Department, leveraging interdisciplinary approaches to materials science challenges.

• Polymer Chemistry
• Materials Science
• Soft Materials Design
• +3 more

Ronald G. Larson serves as the George Granger Brown Professor of Chemical Engineering and A. H. White Distinguished University Professor at the University of Michigan's College of Engineering, with additional appointments in Mechanical Engineering and Macromolecular Science & Engineering. His research leadership spans multiple departments within the Chemical Engineering Division, where he directs the Larson Lab focused on fundamental and applied soft matter physics. His research program investigates complex fluids through computational and theoretical frameworks, emphasizing polymer physics, rheology, and molecular simulations. Key thrusts include polymer melt processing, biomembrane dynamics, colloidal systems, and polyelectrolyte coacervation. The group employs advanced techniques like Brownian dynamics, coarse-grained modeling, and multiscale simulation to address challenges ranging from industrial polymer processing to biomedical applications. Recent publications (2023-2025) reveal strong momentum in rheological modeling of complex fluids, with particular emphasis on self-healing materials, wax deposition in pipelines, and crystallization mechanisms. The work bridges fundamental molecular insights with industrial applications, demonstrating consistent high-impact output across polymer science, soft matter physics, and chemical engineering domains. The Larson Lab operates as a collaborative hub within the Chemical Engineering Department, leveraging computational resources to advance understanding of fluid mechanics and material properties. Current projects integrate machine learning with traditional modeling approaches, reflecting the group's commitment to methodological innovation while maintaining strong connections to experimental validation and real-world engineering problems.

• Complex Fluids
• Fluid Mechanics
• Polymer Physics
• +6 more

Christopher Evans is an Associate Professor in the Department of Materials Science and Engineering at the University of Illinois, affiliated with the Materials Research Lab. His research focuses on polymer chemistry and materials science, particularly dynamic covalent bonds, ionic liquids, and polymer networks. He has received notable awards including the 3M Non-Tenured Faculty Award (2020) and NSF CAREER Award (2018). His work explores topics like ion transport in block copolymers, dynamic network viscoelasticity, and solid electrolyte conductivity improvements through helical peptide structures. Recent studies include investigations into penetrant diffusion, crosslink density effects, and thermal conductivity in vitrimers. Evans collaborates widely, addressing challenges in recyclable materials, energy storage, and polymer morphology.

• Polymer Chemistry
• Materials Science
• Ionic Liquids
• +3 more

Michael Rubinstein is the Aleksandar S. Vesic Distinguished Professor in the Thomas Lord Department of Mechanical Engineering and Materials Science at Duke University. He also holds professorships in Physics, Biomedical Engineering, and Chemistry. His research spans polymer theory, computer simulations, and the application of these principles to biological systems, particularly mucus biophysics. Dr. Rubinstein earned his Ph.D. from Harvard University in 1983. His educational background in polymer physics has formed the foundation for his extensive research career spanning several decades. Dr. Rubinstein's research focuses on developing simple physical models of soft matter and biological systems ranging from polymeric elastomers and gels to extracellular matrix and mucus in human lungs. His work encompasses several key areas: Mucus Research: Investigating airway surface layer properties and their relationship to respiratory diseases like cystic fibrosis Polymer Entanglements: Studying the dynamics of entangled polymers including ring-linear blends and bottle-brush polymers Reversible Networks: Developing theories for interpenetrating elastomers and gels with both permanent and reversible components Charged Polymers: Extending scaling theory to describe complexes of oppositely charged polymers Analysis of Dr. Rubinstein's recent publications (2023-2025) reveals a strong focus on advanced polymer systems with applications in biomedicine and materials science. His work bridges fundamental polymer physics with practical applications, particularly in understanding mucus biophysics for respiratory diseases and developing novel polymer networks with self-strengthening and adaptive properties. Key themes include chromatin organization, hydrogel mechanics, fracture behavior in polymer networks, and topological constraints in ring polymers. Dr. Rubinstein has received several notable awards including the Nelson W. Taylor Award from Penn State University (2022), a University Distinguished Professorship from Duke University (2020), and recognition from the Royal Society of Chemistry (2019). Dr. Rubinstein leads an active research group (the Rubinstein Lab) that extensively collaborates with experimental, computational, and theoretical groups at Duke and worldwide. His lab combines theoretical modeling, computer simulations, and experimental validation to advance understanding of soft matter systems. While specific grant information isn't detailed in the provided text, his numerous high-impact publications suggest substantial research funding supporting his work. The Rubinstein Lab focuses on several interconnected research thrusts including mucus biophysics, self-assembly of amphiphilic systems, reversible networks and gels, polymer entanglements, and charged polymer systems. The lab employs a multi-pronged approach combining theoretical modeling, computer simulations, and experimental collaborations to develop fundamental understanding of soft matter systems with applications to biomedical challenges.

• Polymer Theory
• Computer Simulations
• Polymer Entanglements
• +6 more

Beate Paulus is a Professor for Theoretical Chemistry at the Freie Universität Berlin , affiliated with the Chemistry and Biochemistry college and the Chemistry department. Her research focuses on advanced quantum chemical methodologies and applications to 2D materials, spintronics, and catalysis. Current affiliation: Freie Universität Berlin Key research areas: Quantum Chemistry, Density Functional Theory, 2D Materials, Spintronics, Electrocatalysis Her work spans computational modeling of electronic structures, magnetic properties, and chemical reactions using Density Functional Theory (DFT) with specialized corrections. She investigates systems like MoS2 , graphene heterostructures , and transition metal complexes , aiming to understand and optimize properties for energy applications, biosensors, and nanoelectronics. Recent publications highlight her contributions to quantum mechanical fluorine tunnelling , spin-selective transport in doped nanoribbons , and surface functionalization strategies for 2D materials. Her group also explores mechanically interlocked molecules and redox-responsive polymers with potential biomedical applications. Beate Paulus leads the Paulus Group , which actively publishes in high-impact journals and collaborates on interdisciplinary projects involving experimental and theoretical approaches.

• Quantum Chemistry
• Theoretical Chemistry
• Computational Chemistry
• +8 more

Tom F.A. de Greef is a Full Professor at Eindhoven University of Technology's Biomedical Engineering department, leading pioneering research at the intersection of synthetic biology, molecular computing, and engineered living systems. He founded the Center of Living Technologies and serves as a Core Professor at the Institute for Complex Molecular Systems (ICMS). Key research areas: Biological Computing Devices, DNA-based Data Storage, Engineered Living Materials, Synthetic Cell Engineering, Digital Chemistry, and Protocell Communication. His work has resulted in over 100 publications in Nature , Nature Chemistry , and Nature Nanotechnology , supported by prestigious awards including ERC Consolidator, Starting, and PoC grants, as well as NWO's VICI, VIDI, and VENI grants. He received the Cram-Lehn-Pedersen Prize in 2017 and was named a Groundbreaking TU/e Researcher in 2022. Leadership roles: Founding member of Center of Living Technologies, Principal Investigator at TU/e, and Fellow of the Netherlands Academy of Engineering. He supervises a large research group with >15 PhD students and leads collaborations across international institutions, focusing on programmable molecular systems and sustainable technologies aligned with UN SDGs.

• Synthetic Biology
• Molecular Computing
• Engineered Living Systems
• +4 more

Prof. Dr. Lifeng Chi is a Chair Professor at Soochow University's Institute of Functional Nano & Soft Materials and an Adjunct Professor at the University of Münster. She holds a Hans Fischer Senior Fellowship at the Technical University of Munich Institute for Advanced Study (TUM-IAS) since 2019, where she leads the focus group on 'Molecular assemblies and covalent nanostructures on wide bandgap semiconductor surfaces'. Education B.S. and M.S. from Jilin University, China Ph.D. from University of Göttingen, Germany (1989) Habilitation from University of Münster, Germany (2000) Research Focus Her research spans three core areas: On-Surface Chemical Reactions including selective C-H bond activation and C-C coupling; Molecular Self-Assembly exploring chiral structures and covalent bonding; and Interfacial Engineering developing functional molecular architectures for sensing applications. Her work combines nanoscale fabrication with fundamental surface chemistry to create advanced functional materials. Publication Trends Over 370 publications demonstrate consistent focus on surface molecular phenomena, with recent work (2021-2025) emphasizing catalytic surface reactions, semiconductor interfaces, and molecular electronics. Earlier breakthroughs include alkane polymerization on gold surfaces and chiral network engineering, establishing foundational techniques in surface chemistry. Scientific Awards IUPAC Distinguished Women in Chemistry/Chemical Engineering (2017) ACS Nano Lectureship Award (2016) Molecular Science Frontier Lecture Professorship (2016) Distinguished Innovation Scientist, Jiangsu (2013) Lisa Meitner Scholarship (1997) Leadership & Labs Directs the Institute of Functional Nano & Soft Materials at Soochow University, overseeing research in molecular assembly and surface engineering. At TUM-IAS, collaborates with Prof. Johannes Barth and Prof. Martin Stutzmann on semiconductor surface modifications.

• Supramolecular Chemistry
• Surface Science
• Nanomaterials
• +5 more

Prof. Louis Pitet is an Assistant Professor at Hasselt University in the Department of Chemistry and a member of the Institute for Materials Research (imo-imomec). He leads the AFP research group focused on advanced functional polymers and sustainable materials. Pitet's career began as an independent researcher in 2018 following postdoctoral work at Eindhoven University of Technology and industry experience at DSM. Education: Bachelor's in Chemistry (2005), Colorado School of Mines PhD in Polymer Chemistry (2011), University of Minnesota Research interests center on block copolymer design , hydrogel bioinks , and sustainable polymer upcycling . His work emphasizes functional materials for biomedical applications, energy storage, and environmental solutions. Key innovations include tough hybrid hydrogels, dynamic supramolecular networks, and methods for converting plastic waste into valuable materials. Recent publications highlight advancements in 3D-printable hydrogels, recyclable thermosets, and polyester upcycling strategies. His group actively explores biocompatible materials and smart responsive polymers with tunable mechanical properties. Labs/Teams: AFP Research Group (Hasselt University), Institute for Materials Research (imo-imomec). Collaborates across disciplines to bridge fundamental polymer science with real-world applications in healthcare and sustainability.

• Polymer Chemistry
• Supramolecular Materials
• Hydrogels
• +3 more

Shrayesh Patel is an Associate Professor of Molecular Engineering at the University of Chicago's Pritzker School of Molecular Engineering. He holds a PhD in Chemical Engineering from UC Berkeley and previously conducted postdoctoral research at UC Santa Barbara. His research focuses on functional polymers for energy storage and conversion, particularly batteries and thermoelectrics. Patel employs advanced techniques like synchrotron x-ray scattering to study material properties at molecular scales. Education: B.S./M.S. in Chemical and Biomolecular Engineering, Georgia Tech (2007) PhD in Chemical Engineering, UC Berkeley (2013) Postdoctoral Researcher, UC Santa Barbara Materials Research Laboratory Research Interests: The Patel Group develops functional polymeric materials for energy applications, emphasizing ion transport characterization and redox-active systems. Key areas include: Organic batteries and redox-active particles Thermoelectric materials Liquid crystal polymers Electrochemical thermal energy systems Notable Achievements: 2023 PMSE Early Career Investigator ACS Polymers Au's 2022 Rising Stars in Polymers Advising & Collaborations: Patel mentors over 10 graduate students and postdocs, including co-advised students with Professors Paul Nealey and Seth Darling. His group actively collaborates with Argonne National Laboratory and leverages synchrotron facilities for advanced characterization. Research Infrastructure: The group maintains state-of-the-art labs in the Eckhardt Research Center, focusing on polymer synthesis, electrochemical testing, and advanced microscopy.

• Functional Polymers
• Batteries
• Thermoelectrics
• +3 more

Eric Appel is an Associate Professor of Materials Science and Engineering at Stanford University, with courtesy appointments in Pediatrics (Endocrinology) and Bioengineering. He is also a Senior Fellow at the Woods Institute for the Environment. His research focuses on biomimetic polymeric materials for healthcare solutions, including drug delivery, tissue engineering, and vaccine optimization. He holds a PhD in Chemistry from the University of Cambridge (2012), an MS in Polymer Science from Cal Poly SLO (2008), and a BS in Chemistry from the same institution (2008). His postdoctoral work at MIT with Robert Langer advanced supramolecular biomaterials. Key research interests include injectable hydrogels for sustained drug delivery, anti-inflammatory biomaterials, and immunomodulatory technologies. He has pioneered depot hydrogels that enhance vaccine efficacy and reduce administration frequency. His work bridges polymer chemistry, immunology, and clinical translation, with over 100 publications and 35 patents. Three startups have emerged from his lab, commercializing technologies like ocular drug delivery systems and antimicrobial polymers. Notable awards include the IUPAC Hanwha-Total Young Polymer Scientist Award (2022), Society for Biomaterials Young Investigator Award (2023), and Royal Society of Chemistry’s Biomaterials Science Lectureship (2023). His labs focus on translating biomaterials into clinical applications, with projects addressing diabetes management, wildfire protection via advanced hydrogels, and cancer immunotherapy improvements. He collaborates broadly across engineering, medicine, and environmental science.

• Biomaterials
• Drug Delivery Systems
• Tissue Engineering
• +3 more