Biomolecular solution structures Professors and Supervisors | ApplySharif

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LaShanda T. J. KorleyView profile

Professor

University of DelawareUnited States

LaShanda T. J. Korley is a Distinguished Professor of Engineering at the University of Delaware with joint appointments in Materials Science and Engineering and Chemical & Biomolecular Engineering. She directs the Department of Energy's Center for Plastics Innovation (CPI), co-directs the UD CHARM Materials Research Science and Engineering Center, leads the NSF PIRE project on Bio-inspired Materials and Systems, and serves as Associate Director of the Center for Research in Soft matter & Polymers (CRiSP). Her research program pioneers bio-inspired sustainable materials through a bioeconomy framework, focusing on molecular design of functional polymeric systems including thermoplastics, networks, composites, and gels. Core interests span plastics deconstruction/upgrading, sustainable materials development, and novel fiber/composite manufacturing, with emphasis on lignin-derivable polymers and peptide-polymer hybrids for circular polymer solutions. Recent publications (2024-2025) reveal intense focus on polymer upcycling through advanced depolymerization techniques for polyurethanes, polystyrene, and polyethylene. Her group innovates across catalytic conversion, enzymatic deconstruction, vitrimer chemistry, and bio-hybrid hydrogels, demonstrating interdisciplinary approaches to transform plastic waste into high-value materials while addressing performance-sustainability tradeoffs. Scientific Awards 2023 ACS Fellow 2023 RSC Fellow 2023 AIChE Fellow 2023 ACS POLY Fellow 2023 U.S. Science Envoy 2022 AIChE MAC William W. Grimes Award for Excellence in Chemical Engineering 2022 APS Fellow 2022 ACS PMSE Fellow 2021 AIChE MAC Gerry Lessells Award 2021 Chemical and Engineering News Black Trailblazer 2020 AIMBE Fellow 2019 NOBCChE Lloyd N. Ferguson Young Scientist Award Korley secures major federal funding to advance sustainable polymer science, including DOE support for catalytic plastic waste deconstruction and NSF backing for international bio-inspired materials research. Her grants portfolio drives interdisciplinary collaboration across chemistry, engineering, and environmental science to develop circular economy solutions. She mentors a dynamic research group training next-generation scientists in advanced materials characterization and sustainable design principles. Her laboratories at the University of Delaware integrate molecular synthesis, catalytic testing, and advanced characterization to develop next-generation polymer systems. The research environment emphasizes cross-disciplinary teamwork between chemists, materials scientists, and engineers to tackle plastics sustainability challenges through fundamental molecular design and scalable process innovation.

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Tom F.A. de GreefView profile

Professor

Eindhoven University of TechnologyNetherlands

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.

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Christos LikosView profile

Professor

University of ViennaAustria

Univ.-Prof. Christos N. Likos is a world-leading researcher at the University of Vienna , holding the chair in Multiscale Computational Physics since 2010. Affiliated with the Faculty of Physics and directing the Computational and Soft Matter Physics group, he bridges scales from microscopic to macroscopic in soft matter systems. Education: Dipl.-Ing. in Electrical Engineering (NTUA Athens), M.Sc. & Ph.D. in Physics (Cornell University) Honors: Fellow of the Royal Society of Chemistry (2013), University of Vienna Teaching Award (2025), Outstanding Referee Award (2009) His research in Soft Condensed Matter focuses on polymers, colloids, and biomolecular systems through coarse-graining , density functional theory , and Monte Carlo simulations . Key collaborations include institutions in Rome, Heraklion, San Sebastian, and Princeton. His work reveals principles of self-organization, non-equilibrium phenomena, and responsive material design with applications in cosmetics, nanotechnology, and biophysics. Recent publications highlight active matter , topological polymers , and electric field-responsive microgels . The group trains 18 current students (Ph.D., M.Sc., B.Sc.) and maintains partnerships with experimental teams across Europe. As Associate Editor of Soft Matter and member of Journal of Colloid and Interface Science Open editorial board, he shapes scientific discourse in his field. Teaching excellence is a hallmark, with courses on Advanced Statistical Physics and Soft Matter Principles . His group website details ongoing projects, while lab facilities in Vienna's Kolingasse campus enable interdisciplinary research.

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Hao LouView profile

Assistant Professor

University of KansasUnited States

Dr. Hao Lou is an Assistant Professor in the Department of Pharmaceutical Chemistry at the University of Kansas School of Pharmacy. His research integrates computational modeling and experimental approaches to advance drug formulation design, with emphasis on subcutaneous delivery systems for biologics and oral formulations. Research focuses on: Computational pharmaceutics using machine learning and molecular dynamics Subcutaneous delivery of monoclonal antibodies and protein therapeutics In vitro emulation of subcutaneous absorption (ESCAR system) Formulation optimization for cyclic peptides and biologics Protein stabilization and drying techniques Recent publications demonstrate novel applications of molecular dynamics simulations in predicting peptide properties, optimizing high-concentration protein formulations, and developing biorelevant dissolution methods. Work appears in pharmaceutical sciences journals covering formulation design and computational modeling. Developed innovative platforms including an Emulator of Subcutaneous Absorption and Release (ESCAR) and protein-hyaluronic acid precipitation techniques. Contributes to advancing dry powder processing for inhaled formulations.

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Robert F. SavinellView profile

Professor

Case Western Reserve UniversityUnited States

Robert F. Savinell is a Distinguished University Professor and George S. Dively Professor of Engineering at Case Western Reserve University's Department of Chemical and Biomolecular Engineering. He has held leadership roles including Director of the Ernest B. Yeager Center for Electrochemical Sciences (10 years) and Dean of Engineering (7 years). His research focuses on electrochemical solutions for energy conversion/storage, with emphases on flow batteries, electrochemical capacitors, and advanced materials. He serves as Editor-in-Chief of the Journal of the Electrochemical Society and holds fellowships from the Electrochemical Society, American Institute of Chemical Engineers, and International Society of Electrochemistry. Education: BS in Chemical Engineering (Cleveland State University, 1974), MS (University of Pittsburgh, 1974), PhD (University of Pittsburgh, 1977). Research Highlights: Current projects include novel electrode structures for hybrid flow batteries, slurry electrode conductivity, and high-temperature polymer electrolytes. Over 40 years of R&D in electrochemical engineering have produced breakthroughs in energy storage systems. Awards: 2022 Vittorio De Nora Award (Electrochemical Society), 2020 Frank and Dorothy Humel Prize (CWRU), 2018 DOE EFRC grant (BEES program). Grants/Advising: Directs the Breakthrough Electrolytes for Energy Storage (BEES) EFRC. Advises on projects spanning fundamental electrochemistry to commercial applications. Active in cross-institutional collaborations. Labs/Teams: Leads the Yeager Center for Electrochemical Sciences and collaborates with MIT, Denmark Technical University, and Yamanashi University through visiting professorships.

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Johannes HungerView profile

Researcher

Max Planck Institute for Polymer ResearchGermany

Dr. Johannes Hunger is a Group Leader at the Max Planck Institute for Polymer Research (MPI-P) in Mainz, Germany. He obtained his PhD in Chemistry from the University of Regensburg in 2006 under the supervision of Richard Buchner. Following a postdoctoral fellowship at the FOM Institute AMOLF in Amsterdam (2010-2012) funded by the German Science Foundation (DFG), he joined MPI-P as a group leader in 2012. In 2016, he established his distinguished research group with a starting grant from the European Research Council (ERC). His research focuses on dynamics in the condensed phase with particular emphasis on Coulombic and hydrogen-bonding interactions. His group intensively studies room temperature ionic liquids, electrolyte solutions, and solvation phenomena, elucidating fundamental properties of liquids including molecular-level ion transport and molecular association, as well as the relevance of such interactions in biological contexts (osmolyte action, specific ion effects) and technological applications (solvation dynamics, dissolution phenomena). With ERC funding, his group has intensified research on non-covalent interactions within reactive intermediates in organo-catalysis. The 15 most recent publications (2024-2025) demonstrate continued focus on hydrogen bonding dynamics, ion transport mechanisms, and solvation phenomena across various systems including aqueous interfaces, ionic liquids, and biomolecular environments. His work consistently combines experimental approaches with theoretical insights to unravel fundamental molecular processes. Scientific Awards: Postdoctoral Fellowship from German Science Foundation (DFG) ERC Starting Grant Dr. Hunger leads an active research group currently focused on three main areas: Fundamentals of Asymmetric Organo-Catalysis, Interaction of Osmolytes and Ions with Biopolymers, and Dynamics of Electrolytes. His research program is supported by the ERC grant FASTO-CAT and involves collaborations with numerous international research groups. His group maintains strong connections with the University of Regensburg where he completed his doctoral studies, and with research institutions in the Netherlands where he conducted his postdoctoral work. The research group operates state-of-the-art facilities for studying molecular dynamics, including advanced spectroscopic techniques for probing hydrogen bonding networks and ion transport phenomena at ultrafast timescales.

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Norman J. WagnerView profile

Professor

University of DelawareUnited States

Norman J. Wagner holds the Unidel Robert L. Pigford Chair in Chemical & Biomolecular Engineering at the University of Delaware, with affiliations in Physics & Astronomy, Biomedical Engineering, and Biomechanics & Movement Science. He directs the Center for Neutron Science (CNS) and served as CBE Department Chair (2007–2012). His research focuses on rheology of complex fluids, colloids, polymers, and nanotechnology, with applications to space materials and biomedical systems. Education: B.S. from Carnegie Mellon (1984), Ph.D. in Chemical Engineering from Princeton (1988). Postdoctoral fellowships at Los Alamos National Lab and the University of Stuttgart (Germany). Visiting professorships at ETH Zurich (1997) and University of Rome (2004). Research spans shear thickening fluids, neutron scattering, and protein formulation stability. Key contributions include commercializing STF-based body armor and developing novel rheological instruments. Over 200 publications and patents highlight his work in soft matter physics and materials science. Notable awards: National Academy of Engineering membership (2015), Bingham Medal (2014), Siple Award (2002). Editorial roles include AIChE Journal (Soft Matter Section) and multiple international journals. Active in neutron science leadership, including Neutron Scattering Society of America. Labs/Teams: Center for Neutron Science, STF Technologies LLC (co-founded 2003). Current projects include lunar exploration materials, geopolymer cements, and biomedical fluid dynamics.

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Abdelhamid SayariView profile

Professor

University of OttawaCanada

Abdelhamid Sayari is a Full Professor in the Department of Chemistry and Biomolecular Sciences at the University of Ottawa , leading a research program focused on porous materials and CO₂ capture. His work bridges inorganic chemistry, materials science, and environmental catalysis, with an emphasis on designing stable and efficient adsorbents for greenhouse gas mitigation. His research interests include: Functionalization of mesoporous silica and hybrid materials Heterogeneous catalysis for organic synthesis and environmental remediation CO₂ capture via amine-functionalized adsorbents Gas separation technologies Hydrothermal stability of materials Recent studies highlight advancements in amine-stabilized CO₂ adsorbents, humidity-dependent adsorption mechanisms, and theoretical modeling of reaction pathways. His work addresses critical challenges in mitigating greenhouse gases while advancing sustainable materials design. Despite no listed awards, his contributions to CO₂ capture technology are widely recognized in the field. He leads a research team focused on translating material innovations into practical solutions for environmental challenges.

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Jacob MonroeView profile

Assistant Professor

University of Arkansas FayettevilleUnited States

Jacob Monroe is an Assistant Professor at the University of Arkansas in the Ralph E. Martin Department of Chemical Engineering. He earned his B.S. from the University of Virginia (2014) and Ph.D. from the University of California, Santa Barbara (2019), followed by an NRC Postdoctoral Fellowship at NIST. His research integrates machine learning with statistical mechanics to enable predictive molecular simulations of biomaterials. Education: B.S. (2014) and Ph.D. (2019) in Chemical Engineering Research Interests focus on: VAE-based multiscale simulation techniques Advanced solvation free energy calculations Computational design of membrane and chromatographic interfaces Protein self-assembly and water-mediated interactions Publication Trends demonstrate expertise in merging machine learning with molecular simulation to address thermodynamic challenges in biomaterial systems. His work spans applications in renewable energy , pharmaceutical formulation , and eco-friendly electronics . Scientific Awards : DOE Early Career Award (2023) NRC Postdoctoral Fellowship (2019) NSF Graduate Research Fellowship (2015) AICHE COMSEF Graduate Student Award (2017) Laboratory : Leads the Monroe Molecular Simulation Group, which specializes in developing machine learning methods grounded in statistical mechanics for biomolecular modeling. Recent projects include salt aggregation analysis in water-purification membranes and protein-interface binding energy predictions.

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Giacomo ParigiView profile

Associate Professor

University of FlorenceItaly

Giacomo Parigi is an Associate Professor of Chemistry at the University of Florence, affiliated with the Magnetic Resonance Center and the Department of Chemistry. His work focuses on paramagnetic effects in NMR, MRI contrast agents, and protein dynamics. He holds a Physics degree (1992) and a Chemistry PhD from the University of Florence, with postdoctoral and research roles at CERM since 1999. Research Interests: Parigi’s research explores paramagnetic effects in biological molecules, including protein structure determination, MRI contrast agent design, and relaxometry. He co-authored seminal books on NMR of paramagnetic molecules and pioneered methods for studying protein dynamics via field-cycling NMR. His lab integrates computational biology, bioinformatics, and experimental NMR to address biomedical challenges. Publications & Trends: Recent work emphasizes machine learning-enhanced NMR analysis, novel MRI probes (e.g., Mn-based nanogels), and structural studies of metalloproteins. His articles highlight innovations in paramagnetic NMR restraints, dynamic aggregation imaging, and low-field MRI applications. Awards & Grants: No explicit awards mentioned, but his extensive publications reflect significant contributions to NMR methodology. Active in securing grants for structural biology and biomedical imaging projects. Labs & Teams: Leads the Magnetic Resonance Center’s NMR group, collaborating on interdisciplinary projects involving biomaterials, drug design, and protein engineering. His team develops cutting-edge tools for in-cell NMR and metabolomics analysis.

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Thomas HuberView profile

Professor

Australian National University (ANU)Australia

Professor Thomas Huber is a distinguished academic at the Australian National University's Research School of Chemistry, where he was appointed Professor in 2013 after serving as an ARC Future Fellow (2010-2014). His career spans appointments at ETH-Zurich, ANU Supercomputer Facility, University of Queensland (Mathematics and Molecular Bioscience departments), and the Research School of Chemistry. Education: Diploma of Chemistry, Technical University Munich PhD, ETH-Zurich Huber's research focuses on structural bioinformatics and computational structural biology , developing innovative tools to determine 3D structures of biological macromolecules using sparse experimental data. His work targets understanding molecular interactions fundamental to life processes and pharmaceutical intervention. Key research areas include NMR spectroscopy, protein structure determination, genetically encoded non-canonical amino acids, and paramagnetic probes for distance measurements. Analysis of his recent publications (2022-2025) reveals dominant trends in protein engineering through genetic code expansion, fluorogenic labeling techniques, and advanced NMR methodologies for probing protein dynamics and ligand binding. His work bridges computational modeling with experimental structural biology, emphasizing cost-efficient solutions for macromolecular structure determination. Scientific Awards: ARC Future Fellow (2010-2014) Huber actively supervises research students and leads multiple collaborative projects including "Protein Structure and Dynamics by Electron/Nuclear Paramagnetic Resonance" and "Non-Canonical Amino Acids for Protein Analysis." His research is supported by significant grants from the Australian Research Council, focusing on protein characterization, drug discovery platforms, and advanced spectroscopy instrumentation. He leads the Huber Group within the Research School of Chemistry, collaborating extensively with researchers like Gottfried Otting and Christian Nitsche on protein analysis and therapeutic development.

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Andrew CareView profile

Senior Lecturer

University of Technology SydneyAustralia

Andrew Care is a Senior Lecturer and Academic Director of the Biologics Innovation Facility (BIF) at the University of Technology Sydney (UTS), within the School of Life Sciences. He holds a PhD in Chemistry and Biomolecular Sciences from Macquarie University and has held prestigious fellowships, including the Cancer Institute NSW Early Career Fellowship and UTS Chancellor's Research Fellowship. His research focuses on combining synthetic biology and nanomedicine to engineer biologically-derived nanoparticles for drug delivery and vaccines. He is actively involved in industry collaborations, notably as a Chief Investigator in the ARC ITRC IDEAL Hub. Teaching and leadership roles include Program Director for the Biomedical Engineering program and coordination of the Australasian Synthetic Biology Challenge, which fosters student innovation. He has been recognized with a UTS Vice-Chancellor’s Teaching Citation and multiple Dean’s Awards for integrating Work Integrated Learning (WIL) and enhancing student engagement. His contributions to education and research excellence have earned awards for collaboration and partnership. Research interests span nanoparticle engineering, neurodegenerative disease therapies, and biomanufacturing. Notable projects include developing an Alzheimer’s vaccine using encapsulin protein cages and investigating nanoparticle interactions in brain cells. His work bridges academia and industry, emphasizing translational applications in healthcare. Awards: UTS Vice-Chancellor’s Research Excellence Award (2024), UTS Teaching Citation (2024), Multiple Dean’s Awards for Science Initiative, Innovation, and Student Experience. Leadership: Academic Lead of BIF, Editor of SYNTHESIS Magazine, and EMCR Representative in research committees. Grants: Providence Foundation Project Grant (2023), ARC IDEAL Hub funding. Andrew’s labs, including the Biologics Innovation Facility, provide advanced training in biomanufacturing and nanomedicine, equipping students and professionals for industry roles. His research aims to address unmet clinical needs through innovative biomedical solutions.

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Luyi SunView profile

Professor

University of ConnecticutUnited States

Professor Luyi Sun is a faculty member at the University of Connecticut in the Department of Chemical and Biomolecular Engineering. He earned his Ph.D. from The University of Alabama in 2004 and has held academic positions at Texas State University and Texas A&M University before joining UConn. Current research focuses on multi-functional nanostructured materials for structural, environmental, and energy applications. Specializes in polymer nanocomposites, wearable electronics, soft robotics, and stimuli-responsive materials. Develops green science solutions using biomass-derived materials and novel polymer processing techniques. Recent publications highlight advancements in 4D printing of polymers, MXene-based flexible electronics, and defect engineering in photocatalysts. His work spans nanoscale design for energy storage, flame-retardant coatings, and self-assembled nanosheets for dielectric performance. Awards include Fellow of the National Academy of Inventors, Morand Lambla Award, and Composites Educator of the Year. Professional memberships span American Chemical Society (ACS), American Institute of Chemical Engineers (AIChE), and Society of Plastics Engineers (SPE). 2021 Fellow of the National Academy of Inventors 2020 Morand Lambla Award (Polymer Processing Society) 2018 Composites Educator of the Year (SPE) 2016 Fellow of the Royal Society of Chemistry and SPE His lab develops scalable methods like rotational coating and doctor-blade-assisted casting for thin nanocomposite films. Research includes bio-inspired mechanochromisms, superhydrophilic silica coatings, and enzyme-linked microneedle patches for diabetic wound healing. Current projects explore 4D-printed nerve guidance conduits, dual photo-mechano-responsive materials, and sustainable phase change materials for thermal energy storage.

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Dharik MallapragadaView profile

Assistant Professor

New York UniversityUnited States

Dr. Dharik Mallapragada is an Assistant Professor in the Department of Chemical and Biomolecular Engineering at NYU Tandon School of Engineering, affiliated with the Center for Advanced Technology in Telecommunications (CATT). His research focuses on mathematical modeling to analyze low-carbon technologies and their integration into energy systems, emphasizing decarbonization pathways for developed and developing economies. He holds a B.Tech from IIT Madras and a Ph.D. in Chemical Engineering from Purdue University. Key research areas include optimizing energy infrastructure planning, electricity market designs for decarbonization, and techno-economic assessments of hydrogen production and storage. Recent work explores repurposing coal plants into thermal storage, evaluating rate structures for renewables-dominant grids, and analyzing India’s energy transition challenges. Mallapragada’s work bridges computational techniques like optimization modeling and data analytics with real-world policy and geographical contexts. Publications highlight infrastructure synergies between power and gas systems, hydrogen production pathways, and electrification barriers in heavy industries. His research underscores the importance of flexible energy systems and equitable policy frameworks, particularly for emerging economies. The Sustainable Energy Transitions (SET) group he leads collaborates globally to address climate mitigation challenges through analytical tools and cross-sectoral solutions.

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Yoram CohenView profile

Professor

University of California, Los AngelesUnited States

Yoram Cohen is a Professor in the Department of Chemical and Biomolecular Engineering at the University of California, Los Angeles (UCLA). He leads the Polymer and Separations (PolySep) Research Laboratory, focusing on advanced water treatment technologies. Ph.D. in Environment and Sustainability D.Env. in Environmental Science and Engineering B.S. in Environmental Science His research spans membrane technology , surface nano-structuring , and environmental impact analysis . Key areas include: Reverse osmosis and ultrafiltration membrane design Surface crystallization and fouling mitigation Electroactive polymers for contaminant removal Nanoinformatics for environmental health Mathematical modeling of contaminant transport Recent publications emphasize machine learning integration in desalination systems, high-recovery water treatment , and sustainable membrane technologies . His work addresses challenges in decentralized water systems for disadvantaged communities. Pritzker Emerging Environmental Genius Award The PolySep Lab has pioneered innovations in: Surface-modified membranes with polymer brush layers Real-time scaling detection methods Self-adaptive control systems for water treatment

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