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Corey S. O'HernView profile

Professor

• Soft Matter Physics
• Statistical Mechanics
• Computational Biology
• +8 more

Corey S. O'Hern is a Professor at Yale University with appointments in the Departments of Mechanical Engineering & Materials Science, Physics, Applied Physics, and Computational Biology & Bioinformatics. His research spans soft matter physics, computational biology, and materials science, focusing on jamming transitions, protein structure, and granular mechanics. Education : Ph.D. from the University of Pennsylvania, B.S. from Duke University. Research Interests : Statistical mechanics of nonequilibrium systems, glass and jamming transitions in soft matter, computational biology of protein structures, and mechanical design principles in biological and synthetic materials. His group uses theoretical and computational methods to study protein folding, jamming phenomena, and mechanical properties of cells and tissues. Article Trends : Recent publications highlight interdisciplinary work bridging soft matter physics and computational biology. Topics include protein folding as jamming transitions, FRET-assisted structural modeling, cancer invasion mechanics, and granular metamaterials with tunable properties, reflecting his focus on fundamental mechanics in biological and synthetic systems. Scientific Awards : Ackerman Teaching Award (2018) Fellow of the American Physical Society (2017) NSF Cyber-Enabled Discovery and Innovation Award (2008) NSF Faculty Early Career Development Award (2005) Advising & Grants : He has advised students from Applied Physics, Chemistry, and Computational Biology. His group received NSF grants for studies on granular acoustics and computational biology, supported by Yale's MRSEC and FAS High Performance Computing Core. Labs & Teams : Leads the O'Hern Research Group and co-founded Yale's Integrated Graduate Program in Physical and Engineering Biology. Collaborates with interdisciplinary teams across Yale's Physical and Life Sciences, including the Sackler Institute and MRSEC.

• Network Science
• Biological Networks
• Science of Success
• +6 more

Albert-László Barabási is a University Distinguished Professor at Northeastern University , affiliated with multiple institutions including The Roux Institute in Portland, Maine, and offices in London and Boston. His research spans the intersection of network science , biological networks , control theory , and urban infrastructure . Research Interests : Biological and Health Systems, Complex Systems Forecasting, Fundamental Network Theory, Urban Networks and Infrastructure. Recent Work : Focuses on network medicine, foodome analysis, and AI applications in biomedical prediction. The 15 most recent publications highlight his contributions to understanding physical network constraints, human-AI coevolution, and the chemical complexity of food systems. These works span disciplines like physics, biology, and data science, with subfields including network medicine, gene co-expression modeling, and urban resilience. Scientific Recognition : Julius Edgar Lilienfeld Prize (2023) for contributions to network science. Barabási’s lab uniquely integrates art and science , emphasizing innovative data visualization and interdisciplinary collaboration. His work addresses societal challenges through network-based frameworks, including the impact of processed foods and the design of resilient urban systems.

Dafei YuanView profile

Researcher

• Organic Electronics
• Thermoelectric Materials
• Polymer Chemistry
• +3 more

Dafei Yuan is a Postdoctoral Scholar at the Robert Mehrabian College of Engineering , University of California, Santa Barbara, affiliated with the Segalman Lab . His research focuses on organic semiconductors, thermoelectric materials, and polymer design for electronic applications. Research Interests Organic Electronics Thermoelectric Energy Conversion Conjugated Polymer Synthesis Charge Transport Optimization Nanoscale Material Engineering Publications (Selected Trends) : Recent work explores n-type polymer semiconductors , polymorph control in organic crystals , and interfacial doping techniques to enhance electrical conductivity and stability. Key themes include molecular architecture, heavy atom effects, and aggregation behavior in organic thermoelectrics and light-emitting transistors. Laboratory Affiliation : Works at the Segalman Lab, focusing on advanced materials for sustainable electronics and energy applications.

Kristóf BércziView profile

Researcher

• Approximation Algorithms
• Combinatorial Optimization
• Matroid Theory
• +3 more

Kristóf Bérczi is a researcher at the Department of Operations Research, Eötvös Loránd University, Hungary. His work intersects computer science, mathematics, and operations research, focusing on theoretical and applied optimization problems. MSc and PhD in Operations Research, ELTE Postdoc at Hungarian Academy of Sciences Research Interests: Approximation algorithms Combinatorial optimization Matroid theory Submodular functions Algorithmic game theory Graph theory Recent Publication Trends: His 2024-2025 work explores matroid-constrained partitioning, inverse optimization algorithms, rainbow subgraph problems, and envy-free pricing models, often combining matroid theory with practical algorithm design. Scientific Contributions: Active in program committees (APPROX 2019, IPCO 2024, WALCOM 2025) Organized workshops on matroid optimization and matching theory Editorial board member of SIAM Journal on Discrete Mathematics Mentorship: Supervises PhD students Áron Jánosik, András Imolay, and others, with graduates now in postdoc/lecturer positions at institutions like CMM Chile and LSE UK.

George KhelashviliView profile

Associate Professor

• Biophysics
• Computational Biology
• Membrane Protein Dynamics
• +5 more

George Khelashvili is an Associate Professor of Systems and Computational Biomedicine at Weill Cornell Medical College, specializing in biophysics and computational biology. His research focuses on membrane protein dynamics, lipid-protein interactions, and structural mechanisms of GPCRs and transporters. Ph.D., Illinois Institute of Technology (2005) M.Sc. & B.Sc., Tbilisi State University (Georgia) (1999 & 1997) His research investigates how cholesterol modulates membrane elasticity, lipid scrambling by GPCRs, and conformational transitions in transporters like MFSD2A. Recent work includes structural analysis of SARS-CoV-1 fusion peptide interactions and computational modeling of lipid dynamics. Key trends in his publications (15 most recent) span membrane biophysics, GPCR signaling, transporter mechanisms, and disease-related studies (e.g., SARS-CoV, lymphoma pathogenesis). His work integrates molecular dynamics simulations with experimental validation. Scientific Awards National Institute of Child Health & Human Development Grant (2023-2028) - Principal Investigator Subaward Khelashvili collaborates on protein-membrane interactions and consults for Adiutrix Therapeutics, LLC. His contributions include methodological advancements in lipid mechanics, cholesterol regulation of membrane proteins, and kinetic modeling of amyloid formation.

Uros PucView profile

Researcher

• Terahertz Technology
• Organic Electronics
• Nonlinear Optics
• +4 more

Dr. Uros Puc is a researcher at the ZHAW Zurich University of Applied Sciences , affiliated with the School of Engineering . His work focuses on terahertz (THz) photonics , organic electronics , and photovoltaics , particularly in developing and characterizing organic crystals for THz wave generation and sensing applications. Research Interests : Puc's research spans terahertz technology , nonlinear optics , and molecular phonon engineering , with applications in materials testing, biomedical sensing, and sustainable technologies. He investigates how substituent groups and crystal structures influence THz phonon vibrations and nonlinear optical properties, aiming to enhance THz emission efficiency and stability. Publications highlight his contributions to broadband THz spectroscopy , organic crystal design , and analytical gas sensing . His work also extends to terahertz applications in circular economy and construction materials characterization .

Lihi Adler-AbramovichView profile

Professor

• Biomaterials Science
• Peptide Nanotechnology
• Self-Assembly Processes
• +5 more

Lihi Adler-Abramovich is a Professor in the Department of Oral Biology at Tel Aviv University's Goldschleger School of Dental Medicine and leads the Laboratory of Bioinspired Materials & Nanotechnology. Her research bridges material science, organic chemistry, and medical applications with focus on biomimetic self-assembly processes. Her laboratory specializes in mimicking natural self-assembly phenomena including biomineralization and peptide nanostructure organization. Key research areas include developing 3D hydrogels for bone tissue regeneration with exceptional mechanical properties, biocompatibility, and controlled drug release capabilities. Recent breakthroughs involve fully autologous electrospun skin scaffolds for severe burn injuries featured in major media outlets like Ynet and The Jerusalem Post. Develops hybrid hydrogels using multiple building blocks for tunable properties Engineers antimicrobial nanostructures for dental coatings Creates peptide-based drug delivery systems with environmental responsiveness Her publication trends show increasing focus on clinical translation, with recent articles emphasizing burn treatment scaffolds, antimicrobial dental composites, and collagen-enhancing therapeutics. The laboratory maintains strong industry connections through patent filings in peptide-based bioinks and hydrogel compositions. Drimmer-Fischler Family Excellence in Research Award (awarded to student) Multiple journal cover features including Advanced Materials and Nature Nanotechnology Research highlighted in Ynet, Jerusalem Post, and Medical Press Professor Adler-Abramovich actively mentors researchers including award-winning student Bar Shahar. Her laboratory collaborates extensively with Tel Aviv University's Center for Nanoscience and Nanotechnology and Center for Physics and Chemistry of Living Systems. Current projects include developing enzyme-responsive drug delivery systems and conductive peptide-MXene sensors for biomedical applications.

Adelaine LeungView profile

Assistant Professor

• Neurobiology
• Animal Behavior
• Neural Circuits
• +3 more

Dr. Adelaine Leung is an Assistant Professor in the Department of Veterinary Biomedical Sciences at the University of Saskatchewan. Her research focuses on the neurobiology of animal behavior and molecular mechanisms underlying human behavioral disorders. Key Affiliation: University of Saskatchewan, Department of Veterinary Biomedical Sciences Research Interests: • Elucidating neural circuits regulating reproductive behavior in Drosophila melanogaster • Investigating molecular links between psychiatric disorder-related proteins and neural circuit function • Structural analysis of spliceosomal snRNPs and kinase-inhibitory peptides Publications (2022–2011): • 3 recent studies on Drosophila copulation behavior mechanisms (2022–2014) • 4 structural biology papers on spliceosomal complexes and protein kinases (2011–2020) • Research spans neurogenetics, RNA biochemistry, and psychiatric molecular biology Laboratory Focus: The Leung Laboratory integrates neurobiological and molecular approaches to study behavior regulation in Drosophila while exploring implications for human psychiatric disorders through mechanistic parallels.

Dirk KurthView profile

Professor

• Supramolecular Materials
• Metallo-Supramolecular Polyelectrolytes
• Electrochromic Materials
• +3 more

Professor Dr. Dirk Kurth is Full Professor and Head of the Chair of Chemical Technology of Materials Synthesis at the University of Würzburg , Faculty of Chemistry and Pharmacy. In addition to his research chair, he serves as Head of the Functional Materials degree programme, bridging teaching and cutting-edge science. Research Interests Prof. Kurth’s research is dedicated to the rational design, synthesis and characterisation of supramolecular materials . A major focus lies on metallo-supramolecular polyelectrolytes (MEPEs) whose metal–ligand coordination enables tunable mechanical, optical and electronic properties. Related investigations encompass: Electrochromic polymers for smart-window technologies and flexible displays. Lanthanide-functionalised terpyridine complexes for solid-state photoluminescence standards and sensing. Photocatalytic ruthenium and iron complexes for light-driven hydrogen evolution. Structure–property relationships probed by electrochemistry, X-ray absorption and advanced spectroscopy. His group combines synthetic coordination chemistry with materials processing techniques such as layer-by-layer self-assembly and electrophoretic deposition to translate molecular design into functional thin films and devices. Across more than 70 peer-reviewed articles since 2008, his work exhibits a clear trajectory: from fundamental coordination chemistry of terpyridine and pyrimidine ligands to application-oriented studies in energy conversion, sensing and smart coatings. Recent papers increasingly target real-world deployment, as evidenced by air-stable standards, spectrometer-free detection protocols and prototypes of electrochromic devices. Scientific Awards & Distinctions No specific awards or honours are listed in the provided sources. Advising, Grants & Collaborative Networks As Head of the Functional Materials degree programme, Prof. Kurth oversees curriculum design, student mentoring and international exchange. While individual doctoral or master students are not named in the texts, the research group regularly advertises Bachelor, Master and PhD positions, indicating active supervision. Third-party funding is implied through collaborative projects such as Smart Windows der 2. Generation (ECWin2.0) and ongoing work on electrochromic device prototypes, although grant details are not disclosed. Laboratory & Facilities The Chair operates modern synthetic laboratories, analytical suites and thin-film processing facilities housed in the Old Building at Röntgenring 11, 97070 Würzburg. Instrumentation includes electrochemical workstations, spectrofluorometers, and access to synchrotron X-ray sources for operando studies on flexible devices.

Tonia PoteatView profile

Professor

• HIV research
• LGBTQ health
• Transgender health
• +7 more

Tonia Poteat is a Professor in the Duke University School of Nursing and co-director of the Duke SGM Wellness Program. Her work focuses on HIV and LGBTQ health, particularly the health of transgender communities. She is certified as an HIV Specialist by the American Academy of HIV Medicine. Education: Ph.D., Johns Hopkins Bloomberg School of Public Health (2012) Research Interests: Intersectional structural stigma in health inequities Gender-affirming care and HIV outcomes Implementation science for transgender health services Cardiovascular disease disparities in transgender populations Sexual and gender minority data collection Structural determinants of health Recent Research Trends: Analysis of structural drivers affecting transgender women’s health, implementation of transgender-specific HIV care models, and mixed-methods studies on nonhormonal gender-affirming practices. Grants: National Institute on Minority Health and Health Disparities (2023-2027): CARES study National Institute of Mental Health (2023-2027): Transgender HIV care Oregon Health & Science University (2024-2025): STRIVE study for vaginoplasty access

Christoph MarschnerView profile

Associate Professor

• Organometallic Chemistry
• Inorganic Chemistry
• Molecular Electronics
• +7 more

Christoph Marschner is an Associate Professor at the Institute of Inorganic Chemistry, Graz University of Technology, with additional affiliations to the University of Graz. His research focuses on organometallic chemistry of group 14 elements, particularly silicon and germanium, with applications in molecular electronics, nanotechnology, and catalysis. Education : B.Sc./M.Sc. in Technical Chemistry (TU Graz), Ph.D. in Organic Chemistry (TU Graz, 1992). Key Collaborations : Stanford University, University of California, Berkeley, Cork University College. Research Highlights : Developed methods for synthesizing polysilanes and their analogs. Explored σ-bond electron delocalization and hypercoordinate bonding. Pioneered studies on silylated metallocenes and reduced oxidation states. Investigated Lewis acid-catalyzed rearrangements in silicon chemistry. Scientific Contributions span 15+ years of FWF-funded projects and collaborations, including: Chiral Polysilanes (START-Prize 1999) Hypercoordinated Silanes (P 26417) Metalated Germanium (P 222678) Honors & Roles : Schrödinger Fellow (1992-93) APART Scholar (1996-99) Volume Editor, Science of Synthesis (2019–) Member, Junge Kurie (2008)

Joseph S.B. MitchellView profile

Professor

• Computational Geometry
• Algorithms and Data Structures
• Optimization
• +3 more

Joseph S.B. Mitchell is a SUNY Distinguished Professor at the Department of Applied Mathematics and Statistics, State University of New York at Stony Brook. His office is located in Math Tower, Room P-138A. His research spans computational geometry, algorithms, optimization, and related fields. Research Interests: Prof. Mitchell's work focuses on fundamental and applied problems in geometric computing, including: Algorithm design for spatial optimization (e.g., art gallery problems, dispersion) Robotics applications (multi-agent path planning, sensor deployment) Efficient solutions for geometric data structures and visibility constraints Recent Publications: His 15 most recent articles (2024-2025) demonstrate a consistent focus on geometric optimization, visibility problems, and algorithm design for polygons and networks. Common themes include approximation algorithms, multi-robot coordination, and combinatorial solutions for spatial challenges. Awards: SUNY Distinguished Professor (recognizing exceptional academic contributions)

David BrücknerView profile

Assistant Professor

• Theoretical Biophysics
• Physics of Living Systems
• Multicellular Systems
• +6 more

David Brückner is an Assistant Professor of Theoretical Biophysics at the Biozentrum of the University of Basel, Switzerland, where he leads a research group investigating the physics of living systems. Appointed in April 2025, he develops theoretical frameworks to understand how cellular interactions govern multicellular organization during development. His work bridges statistical physics, soft matter theory, and developmental biology to address fundamental questions about information processing in biological systems. Brückner's research focuses on stochastic dynamics in developmental systems , exploring how cells make reliable decisions despite biological noise. He investigates Mechanical and biochemical information transmission in tissues Cellular memory mechanisms in confined migration General physical principles across developmental systems Self-organization in multicellular structures His approach combines biophysical modeling with information theory and machine learning to connect theoretical predictions with experimental data. His recent publications reveal groundbreaking insights into cellular memory during migration, hyperdisordered biological packing, and information flow in developmental systems. Notable work published in Nature Physics (2025) demonstrates how the actin cortex serves as a mechanical memory enabling efficient navigation through confined spaces – crucial for understanding wound healing and cancer metastasis. Brückner's scientific achievements have been recognized through prestigious awards including an ERC Starting Grant (2025), the Gustav Hertz Prize (2022), and an EMBO Long-Term Fellowship (2022). His research is supported by international collaborations with experimental laboratories worldwide. As a newly established group leader, Brückner actively recruits PhD students and postdoctoral researchers for his ERC-funded "InfoFate" project, which investigates how cells integrate dynamical, neighborhood, and mechanical signals to make fate decisions. His laboratory employs interdisciplinary approaches combining theoretical physics with cutting-edge biological data.

Peter KassonView profile

Professor

• Biophysical Chemistry
• Computational Chemistry
• Membrane Biophysics
• +6 more

Peter Kasson is a Professor in the School of Chemistry & Biochemistry at the Georgia Institute of Technology , where he leads the Kasson Laboratory . The lab operates internationally, with active collaborations and postdoctoral positions based in both the United States and Sweden. Education PhD/MD via the Stanford University MSTP program Research Interests The Kasson group integrates biophysical experiments with large-scale molecular simulations and machine learning to dissect how enveloped viruses—such as Influenza , SARS-CoV-2 , and Zika —enter host cells. By combining single-virus spectroscopy , cryo-electron microscopy , and computational modeling , the team explores: Membrane fusion mechanisms and lipid determinants that control viral entry. Drug-resistance evolution in viral proteins and antibiotic uptake in bacteria. Methods development for adaptive ensemble simulations (e.g., gmxapi , ProGuide ). Global health applications, including pandemic-risk prediction and vaccine design. The group also contributes to public science initiatives such as Folding@Home , leveraging citizen computing to study viral dynamics worldwide. Recent Research Trends Over the past five years, Prof. Kasson’s publications have converged on coronavirus and influenza entry kinetics, membrane lipid control of fusion, and integrative structural biology of viral proteins. A notable 2025 suite of studies clarifies how sphingomyelin , caveolin-1 , and lipid curvature modulate viral infection, while computational work refines experimental data via advanced statistical models. Awards & Honors 2021 Pinn Scholar – recognition of outstanding research contributions. Training & Funding The Kasson Lab is currently supported by NIGMS R01 grants targeting heterogeneous conformational ensembles in viral proteins. The group actively recruits PhD students through Georgia Tech programs (Biomedical Engineering, Chemistry & Biochemistry, Bioengineering, Quantitative Biosciences) as well as postdoctoral fellows in both experimental and computational tracks. Labs & Teams Research is conducted in the Kasson Laboratory located in IBB 1305 on the Georgia Tech campus, with satellite activities at Uppsala University in Sweden. The team comprises a diverse, international cohort of PhD students, postdocs, and undergraduates working together on global infectious-disease challenges.

Anna ÖsterholmView profile

Researcher

• Organic Electrochemistry
• Electrochromism
• Polymer Electrochemistry
• +2 more

Anna Österholm is a Principal Research Scientist at the Georgia Institute of Technology, affiliated with the College of Sciences and Department of Chemistry. She leads research in charge storage, electrochromism, and polymer electrochemistry within the Reynolds Research Group. Ph.D. in Analytical Chemistry, Åbo Akademi University (2011) Her work focuses on conjugated polymers and molecules, organic electrochemistry, and polymer processing. She manages the Organic Materials Characterization Lab (OMCL) in MoSE 1241, advancing electrochromic devices, conducting polymers, and redox-active materials. Recent research trends include optimizing electrochromic polymers for mid-infrared applications, exploring non-covalent interactions to enhance charge transport, and developing autonomous synthesis methods for electronic polymers. Key subfields span electrochromism, polymer physics, charge storage, and organic electronics. 2024 College of Sciences Outstanding Senior Research Faculty Award 2024 Inclusive Leaders Academy Culture Champion Certificate 2023 Research Faculty Community Leadership Impact Award 2018 Docent, Åbo Akademi University Her leadership in the OMCL core facility underscores her role in material characterization and interdisciplinary collaboration. Awards highlight her contributions to research and inclusive leadership.