Find Academic Supervisors

• Type 1 Diabetes Mellitus
• Enterovirus Immunology
• Autoimmunity
• +3 more

Heikki Hyöty is a Professor in Biosciences, focusing on Type 1 Diabetes Mellitus and its autoimmune mechanisms linked to enteroviruses. His research spans over 448 publications, with significant contributions to understanding viral and environmental determinants of diabetes. He has been actively involved in collaborative studies like the TEDDY and nPOD-Virus Group projects. Research Interests: Type 1 Diabetes Pathogenesis Enterovirus Role in Autoimmunity Islet Autoimmunity Mechanisms Environmental Risk Factors Notable Achievements: Recipient of the 2021 Honourable Mention for High-Quality Publication. His work bridges clinical and molecular research, emphasizing prevention strategies through antiviral interventions and longitudinal studies. Professional Roles: Involved in supervising doctoral and master’s students, organizing workshops, and holding academic leadership roles. Regularly presents at international conferences and collaborates globally on diabetes prevention initiatives.

Dariusz Jan SmolinskiView profile

Professor

• Cell Biology
• Molecular Biology
• RNA Metabolism
• +5 more

Prof. Dariusz Jan Smolinski is a Professor at the Department of Cellular & Molecular Biology, Nicolaus Copernicus University. His research focuses on nuclear RNA metabolism, Cajal bodies, and meiotic regulation in plants, particularly in European larch (Larix decidua). He leads a team investigating mRNA retention mechanisms, splicing factor dynamics, and chromatin-based gene regulation during plant gametogenesis. Research interests include: 1) Cajal bodies as hubs for RNA processing and storage, 2) Post-transcriptional regulation of mRNA via nuclear retention, 3) Meiotic prophase chromatin dynamics in larch microsporocytes, 4) Cytoplasmic mRNA trafficking involving Sm proteins. His work combines bioimaging, transcriptomics, and proteomics approaches in plant model systems. Publications emphasize plant nuclear biology, with key contributions to understanding RNA metabolism in Cajal bodies and meiotic regulation. Current projects involve multiplex FISH analysis, laser microdissection of meiocytes, and PLA-based protein-RNA interactions studies. His lab is part of the Bio-Imaging Lab at Nicolaus Copernicus University's Centre for Modern Interdisciplinary Technologies (ICNT). Advising includes 6+ PhD and MSc students focusing on plant cell biology, RNA dynamics, and meiotic processes. Grants support studies on nuclear-cytoplasmic RNA trafficking and evolutionary conservation of Cajal body functions.

Martin LindView profile

Senior Lecturer

• Evolutionary Biology
• Conservation Biology
• Genetics
• +4 more

Martin Lind is a Senior Lecturer in Conservation Biology and Associate Professor in Zooecology at Halmstad University, with a concurrent research position at Uppsala University's Department of Ecology and Genetics. His primary affiliation is with Halmstad's Academy of Entrepreneurship, Innovation and Sustainability. He specializes in life history evolution, focusing on non-genetic inheritance mechanisms such as phenotypic plasticity, maternal effects, and epigenetic inheritance, particularly in nematodes (Caenorhabditis elegans and C. remanei). Collaborative research extends to studying life history evolution and sexual selection in collared flycatchers and seed beetles. His work is funded by the Swedish Research Council (VR) and forms part of the M4HP research program. Teaching responsibilities include 13 courses at Halmstad University and one at Uppsala University. Research themes include evolutionary consequences of epigenetic inheritance, trade-offs in lifespan extension, and adaptation in wild populations (e.g., salmonoids). The Lind Lab operates at both universities, combining experimental evolution with field studies. Key research tools include experimental evolution in model organisms, artificial selection experiments, and genetic manipulation techniques. He emphasizes collaboration across institutions and disciplines to address ecological and evolutionary questions with societal relevance, such as climate change impacts on pollinators and sustainable resource management. His work bridges basic science and applied conservation, aiming to understand how organisms adapt to environmental changes and how these mechanisms can inform biodiversity preservation strategies.

Christoph RingliView profile

Professor

• Molecular Plant Biology
• Phytopathology
• Cell Wall Integrity Sensing
• +4 more

Prof. Christoph Ringli is a Professor at the Department of Plant and Microbial Biology, University of Zurich. His research focuses on molecular mechanisms underlying plant cell wall integrity sensing, particularly involving LRX proteins, RALF peptides, and FERONIA signaling. He investigates how these components regulate cell growth, cell wall formation, and stress responses. His work also explores the role of flavonols in cell shape determination and auxin transport regulation. Key research areas include: cell wall dynamics, plant hormone signaling (e.g., RALF peptides), genetic regulation of cell morphology, and epigenetic mechanisms influencing developmental processes. His lab has identified suppressor mutants (rol and sune) that shed light on interactions between cell wall signaling and TOR pathway components. His research is supported by grants from the Swiss National Science Foundation, SystemsX/MechanX programs, and a Syngenta Fellowship. He teaches courses in plant biology at the University of Zurich and supervises research internships in plant biology. Notable achievements include discovering LRX proteins' role in cell wall compaction, elucidating flavonol glycosylation effects on cell shape, and identifying novel components of the LRX/RALF/FER signaling network.

• Viral Immunology
• Vaccine Development
• Nucleic Acid Vaccines (DNA/mRNA)
• +3 more

Zelalem Mekonnen is a Research Fellow in the Viral Immunology Group at the Basil Hetzel Institute, University of Adelaide. He holds a PhD in Viral Immunology (2019) from the University of Adelaide and has extensive prior experience as a lecturer and researcher at the University of Gondar (2006–2015), where he supervised over 10 M.Sc. students. His primary affiliation is with the Faculty of Health and Medical Sciences and Adelaide Medical School. Mekonnen's research focuses on developing nucleic acid-based vaccines (DNA/mRNA) against viral pathogens including SARS-CoV-2, hepatitis C, HIV, Zika, and flaviviruses. He also investigates immune system modulation in transplant recipients and long-term effects of SARS-CoV-2 infection. His work spans preclinical vaccine models, adjuvant development, and translational immunology. **Education**: PhD in Viral Immunology (University of Adelaide, 2019); M.Sc. in Tropical and Infectious Diseases (Addis Ababa University); B.Sc. in Biological Sciences (University of Gondar). **Research Interests**: Vaccine design and delivery mechanisms Host-pathogen interactions in viral infections Immunotherapeutic strategies for chronic viral diseases Optimization of DNA/RNA vaccine efficacy His publications highlight contributions to Zika vaccine efficacy, mTOR pathway modulation in transplant patients, and understanding Omicron variant immune evasion. Mekonnen collaborates on global health initiatives, including studies on Ethiopian groundwater quality and antimicrobial resistance patterns.

Laure Bally-CuifView profile

Researcher

• Developmental Neurobiology
• Stem Cell Biology
• Neural Stem Cells
• +12 more

Laure Bally-Cuif is a leading researcher at the Institut Pasteur, Paris, where she heads a team in the Department of Developmental and Stem Cell Biology. She is a Principal Investigator on multiple prestigious projects, including the ERC Synergy Grant PEPS and the ERC Advanced Grant Systematics, focusing on neural stem cell regulation in vertebrates. Her research centers on the molecular mechanisms controlling adult neurogenesis, particularly the role of the Notch signaling pathway in neural stem cell quiescence and stemness. Using the zebrafish model, her team combines large-scale transcriptomics, gene expression knockdown, lineage tracing, and real-time in vivo imaging to dissect the cellular hierarchies and signaling partners involved in maintaining the 'stem state' of neural progenitors and stem cells. The recent publications highlight a strong trend in single-cell transcriptomics, live imaging, and functional analysis of neural stem cell dynamics. Her work reveals molecular distinctions between quiescence and stemness, identifies key regulators like Hey1 and Prosaposin, and explores heterogeneity in quiescent states across brain regions and developmental stages. Themes include stem cell fate decisions, lineage hierarchies, and the impact of apical domain size and Delta-Notch signaling on neural progenitor behavior. ERC Synergy Grant 2022 ERC Advanced Grant (ERC-2012-AdG Systematics) ERC-2023-Synergy: PEPS, Perpetuating Stemness Laure Bally-Cuif actively mentors a team of PhD students and postdoctoral researchers, including Marielle Piber, David Morizet, and Laure Mancini. Her group is a key participant in collaborative platforms such as LabEx Revive and the Zebrafish Projects Hub (Zorgl’hub) at Institut Pasteur, which supports functional studies in zebrafish models. Her research is supported by major European grants, reflecting her leadership in the field of regenerative neurobiology.

Sahar NissimView profile

Assistant Professor

• Cancer Genetics
• Pancreatic Cancer
• Hereditary Cancer Syndromes
• +12 more

Sahar Nissim, MD, PhD is an Assistant Professor of Medicine at Harvard Medical School and an Investigator at both the Brigham and Women’s Hospital (BWH) and the Dana-Farber Cancer Institute (DFCI). He is affiliated with the Division of Genetics and Prevention at DFCI, the Division of Genetics and Division of Gastroenterology at BWH, and the Harvard-MIT Program in Health Sciences and Technology. As a physician-scientist, Dr. Nissim bridges clinical care and research, specializing in hereditary pancreatic cancer syndromes and the molecular basis of pancreatic cancer initiation. His research focuses on the genetic and epigenetic mechanisms that govern pancreatic acinar cell identity and how disruptions in these processes—due to mutations, obesity, or pancreatitis—lead to cancer. Using zebrafish and mouse models, single-cell and spatial transcriptomics, and CRISPR-based functional genomics, his lab aims to develop interception strategies to prevent pancreatic cancer progression. A major discovery was identifying a germline mutation in RABL3 that alters KRAS trafficking, opening new therapeutic avenues. Dr. Nissim's recent publications reflect a strong trajectory in cancer genetics, developmental biology, and translational research. His work spans from fundamental developmental pathways (e.g., Nr5a2, PGE2) to clinical applications in hereditary cancer risk and interception. His integrative approach combines patient-derived genetics with preclinical models to uncover novel mechanisms and therapeutic targets. Though no specific scientific awards are listed in the text, his high-impact publications in journals like Nature Genetics and PNAS underscore significant recognition in the field. He actively mentors trainees and leads the Nissim Lab, which is embedded in the vibrant Harvard Medical School research ecosystem. The lab is currently recruiting, indicating active expansion and engagement in cutting-edge science.

• Neurogenetics
• Synaptic Function
• Neurodevelopmental Disorders
• +2 more

Hans-Jürgen Kreienkamp is a researcher at the Institute of Human Genetics, University Medical Center Hamburg-Eppendorf. His work focuses on neurogenetics, synaptic dysfunction, and molecular mechanisms underlying neurodevelopmental disorders such as autism and intellectual disabilities. Research interests include: Neurodevelopmental Disorders (Autism, Intellectual Disability) SHANK Protein Family CASK and RNA Helicase Mutations Synaptic Targeting and Signaling Protein-Protein Interactions in Synapses Postsynaptic Density Organization The 15 most recent publications highlight his expertise in analyzing gene variants (e.g., LRRC7 , SHANK3 , DEAD/DExH-box ) linked to neurodevelopmental pathology, with a focus on synaptic structure, protein conformation, and RNA regulation. Key methodologies involve genetic sequencing, protein interaction assays, and animal models.

Cezary CzaplewskiView profile

Professor

• Coarse-grained molecular modeling
• Protein structure prediction
• Molecular dynamics simulations
• +3 more

Professor Cezary Czaplewski of the University of Gdańsk is a leading researcher in computational chemistry and coarse-grained molecular modeling. Affiliated with the Faculty of Chemistry and the Department of Theoretical Chemistry , he heads the UNRES server for protein simulations and contributes to projects like Multi-GPU UNRES and MAGENTA . His work bridges physics-based simulations with experimental data integration. Key roles : Professor, Computational Biophysics, University of Gdańsk Projects : EuroHPC PL, Harmonia9, Enerliq, Parylens Research Focus : His research spans coarse-grained modeling , protein structure prediction , and hydrophobic interaction studies , with applications in virology (SARS-CoV-2), antimicrobial peptide design, and large-scale biomolecular simulations. He specializes in GPU-accelerated algorithms and multi-GPU implementations for scalable systems. Teaching : Currently teaches Molecular mechanics & dynamics , Introduction to Python programming , and Parallel programming (Bioinformatics III) . Past courses include Electronic chemical diagnostics and Software in biomacromolecular calculations for PhD students. Scientific Contributions : Developed the UNRES server for polypeptide simulations, extended the UNRES force field to nucleic acids and membrane proteins, and participated in multiple CASP/CAPRI experiments for protein structure prediction. His 2025 publications focus on time-averaged restraints and multi-GPU scalability. Contact : cezary.czaplewski@ug.edu.pl Location : Room B328, Faculty of Chemistry, University of Gdańsk

• Mitochondrial biogenesis
• Protein targeting
• Oxidative phosphorylation
• +4 more

Monika Murcha is an Associate Professor at the School of Molecular Sciences, The University of Western Australia. Her research focuses on plant mitochondrial biogenesis, protein targeting, and proteolytic regulation of organelle activity. Academic rank: Associate Professor Institution: The University of Western Australia Research school: School of Molecular Sciences Email: monika.murcha@uwa.edu.au Monika Murcha's research explores mitochondrial biogenesis mechanisms in plants, including protein targeting to mitochondria and chloroplasts, assembly of oxidative phosphorylation complexes, and proteolytic regulation under stress conditions. Her work utilizes Arabidopsis thaliana as a model organism to study: Regulation of mitochondrial activity Plant stress responses Cellular energy production Genetic manipulation of plants Sub-cellular localization Protease functions in organelles Her recent publications and research projects emphasize mitochondrial protein import, complex I assembly, and stress tolerance mechanisms. She has received multiple research grants and awards, including the Jan Anderson Award and Tall Poppy recognition. School of Molecular Sciences Mid-Career Research Award (2023) Australian Society Plant Scientists Jan Anderson Award (2019) Australian Institute Policy and Science Western Australian Young Tall Poppy Award (2017) In teaching, Associate Professor Murcha coordinates and lectures in advanced biochemistry, genomics, and molecular biology courses at both undergraduate and postgraduate levels. She has attracted over $2.67 million in research funding through various ARC and international collaborations.

• Statistical Physics
• Biophysics
• Machine Learning
• +4 more

Simona Cocco is a Professor of Statistical Physics at the École Normale Supérieure (ENS) in Paris and a CNRS researcher. She holds dual affiliations in the Cognitive Science Department and Physics Department . Her work bridges statistical physics, biophysics, and machine learning, focusing on protein evolution, epistatic networks, and computational biology. Key contributions include applying maximum entropy models to study viral adaptation, protein design using RBMs, and analyzing mutational paths in genetic sequences. She collaborates extensively with computational biologists and experimentalists to translate theoretical insights into practical applications like CRISPR engineering and antigen prediction. Primary Affiliations: ENS-PSL University, CNRS Labs: ENS Physics Laboratory, Philippe Meyer Institute Key Projects: Viral-host adaptation models, RNA switch design, evolutionary dynamics modeling

Swathi YadlapalliView profile

Assistant Professor

• Circadian Rhythms
• Molecular Biology
• Chromatin Accessibility
• +5 more

Swathi Yadlapalli is an Assistant Professor in the Department of Cell and Developmental Biology at the University of Michigan. Her research focuses on understanding the neural and molecular mechanisms underlying circadian clock function and their role in human pathologies caused by circadian disruption. The Yadlapalli Lab employs advanced techniques like CRISPR-based gene tagging, biocalorimetry, and single-molecule RNA-FISH to study circadian rhythms in model organisms such as Drosophila melanogaster and C. elegans. Her research interests span circadian biology, chromatin dynamics, temperature sensing in circadian systems, and the interplay between metabolic activity and circadian regulation. Recent work highlights roles for clock proteins, nuclear bodies, and p-bodies in maintaining circadian rhythms, alongside innovations in microfluidic and calorimetric tools for real-time metabolic monitoring. Dr. Yadlapalli's contributions bridge molecular biology, genetics, and engineering to unravel how circadian clocks integrate environmental cues like temperature to regulate behavior and physiology. Her lab’s techniques have advanced the study of spatiotemporal organization of clock complexes and their post-translational regulation. No scientific awards or grants are explicitly listed in the provided information. Current research efforts emphasize translational applications of circadian biology to understand sleep disorders, metabolic diseases, and neurodegenerative conditions rooted in circadian disruption.

• B-cell Malignancies
• Skeletal Stem Cell Biology
• Bone Development
• +3 more

Dr. Stuart Lanham is a Research Fellow in the Cancer B-Cell Group at the Institute of Developmental Sciences, University of Southampton. His work spans B-cell malignancies and skeletal stem cell biology , with a focus on translational research bridging oncology, developmental biology, and biomaterials engineering. Key research interests include: Chronic Lymphocytic Leukemia (CLL) pathogenesis B-cell receptor signaling Skeletal stem cell isolation using nanotechnology Bone development in fetal models His recent publications highlight collaborations with leading researchers like Francesco Forconi and Richard Oreffo , with studies on venetoclax therapy , nanocomposite scaffolds , and single-cell RNA-seq applications. He supervises Luis Del Rio Fernandez , a PhD student in Cancer Sciences, and contributes to interdisciplinary projects such as the ECRIN-M3 network (Cancer Research UK-funded).

David SherwoodView profile

Professor

• Cell Biology
• Developmental Biology
• Cancer Metastasis
• +4 more

David Sherwood is a Professor and Associate Chair of the Biology Department at Duke University, associated with the Cell and Molecular Biology Program, University Program in Genetics and Genomics, and Molecular Cancer Biology Program. His research focuses on cell-matrix interactions, particularly basement membrane dynamics in development and disease. He teaches courses in cell biology and co-directs the Embryology Course at the Marine Biological Laboratory. Key honors include the Pew Scholar award and the Mayent-Rothschild-Institut Curie Awardee. Education: B.S. from Illinois Wesleyan University and Durham University, Ph.D. from Duke University (lab of David McClay), postdoc with Paul Sternberg at Caltech. Research Interests: Investigates how basement membranes regulate cell invasion (e.g., cancer metastasis), stem cell niches, and tissue repair. Uses C. elegans as a model organism with advanced imaging and genetic tools. Recent work includes identifying basement membrane components' dynamics and mechanisms for cell invasion adaptation. Articles Trends: Focus on basement membrane composition, lipid-driven invasion, and matrix remodeling. Highlights include discovering B-LINK adhesion systems and ATP-driven invasion mechanisms without MMPs. Awards: Ruth Kirschtein Award, Leukemia & Lymphoma Fellowship, Howard Temin Award, Basil O’Connor Scholar. Advising/Grants: Mentored numerous PhD students and postdocs. Lab activities include development of imaging tools and collaboration with institutions like the Curie Institute. Labs/Teams: Runs the Sherwood Lab at Duke, emphasizing inclusive culture and interdisciplinary approaches. Collaborations span stem cell biology, matrix biology, and translational research.

Ali SenView profile

Research Fellow

• Productivity
• Structural Change
• Production Networks
• +1 more

Dr. Ali Sen is a Research Fellow at the Janeway Institute (University of Cambridge) and The Productivity Institute (Manchester, UK). His work bridges economics and molecular biology, focusing on productivity, structural change, and production networks in economics, while also contributing to understanding non-coding RNAs, protein toxicity, and neurodegenerative diseases in biology. Current affiliations: University of Cambridge (Faculty of Economics), The Productivity Institute (Manchester) Specialties: Digitalization, Intangible Capital, Sectoral Heterogeneity His research explores the intersection of economic policy and biological mechanisms, with recent publications on productivity growth slowdowns and production networks (2024) alongside studies on autophagy in neurofibromatosis (2025) and non-coding RNA roles in cancer (2019-2022). Key article trends reveal interdisciplinary work in: Economics: Digitalization, Structural Change, Intangible Capital Molecular Biology: Non-Coding RNA, Protein Misfolding, Neurodegeneration Genetics: Genetic Interactions, Mutations in Disease, Drosophila Models