Prof. Dr. Leonid Ionov is a leading academic at the Faculty of Engineering Science , University of Bayreuth, specializing in Biofabrication and 4D Printing . He has held professorial roles since 2017, with prior positions at the University of Georgia and TU Dresden. Research Priorities: Smart responsive polymers, 3D/4D bioprinting, self-healing electronics, and bioinspired surface engineering. Teaching: Offers advanced courses in 3D Printing of Polymers , Biofabrication , and Polymer Science . His work integrates stimuli-responsive materials with additive manufacturing to create bioinspired actuators, vascular scaffolds, and self-healing conductive systems. Recent articles focus on 4D-printed vascular junctions , multi-responsive cellulose composites , and dynamic bilayer morphing . Scientific Achievements Recipient of the 2022 North Bavaria Business Plan Competition award 2012 Georg Manecke Prize for biopolymer research Developed European patents for Li-S battery cathodes and microfluidic devices Trained over 20 PhD/postdoc alumni now at institutions like Iowa State University and Harvard Medical School . Leads a multidisciplinary lab with advanced equipment for polymer synthesis, electrospinning, and cell culture studies.
Prof. Amir A. Zadpoor holds dual roles as Antoni van Leeuwenhoek Professor at TU Delft (Department of Biomechanical Engineering) and Professor of Orthopedics at Leiden University Medical Center. He leads the Additive Manufacturing Lab and specializes in biomaterials, tissue biomechanics, and orthopedic implants. His research focuses on 3D/4D printing, meta-biomaterials, and biodegradable metals for clinical applications. Key research interests include: designing function-tailored implants, antimicrobial biofunctionalized materials, and mechanically adaptive meta-implants. He has pioneered projects like 'Metallic clay' and 'Mechanobiology in-silico,' with applications in orthopedics and regenerative medicine. Notable awards include ERC grants, Vidi/Veni awards, and the Jean Leray Award. His lab develops deployable implants, self-folding origami lattices, and smart meta-implants. Ancillary roles include editorial positions at Springer Nature and directorships at Sylvanity/Zagres. Teaching includes courses on biomaterials, regenerative medicine, and computational biomechanics. Research outputs span over 150 peer-reviewed articles. Current priorities include sustainable biomaterials, AI-driven design optimization, and translating additive manufacturing innovations into clinical practice.
David E. Breen is a Professor in the Department of Computer Science within the College of Computing & Informatics (CCI) at Drexel University. He leads the Geometric Biomedical Computing Group and is affiliated with the Metadata Research Center and the Center for Biological Discovery from Big Data. His research spans interdisciplinary domains including biomedical image informatics, geometric modeling, textile modeling, and bio-inspired self-organization algorithms. Education: PhD, Computer and Systems Engineering, Rensselaer Polytechnic Institute MS, Computer and Systems Engineering, Rensselaer Polytechnic Institute BA, Physics, Colgate University His research interests focus on computational methods for biomedical applications, including shape and image analysis for cancer diagnosis, 3D reconstruction of biological tissues, and video analysis of animal behavior. He also investigates geometric modeling techniques for textiles and self-organizing systems. His work integrates computer science with biology, medicine, and engineering to solve complex problems in biomedical computing. The recent publications highlight a strong trend in computational modeling of textiles, biomedical image informatics, and AI-driven data analysis. Key themes include geometric modeling of knitted fabrics, deep learning for medical image classification, agent-based modeling of cancer metastasis, and metadata generation for biological image collections. His work bridges fundamental geometric algorithms with practical applications in healthcare and digital archives. Scientific Awards: No specific awards mentioned in the provided text. Breen has advised numerous students and collaborators across multiple domains, particularly in biomedical computing and textile modeling. His research has been supported through affiliations with major centers and collaborations with institutions such as Johns Hopkins University and the Max Planck Institute. He has been involved in projects related to NSF Center for Visual & Decision Informatics and has contributed to over 100 technical publications. He leads the Geometric Biomedical Computing Group , which conducts research at the intersection of biology, medicine, engineering, and computer science. The group develops algorithms and software for geometry-related computing problems in biomedical applications. Collaborations include the Drexel Integrated Laboratory for Cellular Tissue Engineering, Dr. Dan Marenda's Lab, and Dr. Aleister Saunder's Lab in Drexel's Biology Department.
Dr. Amir K. Miri is an Assistant Professor in the Department of Biomedical Engineering at New Jersey Institute of Technology (NJIT) and Director of the Advanced Biofabrication Lab. His work focuses on additive manufacturing for biomedical applications, particularly bioprinting technologies for tissue regeneration and disease modeling. After receiving his PhD in Mechanical Engineering from McGill University (2013) and completing postdoctoral training at the MIT-Harvard Division of Health Sciences and Technology, he began his academic career at Rowan University before joining NJIT. PhD, Mechanical Engineering, McGill University (2013) MSc, Mechanical Engineering, Sharif University of Technology (2007) BSc, Mechanical Engineering, Iran University of Science and Technology (2005) Dr. Miri's research spans advanced bioprinting platforms, including multi-axial extrusion, handheld printers, and digital light projection systems. His work emphasizes the development of biomimetic models for cancer, vocal fold tissue, and vascular systems, with a particular focus on microfluidic integration and material optimization for bioprinting. He has pioneered low-cost prototyping solutions for resource-limited settings and explored the role of extracellular matrix mechanics in cellular behavior. Key trends in his publications include 3D bioprinting for tumor modeling, microfluidic device applications in drug screening, and the use of hydrogels like GelMA in cancer research. His group has also advanced acoustic metasurface technology for biomedical wave manipulation and investigated the interplay between biomaterial rheology and bioprinting resolution. Dr. Miri leads a research team at NJIT focused on biofabrication and microfluidics, though specific student advisees are not listed in the provided information. His lab emphasizes interdisciplinary collaboration, particularly in the development of multi-material and multi-scale tissue constructs.
George M. Church is a Professor of Genetics at Harvard Medical School and affiliated with MIT, where he directs PersonalGenomes.org, providing open-access genomic, environmental and trait data. His laboratory focuses on transformative technologies for reading and writing 3D/4D biological structures with attention to ethics, safety, and equitable access. Church has co-initiated major scientific initiatives including the BRAIN Initiative (2011) and multiple Genome Projects (GP-Read-1984, GP-Write-2016, PGP-2005). Church's research spans multiple cutting-edge domains including genome engineering, synthetic biology, aging reversal, and space genetics. His lab pioneered foundational methods for direct genome sequencing, molecular multiplexing and barcoding in 1984, leading to the first genome sequence in 1994. His innovations contributed to nearly all next-generation DNA sequencing methods and companies. Current research directions include machine learning for protein engineering, tissue reprogramming, organoids, gene therapy, and in situ 3D DNA/RNA/protein imaging. His work bridges fundamental biology with therapeutic applications across diverse fields from Alzheimer's disease to de-extinction biology. Church's recent publications reveal a remarkable breadth of scientific inquiry, spanning from fundamental genome editing techniques to applications in aging research, neuroscience, and space biology. His work increasingly integrates artificial intelligence with biological systems, as seen in papers on machine-guided cell-fate engineering and automation of systematic reviews with large language models. His research maintains a strong translational focus, with numerous papers addressing therapeutic applications in cancer immunotherapy, gene therapy, and diagnostics. The consistent theme across his diverse publications is the development and application of transformative technologies to address fundamental biological questions and medical challenges. National Academy of Sciences (NAS) membership National Academy of Engineering (NAE) membership Franklin Bower Laureate for Achievement in Science Co-initiator of the BRAIN Initiative (2011) Director of multiple NIH Centers for Excellence in Genomic Science (2004-2020) Church directs numerous research centers including the NIH-CEGS, Personal Genome Project (PGP), Lipper Center for Computational Genetics, and Wyss Institute Synthetic Biology center. His laboratory has trained PhD students across multiple Harvard and MIT programs including Biophysics, BBS, Biomedical Informatics, ChemBio, Chemistry, SSQB, MCO, Virology, HST, EE/CS, Physics and Applied Math. His commercial impact is extensive through companies spanning medical diagnostics (Knome/PierianDx, Alacris, Nebula, Veritas) and synthetic biology/therapeutics (AbVitro/Juno, Gen9/enEvolv/Zymergen/Warpdrive/Gingko, Editas, Egenesis). Church also pioneered new privacy, biosafety, ELSI, environmental and biosecurity policies. The Church Lab operates across multiple research domains including molecular multiplexing, next-generation sequencing, nanopore technology, and genome engineering. The lab maintains strong connections with the Personal Genome Project, Wyss Institute, and multiple commercial ventures. Current research directions include the Spatial Atlas of Human Anatomy (SAHA), human skin rejuvenation via mRNA, and space genetics research through the Consortium for Space Genetics and BioAstra. The lab's mission focuses on transformative technologies for reading and writing 3D/4D structures at any scale, inspired by but not limited by biology.
Dr. Stefano Buoso is a Lecturer at ETH Zürich's Department of Information Technology and Electrical Engineering, specializing in biomedical imaging and computational mechanics. His research focuses on cardiovascular modeling, fluid-structure interaction, and reduced-order modeling. He holds a position in the Professur für Biomedizinische Bildgebung (Biomedical Imaging Professorship). Key research areas include computational fluid dynamics applied to cardiovascular systems, development of machine learning tools for medical imaging (e.g., MRI and echocardiography), and creation of patient-specific numerical phantoms. His work bridges engineering and medicine, with applications in clinical diagnostics and personalized medicine. Recent articles emphasize innovations like automated 3D heart modeling from 2D echocardiography, synthetic MRI data generation, and turbulence analysis in aortic flow. He has developed open-source tools like CMRsim for cardiovascular simulations. Buoso collaborates on digital twin technologies for carotid artery disease assessment and fluid dynamics modeling of biological systems. His technical contributions include methods for rapid mesh generation, stabilized reduced-order models, and MRI-guided cardiac shape modeling. Research spans from microvascular neurovascular unit studies to bio-inspired membrane wing aerodynamics, reflecting interdisciplinary expertise.
E. Thomas (Tommy) Pashuck is an Assistant Professor in the Department of Bioengineering at Lehigh University , where he joined after postdoctoral training at Rutgers University and Imperial College London . His research focuses on designing enzyme-responsive biomaterials using peptide self-assembly to control hydrogel chemistry and nanoscale organization , aiming to improve regenerative medicine applications. Education: Ph.D. in Materials Science from Northwestern University (2009) Pashuck's work explores biomaterials that direct cell behavior through precise spatial and mechanical cues . Recent publications highlight advancements in high-throughput peptide screening , 4D bioprinting , and protease-activated hydrogels , demonstrating his expertise in dynamic biomaterial design and cell-matrix interactions . His research group investigates cell adhesion optimization via ligand mobility control , enzyme-mimicking nanomaterials , and sequence-controlled polymerization while maintaining clinical translation goals. Publications from 2021-2025 emphasize hydrogel mechanics , biodegradable scaffolds , and supramolecular catalytic systems , spanning biomaterial engineering , peptide nanotechnology , and regenerative medicine .
Dr. Xiong Yi is an Assistant Professor at the School of System Design and Intelligent Manufacturing (SDIM) at Southern University of Science and Technology (SUSTech) in Shenzhen, China. He leads the Computational Design and Fabrication (CoDeFab) research group, focusing on the integration of computational design methods with advanced manufacturing technologies, particularly in the field of additive manufacturing. Dr. Xiong has established himself as a leading researcher in computational design for additive manufacturing, with a strong international research background spanning Europe and Asia. Dr. Xiong's educational journey includes: Doctor of Science (DSc) in Engineering Design and Production from Aalto University, Finland (2012-2016) Master of Science (MSc) in Machine Automation from Tampere University of Technology, Finland (2010-2012) Bachelor of Engineering (BEng) in Mechanical Engineering from Hubei University of Technology, China (2006-2010) Dr. Xiong's research primarily focuses on computational design and fabrication methodologies, with particular emphasis on design for additive manufacturing (DfAM), intelligent manufacturing systems, and smart materials. His work bridges the gap between theoretical design principles and practical manufacturing constraints, developing novel approaches for the production of complex engineered products. He has pioneered research in continuous fiber-reinforced composite additive manufacturing, developing innovative process planning and optimization techniques that enable the production of high-performance structural components. His research in electrothermally controlled origami and 4D printing of smart materials represents cutting-edge work at the intersection of materials science, mechanical engineering, and computational design. Dr. Xiong's recent publications reveal a strong focus on continuous fiber-reinforced composites, with significant contributions to 4D printing, metamaterials, and intelligent process planning. His work integrates computational design with manufacturing constraints, creating novel approaches for topology optimization, toolpath planning, and structural design that consider both performance requirements and manufacturability limitations. The research demonstrates increasing sophistication in materials science applications, particularly in programmable materials and multi-functional structures. Dr. Xiong has received multiple prestigious awards for his research contributions, including: Best Presentation Award at the 24th Chinese Conference on Mechanisms and Machine Science (IFToMM CCMMS2024) Best Presentation Award at the International Conference on Frontiers of Additive Manufacturing Research (RAAM 2024) Best Paper Award at the International Conference on Design for 3D Printing (ICD3DP 2023) PhD Scholarship from Aalto University (2016) Research Travel Grant from the International Association for Vehicle System Dynamics (IAVSD) (2013) National Scholarship from the Ministry of Education (2008) As a dedicated educator and mentor, Dr. Xiong serves as a PhD supervisor at SUSTech and has successfully guided students who have gone on to pursue advanced studies and careers at prestigious institutions including Hong Kong Polytechnic University, Beihang University, DJI Innovations, and Singapore's A*STAR research institute. His research is supported by multiple competitive grants, including key projects from the National Key R&D Program of China, the National Natural Science Foundation of China, and provincial and municipal funding agencies. Dr. Xiong also serves on the editorial board of the Journal of Engineering Design and as a guest editor for Composites Communications, contributing to the advancement of his field through scholarly service. Dr. Xiong leads the CoDeFab research group, which maintains a strong collaborative culture focused on 'design leading manufacturing, manufacturing driving design, and digital-intelligent integration.' The group has developed several advanced manufacturing platforms, including multi-axis continuous fiber-reinforced composite additive manufacturing systems, smart composite additive manufacturing platforms, and multifunctional soft matter open manufacturing platforms. With a focus on practical applications and innovation, the CoDeFab group actively collaborates with industry partners and has established a joint laboratory to bridge academic research with industrial implementation.
Dr. Albert J. Sinusas is a Professor of Medicine (Cardiology) , Radiology & Biomedical Imaging , and Biomedical Engineering at Yale University . He serves as Director of the Yale Translational Research Imaging Center (Y-TRIC) and Advanced Cardiovascular Imaging at Yale New Haven Hospital. Education: BS from Rensselaer Polytechnic Institute (1979), MD from University of Vermont (1983), Internal Medicine training at University of Oklahoma (1986), Cardiology/Nuclear Cardiology at University of Virginia (1989) Dr. Sinusas specializes in non-invasive cardiovascular imaging with expertise in PET/CT, SPECT/CT, echocardiography, and MR imaging . His research focuses on molecular imaging of myocardial injury , angiogenesis , post-infarction remodeling , and deep learning applications in cardiac diagnostics. He has pioneered multimodality imaging approaches for cardiovascular pathophysiology assessment. Recent publications highlight his work in AI-driven cardiac imaging , novel PET tracers , and medical robotics . His team's 15 most recent articles (2024-2025) span topics from ARDS diagnostics to cardiovascular risk stratification using CT and PET technologies. Scientific Awards: SNMMI Hermann Blumgart Award (2008) Best Doctor in America (2001-2002, 2005-2015) M.A. Privatim from Yale (2006) Robert Wilkinson Lectureship (2014) Interurban Clinical Club membership (2017) As Principal Investigator on multiple NIH grants, Dr. Sinusas directs the NHLBI-funded T32 training program in multimodality cardiovascular imaging. His lab (Y-TRIC) houses state-of-the-art imaging resources including hybrid SPECT/CT , microCT , and 3D ultrasound systems for translational research from animal models to clinical applications.
Professor Hongbin Li is a Professor and Canada Research Chair in the Department of Chemistry at the University of British Columbia. His research program focuses on single molecule biophysical chemistry, biomaterials, and protein engineering. He leads an active research group investigating the mechanical properties and conformational dynamics of elastic proteins using advanced single molecule techniques. Professor Li received his B.Sc in Polymer Engineering from Tianjin University, China in 1993. He earned his Ph.D. in Polymer Chemistry and Physics from Jilin University, China in 1998 under the supervision of Profs. Jiacong Shen, Xi Zhang and Hermann E. Gaub. During his doctoral studies, he was a visiting PhD student at Ludwig-Maximilians-Universität München, Germany (1996-1997) working with Prof. Hermann E. Gaub. Following his Ph.D., he completed a Research Fellowship at Mayo Medical Center, USA (1999-2002) with Prof. Julio M. Fernandez. Professor Li's research program centers on understanding the mechanical properties and conformational dynamics of elastic proteins at the single molecule level. His laboratory combines protein engineering with single molecule atomic force microscopy (AFM) and computational approaches to rationally design and engineer proteins with tailored mechanical properties. Using AFM as their primary tool, his team directly manipulates proteins one molecule at a time to measure mechanical properties and monitor folding/unfolding trajectories in real time. His research spans four main directions: (1) Protein Mechanics and Engineering, where they design proteins with specific mechanical properties; (2) Single Protein Folding/Unfolding Dynamics, investigating folding mechanisms at the single molecule level; (3) Protein-based Biomaterials, designing biomaterials with tailored mechanical properties for biomedical applications; and (4) Polymer physical chemistry using single molecule AFM. His work bridges fundamental protein mechanics with practical applications in biomaterials design. Professor Li has received numerous prestigious awards recognizing his contributions to biophysical chemistry and protein engineering: 2020: AAAS Fellow (the American Association for the Advancement of Science) 2012: Changjiang Guest Chair Professorship (Jilin University, China) 2011: JILA Visiting Fellowship (JILA and University of Colorado, Boulder) 2011: Alexander von Humboldt Fellowship (Technical University of Munich, Germany) 2010: JILA Distinguished Short-term Visiting Fellow 2010: Charles McDowell Award for Research (UBC) 2006: Michael Smith Foundation for Health Research Career Investigator Award 2005: Peter Wall Institute for Advanced Studies Early Career Award (UBC) Professor Li has mentored numerous graduate students and postdoctoral fellows throughout his career at UBC. His research has been supported by multiple grants, including his Canada Research Chair position which he has held continuously since 2004. His work bridges chemistry, physics, and biology, attracting funding from diverse sources including the Natural Sciences and Engineering Research Council of Canada (NSERC), the Michael Smith Foundation for Health Research, and international collaborations. His laboratory maintains strong connections with research groups worldwide, particularly in China and Germany, reflecting his international research profile. Professor Li leads an active research group within the Department of Chemistry at UBC that combines expertise in protein engineering, single molecule biophysics, and biomaterials science. His laboratory is equipped with state-of-the-art atomic force microscopes and optical trapping systems, enabling cutting-edge single molecule studies. The group maintains close collaborations with researchers in the Michael Smith Laboratories and other interdisciplinary centers at UBC, fostering a highly collaborative research environment focused on understanding protein mechanics and developing novel protein-based materials.
Mathias FINK is a Professor at ESPCI Paris on the Georges Charpak chair. His research focuses on fundamental wave physics in complex media with major applications in medical imaging, telecommunications, and geophysics. He pioneered time-reversal mirrors for wave focusing and co-founded 6 technology companies. Key Institutions: ESPCI Paris, Collège de France Research Themes: Wave physics, time-reversal techniques, matrix imaging, metasurface design His work spans multi-echo wave systems , ultrasonic therapeutic devices , and adaptive electromagnetic communication systems . Recent publications emphasize 3D matrix imaging in biological tissues and space-time interface dynamics . Scientific recognition includes: First academic elected at Collège de France (2008) Over 400 peer-reviewed publications 70+ patents and 6 start-ups Collaborations extend to Institut des Hautes Études Scientifiques , Langevin Institute , and Hong Kong University of Science and Technology . His team's volcanic imaging work with seismic noise has revolutionized subterranean mapping.
Delphine Périé-Curnier is a Full Professor in the Department of Mechanical Engineering at Polytechnique Montréal and Director of Graduate Studies. Her research focuses on developing quantitative MRI techniques for non-invasive characterization of living tissue mechanical properties, particularly in cardiotoxicity detection and musculoskeletal mechanobiology . She leads the Bioperformance Analysis and Innovation Laboratory (LIAB) and contributes to the Institute of Biomedical Engineering. Education: Ph.D. from Paul Sabatier University, Toulouse, France Her work bridges medical imaging , biomechanical modeling , and finite element analysis to predict disease progression through pathomechanism understanding. Key projects include exercise-induced cardiac changes in childhood cancer survivors and spinal biomechanics in scoliosis. Recent publications (2023-2024) emphasize cardiovascular MRI for childhood cancer survivorship and hemodynamic modeling in left ventricle analysis. She supervises 26 graduate students, with completed theses spanning topics like doxorubicin cardiotoxicity , knee replacement stability , and spatial cardiac MRI protocols . Teaching includes graduate courses in biomedical design , advanced biomechanics , and modeling techniques .
Prof. Yan Tina Luximon is a Full Professor and Associate Dean (Research) at the School of Design, The Hong Kong Polytechnic University. She chairs the School Research Committee, leads the Asian Ergonomics Design Lab, and serves as Deputy Discipline Leader for BA (Product Design). Her work bridges ergonomics, AI design tools, and 3D human modeling in cross-cultural contexts. Education: PhD in Ergonomics from The Hong Kong University of Science and Technology Research interests span Ergonomics in product design 3D digital human modeling for AI applications Anthropometry and cultural design differences Statistical modeling for head/face product development Human-computer interaction and AI visualization Recent publications focus on AI-enhanced 3D head modeling, ergonomic healthtech products, and cross-cultural design psychology, with applications in robotics, mobile technology, and medical devices. Scientific awards include: Gold Medal with jury congratulations at Geneva Inventions 2024 Silver Award at IDEA 2023 for adaptive eyewear design Best Innovation Award at ACED Japan 2017 She supervises postgraduate research and leads projects funded by the General Research Fund (RGC GRF) and Laboratory for AI in Design, including AI Powered Ergonomic Product Design (2025) and 4D Head Movement Prediction (2024).
Jie Deng, Ph.D., is a Professor in the Department of Radiation Oncology at UT Southwestern Medical Center, where she serves as faculty in the Division of Medical Physics & Engineering. She is a certified MRI and MRI for radiation therapy medical physicist by the American Board of Medical Physics and holds a leadership role as a magnetic resonance safety officer. Dr. Deng is actively involved in both clinical and research aspects of medical imaging and radiotherapy, with a strong emphasis on integrating advanced imaging technologies into therapeutic workflows. Dr. Deng earned her academic degrees from prestigious institutions: a Bachelor of Science in Biomedical Engineering from Southeast University in China, a Master’s in Bioengineering from the University of Illinois at Chicago, and a Ph.D. in Biomedical Engineering from Northwestern University. She further enhanced her expertise by obtaining a Master of Science in Law from the Northwestern Pritzker School of Law, reflecting a multidisciplinary approach to her scientific work. Her research interests center on MRI physics , quantitative imaging , oncological imaging , and the application of artificial intelligence in medical imaging. She has pioneered work in MRI-guided radiation therapy, imaging biomarkers for therapeutic response, and AI-driven image reconstruction and artifact reduction. Her recent publications demonstrate a consistent focus on improving imaging accuracy, speed, and clinical utility, particularly in liver, pediatric, and oncological applications. The analysis of her 15 most recent articles reveals a strong trend toward deep learning-based image reconstruction , quantitative MRI biomarkers , and synthetic image generation for radiotherapy planning. Topics such as 4D-MRI, synthetic CT, motion artifact reduction, and AI fusion models dominate her scholarly output, indicating a forward-looking research trajectory centered on intelligent, fast, and precise imaging for personalized cancer therapy. Dr. Deng actively contributes to the scientific community through presentations at major conferences including the International Society for Magnetic Resonance in Medicine (ISMRM) and the American Association of Physics in Medicine (AAPM), where she shares innovations in MRI, adaptive radiotherapy, and AI integration. As an educator, Dr. Deng mentors medical physics residents and graduate students, delivering lectures on MR-only simulation, MR-linear accelerator practices, and medical imaging fundamentals. While no specific grants are mentioned in the text, her extensive publication record in high-impact journals suggests active research funding and collaborative projects. She is affiliated with key professional organizations and serves on UT Southwestern’s MRI Safety Committee, ensuring safe and effective use of MRI in clinical and research settings. Her work bridges the gap between engineering innovation and clinical application, making significant contributions to the field of radiation oncology and medical physics.
Huaiying Zhang is an Assistant Professor in the Department of Biological Sciences at Carnegie Mellon University, part of the Mellon College of Science. His research focuses on the role of biomolecular condensates in cellular functions and cancer progression, particularly investigating phase transitions in telomere maintenance and cancer cell immortality. He holds a Ph.D. from McGill University and completed postdoctoral research at Dartmouth College, Princeton University, and the University of Pennsylvania. Research interests include engineering synthetic organelles, developing optogenetic tools to manipulate phase separation in live cells, and targeting phase transitions for cancer therapy. His work bridges biophysics, cell biology, and synthetic biology to address fundamental questions in nuclear organization and disease mechanisms. Education: Ph.D., McGill University Postdoctoral Fellowships: Dartmouth College, Princeton University, University of Pennsylvania Publications highlight advances in understanding telomere clustering in cancer cells, nuclear body formation, and applications of phase separation in therapeutic strategies. Collaborative projects emphasize interdisciplinary approaches, combining experimental and theoretical methods. Lab activities focus on biomolecular condensates' material properties, their roles in genomic processes, and translational applications in cancer treatment. The lab actively seeks students and researchers interested in cellular biophysics and disease biology.
