Zhe Ji is an Assistant Professor in the Department of Biomedical Engineering at McCormick School of Engineering and the Department of Pharmacology at Feinberg School of Medicine, Northwestern University. His research integrates computational and experimental genomics to study gene transcription and RNA translation in cell fate commitment and oncogenic processes, aiming to develop precision medicine strategies. **Education**: Postdoctoral Fellow in Cancer Systems Biology, Harvard Medical School Postdoctoral Fellow in Computational Biology, Broad Institute of MIT and Harvard Ph.D. in Computational Genomics, Rutgers University B.S. in Biotechnology, Nanjing University, China **Research Focus**: Keywords include Data Science, Computational Biology, Functional Genomics, RNA, Cancer, Inflammation, and Machine Learning. The lab explores regulatory mechanisms underlying disease, with a focus on translational control, cancer metastasis, and inflammatory networks. **Grants & Advising**: No specific grants or student advisees listed. The lab emphasizes collaborative projects and computational-experimental approaches. **Lab Affiliations**: Zhe Ji’s lab is part of Northwestern’s interdisciplinary environment, bridging engineering and medicine to advance genomic technologies and therapeutic strategies.
Zoran Cenev holds a Tenure Track Assistant Professor position within the Mechatronics and Dynamics section of the Department of Mechanical and Production Engineering at the School of Engineering, Aarhus University. His primary institutional affiliation is with AU Engineering, and contact details include email zoran.cenev@mpe.au.dk and telephone +45 20 64 75 44, with office location Aarhus N, 5128-140. Research interests focus on interdisciplinary applications of magnetic and robotic systems: Robotic micromanipulation via electromagnetic needles Ferrofluid-based biofabrication for skeletal muscle engineering Laser-induced photothermal droplet control Theoretical modeling of particle dynamics at fluid interfaces Surface engineering for underwater metallic stability Nanostructure formation through ion bombardment His recent publications (2023-2025) reveal a dominant trend in adapting ferrofluids for biomedical automation, particularly 3D bioprinting of magnetically responsive tissues and droplet manipulation on engineered surfaces. This work bridges mechanical engineering with regenerative medicine, emphasizing practical implementations of theoretical models for microscale precision. Scientific awards are not documented in the provided information. As a faculty member, Dr. Cenev likely mentors graduate students and pursues research grants, though specific advisees or funding details are absent. Departmental laboratories and workshops support his experimental work in mechatronics, with emphasis on magnetic manipulation systems and surface characterization.
Yu Sun is an assistant professor in the Department of Electrical and Computer Engineering at Johns Hopkins University with a joint appointment at the Data Science and Artificial Intelligence (DSAI) Institute. His research integrates machine learning, computer vision, optimization, and physics to advance computational imaging frameworks for reliable AI-driven imaging systems. He earned a BEng in electronics and information from Sichuan University (2015) and a PhD in computer science from Washington University in St. Louis (2022), where his dissertation received the Turner Dissertation Award. His academic journey includes a postdoctoral fellowship at Caltech's Department of Computing and Mathematical Sciences. Dr. Sun's research spans biomedical imaging, computational imaging, inverse problems, and machine learning, focusing on interpretable AI integration for next-generation imaging. His work bridges theoretical foundations with practical applications in medical and scientific imaging domains. Recent publications reveal a dominant trend in diffusion models for scientific imaging problems, including plug-and-play priors for reconstruction (NeurIPS 2024) and benchmarks for diffusion-based scientific problem-solving (ICLR 2025 Spotlight), demonstrating cross-disciplinary impact from biomedical engineering to cell biology. Key honors include: Turner Dissertation Award for doctoral contributions Rising Star Award from the Conference on Parsimony and Learning (CPAL, 2025) He serves as a consultant associate editor for the IEEE Open Journal of Signal Processing and actively participates in the IEEE Signal Processing Society’s Computational Imaging Technical Committee. His research is supported by institutional funding through the Hopkins Computational Imaging Group. The Hopkins Computational Imaging Group, which he leads, unites AI, mathematics, and data science to develop principled algorithms for imaging systems, with emphasis on biomedical applications and novel computational frameworks.
Hsueh-Chia Chang is the Bayer Professor of Chemical Engineering in the Department of Chemical and Biomolecular Engineering at the University of Notre Dame's College of Engineering. He also holds a concurrent faculty position in the Department of Aerospace and Mechanical Engineering. As Principal Investigator of the Chang Lab, he leads cutting-edge research in microfluidic and nanofluidic technologies for biomedical applications. Prof. Chang received his B.S. in Chemical Engineering from Caltech in 1976, followed by M.S. and Ph.D. degrees in Chemical Engineering from Princeton University in 1977 and 1980, respectively. His academic journey has established him as a leader in the field of microfluidics and biosensing technologies. Chang's research focuses on developing low-cost liquid biopsy nanotechnologies for cancer screening and therapy management. His lab specializes in microfluidic and nanofluidic research coupled with electrokinetics, optics, plasmonics and acoustics for biosensing applications. Key research areas include Electrokinetics & Biosensing, Optics & Plasmonics, Nanoelectrokinetics, and Droplet Microfluidics. The Chang Lab has developed innovative platforms that can isolate and sort tumor cells, exosomes, microvesicles, lipoproteins, and stress granules from blood samples, then lyse these structures to release RNA/protein biomarkers for detection and quantification. His recent publications reveal a strong focus on extracellular vesicle diagnostics, cancer biomarker detection, and point-of-care diagnostic technologies. The research spans multiple disciplines including oncology, cardiology, and neurology, with applications for pancreatic, liver, breast, ovarian, and lung cancers as well as myocardial infarction diagnosis. Fellow of American Institute of Medical and Biological Engineering (2025) Provost Research Achievement Award, Notre Dame (2024) Fellow of the National Academy of Inventors (2020) Lifetime Achievement Award, American Electrophoresis Society (2019) Fellow of the American Physical Society (1997) Presidential Young Investigator Award, NSF (1985) Prof. Chang has advised over 50 PhD students and postdocs who have gone on to prominent positions in academia and industry. His lab has secured significant funding and has commercialized several technologies through startups like Aopia Biosciences, which launched NanoEx at ISEV 2024. The Chang Lab maintains active collaborations with medical researchers for validating their diagnostic platforms against various cancers and cardiac conditions.
Ralph Jimenez is an Adjunct Professor of Chemistry and Institute Fellow at JILA, University of Colorado Boulder. He holds a Ph.D. from the University of Chicago (1996) and completed postdoctoral work at the University of California, San Diego (1997-1998), followed by research at The Scripps Research Institute (1998-2003). His research focuses on quantum spectroscopy and photophysics of fluorescent proteins, leveraging quantum optics to enhance spectroscopic sensitivity and developing genetically encoded biomarkers with improved photophysical properties. Key achievements include fluorescence-lifetime-based methods to engineer brighter fluorescent proteins and machine-learning approaches to improve photostability. His awards include the Arthur S. Flemming Award (2017) and U.S. Department of Commerce Gold Medal (2017). His group's work integrates quantum engineering with biophysical studies, targeting real-world applications in molecular imaging and materials science. The Jimenez Group operates labs at JILA (B117, B119, B121) and collaborates on projects involving entangled photons, two-photon absorption, and ultrafast spectroscopy. Research themes include quantum-enhanced spectroscopy for complex systems and overcoming limitations in fluorescent protein imaging through physical chemistry strategies. His lab develops novel instrumentation, including microfluidic sorting systems and tabletop X-ray spectroscopy platforms, to advance biomarker engineering and environmental monitoring.
Jeffrey Guasto , Associate Professor at Tufts University, holds joint appointments in the School of Engineering (Mechanical Engineering) and School of Arts and Sciences (Physics & Astronomy). His work bridges engineering, physics, and biology to study transport properties in complex systems. Ph.D., Engineering (2009), Brown University Sc.M., Engineering (2004), Brown University Dual B.S. in Physics and Mechanical Engineering (2003), Lehigh University Research Interests focus on: Biophysics : Flagellar mechanics, chemotaxis, cell-fluid interactions Soft Matter : Active suspensions, colloids, viscoelastic materials Microfluidics : Device design for cell motility studies and gradient generation Environmental Transport : Microbial ecology in porous systems Scientific Trends from his 77+ publications show emphasis on microscale fluid dynamics, bacterial transport mechanisms, and viscoelastic flow instabilities. His 2024 Nature Microbiology work reveals phage-infected bacteria driving marine chemotaxis, while 2023 PNAS research explores stress topology in viscoelastic flows. Scientific Awards : NSF CAREER Award (2016) for cell dispersal mechanisms Collaborative NSF grants (2015-2023) Advising includes mentoring 15+ students and postdocs. His grants portfolio features 9+ awards, notably NSF grants for viral-microbe interactions (2018) and flagellar mechanics (2020). Labs & Teams : Leads the Guasto Laboratory at Tufts, integrating microfluidics and high-speed imaging for studying microbial transport, while collaborating with MIT, Harvard, and international institutions.
Matthew R. Jones is an Associate Professor in the Department of Chemistry at Rice University and holds the Gene and Norman Hackerman Junior Chair and Norman Hackerman-Welch Young Investigator titles. He joined Rice in 2017 after postdoctoral research at UC Berkeley under Paul Alivisatos and a PhD at Northwestern University under Chad Mirkin. His research focuses on systems-level nanoparticle assembly, plasmonics, and metamaterials, with applications in energy storage and biomedicine. Jones has pioneered techniques like 4D-STEM for catalytic nanoparticles and developed adaptive materials via strain-controlled synthesis. Education: B.S. in Materials Science and Biomedical Engineering (Carnegie Mellon University), Ph.D. in Chemistry (Northwestern University as an NSF Fellow). Key awards include the Packard Fellowship (2018) and NSF CAREER Award (2022). His lab hosts over 20 graduate students and postdocs, with notable advisees including Bukky, Zhihua Cheng, and Saxton. Research emphasizes interdisciplinary approaches: combining in-situ microscopy, ligand engineering, and computational modeling to control nanoparticle behavior. Recent studies include strain-preserved nanocatalysts (2024) and chiral superlattices (2024). Collaborations span Rice’s Center for Nanoscale Imaging Sciences and the Electrochemical Society. Lab: Jones Research Group Grants: NSF CAREER, Packard Fellowship, Rice Seed Award Publications: Over 50 peer-reviewed articles, including Science Advances (2024) and Nature Communications (2023)
Prof. Casper Hoogenraad is a full professor in Molecular Neuroscience at the Department of Cell Biology, Faculty of Science, Utrecht University. His research focuses on understanding how intracellular protein trafficking underlies neuronal development and function, with particular emphasis on the microtubule cytoskeleton, synaptic cargo trafficking, and synaptic plasticity. He leads an active research group within Utrecht University's Cell Biology department and collaborates extensively with other neuroscience research groups. Education: PhD, Erasmus University Rotterdam (1996-2001) Postdoc, Massachusetts Institute of Technology (2002-2005) Hoogenraad's research spans three main themes: cytoskeleton dynamics during neurodevelopment and synaptic plasticity, motor proteins and adaptors as regulators of synaptic transport, and psychiatric and neurologic disease disorders linked to intracellular transport. His work combines genetics, biochemistry, molecular, and cellular biology methods in in vitro (neuron cultures), ex vivo (brain slices), and in vivo (mice) systems, along with advanced microscopy techniques including immunofluorescent confocal microscopy, high-resolution live cell imaging, and photo-activated localization microscopy (PALM). Analysis of Hoogenraad's recent publications reveals a strong focus on microtubule organization, neuronal polarity, and the molecular mechanisms underlying synaptic function and dysfunction. His work frequently explores how disruptions in intracellular transport contribute to neurological disorders including Alzheimer's disease, schizophrenia, and autism spectrum disorders, with particular attention to the relationship between cytoskeletal organization and cargo transport in neuronal compartments. Scientific Awards and Memberships: ZonMW-VIDI (2004) European Young Investigators (EURYI) award (2005) NWO-ALW VICI (2011) ERC Consolidator grants (2013) FENS-Kavli Network of Excellence (2014) European Molecular Biology Organization (EMBO) (2015) Young Academy of Europe (YAE) (2015) IBRO Kemali Prize (2016) Hoogenraad leads a research group studying neuronal development and function, with a particular focus on how intracellular transport mechanisms contribute to both normal brain function and neurological disorders. His laboratory employs a multidisciplinary approach combining molecular, cellular, and systems neuroscience techniques to investigate the molecular basis of neuronal polarity, synaptic plasticity, and the pathogenesis of neurological disorders. He has secured significant research funding through prestigious grants including ERC Consolidator grants. The Hoogenraad lab operates within the Cell Biology department at Utrecht University, collaborating with other research groups focusing on cellular dynamics, biophysics, and neurobiology. The lab utilizes advanced microscopy techniques including immunofluorescent confocal microscopy, high-resolution live cell imaging (spinning disc microscopy and total internal reflection fluorescence microscopy), and quantitative analysis using advanced high-resolution microscopy (photo-activated localization microscopy). Current lab technicians include Phebe Wulf and Bart de Haan.
Michael J. Ragusa is an Associate Professor of Chemistry at the Department of Chemistry, College of Arts and Sciences, Dartmouth College , specializing in molecular mechanisms of selective autophagy . His research integrates structural biology , biochemical reconstitution , and cell biology to understand how cells degrade toxic components like damaged organelles. Education: B.S. in Chemistry from Siena College, Ph.D. in Biochemistry from Brown University His work focuses on autophagy , particularly the role of Atg proteins in membrane tethering and cargo selection. His lab has published extensively on mitophagy , ALFY , and Atg11 , linking defects in these pathways to cancer , neurodegeneration , and infectious diseases . Recent studies highlight mechanisms of vesicle clustering and dimerization-dependent membrane interactions . Dr. Ragusa teaches courses such as CHEM 5: General Chemistry , CHEM 42: Biological Chemistry II , and CHEM 95.05: Protein Crystallography . His lab employs techniques like X-ray crystallography , NMR spectroscopy , and membrane reconstitution to dissect protein-lipid interactions.
Markus Babst is a Professor of Biological Sciences at the University of Utah, where he leads research at the Center of Cell and Genome Science. His work focuses on protein trafficking mechanisms in eukaryotic cells using Saccharomyces cerevisiae as a primary model system. His educational background includes: Diploma from Federal Institute of Technology, Switzerland Ph.D. from Federal Institute of Technology, Switzerland Dr. Babst's research centers on post-translational regulation of plasma membrane proteins through endocytosis and endosomal sorting. Key investigations include ESCRT-mediated protein sorting into multivesicular bodies for lysosomal degradation and eisosome-regulated storage of nutrient transporters. His work demonstrates how calcium signaling and proton gradients control eisosome disassembly and transporter endocytosis, revealing fundamental mechanisms of cellular stress adaptation. This research bridges membrane biophysics, metabolic regulation, and organelle dynamics. Analysis of his 15 most recent publications shows persistent thematic focus on membrane tension regulation, ESCRT complex dynamics, and nutrient transporter control. His work increasingly integrates mitochondrial metabolism with plasma membrane organization while maintaining yeast genetics as the core methodology. Recurring subfields include membrane contact sites, lipid domain organization, and stress-induced protein trafficking changes. Dr. Babst's scientific contributions are evidenced by his extensive publication record in high-impact journals, though specific awards are not documented in available sources. While student mentorship details are unavailable in the provided materials, his laboratory employs biochemical, genetic, and cell biological approaches to investigate membrane protein regulation. Grant funding specifics are not mentioned in the source text. His laboratory operates within the University of Utah's biological research ecosystem, utilizing S. cerevisiae to dissect conserved eukaryotic mechanisms. Current work emphasizes plasma membrane tension dynamics, ER-plasma membrane contact sites, and metabolic regulation of membrane protein trafficking, with implications for understanding cellular adaptation in changing environments.
David Latulippe is a Professor in the Department of Chemical Engineering at McMaster University. He joined McMaster in 2012 after postdoctoral work at Cornell University and a PhD at Penn State University, focusing on membrane filtration for DNA purification. His industrial experience includes roles at ZENON Environmental (now GE Water) in hollow-fiber membrane design for water treatment. Research interests include Membrane science and technology Bioprocessing of therapeutic viruses Microscale systems for biological applications Environmental engineering solutions for water treatment Current projects involve collaborations with industry partners like Ceapro and Aevitas, and the development of a biomanufacturing automation lab with Sartorius. Recent publications highlight advancements in Nanofiltration and microfiltration for viral vectors Conductive membranes for electrochemical applications Microfluidic systems for DNA analysis Environmental monitoring of biocides and microplastics Scientific recognition includes the Young Membrane Scientist Award (2014). Teaching activities focus on Fluid Mechanics (CHEMENG 2O04) and Industrial Separation Processes (CHEMENG 4M03).
Michael N. Economo, PhD, is an Assistant Professor in the Department of Biomedical Engineering at Boston University. His research focuses on neural circuits controlling movement, leveraging cutting-edge optical, electrophysiological, and genetic tools. He holds affiliations with Neuroscience & Neuroengineering and Photonics & Optical Systems programs. Education: PhD in Biomedical Engineering from Boston University, B.S. Biomedical Engineering and B.A. Mathematics from Duke University. Research Interests: Systems neuroscience, motor control, long-range neural circuits, computational neuroscience, neurotechnology. His lab investigates how neural circuits across brain regions coordinate movement using advanced techniques like optogenetics, in vivo imaging, and transcriptomics. Key Projects: Orofacial motor control, voltage imaging with TICO microscopy, neural circuit dissection. Technologies: Neuropixels probes, fluorescent voltage indicators, single-cell RNA sequencing. Notable Awards: NSF CAREER (2023), Scialog Fellow (2023), Whitehall Foundation Young Investigator Award (2021). Advising & Grants: Supervises graduate students (e.g., Munib Hasnain, Jackie Birnbaum) and postdocs (e.g., Vicky Moya, Yujin Han). Lab members focus on motor planning, neuromodulation, and neural dynamics. Labs/Teams: The Economo Lab collaborates on neurotechnology development and integrates interdisciplinary approaches from engineering and biology. Affiliated with BU’s Graduate Program in Neuroscience.
Gilles Hickson is a Full Professor at the Université de Montréal’s Faculty of Medicine, Department of Pathology and Cell Biology. He is affiliated with the Azrieli Research Center at CHU Sainte-Justine and serves as Deputy Director of Academic Affairs, Co-director of the Microscopy Imaging Platform, and responsible for the Molecular Biology Program. His research focuses on understanding molecular mechanisms of cytokinesis, particularly the transition from contractile rings to midbody rings, and the roles of anillin, septins, and actomyosin dynamics in cell division using Drosophila as a model. His work has implications for cancer biology and drug development. Education: BSc (Manchester), PhD (University of Glasgow), Postdoctoral training (UCSF). Research Interests: Cytokinesis mechanisms, cytoskeletal coordination, cell division errors in cancer, and developmental variations in cytokinesis. His awards include the FRQS Senior Researcher Fellowship and multiple grants from CIHR and NSERC. He supervises graduate students and has mentored over a dozen researchers. His lab employs genetic tools and high-resolution microscopy to dissect cytokinesis machinery. He also contributes to teaching, including courses in molecular medicine and microscopy. Awards: Komen Postdoctoral Fellowship, Leukemia & Lymphoma Special Fellow, Cole Foundation Transition Award. Grants: Ongoing CIHR and NSERC funding (2022–2027) for cytokinesis research. Hickson collaborates with institutions like the CHU Sainte-Justine and leads projects on cytokinesis networks, septin assembly, and actomyosin coordination. His lab is part of the Azrieli Center and the Microscopy Imaging Platform.
Prof. Dr. Roderick Lim is an Associate Professor at the Biozentrum, University of Basel , where he leads a research group since 2014. His work bridges biophysics, nanotechnology, and molecular biology , focusing on the nuclear pore complex (NPC) and mechanobiology of cells . He develops biomimetic systems for selective molecular transport and ARTIDIS , a nanomechanical tissue diagnostic platform commercialized for breast cancer prognosis . Education : BSc (UNC Chapel Hill), PhD (NUS/IMRE Singapore), Postdoc (Swiss Nanoscience Institute) Positions : Argovia Professor (2014–present), Tenure Track Asst. Prof. (2009–2013), Postdoc (2004–2008) His research on NPC transport selectivity reveals how karyopherins modulate the FG Nup barrier via multivalent interactions, with implications for viral entry and Alzheimer’s disease . His ARTIDIS platform uses atomic force microscopy to detect cancer via tissue softness, linking hypoxia to metastasis . Recent 2025 publications explore bacterial nanoharpoon defense mechanisms and DNA origami-based NPC mimics . Scientific Awards : Pierre-Gilles de Gennes Prize (2008), A*STAR Fellowship (2004) Collaborations : NCCR Molecular Systems Engineering, NanoTera, KTI He mentors PhD students in institutions across Switzerland, Singapore, Sweden, and the UK , with alumni working on polymersome delivery, mechanotransduction, and pathogen transport . His lab pioneered high-speed atomic force microscopy for real-time NPC dynamics and plasmonic nanopores for synthetic biology applications.
Arnold Mathijssen is an Assistant Professor in the Department of Physics & Astronomy at the University of Pennsylvania, part of the School of Arts and Sciences. He leads the Mathijssen Lab, focusing on the physics of life, combining experimental and theoretical approaches in biophysics, fluid mechanics, and active materials. His research addresses fundamental questions about pathogen dynamics, biomedical material design, and collective behavior in living systems, with applications to public health and environmental science. Education includes a DPhil from the University of Oxford (2017), MSci and BSc from University College London (2012), and a teaching certificate from Stanford University (2019). He has held roles such as Postdoctoral Fellow at Stanford (2017-2020) and Director of the Working Group on Environmental and Biological Fluid Dynamics (2023-). Research interests span topics like hydrodynamic communication, pathogen clearance in airways, and bacterial contamination dynamics. Notable achievements include the 2025 Undergraduate Research Mentorship Award and media recognition for breakthroughs in optimizing coffee-brewing physics. He chairs conferences, edits scientific journals, and advocates for science accessibility through initiatives like 'Kitchen flows.' Lab affiliations: Centre for Soft and Living Matter at UPenn, Laboratory for Research on the Structure of Matter (LRSM). Media highlights include coverage in The New York Times, The Guardian, and New Scientist for his work on culinary fluid mechanics.
