Find Academic Supervisors

• Biomolecular Spectroscopy
• Single-Molecule Detection
• Light-Harvesting Systems
• +3 more

Prof. Dr. Peter Jomo Walla is a Professor of Biomolecular Spectroscopy and Single-Molecule Detection at Technische Universität Braunschweig, Germany, and a research group leader at the Max Planck Institute for Multidisciplinary Sciences (formerly Biophysical Chemistry). His research focuses on biophysical chemistry, light-harvesting systems, and membrane interactions. Walla holds a Ph.D. and Diploma in Physical Chemistry from the Max Planck Institute for Biophysical Chemistry, Göttingen. He has authored over 100 publications, including works in Nature Communications , PNAS , and Chemical Physics . His group develops advanced optical techniques like fluorescence nanoscopy and membrane distance rulers, with applications in photosynthesis, solar energy conversion, and neurobiology. Key roles: University Professor (2007–present), Managing Director (2013–2016), Emmy-Noether Research Group Leader (2003–2006) Awards: Heising-Simons Fellow (2017–2018) Research labs: Walla Group at TU Braunschweig and collaborations with MPI Recent work includes biomimetic light-harvesting systems, ultrafast energy funneling materials, and studies on SNARE protein-mediated membrane fusion. His team also explores excitation polarization angle narrowing (ExPAN) for 3D orientation analysis.

Jens TilsnerView profile

Lecturer

• Plant Virology
• Membrane Biology
• Plant Pathology
• +4 more

Dr. Jens Tilsner is a Lecturer in the School of Biology at the University of St Andrews, affiliated with the Centre for Biophotonics. His research focuses on plant RNA viruses' interactions with host cell membranes during replication and cell-to-cell transport, targeting plant virus-induced food security threats. He employs advanced microscopy (confocal, super-resolution), lipidomics, and biochemical assays to study viral membrane modifications and plasmodesmata dynamics. His work aims to develop antiviral crop protection strategies and biotechnology applications. Dr. Tilsner supervises PhD student Zhe Yu and has secured grants from BBSRC and the British Society for Plant Pathology. He has authored over 40 publications, including landmark studies on plasmodesmata membrane contact sites and viral RNA imaging techniques. Research Interests: Plant virus-membrane interactions, plasmodesmata biology, antiviral crop protection, lipidomics, super-resolution microscopy, and host-pathogen dynamics. Key Achievements: Discovered coupling of viral replication/movement at plasmodesmata, developed novel RNA imaging techniques using Csy4 endonuclease, and identified HIPPs and HVA22 proteins' roles in viral propagation. His work bridges fundamental plant cell biology with applied agricultural solutions.

Yifan ChengView profile

Associate Professor

• Structural Biology
• Cryo-Electron Microscopy (CryoEM)
• Macromolecular Complexes
• +7 more

Yifan Cheng, PhD, is an Associate Professor in the Department of Biochemistry and Biophysics at the University of California, San Francisco (UCSF), School of Medicine. His research is centered on the structural and functional analysis of macromolecular complexes using cutting-edge cryo-electron microscopy (cryoEM) techniques. Position: Associate Professor Institution: University of California, San Francisco School: School of Medicine Department: Department of Biochemistry and Biophysics Email: yifan.cheng@ucsf.edu Dr. Cheng’s research focuses on high-resolution structural biology, particularly the 3D architecture and dynamic behavior of macromolecular assemblies such as ion channels, viral proteins, and proteasomes. His lab employs single-particle cryoEM, electron tomography, and integrative structural methods to understand molecular mechanisms at near-atomic resolution. The trends in his recent publications indicate a strong emphasis on advancing cryoEM methodologies—including motion correction, CTF estimation, and sample preparation—while applying these techniques to biologically significant targets like HIV proteins, TRPV1 channels, and ABC exporters. His work bridges structural insights with functional implications in virology, neurobiology, and cellular regulation. Although no formal scientific awards are listed in the provided text, his publications in premier journals such as Nature , Cell , and PNAS reflect significant scholarly impact. Dr. Cheng leads an active research laboratory (Cheng Lab) at UCSF, where he mentors researchers and develops innovative approaches in cryoEM. While specific details about grants or students are not mentioned, his extensive publication record suggests ongoing funded research and collaborative projects.

• Replicated and distributed databases
• Data mining
• Bioinformatics
• +6 more

Dr. Parvathi Chundi serves as a Professor in the Department of Computer Science at the University of Nebraska at Omaha's College of Information Science & Technology. Her expertise spans replicated and distributed databases, data mining, bioinformatics, and interdisciplinary applications of machine learning in materials science and biomedical imaging. Research Focus : Development of AI/ML methodologies for biofilm analysis and bioengineering applications Advancements in medical image segmentation for ocular disease detection Integration of serious games into educational frameworks for cybersecurity and quantum cryptography Teaching : Graduate-level courses on algorithm design and information retrieval systems Undergraduate instruction in database management fundamentals Service Contributions : Former Chair of UNO's Computer Science Graduate Program Active member of UNO Faculty Senate and college-level committees

• Nanotechnology
• Analytical Chemistry
• Medical Diagnostics
• +5 more

Professor Duncan Graham is the Associate Principal and Executive Dean of the Faculty of Science at the University of Strathclyde, where he also holds the position of Distinguished Professor in Pure and Applied Chemistry. He leads the Centre for Molecular Nanometrology and has contributed to the co-founding of Renishaw Diagnostics Ltd. His research focuses on functionalized metallic nanoparticles for disease diagnosis and treatment, leveraging techniques like Surface-Enhanced Raman Spectroscopy (SERS). He earned a BSc (Hons) in Chemistry from the University of Edinburgh (1992) and a PhD in Chemistry (1996), both under Prof. Tom Brown. His work spans over 300 publications and includes roles as Editor-in-Chief of *Chemical Society Reviews* and Chair of the LGC Ltd Scientific Advisory Board. His research interests emphasize nanoparticle-based sensors for biomolecular detection and therapeutic applications, with recent work addressing drug-induced liver injury diagnostics and cancer biomarker detection. Notable achievements include pioneering multiplexed SERS-based assays and advancing plasmonic nanomaterials. Awards include the Charles Mann Award (2017), Theophilus Redwood Award (2016), and Royal Society Wolfson Merit Award (2010). He has led major grants, including projects on pathogen detection and bionanosensors, and supervises a research group of ~15 members. Key collaborations include WestCHEM and the EPSRC Strategic Advisory Team for Physical Sciences.

Scarlet Fiona BrockmoellerView profile

Academic

• Early colorectal cancer
• Morphological and molecular pathology
• Artificial intelligence
• +2 more

Dr Scarlet Fiona Brockmoeller is an NIHR-funded Clinical Lecturer in Histopathology at the University of Leeds. She holds academic appointments within the Faculty of Medicine and Health, specializing in colorectal and renal pathology. Her research focuses on improving outcomes for early colorectal cancer patients and advancing super-resolution imaging technologies. Education: MD (First Class Honors with Distinction), Charité Humboldt University Berlin MPhil in Biological Sciences (Biochemistry), University of Cambridge Postgraduate Certificate in Research Methodology, University of Leeds Postgraduate Certificate in Genomic Medicine, Imperial College London Research Interests: Her work integrates morphological and molecular pathology with artificial intelligence and super-resolution microscopy. Key areas include metabolic pathways in breast cancer, stratification of colorectal cancer patients, and decentralized clinical diagnostics using quantitative imaging. International collaborations span projects in Europe and Asia, addressing lymph node metastasis and treatment outcomes. Awards: Recipient of the highly competitive DFG Scholarship for her work at the University of Cambridge. Co-investigator on major grants including a £1.2m CRUK grant and a £1.02m NIHR i4i award for SuperResPath-Renal technology. Advising & Grants: Supervises MRes students and Academic Clinical Fellows. Principal investigator on grants exceeding £250k in her core research areas. Co-leads the Stratification in COloRectal cancer trial and Formula One Study for colorectal cancer risk factors. Labs/Teams: Active in the Leeds Institute of Medical Research and collaborates internationally with groups in the Netherlands, Denmark, Germany, and Japan. Leads workstream 4 of CM-path and chairs research initiatives at the Royal College of Pathologists.

Amandeep KaurView profile

Senior Lecturer

• Medicinal Chemistry
• Sensors
• Fluorescence
• +5 more

Dr. Amandeep Kaur is a Senior Lecturer in Medicinal Chemistry at Monash University, affiliated with the Faculty of Pharmacy and Pharmaceutical Sciences. She holds an ARC DECRA Fellowship and previously served as an ARC DECRA Fellow at the University of Sydney (2018–2022). Her research focuses on developing fluorescent tools for imaging protein aggregates in neurodegeneration, photoswitchable probes for super-resolution imaging, and sensing platforms for amyloid microenvironments. Kaur’s work aligns with UN Sustainable Development Goals related to health and innovation. Education: PhD in Chemical Biology (thesis: “Fluorescent Tools for Imaging Oxidative Stress in Biology” from University of Sydney). Projects: Molecular innovations to decode tauopathies at the nanoscale (2026–2030). Fluorescent probes for super-resolution imaging of amyloid architecture (2021–2025). Research Interests: Her lab (Kaur Group) explores fluorescent probes, amyloid structures, and redox biology. Key themes include: Design of novel sensors for amyloid fibrils and lipid droplets. Development of theranostics for neurodegenerative and infectious diseases. Super-resolution microscopy techniques for molecular-scale imaging. Recent Trends in Publications: Her work emphasizes amyloid imaging, with contributions to understanding aggregation mechanisms and therapeutic interventions. Recent studies highlight applications in tuberculosis drug discovery and gold nanoparticle-based therapies for islet β-cells. Awards: ARC DECRA Fellowship (2018). Grants/Advising: Supervises PhD students and leads multidisciplinary teams in pharmaceutical sciences and biomedical imaging. Labs/Teams: The Kaur Group collaborates internationally on projects involving amyloid imaging, redox probes, and theranostic development.

• Cell Migration
• Chemotaxis
• Cytoskeleton Dynamics
• +5 more

Honorary Professor Robert H Insall is affiliated with the School of Cancer Sciences at the University of Glasgow and the CRUK Scotland Institute. His research focuses on cell migration and chemotaxis, with particular expertise in cytoskeletal dynamics and signaling pathways that govern cell movement. Institution: University of Glasgow School: School of Cancer Sciences Research Base: CRUK Scotland Institute, Glasgow G61 1BD Email: Robert.Insall@glasgow.ac.uk ORCID: 0000-0003-4898-040X Professor Insall's research primarily investigates the molecular mechanisms of cell migration and chemotaxis, with special emphasis on how cells generate and respond to chemical gradients. His work explores the role of the Scar/WAVE complex, actin polymerization, and various signaling pathways in cell movement. He has made significant contributions to understanding how cells create their own chemotactic gradients through self-generated signaling mechanisms. His research spans both fundamental cell biology and applications in cancer research, particularly examining how cancer cells migrate and invade surrounding tissues. Analysis of Professor Insall's recent publications reveals a consistent focus on cell migration mechanisms, with particular attention to the Scar/WAVE complex and its regulation. His work spans multiple model systems including Dictyostelium discoideum (a social amoeba commonly used as a model for studying cell migration) and mammalian cancer cells. Recent publications demonstrate an expansion into computational approaches for analyzing cell movement and imaging techniques for visualizing cellular processes. The research shows strong interdisciplinary connections between cell biology, biophysics, and computational modeling. Professor Insall has mentored numerous researchers throughout his career, with many co-authors appearing consistently across multiple publications. His work has been supported by various research grants, though specific funding details aren't provided in the available information. The collaborative nature of his research is evident from the diverse range of co-authors across multiple institutions. Professor Insall leads a research group focused on cell migration that utilizes advanced microscopy techniques, molecular biology approaches, and computational modeling to understand the fundamental mechanisms of cell movement. His lab has developed specialized techniques for visualizing and quantifying cell migration in various contexts, including under-agarose migration assays and advanced imaging methods for studying cytoskeletal dynamics.

Jamie HobbsView profile

Professor

• Scanning probe microscopy
• Biological Physics
• Soft matter Physics
• +3 more

Professor Jamie Hobbs is a faculty member at the University of Sheffield's School of Mathematical and Physical Sciences, holding the position of Professor of Experimental Physics and Professor of Physics. His research focuses on scanning probe microscopy (SPM) applied to biological systems, including bacterial cell wall architecture, soft matter physics, and polymer crystallization. He leads the Hobbs lab, which develops advanced AFM techniques to study bacterial growth, antimicrobial resistance, and tissue mechanics in cancer metastasis. Research Interests: Bacterial cell wall mechanics and morphogenesis Atomic force microscopy (AFM) instrumentation and applications Biological physics, including plant and fungal cell walls Polymer crystallization dynamics Recent work highlights: Characterization of Staphylococcus aureus cell wall structure and antibiotic interactions Development of high-resolution AFM for live-cell imaging Studies on metastatic cancer mechanics using nanoscale force measurements Professional Activities: Director of Research, School of Mathematical and Physical Sciences Advisory Board member for Physics of Life Network III Member of RMS Scanning Probe Microscopy Committee Laboratory work emphasizes bridging SPM innovations with biological and medical applications. Teaching includes advanced imaging techniques (PHY6510) and supervision of graduate researchers.

• Biophysics
• Cellular Biology
• Ion Pump Mechanisms
• +3 more

Hjalmar Brismar is a Professor of Experimental Biological Physics at the Department of Applied Physics, KTH Royal Institute of Technology. He also serves as Director of the Cellular and Molecular Imaging Platform at the Science for Life Laboratory and coordinates the National Microscopy Infrastructure (NMI). His research focuses on understanding cellular dynamics through the study of Na,K-ATPase ion pumps and advanced microscopy techniques. He holds a CivIng (1991) and PhD (1996) in Engineering Physics from KTH, followed by postdoctoral training at Harvard University. Research interests include Na,K-ATPase signaling, calcium oscillations, and the development of super-resolution microscopy. Key projects involve the pump's role in cellular stress response and apoptosis, as well as innovations in microscopy for biomedical applications. His team collaborates across KTH and Karolinska Institutet, integrating light microscopy with cell and molecular biology. Recent articles highlight advancements in imaging techniques, ion pump regulation, and pathological mechanisms in kidney and neurological diseases. Awards include membership in the Royal Swedish Academy of Engineering Sciences (2010) and leadership roles in national and international microscopy initiatives. Brismar has supervised 15 PhD students, 8 Licentiate candidates, and 48 M.Sc. theses, reflecting his extensive mentorship in biophysical research. Labs/Teams: Leader of the national super-resolution microscopy infrastructure at SciLifeLab, Swedish node in EurobioImaging, and core member of the Brismar Lab focusing on cellular biophysics and imaging innovation.

• Biophotonics
• Nanophotonics
• Fluorescence Spectroscopy
• +4 more

Jerker Widengren is a Professor at the Royal Institute of Technology (KTH) within the Department of Physics, School of Engineering Sciences (SCI). His research focuses on advanced optical techniques in biophysics, nanophotonics, and biomedical imaging. He specializes in fluorescence spectroscopy, single-molecule imaging, and the development of novel upconversion nanoparticles for applications in deep-tissue imaging and cancer diagnostics. Widengren teaches courses such as Nanophotonics and Bionanophotonics , Fluorescence Spectroscopy for Biomedical Studies , and Experimental Biophysics , emphasizing practical skills and cutting-edge methodologies. His work bridges fundamental physics with biomedical applications, particularly in improving imaging resolution and minimizing phototoxicity in live-cell studies. Recent research highlights include advancements in MINFLUX microscopy, STED nanoscopy, and the design of low-cost NIR imaging sensors. Widengren’s contributions have implications for cancer biomarker detection, energy transduction in biological systems, and the optimization of fluorescent probes for clinical use.

• AI in Biology
• Bioimaging Analysis
• Data-Driven Science
• +3 more

Wei Ouyang is an Assistant Professor in the Department of Applied Physics at KTH Royal Institute of Technology. He leads the AICell Lab , funded by the Data-Driven Life Science Fellow program, focusing on developing AI systems for data-driven cell and molecular biology. The lab's work emphasizes integrating advanced computational tools with biological imaging to advance understanding of cellular processes. His research interests include bioimaging analysis , deep learning applications , and cloud-optimized data formats . Notable contributions include open-source platforms like ImJoy and Pycro-Manager , which enhance accessibility and reproducibility in microscopy and bioinformatics. Recent publications highlight innovations in AI-driven microscopy tools , automated imaging frameworks , and data-sharing platforms . Key projects include the ESPressoscope for portable microscopy and the BioImage.IO Chatbot for community-driven bioimaging support. Dr. Ouyang teaches the Data-driven Life Sciences course at KTH and oversees the Degree Project in Applied Physics . His work bridges computational methods with biological discovery, fostering collaborative advancements in life sciences.

• Biophysics
• Biophotonics
• Super-Resolution Microscopy
• +3 more

Hans Blom is a Researcher and Docent in Biological Physics at KTH Royal Institute of Technology, Sweden. He holds a joint role as Head of Unit at SciLifeLab, a national bioscience hub, where he supports advanced microscopy applications. His expertise lies in super-resolution microscopy (e.g., STED) and its applications in life sciences, particularly kidney pathology, neuroscience, and cell biology. Blom earned his M.Sc. in Engineering Physics from Uppsala University (1998) and Ph.D. in Biophotonics from KTH (2003), followed by postdoctoral research at the Max-Planck-Institute under Nobel laureate Stefan W. Hell. His current research focuses on developing optical 3D kidney pathology imaging in collaboration with Karolinska Institutet and MedTechLabs. He also supports national and international microscopy users through SciLifeLab and the Nordic Microscopy Infrastructure (NMI). His research interests include STED microscopy development, membrane fluidity analysis, and kidney disease mechanisms. Key contributions include advancements in image deconvolution (Deconwolf) and 3D kidney tissue imaging protocols. Blom’s work bridges engineering and biology, with applications in diagnostics and drug development. He teaches courses in experimental biophysics and physics at KTH.

• Light Upconversion Nanotechnology
• Super-Resolution Microscopy
• Perovskite Quantum Dots
• +3 more

Haichun Liu is a Researcher at the Royal Institute of Technology (KTH) , affiliated with the Department of Applied Physics and the Bio-Opto-Nano Fysik Unit . His research focuses on light upconversion nanotechnology, super-resolution microscopy, and perovskite quantum dots. He leads courses such as Current Literature in Theoretical Chemistry and Biology and Nanophotonics and Bionanophotonics . His work bridges photonics and nanomaterials, emphasizing applications in imaging, energy conversion, and nanomedicine. Key achievements include developing core-shell nanoparticles for solar cells, suppressing cation intermixing in upconversion materials, and advancing super-resolution microscopy techniques with unprecedented imaging speeds. Liu has published extensively in journals like Nature Communications , Light: Science & Applications , and Nanoscale . Recent publications (2023–2024) address water’s role in luminescent nanoparticles, transient energy trapping strategies, and frequency-domain luminescence characterization. Developed optical encoding methods using phase-angle modulation and microsphere-mediated light field modulation for high-resolution imaging. Active in educational roles, designing curricula that integrate theoretical and practical nanophotonics. His lab explores interdisciplinary challenges in biomolecular physics and nanophotonics, with ongoing projects on dye-nanoparticle interactions and photodynamic therapy feedback systems.

Don B. ArnoldView profile

Professor

• Neurobiology
• Synaptic Encoding of Memories
• Protein Trafficking
• +7 more

Don B. Arnold is a Professor of Biological Sciences, Biomedical Engineering, and Quantitative and Computational Biology at the University of Southern California's Dornsife College of Letters, Arts and Sciences. His research focuses on understanding how information is encoded in synapses, with particular emphasis on memory formation mechanisms and synaptic plasticity. Dr. Arnold received his B.A. in Engineering Physics from the University of Toronto in 1986 and his Ph.D. in Biomedical Engineering from Johns Hopkins University in 1992. Following postdoctoral training at Rockefeller University and Harvard University, he joined USC as an Assistant Professor in 1999, progressing to Associate Professor in 2007 and full Professor in 2013. His laboratory has pioneered innovative technologies including FingRs (Fibronectin intrabodies generated by mRNA display) for visualizing and ablating synaptic connections in living organisms, and ATLAS for anterograde transsynaptic tracing. These tools enable groundbreaking research on how synapses change during memory formation, particularly in relation to maladaptive memories associated with PTSD and addiction. Analysis of Dr. Arnold's recent publications reveals a strong focus on synaptic mechanisms of memory, with an increasing emphasis on in vivo imaging techniques, zebrafish models, and translational applications for neurological and psychiatric disorders. His work bridges molecular neuroscience, cellular biology, and behavioral neuroscience. Scientific Awards McKnight Technological Innovations in Neuroscience (2011-2012) NIH/NSF Career Development Award (2004) Independent Scientist Award, National Institute of Mental Health (2004) Dr. Arnold has successfully secured over $15 million in research funding, including major awards from NIH, the Human Frontiers Science Program, and the McKnight Foundation. He mentors multiple graduate students and research associates in his laboratory, where they investigate synaptic mechanisms using cutting-edge molecular and imaging techniques. His lab has developed transformative tools that are now widely adopted in neuroscience research. The Arnold Laboratory maintains active collaborations with researchers across USC and internationally, focusing on developing and applying novel technologies to understand synaptic function in health and disease. Current projects emphasize the visualization and manipulation of synapses during memory formation, with potential applications for treating disorders involving maladaptive memories.