Michael Lherbette discovered the possibilities of atomic force microscopy for the study of biological systems during his Master thesis at Oxford University. Afterward, he moved to Heriot-Watt University in Edinburgh to obtain a PhD in biophysics. During this time he further developed advanced force spectroscopy techniques to measure and to model the visco-elastic response of cell nuclei and 3D clathrin protein lattices. Currently, Michael works at SmarAct GmbH in Germany where he is developing advanced metrology instruments that are used by manufacturers of micro-mechanical devices to measure vibrations of microscopic devices

Patricia Abellan is a staff research scientist at SuperSTEM Laboratory (Daresbury, UK) and a SuperSTEM research fellow at the University of Leeds (since 2015). She received her BSc in Physics from the Aalborg University (Denmark) and her Ph.D. in Materials Sciences from the Autonomous University of Barcelona and Institute of Materials Science of Barcelona (ICMAB-CSIC), Spain, in 2011. She has held postdoctoral positions at the University of California – Davis and Pacific Northwest National Laboratory, USA. Her research focuses on the use of the effect of the electron beam in solid and liquid media to investigate nanomaterials (excited electronic states of molecules, molecule-metal interactions or the growth and degradation dynamics of nanostructures by ionizing species). In 2013 she received the Best Ph.D. Thesis Award from the Microscopy Society of Spain and her work has led to research highlights from PNNL's Physical Science Division, DOE’s Joint Center for Energy Storage Research (JCESR) and Nature News. Most recently, she has co-organized the radiation beam-damage pre-meeting congress at M&M2017 and has served as managing guest editor of the special issue in liquid-phase EM in Micron (2019). She has published over 40 journal articles and book chapters, is the co-inventor in a patent application and has given 16 invited presentations at international conferences and academic institutions.

Full Professor of Physics at the University of Perugia since 2010. PI of the Research Group on Soft Matter and Glasses (http://ghost.fisica.unipg.it). He has been working on micro- and nano-spectroscopic-imaging of biological systems, collective and single particle dynamics of pure water and of hydration water in systems of biological interest, collective dynamics of amorphous solids, structural arrest in glass transition, gelation and polymerization processes. He set up the laboratories of Brillouin Spectroscopy, simultaneous micro-Brillouin and micro-Raman spectroscopy, Photon-Correlation Spectroscopy and Dielectric Spectroscopy, Extended frequency range Depolarized Light Scattering (EDLS), and participated to the development of a high-resolution ultraviolet Brillouin scattering setup at the Elettra Sincrotrone Trieste.

Light scattering limits the quality of optical imaging of unlabeled biospecimens: too little scattering and the sample is transparent, exhibiting low contrast, and too much scattering washes the structure information altogether. Recent advances in QPI, an approach by which the pathlength shifts induced by a specimen are mapped at each point in the field of view, allow us to connect the two regimes. We developed spatial light interference microscopy (SLIM) as a high-sensitivity, high-resolution QPI method, which open new applications for studying structure and dynamics. SLIM provides interesting data on cell growth and intracellular transport, specifically, it distinguishes between random and deterministic cargo motion. We measured subtle vesicle transport changes following optogenetic stimulation of live cells. Based on principles of holography, we developed a new optical technique for measuring cell traction. We performed simultaneous measurements of cell growth and cell-generated forces and showed their evolution during cell differentiation. However, SLIM works best for thin specimens, such as single cell layers and tissue slices. To expand this type of imaging to thick, multiply scattering media, we developed gradient light interference microcopy (GLIM). GLIM is capable of suppressing the incoherent background due to multiple scattering. We demonstrate the use of GLIM to image various samples bovine embryos and live brain slices. Intrinsic dynamic markers promise to provide information about embryo viability, prior to implantation.

Daniel M. Davis is Professor of Immunology at the University of Manchester and holds a Wellcome Trust Investigator Award. Previously, Davis was Head of Immunology at Imperial College London, South Kensington. His research, using super-resolution microscopy to study immune cell biology, was listed in Discover magazine as one of the top 100 breakthroughs of the year. His first book, The Compatibility Gene, was described by Bill Bryson in the Guardian’s Books of the Year as ‘elegantly written and unexpectedly gripping’. His second book, The Beautiful Cure, has been described by Stephen Fry as 'One of those books that makes you look at everything human in a new, challenging and thrilling way'. Davis is a Fellow of the Academy of Medical Science and the author of over 120 academic papers, collectively cited over 10,000 times, including articles in Nature, Science and Scientific American.

Ulrike Endesfelder received her diploma in physics from Bonn University in 2008. She then became interested in the biophysics of single molecules and pursued a summer research stay at Waseda University, Tokyo, in 2008. She received her PhD in Biophysics at the University of Bielefeld in February 2012 and performed her postdoctoral trainings at Würzburg and Frankfurt University from 2012-2014. In October 2014, Ulrike Endesfelder moved to the Max Planck Institute for Terrestrial Microbiology in Marburg, Germany, where she is leading a research group focused on combining methods from physics and biology to understand the molecular organisation and behaviour of microbial cell biology. She also teaches biophysics undergraduate courses at the University of Marburg.

Suliana Manley graduated with honors from Rice University in 1997, with degrees in physics and mathematics. She joined the group of David Weitz for her doctoral work, completed at Harvard University, then moved down the street to MIT to do postdoctoral work in the group of Alice Gast. Her expedition into the exciting and complex world of biology and super-resolution microscopy began when she moved to the NIH to work with Jennifer-Lippincott Schwartz, as a National Research Council Fellow. In 2009, she started her own group as a professor of physics at EPFL, where she was promoted with tenure in 2016. The scientific focus of the group is on developing tools such as high-throughput and “smart” super-resolution microscopies, and using them to understand the biophysics of cellular organization and dynamics.

Sebastian is a biophysicist with a main research interest in single molecule spectroscopy. He finished his PhD in Physics at Bielefeld University, Germany, in 2011 on molecular photoswitches and their use in single-molecule based super-resolution imaging. Then he moved to the University of Wuerzburg, Germany, where he applied super resolution microscopy to study different biological systems, such as the nuclear pore complex in Xenopus laevis and presynaptic proteins in Drosophila. In 2016, he started as a Lecturer at the Department of Physics, University of Strathclyde, Scotland. He aims to develop novel photoswitches, optical imaging systems, software for image processing and data analysis, and apply these tools to study cellular life.

Cyrus F. Hirjibehedin is a member of Technical Staff in the Quantum Information and Integrated Nanosystems Group at MIT Lincoln Laboratory. He studies superconducting quantum systems and their applications in quantum information processing. Prior to joining MIT Lincoln Laboratory, Dr. Hirjibehedin was a Professor of Physics, Chemistry, and Nanotechnology at University College London (UCL). His research used scanning probe microscopy to understand the electronic and magnetic properties of nanometer-scale quantum structures and explore their potential applications in future paradigms of information processing, data storage, and sensing. Before moving to UCL, Dr. Hirjibehedin was a postdoctoral Research Staff Member at IBM’s Almaden Research Center in the Low-Temperature Scanning Tunneling Microscopy Group. Working with Dr. Don Eigler and Dr. Andreas Heinrich, he studied the onset of cooperative magnetic behavior in atomically-precise low-dimensional structures. For his Ph.D. research, Dr. Hirjibehedin worked with Professor Aron Pinczuk at both Columbia University and Bell Labs, Lucent Technologies to explore novel interaction effects in low dimensional electron systems formed in semiconductor quantum structures. Results from Dr. Hirjibehedin’s work have been published in over 40 papers in leading academic journals. He has presented this work in more than 140 invited talks at international conferences and seminars, and has received a number of awards for performing high-impact research, including the Medal for Scanning Probe Microscopy from the Royal Microscopical Society and an Outstanding Innovation Award from IBM. Dr. Hirjibehedin received a B.S. in both Physics and Computer Science from Stanford University and a Ph.D. in Physics from Columbia University.

I was born in Italy and I obtained my first degree in Physics at the University of Pisa. Then I accomplished a D. Phil. in Materials Science at the University of Oxford. After a few years of posdoc grants in US and UK, I moved back to Italy where I worked for a few years at Consiglio Nazionale delle Ricerche (CNR) in Bologna. Finally I returned with a permanent position as researcher at CNR in Pisa, where I had started my scientific carrier. Initially I have spent most of my efforts in using and developing techniques related to Scanning Probe Microscopy (SPM). In particular my D. Phil. thesis has regarded the development of Ultrasonic Force Microscopy for the elastic characterization of stiff materials on the nanoscale. I have also established several collaborations where I could come across other experimental techniques (such as TEM, x-ray diffraction, XPS and tof-SIMS), which could provide complementary information to SPM data. My research has been devoted to the characterization of materials on the nanoscale. I have mainly analyzed the properties of thin oligomeric and polimeric films for applications in fields such as organic electronics and biology. More recently I have been involved in research concerning new emerging materials, from nanogels to 2D materials. One of my main interests nowadays regards the use of SPM to ‘see’ below the surface.

Olga Kazakova received the Ph.D. degree in Solid State Physics from Institute of Crystallography, Russian Academy of Science in 1996. In 1999 – 2002, she was a first postdoctoral researcher and then an Assistant Professor at Chalmers University of Technology, Gothenburg, Sweden. Since 2002, she has been working at the National Physical Laboratory, where she became a Principle Research Scientist in 2010. Her research interests include functional (electronic, optical, structural) nanoscale studies of 2D materials; development of novel Scanning Microscopy techniques; novel sensors for Life Science and metrological applications. She is an author of ca 160 peer-refereed publications and had above 130 presentations at scientific conferences, e.g. ca 60 invited talks and seminars. She was a recipient of the numerous national and international awards, including Intel European Research and Innovation Award (2008), NPL Rayleigh Award and Serco Global Pulse Award (2011). She is a Fellow of Institute of Physics.

Alice Pyne is an MRC/UKRI Innovation Fellow at University College London. Alice has a decade of experience in scanning probe microscopy, spanning high-speed and high-resolution imaging, probe development and cantilever sensing. Her research interests use these technologies to determine biomolecular mechanisms of action, with a long-term view to improved development of therapeutics. Alice’s current research aims to understand how enzymes, essential for life in both humans and bacteria, interact with DNA in its complex native topologies. She exploits her high-resolution Atomic Force Microscopy techniques to visualise the interplay between topologically complex DNA and topoisomerase enzymes in real time, at sub-molecular resolution. These studies aim to reveal the mechanism-of-action of topoisomerases, which are major targets for antibiotic and anti-cancer therapeutics.

Felix Rico is Associate Professor at the department of Physics of Aix-Marseille University since 2013. His research is developed at the force microscopy group of the LAI, U1067, a joined Inserm, CNRS and Aix-Marseille University laboratory. He studied Physics and received his PhD in Biophysics in Barcelona, Spain. Before joining the faculty in Marseille, he was postdoc at the University of Miami Miller School of Medicine (FL) and at Institut Curie (Paris). He has been working with atomic force microscopy (AFM) since 2001, trying to understand the mechanics and adhesion properties of biological systems. He has developed various AFM based approaches, including theoretical and instrumentation developments, to investigate the mechanical response of single biomolecules, membranes and living cells. Recently, he adapted high speed AFM (HS-AFM) to work as a force spectroscopy tool, probing the mechanics of single biomolecules and living cells at the shortest timescales.

Dr. Sergi Garcia-Manyes is Professor of Biophysics at King’s College London, holding a joint appointment between the Randall Centre for Cell and Molecular Biophysics and the Department of Physics, where he is the Head of the Biological Physics and Soft Matter (BPSM) research group. He has also established a satellite laboratory at the Francis Crick Institute (London). Sergi obtained his PhD in Physical Chemistry from the University of Barcelona, and conducted his postdoctoral training in the field of single molecule mechanics in the Biology Department of Columbia University in the City of New York. Sergi’s lab is interested in mechanobiology across different length-scales, spanning from single molecules to individual cells, with a particular accent on the molecular mechanisms underpinning mechanical folding of single proteins and protein mechanochemistry at the single bond level. Sergi held an EPSRC Early Career Fellowship, and has been recently awarded the Leverhulme Research Leadership Award and a Wellcome Trust Investigator Award.

Jamie obtained a degree in Physics from the University of Bristol in 1991 and a PhD in Polymer Physics from Bristol in 1996. In his early career his research was focused on understanding how synthetic polymer crystallize, using atomic force microscopy (AFM) as a primary tool. In 2001 he co-founded a spin-out company, Infinitesima Ltd, which markets high speed AFM into the semiconductor inspection market. After moving to the University of Sheffield in 2004 he started to shift towards biological physics, working on the architecture of the bacterial cell wall. His group’s current research includes developing AFM and using it to understand diverse problems in biology, including bacterial life and death, bone metastasis in breast cancer, and plant cell morphogenesis.

David Entenberg is an Associate Faculty Member of the Department of Anatomy and Structural Biology at Einstein College of Medicine. He serves as both the Director of Technological Development, and Director of Integrated Imaging within Einstein’s Gruss Lipper Biophotonics Center and Integrated Imaging Program. The mandates of the Center and Program are to study and develop novel microscopy techniques that create a bridge between basic and clinical sciences, and answer fundamental biological questions that lead to cures for biomedical problems. With a background in laser based experimental quantum physics, his expertise lies in the design and development of novel instrumentation and imaging technologies for biological research. His work has included: the design and development of novel multiphoton microscopes for imaging in live mice; novel implantable imaging windows for imaging of metastatic cancer in the mammary glands and the lungs of live mice; and several image analysis software packages to facilitate the analysis of cell motility, colocalization image data, and automated digital pathology based analyses for biomarkers of cancer metastasis. He has authored numerous publications and book chapters on multiphoton microscopy and live animal imaging and is a lecturer at Einstein’s Quantitative Imaging of Cells course. 

Wanda Kukulski studied biology at the University of Basel, where she also did her PhD at the Biozentrum. During this time, she solved the structure of a water channel protein by electron crystallography. For her postdoc, she worked at the EMBL in Heidelberg where she developed a correlative microscopy workflow and applied it to visualise how the plasma membrane reshapes during endocytosis. Currently Wanda leads a group in the Cell Biology Division of the MRC LMB. Her group studies how membrane architecture is linked to cellular functions, with a current focus on the organisation of organelle contact sites and the dynamics of mitochondrial membranes. To this end, they combine various cellular imaging techniques including correlative microscopy and electron cryo-tomography.

Dr. Gaia Pigino received her PhD in Evolutionary Biology from the University of Siena, Italy in 2007 for her studies on bio-indicators for contaminated soil. Electron microscopy (EM), one of the tools she used for this work, quickly became the central method for her research ever since. After her first postdoc in the EM Lab of the Department of Evolutionary Biology in Siena, she moved to ETH Zurich and the Paul Scherer Institute in Switzerland and was awarded an EMBO fellowship to continue her work on the cryo-EM structural analysis of ciliary components. In 2012, Dr. Pigino started her own lab at the Max Planck Institute of Molecular Cell Biology and Genetics (MPI-CBG) in Dresden, Germany. The work of her lab is centered around the question how complex cellular machines self-organize. Cilia remain the main focus, where the Pigino Lab investigates fundamental functional aspects of the dynamic process required for the assembly of the cilium. Learning about self-organization and functional implications of structural aspects naturally requires to combine and further the latest imaging technologies (3D cryo-EM, tomography, correlative light and electron microscopy (CLEM), and various light microscopy techniques) with tools from biochemistry, in vitro reconstitution, and genetic engineering.

Dr Tim Burnett is a Lecturer in Materials Imaging at The University of Manchester and also Deputy Director of the Henry Moseley X-ray Imaging Facility. He has been developing ways of connecting different 3D imaging tools, with an emphasis on correlating X-ray computed tomography and electron microscopy to understand the degradation and failure of metal alloys. He has a particular interest in developing new workflows for imaging across scales and across modalities, a process termed correlative tomography when considering 3D imaging techniques, and has been applying this approach to a range of different use cases from Materials Science, Biology and Geology. Dr Tim Burnett started his research career at the University of Leeds in 2004 where during his PhD he synthesized, for the first time, single crystals of the multiferroic material BiFeO3-PbTiO3. Dr Burnett then moved to the Materials Division at The National Physical Laboratory, the UK's National Measurement Institute, before then starting a joint position with FEI company (now ThermoFisher) and The University of Manchester before his current appointment.

Louise Hughes is the manager of the Oxford Brookes University Bioimaging unit. Louise specialises in 3D electron microscopy and has been in the field for 18 years. Her research focus is on optimising biological sample preparation, methodology and imaging techniques across a wide range of sample types. She has extensive experience in SBFSEM, array tomography, electron tomography and 3D data reconstruction and currently uses these to study plant cell biology.  

Virginie Uhlmann is leading a Bioimage Analysis research group at EMBL-EBI in Cambridge, UK. She received her Master degree in Bioengineering (2012) and her Ph.D in Electrical Engineering (2017) from the Ecole polytechnique fédérale de Lausanne (EPFL, Switzerland). Her work focuses on bioimage analysis, specifically on the development of continuous mathematical models to characterise and quantify biological objects based on image data. Her research interests include approximation, information and interpolation theory, image processing, computer vision, machine learning and life sciences. She is an associate member of the Bio Imaging and Signal Processing technical committee of the IEEE Signal Processing Society.

Florian Jug is a research group leader at the Center for System Biology Dresden (CSBD) and the Max-Planck Institute of Molecular Cell Biology and Genetics (MPI-CBG). The overarching goal of his research is to push the boundaries of what image analyses and machine learning can do to quantitatively analyze biological (image)-data. Research in the Jug Lab aims at finding novel ways to efficiently analyze large amounts of microscopy data, while avoiding impossible amounts of manual analyses and curation tasks – often a major bottleneck in biomedical research. Besides finding novel algorithms and machine learning methods, the Jug Lab is also critically involved in the development of Fiji, a popular and widely applicable open software platform for biomedical image analysis and an ideal way to disseminate newly developed methods and tools.

Dr.Doan was trained as a medical doctor and did PhD in molecular cell biology in University of Debrecen, Hungary. He did his first postdoc in microbiology in Pasteur Institute, Paris, France for nearly 2 years to study functional genomics in infectious diseases. From 2016 until now, he joined Dr. Anne Carpenter's Imaging Platform at the Broad Institute of MIT and Harvard, leading the effort to analyze Imaging flow cytometric data in clinical studies. His research now focuses on developing machine learning methodology, especially deep learning, to automate the analytic processing of single cell images in biological and clinical applications.

Anna received a Diploma in Mathematics at the Lomonosov Moscow State University in 2003. After graduation, she worked as a scientific programmer in CERN, mostly on the mathematical and statistical parts of the ROOT framework. In 2008, Anna started her PhD at the Heidelberg Collaboratory for Image Processing at the University of Heidelberg, in the lab of Fred Hamprecht. She then stayed at the lab as a PostDoc, working in collaboration with HHMI Janelia Research Campus through the Janelia visiting scientist program. In July 2018 Anna started her own research group at EMBL Heidelberg, working on automation of image analysis through methods of machine learning.

Dr. Willinger studied physics at the Technical University in Vienna, Austria and did his master in the field of electron energy loss spectroscopy and DFT simulation of the electronic structure under the supervision of Prof. Peter Schattschneider and Prof. Robert Schlögl, Director of the Department of Inorganic Chemistry at the Fritz-Haber-Institute (FHI) of the Max Planck Society in Berlin. Dr. Willinger obtained his PhD from the Technical University in Berlin for the investigation of the electronic structure of vanadium phosphorous oxides. After a 1.5 years post-doc at the Fritz-Haber-Institute, he moved to the University of Aveiro in Portugal, where he worked as an independent researcher for 4 years. In 2011 he went back to the Fritz-Haber-Institute as group leader for electron microscopy. Since 01.02.2018 he has been at the “Eidgenössische Technische Hochschule” (ETH) in Zürich, where he is focusing on the development and implementation of in-situ electron microscopy techniques.

Joe Patterson in an Assistant Professor in the Department of Chemistry at the University of California, Irvine. He completed his PhD in Chemistry at the University of Warwick, UK, in 2013, working under the supervision of Professor Rachel O’Reilly. He went on to work for Professor Nathan C. Gianneschi and Professor Kimberly Prather at the University of California San Diego, USA, and the Centre for Aerosol Impacts on Climate and Environment (CAICE) as a postdoctoral scholar. In 2016, he joined the Eindhoven University of Technology in the Netherlands, working in the Laboratory of Materials and Interface Chemistry led by Professor Nico Sommerdijk. Joe’s research interests involve the development of new materials through a deep understanding of their structure and dynamics. He has a strong focus on understanding soft matter formation mechanisms using a combination of cryogenic and liquid phase electron microscopy. He is a recipient of the Domino/MacroGroupUK Young Polymer Scientist award, the Jon Weaver PhD prize, and a Marie Skłodowska-Curie Individual fellowship.

Dr Amalio Fernández-Pacheco is an EPSRC Early Career Fellow at the Materials and Condensed Matter Physics group within the School of Physics and Astronomy at the University of Glasgow (UK). He was previously working at Zaragoza (Spain), Imperial College London and at the Cavendish Laboratory in Cambridge. Amalio investigates new effects in 3D magnetic nanostructures for spintronic applications. His main research activities comprise the development of novel 3D nano-patterning processes, chiral effects in multi-layered heterostructures and advanced nano-magnetometry and magnetic microscopy for characterisation of 3D nanostructures. He is recognised worldwide as one of the pioneers in the fabrication of magnetic systems using Focused Electron Beam Induced Deposition, a direct-write nanofabrication method carried out in electron microscopes. Among his awards, he received in 2010 the Springer Theses award in recognition of his PhD work and a Marie Curie Fellowship, and in 2017 his group received the Cavendish Laboratory Abdus Salam Prize. In 2014 he became EPSRC Fellow, Winton Advanced Fellow and Fellow of Sidney Sussex College Cambridge. Recently, he has been an invited speaker at leading magnetic and physics conferences such as ICMFS-2018, MMM-2017 and APS March Meeting-2017, as well as in a TedX event. He has  also acted as Programme Committee member of conferences such as MMM-2016 and ICM-2018. In 2020, he will chair the 8th International workshop on Focused Electron Beam-Induced Processing (FEBIP) taking place in Glasgow.

Annalena Wolff is a research infrastructure specialist for Focused Ion Beams at the Institute for Future Environments at the Queensland University of Technology, where she is responsible for the helium ion microscope (HIM), a FIB/SEM and a plasma focused ion beam. Lena studied at Bielefeld University and received her Ph.D. degree in Physics in 2014 before moving to Australia where she worked at the Monash Centre for Electron Microscopy. Lena was recruited to the Queensland University of Technology in 2015 and has established herself there as an expert in focused ion beams across several platforms. She has lead several pre-conference workshops on FIB/HIM techniques  and completed a HIM world tour where she built networks in 4 continents over 11 weeks. Lena’s research interests include: developing new approaches to SEM/FIB and HIM applications, ion-solid interactions, fabrication of 2D and 3D micro/nanostructures, sample characterization and 3D tomography.

Professor in materials science and engineering at Swansea University in the UK. Co-Director of the £10M Advanced Imaging of Materials (AIM) facility at Swansea, of the £13.7M Materials and Manufacturing Academy for postgraduate training, and the STFC Regional Beamline-Bridging Facility. Founder and Director of the Research as Art awards, which have reached over 50 million people worldwide since 2009, A Software Sustainability Institute Fellow, and a previous British Science Association Media Fellow at Nature. Written for Nature, Scientific American, The Guardian, Huffington Post. Contributed to and appeared on TV and radio, including the BBC Horizon programme.

Sarah Köster, studied physics at the University of Ulm, Germany, and performed her PhD work at the University of Ulm, Boston University and the Max Planck Institute for Dynamics and Self-Organization, Göttingen, Germany. She received her PhD from the University of Göttingen in 2006. Her thesis was awarded the Berliner-Ungewitter-Preis of the Göttingen physics faculty as well as the Otto Hahn Medal of the Max Planck Society. In 2008, after two years of postdoctoral work at Harvard University with David Weitz, she returned to Göttingen as an assistant professor. In 2010 she was awarded the Helene-Lange-Preis of the EWE-Foundation. In 2011 she was promoted to associate professor, and in 2017 to full professor, in the faculty of physics of the University of Göttingen, where she leads the research group Cellular Biophysics. In 2016 she received an ERC Consolidator Grant. Her research interests reach from x-ray imaging and scattering of biological matter to cell and cytoskeletal mechanics and dynamics.

Dr. De Hoog is a Research Fellow in the School of GeoSciences at the University of Edinburgh and a staff member of the Edinburgh Ion Microprobe Facility. He has an MSc in Geochemistry from Utrecht University in the Netherlands, where he also did a PhD on the behaviour of volatiles in arc volcanism in Indonesia. He then did postdoctoral research in Ottawa, Canada, before moving to Gothenburg, Sweden, to be laser ablation-ICP-MS lab manager. Here his research focus shifted to ultrahigh pressure metamorphic rocks and mantle petrology. After a few years at Oxford University running the magnetic sector ICP-MS lab, he moved to Edinburgh in 2009, where he stayed ever since. His current research interests are the cycle of volatile elements and their isotopes in subduction zones and the deep Earth, and in particular the use of in-situ measurements by SIMS.

Dr Jennifer Murgatroyd is a senior geomaterials scientist with the Materials & Structures Department at RSK Environment. Jennifer is a trained archaeological scientist with over 15 years’ experience investigating structures and building materials from high-profile sites in Pompeii, Rome and Ostia, Italy, as well as many nationally listed historic buildings across the UK. She completed her D.Phil at St. Cross College, Oxford in 2016, researching ancient Roman concretes. She is an affiliate member of the IHBC and an honorary visiting researcher at the Department of Archaeological Sciences at the University of Bradford.

Henrik Birkedal obtained his PhD with honors from Université de Lausanne, Switzerland, followed by a postdoc at University of California, Santa Barbara. In 2004, he was awarded a stipend to establish his own research program at Aarhus University where he is now an associate professor and leads a research group within the area of biological and bioinspired materials. Of special interest is the structure of bone at length scales below ~10 µm including the osteocyte lacuno-canalicular network and the properties and organization of bone biominerals. These are chiefly studied by synchrotron X-ray imaging techniques including nanotomography and multimodal tomographies such as X-ray fluorescence tomography and diffraction/scattering computed tomography; the continuous improvement of these methods is an additional area of interest.

Lucy Collinson leads the Electron Microscopy Science Technology Platform (EM STP) at The Francis Crick Institute in London. She has a degree and PhD in Medical Microbiology, and carried out post-doctoral research with Professor Colin Hopkins at the MRC Laboratory for Molecular Cell Biology (UCL) and Imperial College London, investigating membrane trafficking pathways in lysosome-related organelles in mammalian cells using light and electron microscopy as key techniques. She has 14 years experience in running biological EM facilities, first at UCL and then at the Cancer Research UK London Research Institute, which became part of the new Francis Crick Institute in 2015. With a team of 10 electron microscopists and 3 physicists, she oversees more than 100 research projects with more than 60 research groups within the Crick, imaging across scales from proteins to whole organisms. Her microscopy and technology development interests include volume EM, correlative imaging techniques, cryo-microscopy, X-ray microscopy, image analysis, and microscope design and prototyping. In the last year, she has co-authored 16 publications, given 15 international plenary and invited talks, and sits on 6 national and international scientific advisory boards and expert review panels.

Febe van Maldegem obtained her PhD from the University of Amsterdam working on B cells and their Immunoglobulin receptors in health and disease. After a first postdoc at the LMB in Cambridge, she is now in the lab of Julian Downward at The Francis Crick Institute in London. Here she is using flow cytometry and Imaging Mass Cytometry to study the interactions of tumours with the tumour infiltrating immune cells, for various immunogenic and non-immunogenic models of Kras-mutated lung cancer. She is interested in how oncogene signaling influences TME organisation and how this gets perturbed by intervention with various targeted drugs.