As part of the Imaging ONEWORLD series, the focus of these lectures is on microscopy and image analysis methods and how to apply these to your research. Almost all aspects of imaging such as sample preparation, labelling strategies, experimental workflows, ‘how-to’ image and analyse, as well as facilitating collaborations and inspiring new scientific ideas will be covered. Speakers will be available for questions and answers. The organisers, core facility staff from the University of Cambridge, Gurdon Institute, MRC-LMB and the ICR/Royal Marsden Trust are also able to continue the discussion and provide advice on your imaging projects.
Stefanie Reichelt, PhD has been head of the light microscopy facility at the CRUK Cambridge Institute. The core provides state-of-the-art imaging resources, training courses for scientists and students and develop new imaging systems as well as user-friendly analysis and acquisition tools for specific research applications. Stefanie is now Public Engagement Manager for the Biomedical Schools and teaches academically at Cambridge University, in scientific workshops and out-reach events. (http://cargocollective.com/StefanieReichelt)
Dr Alessandro Esposito obtained a PhD in Biophysics in 2006 working at the University of Utrecht and the European Neuroscience Institute in Goettingen for which he was awarded the ‘Sergio Ciani’ award by the Italian Society of Pure and Applied Biophysics. At the University of Cambridge, he then developed novel analytical tools contributing to redefining models of red blood cells homeostasis infected by P. falciparum (malaria). In recognition of his early work, in 2009 Alessandro was awarded a Life Science Interface fellowship by the EPSRC to establish foster the development of heavily multiplexed biochemical imaging. Soon after he moved to the MRC Cancer Unit where he lead the ‘Systems Microscopy initiative’ and retrained in cancer biology. During these years, Alessandro’s work developed into two research streams: i) the study of cellular responses to DNA damage and mutations in signalling pathways and ii) the innovation of biochemical imaging technologies. His team contributed to revealing the vast cell-to-cell variability in stress responses of genetically identical cells, a feature of biological systems that hinder the efficacy of disease management and therapeutic efficacy. Since 2019, Alessandro leads a transdisciplinary research programme at the MRC Cancer Unit in Cambridge devoted to understanding how DNA damage and mutations in KRAS derange homeostatic programmes leading to cancer. His group combines multi-omics data with single-cell biochemical imaging techniques aiming to achieve a deeper understanding of cancer phenotypes during the earliest stages of carcinogenesis, with particular attention to cell-to-cell variability of non-genetic origin and cell-to-cell communication.
Kirti Prakash is a computer scientist by training (Bachelors and Masters degree) but a biologist at heart (PhD degree). Kirti aspires to be an inventor and develop new imaging tools for cell biology and neuroscience. Kirti did his Masters in Computer Science from Aalto University (Finland) and PhD in Biology from Heidelberg University (Germany). During his PhD, he developed a new method to image DNA which led to the first high-resolution images of the epigenetic landscape of meiotic chromosomes and mechanisms behind chromosome condensation. The doctoral research earned him several awards including Springer Best PhD Thesis Prize. After his PhD, he did a couple of postdocs at Carnegie Institution for Science (USA) and University of Cambridge (UK). The primary highlights of his research here were laser-free superresolution microscopy and development of a high-content imaging pipeline to quantify single-cell gene expression. Formerly at the National Physical Laboratory (NPL), and currently working at the Institute for Cancer Research (ICR) and Royal Marsden Trust, he is working on microscope development and image analysis.
An optical physicist and specialist in light microscopy and head of the Light Microscopy facility at the MRC Laboratory of Molecular Biology, University of Cambridge.
In our lab, we develop and optimise imaging technology to address technically challenging problems in the life sciences. Our primarily tool is advanced, customised light sheet microscopy (LSFM, SPIM). Instantaneous optical sectioning is achieved by illuminating the sample with a sheet of light and generating fluorescence in a thin slice, which is then imaged with a fast camera. Phototoxicity is negligible even at high acquisition rates, making SPIM the ideal platform for long time-lapse experiments. The ability to custom design a light sheet microscope around a sample has empowered many research labs to do experiments that have been impossible with commercial instruments. Unfortunately, only few have been able to custom design such an instrument to enable demanding biological applications. Consequently, a wide gap has emerged between the technologies commonly available to biologists and the cutting-edge. We have addressed this issue by developing the Flamingo, a modular, shareable light sheet microscope suited to a new model of scientific collaboration. Each microscope is customized for a given application, equipped to travel from lab to lab and to provide widespread access to advanced microscopy. The Flamingo's modularity allows a variety of sample mounting techniques (tube, dish, gel, clearing, etc.). A horizontal arrangement offers single-sided illumination (L- SPIM), double-sided illumination (T-SPIM) and double- sided detection (X-SPIM), all within the same framework. The system will evolve over time, driven by the community's feedback and input. We believe that the Flamingo is a powerful alternative to commercial solutions, open-source microscopes, and conventional imaging facilities.
Professor, Georg-August University, Göttingen.
Jan Huisken is an Alexander-von-Humboldt Professor at the Georg-August University in Göttingen. Jan studied physics in Göttingen and Heidelberg and has a background in three-dimensional fluorescence microscopy, optical manipulation and trapping, developmental biology and zebrafish development. He received his PhD from the EMBL Heidelberg, where he pioneered multidimensional light sheet microscopy (also Selective Plane Illumination Microscopy, SPIM) in the labs of Ernst Stelzer and Joachim Wittbrodt. For one of the first applications of light sheet microscopy, Huisken moved to the lab of Didier Stainier at the University of California San Francisco as a cross-disciplinary HFSP postdoctoral fellow in 2005 to study cardiovascular morphogenesis and function in zebrafish. From 2010 until 2016 Huisken was an independent group leader at the Max Planck Institute for Molecular Cell Biology and Genetics in Dresden, Germany. From 2016 until 2021 he was a principal investigator and director of Medical Engineering at the Morgridge Institute for Research and Professor at the University of Wisconsin Madison. Huisken is now best known for his interdisciplinary work at the interface of gentle high-resolution microscopy and quantitative developmental biology. His lab covers all aspects of modern in vivo imaging from sample preparation to image analysis. Recently he has started an initiative to democratize the access to advanced microscopy with a modular and portable microscope platform called Flamingo. For his contributions to modern optical microscopy Huisken was awarded the Royal Microscopy Society Medal for Light Microscopy in 2017, the Lennart Nilsson Award in 2020, and the Humboldt-Professorship in 2021.