This meeting is designed to talk about the current challenges in developing and using super-resolution microscopy. With short talks and lots of time for discussion, the workshop will discuss recent advances in super-resolution imaging from new developments in imaging to analysis of super-resolution data. We particularly want to encourage early career researchers to attend and contribute to the meeting. Please contact the organisers if you would like more information on how to contribute.
King’s College London
Talk title: Deep learning for data synthesis in fluorescence microscopy
Susan is a Royal Society University Research Fellow in the Randall Division of Biophysics at King's College London. Following a PhD in transmission electron microscopy at Cambridge, she spent three years at the National High Magnetic Field Laboratory at Los Alamos looking at the behaviour of the low temperature phases of strongly correlated electron systems. Her current primary interest is the development of new super-resolution localisation microscopy techniques, both through the development of optical systems and the creation of novel image analysis algorithms. She uses these techniques to investigate the behaviour of the cytoskeleton in live cells at the nanoscale. In 2015, she was awarded the RMS Medal for Light Microscopy and the President's Medal of the Society of Experimental Biology for the Cell Section.
University of Cambridge, UK
Talk title: Multidimensional Super-resolution Imaging: Wasting Light to Learn New Things
Research in TheLeeLab centers on developing new biophysical methods to answer fundamental biological questions, primarily through single-molecule fluorescence spectroscopy and multidimensional super-resolution imaging. Professor Lee completed his DPhil in Physical Chemistry with Dr. Mark Osborne, before postdoctoral work with both Prof Sir David Klenerman (FRS MedSci) and Prof W.E Moerner (Nobel Prize Chemistry 2014). He manages a research team of talented researchers who profoundly believe molecules should be looked at one at a time. Professor Lee is the 2017 recipient of the Marlow Prize in Physical Chemistry from the Royal Society of Chemistry.
University of Leeds
University of Leeds
Aleks obtained a PhD in Mechanical Engineering at Imperial College London, where he applied novel fluorescence microscopy techniques to study confined fluids. He then moved to the Chemistry department in Cambridge, where he worked on new single-molecule and light-sheet microscopy tools for investigating the behaviour and organisation of membrane proteins in T cells. In 2020, Aleks starts his own lab as a University Academic Fellow at the Bragg Centre for Materials Research in Leeds. Here, his lab will focus on the application of high-speed fluorescence imaging to push beyond the temporal limits of single-molecule and super-resolution fluorescence microscopy.
University of Leeds
University of Leeds
Michelle is Professor of Cell Biology in the Faculty of Biological Sciences. She obtained a BA in Physiology of Organisms at the University of York, and a PhD in Physiology at University College London. She moved to King's College London, and started to use a specialised form of light microscopy (birefringence) to investigate muscle crossbridge orientation. She then worked at UCSF, San Francisco for a year, where she used fluorescence polarisation to investigate muscle crossbridges. She moved back to the UK, to the University of York, to work on insect flight muscle. In 1990 she was awarded a Royal Society University Research fellowship, based at King's College London, and began working on the cell and molecular biology of muscle development, and started to use live cell imaging to investigate muscle cell behaviour in cultured cells, and confocal microscopy to investigate their cytoskeleton. She collaborated with Graham Dunn to use Digitally Recorded Interference Microscopy with Automatic Phase Shifting (DRIMAPS) to investigate cell crawling behaviour. She moved to Leeds in 1997 as a Lecturer, and has continued to use a wide range of both light and electron microscopy approaches to investigate the molecular motors and the cytoskeleton.