The RMS is committed to being a welcoming, inclusive Society and encourages diversity across all activities and in the membership of our committees and groups.
The Society strives to be accessible, inclusive and encourage diversity in all that we do, however we recognise that there is still much work to do.
The Society has established a group to work on our Equity, Diversity, Inclusion & Accessibility (EDI&A) policies and review all the activities of the Society. This group meets regularly, and is due to report in Autumn 2022. Minutes of the meetings and the policies produced will be published here in due course.
We have begun a review of our activities and have made some changes to our processes and procedures, including, but not limited to:
The list above is not exhaustive and will continue to be developed.
We will be producing a full policy that will include details of our current processes and procedures but will also look to the future of what the Society can do to promote and further EDI&A in all of our activities and support our community.
If you would like to join or engage with this group please email Victoria Masters.
We welcome comments, suggestions and feedback using the form below. You can comment anonymously, or if you would like to include your details we will respond in due course.
AstraZeneca
AstraZeneca
Stephanie is an Associate Principal Scientist of the Imaging and Data Analytics group in AstraZeneca, with a focus on the integration of different imaging modalities and data-rich technologies to explore complex tissue biology. She leads the implementation of the Imaging Mass Cytometry platform within AstraZeneca and cross-functional teams for its integration with Histology and Mass Spectrometry Imaging to understand the cell types and phenotypes underlying heterogeneity of drug delivery, response and resistance. The power of the approach is exemplified as part of the Rosetta CRUK Grand Challenge to create a Complete Cartography of Cancer. The Imaging and Data Analytics group is a global capability encompassing imaging capabilities from in vivo radiomics, histopathology, multiplexed tissue imaging, mass spectrometry imaging, at sites in the UK, Sweden and US. These sit alongside data science hubs with expertise in machine learning, AI, bioinformatics, multi-omics analysis, cheminformatics, modelling, computer vision and image analysis to support projects from across the AstraZeneca portfolio. In her previous role in the High Content Biology group, Stephanie specialised in the development of high content immunofluorescence imaging and advanced image analysis to reveal greater insight from high throughput screens for mechanism of action of genotoxicity and DNA damage response. Before joining AstraZeneca, Stephanie completed her undergraduate Masters at the University of Oxford, and her PhD at the Institute of Cancer Research, working in the Cell Communication and Cancer Biology labs of Dr Claus Jorgensen and Professor Chris Marshall, and in collaboration with the Dynamical Cell Systems team lead by Professor Chris Bakal using Mass Spectrometry Proteomics and High Content Imaging to study Tumour-Stroma signalling in Pancreatic Ductal Adenocarcinoma.
National Physical Laboratory
National Physical Laboratory
Greg McMahon received his B.Sc. and M.Sc. in Metallurgical Engineering at Queen’s University in Kingston, Ontario Canada. Following a brief stint in industry where he was seconded to the Materials Technology Laboratory/CANMET in Ottawa, in 1990 he decided to pursue his Ph.D in Saarbrucken, Germany in the group led by Prof. Herbert Gleiter, who were leading the field in studying the unique properties of nanocrystalline materials. His thesis was on the study of the microstructural and optoelectronic properties of nanocrystalline ZnO solids exhibiting quantum size effects using an array of microscopic and microanalytical techniques (SEM/EDX, TEM, XRD, Mossbauer spectroscopy, luminescence). After graduating in 1994 he returned to MTL/CANMET as post-doc and subsequently research scientist in charge of the Cameca ims 4f facility and later went on to work with Fibics Inc. using FIB and quadrupole SIMS as well as maintaining the 4f lab for MTL. In 2004 the call of the prototype Cameca NanoSIMS took him to Boston where he was the Assistant Director to Prof. Claude Lechene at the Natural Resource for Imaging Mass Spectrometry (NRIMS) at Harvard Medical School and Brigham and Women’s hospital, introducing him to the field of biological sciences. After 4 years there he went on to become Electron Microscopy facility manager at Boston College prior to moving to the UK in 2015 to be part of the NanoSIMS group at University of Manchester and finally to Principal Research Scientist in NanoSIMS imaging at the National Physical Laboratory.
University of Sheffield
University of Sheffield
Alice Pyne is a Lecturer in Polymers/Soft Matter & MRC/UKRI Innovation Fellow in the Department of Materials Science and Engineering at the University of Sheffield. Alice has over a decade of experience in scanning probe microscopy, spanning high-speed and high-resolution imaging, probe development and cantilever sensing. Alice’s current research aims to understand how variations in DNA structure can affect fundamental biological processes such as replication and transcription. She uses high-resolution AFM to observe variability in structure and conformation in individual DNA molecules and to understand how these variations influence interactions with oligonucleotides and proteins, with a long-term view to improved development of therapeutics.
Early Career Committee Chair & Life Sciences Section Representative, University of Strathclyde
Early Career Committee Chair & Life Sciences Section Representative, University of Strathclyde
Liam is a Post-doctoral Research Associate at the University of Strathclyde, Glasgow. Liam has a background in mammalian cell and molecular biology but developed his skillset as an optical microscopist and microbiologist during his PhD. Since 2016, Liam has focussed his research on the development and application of optical microscopy methods to study how bacteria interact with each other and their environment. His research involves various bacteriological phenomena; from understanding bacterial gliding motility, visualising colonisation behaviours using transparent soil, observing nutrient transport channels in bacterial biofilms, and super-resolution imaging of bacterial and fungal cell-to-cell interactions. Liam’s current research focuses on developing open microscopy solutions for the life sciences. He is the current Chair of the RMS Early Career Section and has sat on the RMS Life Sciences Section Committee since 2018, and is also heavily involved in the Microbiology Society.
University of Plymouth
University of Plymouth
Natasha is a Lecturer in Advanced Analysis (Earth & Planetary Sciences) within the School of Geography, Earth & Environmental Sciences at Plymouth University, and assists with the management & development of Plymouth Electron Microscopy Centre; the university’s flagship, multidisciplinary analytical suite. She completed her PhD at Imperial College London & the Natural History Museum London in 2014, focusing on the geology & surface mineralogy of Mars, and moved to Plymouth University straight afterwards. Natasha’s research focuses primarily on the use of meteorites to ground-truth spacecraft data at Mars (including Mars rovers and orbiters) as well as asteroids (Vesta, Itokawa etc.), by using various non-destructive analytical techniques. Natasha manages the Plymouth Planets research group, is an avid public speaker, heavily engaged in outreach activities, and an active member of the Meteoritical Society & Royal Astronomical Society.
Electron Microscopy Deputy Chair, University of Leeds
Electron Microscopy Deputy Chair, University of Leeds
Rebecca is Facility Manager and senior cryo-electron microscopy (EM) support scientist at the Astbury Biostructure Laboratory, University of Leeds. Her research interests include imaging a broad range of biological specimens, from whole cells to macromolecular complexes, to high resolution using cryo-EM, and integrating data from EM with other microscopy techniques.