Completed Cells, Biochemistry & Physiology Computing & AI

MICA: Nanoscopy Oxford (NanO): Novel Super-Resolution Imaging Applied to Biomedical Sciences

In plain English

AI plain-English summary

A new consortium at Oxford University is building microscopes that can see structures a thousand times smaller than a conventional light microscope can resolve, revealing the nanoscale machinery inside living cells. This matters because standard light microscopy hits a physical limit that blurs objects smaller than about 200 nanometres, leaving the detailed architecture of proteins, membranes, and organelles invisible. Super-resolution microscopy (SRM) bypasses that barrier, but the techniques are complex, expensive, and not yet routine for biomedical researchers. The consortium—Nanoscopy Oxford (NanO)—will integrate biologists, physicists, engineers, and chemists to develop, optimise, and simplify the full range of SRM methods, including STED, 3DSIM, and PALM/STORM. They will also improve imaging in thick tissue, create better fluorescent labels for live cells, and build analysis tools for the resulting data. If successful, the project will make nanoscale imaging accessible to a broad biomedical community, allowing researchers to see how normal cellular processes work and how they break down in human disease. The consortium also plans to become a national training centre, spreading these capabilities across the UK. While the work is primarily fundamental science—understanding cell structure and function at the nanoscale—it lays the technical foundation for future diagnostic and therapeutic insights that cannot yet be predicted.

View original technical description
Over the past decade entirely new technologies have been developed that bypass the limits of light microscopy allowing researchers to visualise, for the first time, intracellular structures, the cell surface and the extracellular space at the nanometre scale in both fixed and living cells. This has created entirely new possibilities to investigate normal cell structure and function. The principal aim of this application is to fully integrate and coordinate multidisciplinary groups (biologists, physicists, engineers and chemists) across the Oxford campus, to develop super-resolution microscopy (SRM) and to make this available to a broad biomedical community (e.g. WIMM, Dunn School, WTCHG, Biochemistry and DPAG) to generate new insights into normal biological processes and how these are perturbed in human diseases. We propose that this new consortium is called Nanoscopy Oxford (NanO). Over the past few years several biomedical institutes and Departments in Oxford have made commitments to developing imaging as a key infrastructure for supporting their scientific programmes. In addition these departments and institutes have contributed to an overarching strategic vision for imaging in Oxford under the leadership of the Micron initiative. This has enabled the Oxford campus to establish a wide range of conventional imaging and to take the first steps in developing SRM. Recruitment of scientific leaders in this area (e.g. Davis, Eggeling, Schermelleh) and their collaborations with international leaders in this area of research (Hell, Sedat, Jakobs) have placed our consortium in strong position, with further investment, to become a leading UK and international centre for next generation imaging. Recognising that no single approach is suitable for all applications, we will build upon current imaging facilities and associated management structures in Oxford to establish, extend and optimise the full range of approaches to SRM (STED, RESOLFT, 3DSIM and PALM/STORM). Furthermore, we will adapt each type of microscopy to maximise our ability to perform nanoscale imaging, developing new approaches for multi-colour and three-dimensional imaging. We will improve the quality of imaging in thick specimens by reducing aberrations, improving fluorescent labels for live-cell SRM imaging, and we will speed up the imaging process and develop new methods for analysis of the super-resolved images. By streamlining these techniques we will bring complex technologies, not yet commercialised, within the reach of biomedical researchers with limited experience of SRM. The consortium has well established programmes in teaching and training biomedical researchers in the use of all forms of microscopy and therefore is well placed to become a training facility for the UK in this area. Realising this vision including technical development, adoption of techniques to analyse key cell biological questions and then applying them to biomedical issues (fully integrating Micron and NanO) will make Oxford an international centre of excellence in the development of next generation microscopy and its application to the analysis of human disease.

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Researchers

Christian Eggeling (Co-Investigator)Douglas Higgs (Co-Investigator)Ilan Davis (Principal Investigator)Martin Booth (Co-Investigator)Vincenzo Cerundolo (Co-Investigator)

Related Research

Grants with similar aims, by meaning.

MICA: A super resolution optical microscopy facility at the MRC Laboratory of Molecular Biology.
Super Resolution Imaging for Cell Biology and Neuroscience at UCL
Multispectral rapid 3D super-resolution imaging of nuclear biology
Next generation live super-resolution microscopy: development and application at the Cambridge Advanced Imaging Centre
Mesolab: A Centre for Optical Mesoscopy for Biomedical Research at the University of Strathclyde

Original classification

Research Grant

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