A Cluster for the Development of Dynamic 3D Nanoscopy

A new microscope will track individual molecules moving in three dimensions inside living cells, revealing how proteins, vesicles, and genetic material organise themselves in real time. This matters because current light microscopes blur objects smaller than 200 nanometres, while electron microscopes freeze dead samples. The gap between these two techniques has hidden the “big picture” of how cells process information—how transport vesicles navigate, how ribosomes assemble, and how chromatin folds. Watching these structures move in 2D is not enough; objects constantly drift out of the focal plane. This project builds a cluster of innovations to capture the vastly larger datasets needed for 3D imaging and to develop algorithms that classify and visualise the resulting patterns. If successful, this is fundamental science with no immediate practical application. It will give biologists a direct view of the dynamic machinery inside living cells, revealing organisational principles that are currently invisible. Similar fundamental advances in microscopy—such as the development of green fluorescent protein—later transformed drug discovery, diagnostics, and our understanding of disease mechanisms. This work could lay the groundwork for future medical insights, but its primary value is in answering a basic question: how do molecules coordinate inside a living cell?