Completed Physics & Astronomy Materials & Manufacturing

New Tools for Nanometrology

In plain English

AI plain-English summary

Engineers and physicists at Imperial College London and University College London are building a new set of tools to measure objects at the nanoscale—a billionth of a metre—with far greater precision than currently possible. Today’s microscopes and sensors struggle to capture what is happening inside materials at the scale of atoms and molecules. This limits progress in fields from electronics to medicine, where the behaviour of tiny structures determines how a device or drug performs. The researchers aim to develop techniques that can measure specific physical or chemical properties—such as stiffness, electrical charge, or temperature—at exactly the right place and time. If successful, the work could improve the manufacturing of computer chips, batteries, and medical implants, where nanoscale flaws can cause failure. It might also enable new diagnostic tools that detect disease earlier by sensing changes in single cells or proteins. This is fundamental science: there is no immediate product or treatment. The goal is to create a national capability for nanometrology that the UK currently lacks. Past investments in similar measurement science have underpinned entire industries—from semiconductor fabrication to DNA sequencing—by giving researchers the ability to see and measure what was previously invisible.

View original technical description
Funds are sought to establish a new UK research capacity that will address key challenges in the development of innovative tools for nanoscale characterisation and metrology. The initiative will be based at the London Centre for Nanotechology (LCN), a joint venture between Imperial College London and University College London, and will help establish an internationally competitive multi-disciplinary activity with strong critical mass at two of the UK's leading research universities. Our programme will deliver high impact fundamental science and will lead to the development of new techniques capable of quantifying target properties with appropriate spatial and temporal resolution.

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Researchers

David McComb (Principal Investigator)Lesley Cohen (Principal Investigator)

Related Research

Grants with similar aims, by meaning.

FINESSE NanoBio (Fabrication and Imaging of Neon-Etched Structures and Surfaces for Engineering, Nanoscience and Biotechnology)
Next Generation Metrology Driven by Nanophotonics
Nanometrology for Molecular Science, Medicine and Manufacture
Nanoanalysis for Advanced Materials and Healthcare
UK Quantum Technology Hub for Sensors and Metrology

Original classification

Research Grant

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