Completed Chemistry Materials & Manufacturing

Digital Matter?: Towards Mechanised Mechanosynthesis

In plain English

AI plain-English summary

A scanning probe microscope tip will soon act as a tiny robotic arm, picking up individual atoms and snapping them together like molecular Lego bricks. Researchers at Nottingham, Birmingham, and Oxford are developing the software and hardware to automate this atom-by-atom assembly, moving beyond the manual, one-off demonstrations achieved in Germany and the US. The core challenge is programming the probe to reliably build three-dimensional nanostructures at room temperature, a feat that currently requires extreme cold. This is fundamental science at its most ambitious—there is no immediate product or prototype. If it succeeds, it would give engineers and chemists a tool to construct materials with atomic precision, effectively writing matter from the bottom up. That could eventually transform nanofabrication, surface chemistry, and the study of low-dimensional electron systems, but the primary payoff here is proving that programmable, computer-controlled chemistry at the single-molecule level is possible at all.

View original technical description
Computer-controlled chemistry at the single molecule level, a field very much in its infancy, represents arguably the most exciting and, to many, definitive example of the power and potential of nanotechnology. Recent ground-breaking work in Germany and the US has shown that it is possible to drive chemical reactions and to synthesise molecules via interactions driven by a scanning probe. In the UK, the nanoscience groups at Nottingham, Birmingham, and Oxford have demonstrated that atomic/molecular manipulation strategies pioneered at low temperatures can be extended to a room temperature environment. The focus of this fellowship application is to develop next-generation protocols for scanning probe manipulation capable of automated atom-by-atom assembly of, ultimately, three dimensional nanostructures. Our goal is to programme the assembly of matter from its consitutent atoms. This exceptionally challenging objective has the potential to revolutionise key areas of 21st century science including nanofabrication, materials processing, surface chemistry, and the study of low dimensional electron systems.

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Researchers

Philip Moriarty (Principal Investigator)

Related Research

Grants with similar aims, by meaning.

Mechanochemistry at the Single Bond Limit: Towards "Deterministic Epitaxy" [Resubmission]
Autonomous Discovery of Advanced Materials
Precision synthesis using nanoscale electrochemistry
NANOStructure Photochemistry via Hot Electron driven REactions
Materials World Network: The Designer Nanoparticle

Original classification

Fellowship

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