The Matter Compiler

Lead Research Organisation: University of Sussex
Department Name: Chemistry

Abstract

An ambition to assemble molecules and materials under atomically precise control demands a big leap forward in control engineering and computer science. Is it possible to anticipate the properties and needs of a 'nano-assembler'? If so, there is a need for a high level instruction language and a computer compiler that translates commands in this language into instructions for the 'nano-assembler'. This development will require a breakthrough in understanding of chemical synthesis that must embrace the radically new 'pick and place' assembly method which is now possible in scanning probe microscopy (SPM). The Matter Compiler project is thus both an exercise in foresight, to anticipate developments in this area, and a prototype implementation for the engineering control and computer science aspects of directed molecular assembly. It has as inputs data from SPM experiments of collaborators, energy landscapes for 'pick and place' reactions and the vast knowledge base of classical synthetic chemistry, including methodologies such as retrosynthesis. This will be supplemented by reaction schemes for 'pick and place' reactions deduced from energy landscapes calculated from first principles and the technology of object oriented databases and inference engines.This result will be a first important and fundamental step towards the still distant vision of directed molecular assembly.

Publications

10 25 50
 
Description This was an adventurous proposal that came out of a 'sandpit' exercise, where EPSRC chose the participants. This subproject was to look into ways in which the philosophy behind compilation of computer programs could be applied to the production of matter (molecules). This part of the work concerned using first principles modelling to understand possible molecular configurations and reactions at surfaces.
Exploitation Route There is the ground work here for a continued effort towards the Matter Compiler.
Sectors Chemicals,Digital/Communication/Information Technologies (including Software)

URL http://sro.sussex.ac.uk/39588/
 
Description Work within the Matter Compiler project on simulating the STM identification of defects in graphite and the interlayer interaction have informed the on-going research programme into graphite radiation damage with economic impact for the UK fleet of Advanced Gas-cooled Reactors.
First Year Of Impact 2014
Sector Energy
Impact Types Economic