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Nothing amuses more harmlessly than computation and nothing is oftener applicable to real business or speculative enquiries. A thousand stories which the ignorant tell, and believe, die away at once, when the computist takes them in his grip.
Samuel Johnson

CASTEP is a leading code for calculating the properties of materials from first principles. Using density functional theory, it can simulate a wide range of properties of materials proprieties including energetics, structure at the atomic level, vibrational properties, electronic response properties etc. In particular it has a wide range of spectroscopic features that link directly to experiment, such as infra-red and Raman spectroscopies, NMR, and core level spectra.

Chris Pickard Awarded IOP Rayleigh Medal and Prize

for "his development of new theories and computational tools for the first principles investigation of matter, which have greatly aided the interpretation of magnetic resonance experiments, have revealed a range of unexpected phenomena in materials at extreme pressures, and increasingly underpin computational materials discovery". full citation on IOP website

CASTEP PDRA and PhD Opportunities

One PhD studentship at Royal Holloway University to develop methods for complex magnetic ground states.

2015 Workshop in Oxford

The CASTEP developers will hold a hands-on workshop 17th-21st August in Oxford. There will be a particular focus on 2-dimensional materials, Nuclear Magnetic Resonance (NMR), vibrational (IR, Raman, INS) spectroscopies as well as Ab-initio Random Structure Searching (AIRSS). Workshop2015

2015 Advanced Developer Workshop in Oxford

The CASTEP developers will hold an Advanced Developer Workshop 18th-21st August in Oxford (running concurrently with the user-focused Workshop). DeveloperWorkshop2015

Research Highlight

Extraordinarily Long-Ranged Structural Relaxation in Defective Achiral Carbon Nanotubes CASTEP was used to investigate the structure of defects in carbon nanotubes. It was found that the results clearly demonstrate that the structural relaxation associated with reconstruction of an isolated monovacancy defect within a graphitic nanotube lattice can be extraordinarily long ranged (far longer than in any ‘conventional’ solid). As a result, it is likely that much published data derived from ab initio calculations of defective or functionalized carbon nanostructures to date have treated systems of insufficient size or with unphysical constraints (periodic boundary conditions) and therefore require careful evaluation. ref.

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