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Jack S. Baker

Researcher at London Centre for Nanotechnology

Publications -  17
Citations -  143

Jack S. Baker is an academic researcher from London Centre for Nanotechnology. The author has contributed to research in topics: Density functional theory & Charge density. The author has an hindex of 5, co-authored 12 publications receiving 75 citations. Previous affiliations of Jack S. Baker include University College London.

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Large scale and linear scaling DFT with the CONQUEST code.

TL;DR: In this article, the authors survey the underlying theory behind the large-scale and linear scaling density functional theory code, conquest, which shows excellent parallel scaling and can be applied to thousands of atoms with diagonalization and millions with linear scaling.
Journal ArticleDOI

Large scale and linear scaling DFT with the CONQUEST code

TL;DR: In this article, the authors survey the underlying theory behind the large-scale and linear scaling DFT code, Conquest, which shows excellent parallel scaling and can be applied to thousands of atoms with exact solutions, and millions with linear scaling.
Journal ArticleDOI

Original Research By Young Twinkle Students (ORBYTS): when can students start performing original research?

TL;DR: In the ORBYTS project as discussed by the authors, students between the ages of 15 and 18 have been performing original research associated with the exploration of space since January 2016, where the student groups have each been led by junior researchers.
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Highly accurate local basis sets for large-scale DFT calculations in conquest

TL;DR: In this article, the authors present a brief overview of the large-scale DFT code Conquest, which is capable of modelling such large systems, and discuss approaches to the generation of consistent, well-converged pseudo-atomic basis sets which will allow such large scale calculations.
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The pseudoatomic orbital basis: electronic accuracy and soft-mode distortions in ABO 3 perovskites

TL;DR: In this article, the authors used a local pseudoatomic orbital (PAO) basis to model the charge density of perovskite oxides and found that modestly sized basis sets of PAOs can reproduce the plane-wave charge density to a total integrated error of better than 0.5%.