Download PhD Position:

Survey
yes no Was this document useful for you?
   Thank you for your participation!

* Your assessment is very important for improving the workof artificial intelligence, which forms the content of this project

Document related concepts

Magnetic monopole wikipedia , lookup

Path integral formulation wikipedia , lookup

Theoretical and experimental justification for the Schrödinger equation wikipedia , lookup

Quantum field theory wikipedia , lookup

Copenhagen interpretation wikipedia , lookup

Coherent states wikipedia , lookup

Magnetoreception wikipedia , lookup

Renormalization group wikipedia , lookup

Bell's theorem wikipedia , lookup

Quantum dot wikipedia , lookup

Quantum entanglement wikipedia , lookup

Relativistic quantum mechanics wikipedia , lookup

Hydrogen atom wikipedia , lookup

Many-worlds interpretation wikipedia , lookup

Quantum fiction wikipedia , lookup

Aharonov–Bohm effect wikipedia , lookup

Symmetry in quantum mechanics wikipedia , lookup

Max Born wikipedia , lookup

Orchestrated objective reduction wikipedia , lookup

Quantum computing wikipedia , lookup

EPR paradox wikipedia , lookup

Interpretations of quantum mechanics wikipedia , lookup

Resonance wikipedia , lookup

Quantum teleportation wikipedia , lookup

Nuclear magnetic resonance spectroscopy wikipedia , lookup

Quantum group wikipedia , lookup

History of quantum field theory wikipedia , lookup

Canonical quantization wikipedia , lookup

Ferromagnetism wikipedia , lookup

Quantum key distribution wikipedia , lookup

Quantum state wikipedia , lookup

Quantum machine learning wikipedia , lookup

T-symmetry wikipedia , lookup

Hidden variable theory wikipedia , lookup

Transcript
PhD Position: Quantum dynamics simulation algorithms for magnetic systems
Supervisor: Dr Ilya Kuprov
This project will use one of the biggest supercomputers in the UK to perform large-scale
simulations of quantum system dynamics. Such simulations are essential in magnetic
resonance research, materials engineering, nanotechnology, quantum systems engineering
and computational drug screening because they allow the design work to be moved from
physical reality into a virtual world inside a supercomputer that is set to evolve, just as the
real world does, under the Schrödinger equation.
The primary difficulty with such simulations used to be their exponential scaling with the
system size. Exponential scaling means that quantum systems with more than about 15 spins
are overwhelming even the largest supercomputers – a major limitation, particularly in
biomolecular NMR, ESR and DNP spectroscopy.
We have recently found a class of polynomially scaling algorithms that allow accurate
simulations to be performed for large numbers of particles, and this project will be taking
advantage of those algorithms. The results will provide basic theoretical and software
infrastructure for large-scale quantum dynamics simulations and quantum control
optimization of NMR and ESR pulse sequences, with applications to biomolecular NMR
spectroscopy, magnetic resonance imaging, materials research and quantum device
engineering.
This project is a part of the iMR CDT Doctoral Training Programme that provides high-level
training courses, industry internship opportunities, conference and collaboration travel funds,
high performance workstations as well as research networking opportunities within the six
participating UK universities.
Further information on this project is available at http://spindynamics.org
For further information about applying contact Ilya Kuprov ([email protected]) or
[email protected].
The Centre for Doctoral Training in Integrated Magnetic Resonance is a collaboration
between researchers at the Universities of Warwick, St Andrews, Dundee, Southampton,
Aberdeen and Nottingham.
www.imr-cdt.ac.uk
Millburn House Magnetic Resonance Centre, Department of Physics, University of Warwick, Coventry CV4 7HS UK