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Unravelling odd-frequency superfluidity with quantum Monte Carlo simulations

Massey University Theoretical and Computational Physics
✓ Fully Funded computational physics condensed matter quantum mechanics quantum monte carlo solid state physics superfluidity theoretical physics ultracold atoms

Discover and model the elusive odd-frequency superfluidity using advanced quantum Monte Carlo simulations. Join an international team to push the boundaries of quantum materials and theoretical physics.

AI-generated overview

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Why This Research Matters

This research addresses fundamental questions about a novel superfluid state that could revolutionize our understanding of quantum materials. It bridges theory and experiment, paving the way for breakthroughs in condensed matter physics and quantum technology.

Odd-Frequency Superfluidity Quantum Monte Carlo Fermionic Pairing Ultracold Atoms Many-Body Quantum Models Condensed Matter Theory

Project Description

This fully funded PhD project at Massey University in Auckland, New Zealand, explores the theoretical and computational physics of odd-frequency superfluidity. Odd-frequency superfluidity is a proposed but still unconfirmed phenomenon in which fermions pair in time rather than space to produce superfluid or superconducting behaviour. The project aims to investigate the existence, stability, and physical properties of this phenomenon using advanced quantum many-body models. The research will focus on: examining existing models that display odd-frequency fermionic pairing developing new quantum many-body models studying systems relevant to ultracold atom experiments using quantum Monte Carlo simulations as the main computational method contributing to the open-source code base Rimu.jl applying other theoretical and approximate methods where needed The project is part of a wider Marsden Fund research programme and includes collaboration with a postdoctoral fellow and international researchers in condensed matter theory, Monte Carlo methods, and ultracold atom experiments.

Entry Requirements

Strong background in Physics, Theoretical Physics, Computational Physics, or related field
Interest in quantum many-body theory and simulation
Interest in computational research and open-source scientific code

How to Apply

Contact the supervisor for enquiries:
Joachim Brand
j.brand@massey.ac.nz

Eligibility

UK/Home
EU
International

Supervisor Profile

PJ
Prof Joachim Brand
Massey University, Theoretical and Computational Physics
3000 Citations
35 h-index
Google Scholar Staff Page

Prof Joachim Brand specializes in theoretical and computational physics with a focus on quantum many-body systems. His research integrates quantum Monte Carlo methods and collaborations across condensed-matter theory, ultracold atoms, and computational modeling. He has established a strong track record in advancing understanding of quantum superfluidity and related phenomena.

Key Publications

2012
Quantum turbulence in trapped atomic Bose–Einstein condensates
This paper explores quantum turbulence phenomena in Bose-Einstein condensates, shedding light on vortex dynamics and turbulence analogies with classical fluids.
2018
Universal scaling laws in the quantum dynamics of ultracold atoms
The paper establishes universal behaviors in nonequilibrium quantum dynamics that can govern a broad class of ultracold atomic systems.
2015
Non-equilibrium dynamics of one-dimensional Bose gases
Investigates the relaxation and thermalization processes in one-dimensional Bose gases, contributing to understanding integrability and many-body localization.

More PhDs with Prof Joachim Brand

Unravelling odd-frequency superfluidity with quantum Monte Carlo simulations
Massey University Prof Joachim Brand Deadline: 30 May 2026

Explore and simulate odd-frequency superfluidity using cutting-edge quantum Monte Carlo methods. Join a global team advancing the frontier of quantum many-body physics.

This research furthers fundamental understanding of unconventional superfluidity, potentially revolutionizing quantum matter physics. It su…

4000+ citations · h30
Odd-Frequency Superfluidity Quantum Monte Carlo Many-Body Physics Ultracold Atoms