Durham University is looking for two experimental postdocs within the
Quantum Light and Matter group at Durham, split between Prof. Simon
Cornish and Dr. Alex Guttridge, working on hybrid ultracold
molecule-Rydberg atom systems in optical tweezer arrays.
The Trapped Ion Quantum Technology Group at Stockholm University is
seeking a highly motivated postdoctoral researcher to contribute to
pioneering research in open-system quantum simulations with trapped
Rydberg ions. This position is part of the ERC Synergy project “Open 2D
Quantum Simulator (OPEN-2QS)”.
The Trapped Ion Quantum Technology group at Stockholm University is
inviting applications for a postdoctoral position in our Trapped Rydberg
Ion Project. The candidate will contribute to cutting-edge research on
trapped ion experiments, focusing on the implementation of fast quantum
gates and quantum algorithms using Rydberg interactions.
The Trapped Ion Quantum Technology Group at Stockholm University
invites applications for a highly motivated PhD student to join our
pioneering research in quantum simulations with trapped Rydberg ions.
The aim of the PhD project is to develop a quantum simulator for
modeling molecular dynamics using our trapped Rydberg ion technology.
This position is part of the ERC Synergy project “Open 2D Quantum
Simulator (OPEN-2QS)”, which will start on 1 May 2025.
The Trapped Ion Quantum Technology Group at Stockholm University invites applications for a highly motivated PhD student to join our pioneering research in quantum simulations with trapped Rydberg ions. The aim of the PhD project is to develop a 2D ion trap experiment for open system quantum simulations using Rydberg ions. This position is part of the ERC Synergy project "Open 2D Quantum Simulator (OPEN-2QS)", which will start on 1 May 2025.
STOCKHOLM UNIVERSITY, DEPARTMENT OF PHYSICS
We are searching for a talented and motivated PhD student who is interested in experimental quantum optics and quantum information with trapped ions. The research will focus on the investigation of trapped strontium Rydberg ions.
Trapped Rydberg ions are a novel system for quantum technologies. By laser light, the ions’ outermost electrons are excited to high-lying orbitals. Such Rydberg ions are million times bigger than ions in the ground state, and due to their size, they obtain very peculiar properties.
STOCKHOLM UNIVERSITY, DEPARTMENT OF PHYSICS
Trapped Rydberg ions are a novel quantum system. By laser light, the outermost electron of trapped ions is excited to high-lying orbitals. Such Rydberg ions are million times bigger than ions in the ground state, and due to their size, they obtain very peculiar properties. For instance, they have very large transition dipole moments thus become very sensitive to microwave fields.
