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MicroPL optical setup

Professor Robert Taylor

Professor of Condensed Matter Physics

Research theme

  • Photovoltaics and nanoscience

Sub department

  • Condensed Matter Physics

Research groups

  • Quantum Optoelectronics
Robert.Taylor@physics.ox.ac.uk
Telephone: 01865 (2)72230
Clarendon Laboratory, room 246.1
orcid.org/0000-0003-2578-9645
  • About
  • Teaching
  • Positions available
  • Publications

Lasing in perovskite nanocrystals

Image of transverse modes from lasing nanocrystals
Nano Research, 14, 108, 2021

PICOSECOND TIME-RESOLVED LUMINESCENCE OF GATE

JOURNAL OF THE OPTICAL SOCIETY OF AMERICA 73:10 (1983) 1386-1386

Authors:

CN IRONSIDE, JF RYAN, RA TAYLOR
More details

ACTIVE-MODE STABILIZATION OF A SYNCHRONOUSLY PUMPED MODE-LOCKED DYE-LASER

OPTICS COMMUNICATIONS 41:4 (1982) 271-276

Authors:

AI FERGUSON, RA TAYLOR
More details from the publisher

Active Mode Stabilization of Synchronously Pumped Dye Lasers

Springer Series in Chemical Physics Springer Nature 23 (1982) 31-35

Authors:

AI Ferguson, RA Taylor
More details from the publisher

Magnetic properties of a Ni-Fe-Co-Ti alloy

Journal of Magnetism and Magnetic Materials 15-18:PART 3 (1980) 1173-1174

Abstract:

The 33.8 Ni-51.0 Fe-14.0 Co-1.2 Ti wt% alloys is a suitable ferromagnetic system for investigation of the coercivity associated with non-magnetic inclusions. Basic magnetic properties have been measured. Electron microscopy at 1 MeV shows the interaction of microstructure and magnetic structure. Preliminary measurements of coercive force on bulk single crystals are presented. © 1980.
More details from the publisher

An ultrafast polarised single photon source at 220 K

Authors:

T Wang, TJ Puchtler, T Zhu, JC Jarman, LP Nuttall, RA Oliver, Robert Taylor

Abstract:

A crucial requirement for the realisation of efficient and scalable on-chip quantum communication is an ultrafast polarised single photon source operating beyond the Peltier cooling barrier of 200 K. While a few systems based on different materials and device structures have achieved single photon generation above this threshold, there has been no report of single quantum emitters with deterministic polarisation properties at the same high temperature conditions. Here, we report the first device to simultaneously achieve single photon emission with a g(2)(0) of only 0.21, a high polarisation degree of 0.80, a fixed polarisation axis determined by the underlying crystallography, and a GHz repetition rate with a radiative lifetime of 357 ps at 220 K. The temperature insensitivity of these properties, together with the simple planar growth method, and absence of complex device geometries, makes this system an excellent candidate for on-chip applications in integrated systems.
Details from ArXiV

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