Dr Jarryd Pla
Senior Lecturer

Dr Jarryd Pla

  • BEng (Hons Class 1 and University Medal), Photonic Engineering, The University of New South Wales, 2009
  • PhD, Electrical Engineering, The University of New South Wales, 2013 
Engineering
Electrical Engineering and Telecommunications
Jarryd Pla is an Electrical Engineer and experimental Physicist, working in the fields of quantum information processing (QIP) and more broadly quantum technologies. He is a former Bragg Gold Medal winner and European Marie Curie International Fellow. Jarryd was instrumental in demonstrating the first quantum bits made from the electron and nucleus of a single dopant atom inside a silicon chip. His current research interests span spin-based quantum computation, superconducting quantum circuits (in particular quantum-noise-limited microwave amplifiers) and hybrid quantum technologies. He is focused on developing new quantum technologies to aid with the scaling of quantum computers and to advance capabilities in spectroscopy and sensing.
Location
Newton Building (J12), Level 1, Room 103B
  • Journal articles | 2021
    Laucht A; Hohls F; Ubbelohde N; Gonzalez-Zalba MF; Reilly DJ; Stobbe S; Schröder T; Scarlino P; Koski JV; Dzurak A; Yang CH; Yoneda J; Kuemmeth F; Bluhm H; Pla J; Hill C; Salfi J; Oiwa A; Muhonen JT; Verhagen E; LaHaye MD; Kim HH; Tsen AW; Culcer D; Geresdi A; Mol JA; Mohan V; Jain PK; Baugh J, 2021, 'Roadmap on quantum nanotechnologies', Nanotechnology, vol. 32, pp. 162003 - 162003, http://dx.doi.org/10.1088/1361-6528/abb333

  • ARC DECRA (2019-2022):
    Superconducting hybrid quantum technologies. This project aims to extend the density and coherence of qubits stored in superconducting-based quantum processors, by exploring the concept of hybrid quantum systems. Quantum computers are expected to impact a diverse range of sectors, from medicine to national security. This project seeks to develop an enabling technology, a memory, for scaling a quantum computer constructed from superconducting circuits, such as those being developed in commercial laboratories. Such scaling would improve the capacity of these processors to tackle complex problems. The quantum technology developed in this project will have immediate application in transforming a widely-used technique for studying the nanoscale structure of biomolecules - distance measurements in electron spin resonance spectroscopy.
  • ARC Discovery Project (2021-2024): Quantum sensing from the bottom up with engineered semiconductor devices. This project aims to develop electronic devices that work as sensors of electromagnetic fields, wherein genuine quantum effects are used to reach unprecedented gains in sensitivity. It combines the significance of unveiling the fundamental limits of quantum-enhanced metrology, with the convenience of doing so in potentially manufacturable semiconductor devices. The expected outcome is a novel, bottom-up understanding of how best to utilize exotic quantum states of matter and fields for metrological advantage. These results will inform the design of the next-generation of extreme quantum sensors, with potential impact ranging from fundamental physics research to applications in mining or defense.

  • Spin-based quantum computing
  • Superconducting quantum circuits
  • Quantum-limited microwave amplifiers
  • Hybrid spin-cavity quantum systems
  • Magnetic resonance studies of single spins and spin ensembles in the solid-state
  • Quantum-limited electron spin resonance spectroscopy
  • Quantum converters and transducers

My Teaching