The Integrated Optical Platform Work Package, led by A.Prof. Mirko Lobino, focuses on integration and scalability for quantum optics. The goal of this work package is to realise the technological infrastructure for large scale integrated optical devices with a computational complexity to outperform current classical computers.
Using lithium niobate as main material platform we will design and fabricate electro-optically reconfigurable waveguide networks. With our technology we will work towards the realisation of devices for the generation of nonclassical state of light, such as single photons and squeezed vacuum, their manipulation, and detection all on a single chip.
Quantum Communication is the transmission of information via the coherent exchange of quantum systems, usually optical. Its study has led to new communication technologies, for example quantum key distribution, a secure communication technique with no…
The Optical Quantum Computing Theory Program, led by Dr Austin Lund from the University of Queensland, expands understanding in the power of quantum computation from the perspective of quantum optics theory. Intermediate, or non-universal quantum…
The Silicon Qubit Environment & Interface Program, led by Prof Sven Rogge at UNSW Sydney, aims to couple qubits in a robust manner from the atomic nano-meter length scale to macroscopic coupling via photons. On…
The Directed Ion Implantation Program employs top-down deterministic methods for making devices by directing single ions to specific locations in silicon substrates that act as atomic qubits. Led by Professor David Jamieson, the research will…
Coherent control is a promising approach to create a novel quantum device/architecture which has distinctive features from the existing device. This program aims to develop a repeatable and scalable device based on a coherent feedback…
The Optical Quantum Information Program is led by Prof Geoff Pryde based at Griffith University. The Program investigates cutting-edge photonic quantum information approaches for information processing and networked quantum information, as well as making key…
The Photonic Quantum Processor Program will develop integrated single photon sources into complex photonic structures to produce and manipulate large-scale quantum states on chip. We will integrate arrays of quantum dots emitting at telecom wavelength…
Scalability and integration are key factors for the realisation of practical quantum technologies. The Integrated Quantum Photonics Program, led by A.Prof. Mirko Lobino from Griffith University, will develop these concepts in quantum optics by realising…
The Continuous-Variable Quantum Technology Program is led by Dr. Nicolas Menicucci from RMIT University in Melbourne. World record-breaking experiments in recent years have revealed continuous-variable (CV) cluster states to be a highly promising technology for…
Critical operations in quantum computing and communications require quantum information to be transferred between light fields and material quantum systems. To enable these operations this program is developing a series of optical solid-state interface devices,…
A quantum repeater is a device that can faithfully relay quantum information and extend quantum communication range. The Quantum Repeater Technology Program, led by Professor Ping Koy Lam based at The Australian National University in…