PhD Thesis - Joachim Nsofini
Joachim Nsofini of the Department of Physics and Astronomy is defending his thesis:
Quantum Information Enabled Neutron Interferometry
Joachim is supervised by IQC faculty member David Cory.
Joachim Nsofini of the Department of Physics and Astronomy is defending his thesis:
Quantum Information Enabled Neutron Interferometry
Joachim is supervised by IQC faculty member David Cory.
The temporal structure of quantum light offers an intrinsically high-dimensional and robust platform for encoding quantum information. In particular, the time-frequency degree of freedom can be explored in the frame of pulsed temporal modes, the ultrafast analogy to spatial Hermite-Gauss or orbital angular momentum modes. These overlapping temporal modes are naturally compatible with waveguide devices and fibre infrastructure, but present unique challenges to fully explore and exploit.
Canada is headed for the quantum space race with a project from the University of Waterloo.
Waterloo’s Quantum Encryption and Science Satellite (QEYSSat) initiative, announced as part of the federal government’s recent investment into space-related emerging technologies, joins a global race to quantum cybersecurity via satellites.
On behalf of the community here at the Institute for Quantum Computing (IQC), congratulations to the Government of Canada and the Canadian Space Agency on today’s announcement. The $80.9 million in funding to the Canadian Space Agency is an important investment in the development of new technologies that will benefit all Canadians for generations.
The past decade has seen enormous experimental progress in building superconducting electrical circuits featuring artificial atoms subject to the quantized electromagnetic field of microwave photons. The fabrication and control of superconducting circuits has reached a stage where many such elements can be wired up into intricate networks, allowing the preparation and readout of complex quantum states of photons and atoms.
Join us at the Institute for Quantum Computing for a two-week introduction to the theoretical and experimental study of quantum information processing.
During the Undergraduate School on Experimental Quantum Information Processing (USEQIP) will be exposed to lectures and experiments on the following topics and more.
We will first motivate the problem of quantum state exclusion of pure states, through its connections with the PBR game and with compatibility conditions for quantum state assignments. Then, we will discuss our recent result regarding the optimality of projections for perfect state exclusion of 3 pure states in 3 dimensions (arXiv:1702.06449).
Laser-cooled trapped ions are among the most versatile experimental platforms for the simulation of non-trivial quantum Hamiltonians. What distinguishes this platform from others is the extent to which it is experimentally possible to control this system at the level of individual particles and interactions between them.
I will provide a short overview of the UK national Quantum Technology Hubs and the theoretical involvement at Strathclyde in two Hubs: the Quantum Communications Hub and the Quantum Imaging Hub.
Is there a difference between the quantum dynamics of a "real" particle and a collective excitation, like that in a spin ice, which creates a measurable gauge field? I will argue that in the presence of weak dephasing, the answer depends on the quantity measured.