COM-309: Introduction to quantum information processing

Lectures in this course (78)

Covers the basics of quantum information processing, including quantum bits manipulation and quantum entanglement.

Explores the historical development of quantum mechanics and information theory, focusing on the double slit experiment and quantum phenomena.

Explores the Double Slit Experiment, Interference, Density Matrix, and classical correlations in light behavior.

Explores fundamental quantum experiments, including Young's double-slit and photoelectric effect.

Explores Young's double-slit experiment and the behavior of quantum particles.

Explores the Mach-Zehnder interferometer, density matrices, and detection probabilities in quantum systems.

Introduces key concepts in quantum information, such as quantum states and measurements.

Introduces the quantum counterpart of polarized photons as qubits, described by vectors in a classical setting.

Explores the polarization qubit of photons, covering state vectors, Dirac notation, measurement, and information extraction.

Explores photon polarisation, including linear, circular, and elliptical polarisation concepts.

Explores thought experiments with polarisation qubits of photons and the concept of superposition in Hilbert space.

Explores magnetic moments, spin, and quantum descriptions using Pauli matrices and Stern-Gerlach experiments.

Explores quantum polarisation, elasticity, and spatial structure of wave functions.

Explores Rabi oscillations in quantum information, focusing on spin dynamics and energy transitions.

Covers Dirac's notation in linear algebra and the tensor product concept in Hilbert spaces.

Explores experiments on photon polarisation and their outcomes.

Explores quantum information on polarisation experiments and peculiar observations in photon behaviour.

Covers the principles of quantum mechanics, including photon polarization states and time evolution in interferometers.

Explores Rabi oscillations in quantum information, focusing on spin dynamics and Hamiltonian evolution.

Covers the realizations of quantum logic gates and their quantum counterparts.

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