Lectures related to Quantum Mechanics: Self-adjoint Operators and Quantum Information

Offers a crash course on quantum bit systems and measurement processes.

Explains the postulates of quantum mechanics and the representation of observables by operators.

Explains the postulates of Quantum Mechanics, focusing on self-adjoint operators and mathematical notation.

Covers the Bloch sphere representation and Larmor precession in spin 1/2 systems.

Covers the postulates of quantum mechanics, measurement, collapse of the wave function, qubits, and quantum computing processes.

Covers eigenvalues, eigenfunctions, Hermitian operators, and the measurement of observables in quantum chemistry.

Covers fundamental concepts in quantum mechanics, including vector spaces, superposition, observables, and inner product.

Covers the basics of quantum qubits, including abstract qubits, states, measurement, and evolution in quantum computation.

Covers the basics of quantum computing, focusing on superconducting qubits, scaling challenges, and potential applications.

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

Covers the axioms of quantum mechanics and the measurement of quantities in a quantum system.

Explores quantum random number generation, discussing the challenges and implementations of generating good randomness using quantum devices.

Explores basis transformation, eigenvalues, and linear operators in inner product spaces, emphasizing their significance in Quantum Mechanics.

Covers superconducting qubits, focusing on non-demolition measurements and control techniques essential for quantum computing.

Delves into quantum entanglement, exploring entangled particles' state, evolution, and measurement.

Offers a crash course on quantum mechanics, covering vector spaces, superposition, observables, and self-adjoint operators.

Explores the density matrix formalism in quantum mechanics, including entanglement and properties of the density matrix.

Explores Quantum Natural Gradient optimization in quantum computing and the importance of choosing the right ansatz.

Covers the mathematical foundations of quantum mechanics, focusing on operators and their applications in quantum states.

Explores the Stern-Gerlach experiment, qubits, superposition, and quantum entanglement.