Quantum Sensing with Single Spins

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Covers quantum computing, simulation, sensing, and communications, highlighting EPFL's role in quantum science and engineering.

Covers the normalization of quantum states for a confined particle.

Explores quantum many-body dynamics using artificial neural networks, focusing on experimental simulations and theoretical challenges.

Explores noise in electronics, covering average power, signal-to-noise ratio, deterministic and random signals, and noise amplification.

Covers colorimetry, wave superposition, sound propagation, noise levels, and forest acoustics.

Explores quantum states labeling and spectral density importance in quantum physics.

Covers electron propagation, quantum operators, and the measurement process in quantum mechanics.

Discusses the Bohr model of the atom, focusing on electron orbits and energy quantization.

Explores the spectral decomposition of Hilbert space and its implications in quantum dynamics.

Explores the development of electroacoustic metamaterials and metasurfaces for noise control and sound absorption.

Covers quantum states, symmetries, fermions, and variational principles in quantum chemistry.

Covers the stabilizer formalism and fault tolerance in quantum error correction.

Explores negative feedback in analog circuits, focusing on desensitizing gain, reducing distortion, controlling noise, and extending bandwidth.

Introduces Quantum Supremacy, covering Google's 2019 achievement with 60 qubits and exploring quantum information and error correction.

Covers Shor's factoring algorithm and the link between order finding and factoring.

Provides an overview of ideal detectors, focusing on their theory, noise limitations, and performance metrics in optical detection systems.

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