Quantum Nanoelectronics: Devices at the Atomic Scale
Quantum nanoelectronics builds devices where quantum effects dominate, including quantum dots, superconducting qubits and spintronic parts.
Quantum nanoelectronics builds devices where quantum effects dominate, including quantum dots, superconducting qubits and spintronic parts.
The open questions in the foundations of quantum mechanics: measurement, interpretation, non-locality and what the theory says about reality.
Quantum natural language processing represents word meanings as vectors and composes them with tensor rules. The ideas and their limits.
Quantum biology studies quantum effects in living systems: photosynthesis, bird navigation, enzyme tunneling and more speculative claims.
What quantum annealing can solve: how it works, how it compares with classical optimizers, its hardware and software, and applications.
An exploration of quantum effects relevant to ecology, from energy transfer in photosynthesis to quantum computing for ecological models.
Quantum models of cognition use the mathematics of quantum probability to describe human judgments. Key ideas, evidence and criticism.
What is known about quantum coherence in living systems, from photosynthesis and enzyme tunneling to more speculative ideas about the brain.
How quantum annealing uses tunneling and a slowly changing transverse field to find low-energy solutions, how D-Wave machines work and where they help.
A starting point for beginners: the quantum physics behind quantum computing, including duality, superposition, entanglement and uncertainty.
How the quantum mechanical model replaced Bohr’s atom: the Schrödinger equation, quantum numbers, orbitals, electron clouds and energy levels.
What a quantum jump is: the sudden transition of a system between energy states, its history, recent experiments and related quantum ideas.