Quantum theory for mesoscopic electric circuits
arXiv:cond-mat/9606206 · doi:10.1103/PhysRevB.53.4027
Abstract
A quantum theory for mesoscopic electric circuits in accord with the discreteness of electric charges is proposed. On the basis of the theory, Schrödinger equation for the quantum LC-design and L-design is solved exactly. The uncertainty relation for electric charge and current is obtained and a minimum uncertainty state is solved. By introducing a gauge field, a formula for persistent current arising from magnetic flux is obtained from a new point of view.
revtex, no figures
Cited by in corpus (15)
- Mesoscopic circuits with charge discreteness:quantum transmission lines
- Simple approach to the mesoscopic open electron resonator: Quantum current oscillations
- Quantum LC circuits with charge discreteness: normal and anomalous spectrum
- Wavefront solution in extended quantum circuits with charge discreteness
- Generalized commutation relations and Non linear momenta theories, a close relationship
- Discrete-charge Quantum Circuits and Electrical Resistance
- Quantum circuits: charge discreteness and resonance
- Quantum Electric Circuits Analogous to Ballistic Conductors
- Quantum capacitor with discrete charge-anticharge: spectrum and forces
- Supersymmetry, quark confinement and the harmonic oscillator
- Lagrangian for RLC circuits using analogy with the classical mechanics concepts
- Negative refraction index of the quantum lossy left-handed transmission lines affected by the displaced squeezed Fock state and dissipation
- Impurity flat band states in the diamond chain
- Quantum Theory for Mesoscopic Electric Circuits and Its Applications
- On Dynamical Quantization