Generalized Centripetal Force Law and Quantization of Motion Constrained on 2D Surfaces
arXiv:1604.05065 · doi:10.1016/j.physe.2016.11.029
Abstract
For a particle moves on a 2D surface f(x)=0 embedded in 3D Euclidean space, the geometric momentum and potential are simultaneously admissible within the Dirac canonical quantization scheme for constrained motion. In our approach, not the full scheme but the symmetries indicated by classical brackets [x,H]_{D} and [p,H]_{D} in addition to the fundamental ones [x,x]_{D}, [x,p]_{D} and [p,p]_{D} are utilized, where the subscript D stands for the Dirac bracket. The generalized centripetal force law p=[p,H]_{D} for particle on the 2D surface play the key role, and there is no simple relationship between the force on a point of the surface and its curvatures of the point, in sharp contrast to the motion on a curve.
arXiv comment11 pages, 1 figure
References in corpus (14)
- Quantum mechanics on curved 2D systems with electric and magnetic fields
- Geometric potential and transport in photonic topological crystals
- Quantum mechanics of a spin-orbit coupled electron constrained to a space curve
- Proper Dirac Quantization of Free Particle on D-Dimensional Sphere
- Geometric Momentum: the Proper Momentum for a Free Particle on a Two-dimensional Sphere
- On the quantum dynamics of a point particle in conical space
- Electronic properties of corrugated graphene, the Heisenberg principle and wormhole geometry in solid state
- Quantum motion on a torus as a submanifold problem in a generalized Dirac's theory of second-class constraints
- Can the canonical quantization be accomplished within the intrinsic geometry?
- Geometric momentum for a particle constrained on a curved hypersurface
- Landau levels, self-adjoint extensions and Hall conductivity on a cone
- Curvature-induced bound states and coherent electron transport on the surface of a truncated cone
- The centripetal force law and the equation of motion for a particle on a curved hypersurface
- Dirac's method for constraints - an application to quantum wires,the 0.7 conductance anomaly
Cited by in corpus (6)
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- Curved non-interacting two-dimensional electron gas with anisotropic mass
- Gravitation at the Josephson Junction