1996
DOI: 10.1006/aphy.1996.0133
|View full text |Cite
|
Sign up to set email alerts
|

Renormalization Group in Quantum Mechanics

Abstract: The running coupling constants are introduced in Quantum Mechanics and their evolution is described by the help of the renormalization group equation. The harmonic oscillator and the propagation on curved spaces are presented as examples. The hamiltonian and the lagrangian scaling relations are obtained. These evolution equations are used to construct low energy effective models.

Help me understand this report
View preprint versions

Search citation statements

Order By: Relevance

Paper Sections

Select...
2
1
1

Citation Types

0
18
0

Year Published

1997
1997
2021
2021

Publication Types

Select...
7
2

Relationship

5
4

Authors

Journals

citations
Cited by 22 publications
(18 citation statements)
references
References 9 publications
0
18
0
Order By: Relevance
“…differs from (18) in that here, the inverse is that of a 2N m × 2N m matrixD(t , t ) as opposed to an operatorD(t, t ) acting on time-dependent functions. The physical origin of the difference is that while ( 18) contains the full information about the harmonic dynamics, the (25) encodes a "stroboscope physics", the dynamics at the time scales t j − t j−1 [67].…”
Section: Discrete Observation Timesmentioning
confidence: 99%
“…differs from (18) in that here, the inverse is that of a 2N m × 2N m matrixD(t , t ) as opposed to an operatorD(t, t ) acting on time-dependent functions. The physical origin of the difference is that while ( 18) contains the full information about the harmonic dynamics, the (25) encodes a "stroboscope physics", the dynamics at the time scales t j − t j−1 [67].…”
Section: Discrete Observation Timesmentioning
confidence: 99%
“…differs from (10) that here the inverse is that of a 2N m × 2N m matrix D(t ℓ , t ℓ ′ ) as opposed to an operator D(t, t ′ ) acting on time-dependent functions. The physical origin of the difference is that while (10) contains the full information about the harmonic dynamics the (17) encodes a "stroboscope physics", the dynamics at the time scales t j − t j−1 [42].…”
Section: Discrete Observation Timesmentioning
confidence: 99%
“…The Gaussian integration yields eq.8, which leads to continuous but nowhere differentiable trajectories in quantum mechanics for d = 1 [22], finite, cut-off independent discontinuities and non-trivial phase structure for d = 2 [12], and Dirac delta singularities in higher dimensions [23]. It is a complicated dynamical issue, whether smoothness prevails for certain observables in quantum field theory.…”
Section: Phase Structurementioning
confidence: 99%