Quick Navigation
Topics
Open Quantum Systems Decoherence
Quantum Simulation
Semi-relativistic wave-phase approximation for two-body spinless bound states in 1+1 dimensions
arXiv
Authors: K. -E. Thylwe, S. Belov
Year
2015
Paper ID
7910
Status
Preprint
Abstract Read
~2 min
Abstract Words
88
Citations
N/A
Abstract
An approximate quantum-mechanical two-body equation for spinless particles incorporating relativistic kinematics is derived. The derivation is based on the relativistic energy-momentum relation mc2+ε= sqrt{m2c4+p2c2}+V for each single particle, where mc2 is the particle rest mass energy, p its linear momentum, ε its dynamical energy, and V being the time-like vector interaction potential. The resulting two-body equation assumes rapid wave oscillations in a single, slowly varying potential well. A Bohr-Sommerfeld-type quantization condition is obtained. The approximation is compared to exact results for the harmonic potential.
Why This Paper Matters
- This paper contributes to the Quantum Simulation research area in the Quantum Articles archive.
- It adds a 2015 reference point for readers tracking recent quantum research.
- An approximate quantum-mechanical two-body equation for spinless particles incorporating relativistic kinematics is derived.
Paper Tools
Become a member to use research tools
Sign in to open papers, visit source links, share, cite, compare, copy DOI links, request category corrections, and build your reading list.
Show Paper arXiv Publisher Share
Cite This Paper
Copy URL
Compare
Copy DOI Add to Reading List
Category Correction Request
Category Correction Request
Help us improve classification quality by proposing a better category. Every request is reviewed by an admin.
Sign in to submit a category correction request for this paper.
Log In to SubmitReferences & Citation Signals
Community Reactions
Quick sentiment from readers on this paper.
Score:
0
Likes: 0
Dislikes: 0
Sign in to react to this paper.
Discussion & Reviews (Moderated)
Average Rating: 0.0 / 5 (0 ratings)
No written reviews yet.