## Abstract We first construct traveling wave solutions for the Schrödinger map in ℝ^2^ of the form __m__(__x__~1~, __x__~2~ − ϵ __t__), where __m__ has exactly two vortices at approximately $\font\open=msbm10 at 10pt\def\R{\hbox{\open R}}(\pm {{1}\over{2 \epsilon}}, 0) \in \R^2$ of degree ±1. We
✦ LIBER ✦
Traveling wave solutions for Schrödinger equation with distributed delay
✍ Scribed by Zhihong Zhao; Weigao Ge
- Publisher
- Elsevier Science
- Year
- 2011
- Tongue
- English
- Weight
- 268 KB
- Volume
- 35
- Category
- Article
- ISSN
- 0307-904X
No coin nor oath required. For personal study only.
📜 SIMILAR VOLUMES
Traveling wave solutions of the Schrödin
✍
Fanghua Lin; Juncheng Wei
📂
Article
📅
2010
🏛
John Wiley and Sons
🌐
English
⚖ 286 KB
👁 1 views
On standing wave solutions to the Schröd
✍
D.J Kouri; F.S Levin
📂
Article
📅
1974
🏛
Elsevier Science
🌐
English
⚖ 437 KB
The standing wave solution to the Schriidinger equation defined in terms of the standing wave Green's function for the full Hamiltonian is discussed. This solution is compared with the more usual standing wave solution. The former is shown to be onehalf the sum of the usual ingoing and outgoing wave
Generalized solitary wave solutions for
✍
Yue-Peng Wang; Da-Feng Xia
📂
Article
📅
2009
🏛
Elsevier Science
🌐
English
⚖ 430 KB
Existence of traveling wave solutions fo
✍
Yahong Peng; Yongli Song
📂
Article
📅
2007
🏛
Elsevier Science
🌐
English
⚖ 239 KB
Global strong solutions for nonlinear Sc
✍
Yoshio Tsutsumi
📂
Article
📅
1987
🏛
Elsevier Science
🌐
English
⚖ 683 KB
Schrödinger equation for particle with f
✍
Alexios P. Polychronakos; Rodanthy Tzani
📂
Article
📅
1993
🏛
Elsevier Science
🌐
English
⚖ 416 KB