Formation and evolution of cosmic D strings
By G. Dvali, A. Vilenkin. 2003
263 citations recorded by the source corpus.
We study the formation of D and F cosmic strings in D-brane annihilation after brane inflation. We show that D string formation by quantum de Sitter fluctuations is severely suppressed, due to suppression of RR field fluctuations in compact dimensions. We discuss the resonant mechanism of production of D and F strings, which are formed as magnetic and electric flux tubes of the two orthogonal gauge fields living on the world-volume of the unstable brane. We outline the subsequent cosmological evolution of the D−F string network. We also compare the nature of these strings with the ordinary cosmic strings and point out some differences and similarities.
Subfields: Astronomy and Astrophysics, Nuclear and High Energy Physics
View Paper: https://www.semanticscholar.org/paper/7e0f4b710aef9fa32d6aa25df6351144a2d764cd
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In Astronomy and Astrophysics
- Andrei Linde
- Liam McAllister
- R. Kallosh
- D. Baumann
- F. Quevedo
- Edmund J. Copeland
- Eran Palti
- Marco Peloso
In Nuclear and High Energy Physics
- R. Kallosh
- Liam McAllister
- Andrei Linde
- D. Baumann
- F. Quevedo
- Eran Palti
- Edmund J. Copeland
- Jose J. Blanco-Pillado
Citations in the corpus
- Cosmological evolution of cosmic string loops (2005, background): “Recently, cosmic strings have been of particular interest since it was pointed out that Fundamental and Dirichlet strings formed at the end of brane inflation could also play a cosmic string-like role in cosmology [6]–[8].”
- Stochastic gravitational wave background from smoothed cosmic string loops (2017, background): “[2] Gia Dvali and Alexander Vilenkin, “Formation and evolution of cosmic D strings,” JCAP 0403, 010 (2004), arXiv:hep-th/0312007 [hep-th].”
- Inflation and String Theory (2014, background): “In particular, a colliding pair of strings can miss each other in the compact dimensions [597, 600, 602], and the string coupling gs also suppresses the intercommutation probability.”
- New limits on cosmic strings from gravitational wave observation (2017, background): “[2] Gia Dvali and Alexander Vilenkin, “Formation and evolution of cosmic D strings,” JCAP 0403, 010 (2004), arXiv:hep-th/0312007 [hep-th].”
- Fayet–Iliopoulos terms in supergravity and cosmology (2004, background): “Recently, the suppression of the cosmological production of cosmic D-strings in type II theories was studied in [41].”
- Challenges and opportunities of gravitational-wave searches at MHz to GHz frequencies (2020, background): “from string theory, formed for instance at the end of brane inflation [208, 209], and stretched to cosmological scales.”
- Cosmic F- and D-strings (2003, methodology): “While we were completing this work we learned of papers on related subjects by Dvali, Kallosh and Van Proeyen [12] and by Dvali and Vilenkin [13].”
- Collisions of cosmic F- and D-strings (2004, background): “These can be produced after inflation [2-7], and in some models they are stable or at least metastable on cosmic time scales [8, 9].”
- Beyond the Standard Models with cosmic strings (2019, background): “cal simulations [72] and analytical modelling [73], the probability of inter-commutation has been found to be P= 1 but in some models it can be lower. This is the case of models with extra-dimensions [59,74], strings with junctions [75] or peeling [76], or the case of highly relativistic strings [77”