Tameness, Strings, and the Distance Conjecture

被引:0
作者
Thomas W. Grimm
Stefano Lanza
Chongchuo Li
机构
[1] Utrecht University,Institute for Theoretical Physics
来源
Journal of High Energy Physics | / 2022卷
关键词
Effective Field Theories; Flux Compactifications; String Theory and Cosmic Strings; Supersymmetric Effective Theories;
D O I
暂无
中图分类号
学科分类号
摘要
The Distance Conjecture states that an infinite tower of modes becomes exponentially light when approaching an infinite distance point in field space. We argue that the inherent path-dependence of this statement can be addressed when combining the Distance Conjecture with the recent Tameness Conjecture. The latter asserts that effective theories are described by tame geometry and implements strong finiteness constraints on coupling functions and field spaces. By exploiting these tameness constraints we argue that the region near the infinite distance point admits a decomposition into finitely many sectors in which path-independent statements for the associated towers of states can be established. We then introduce a more constrained class of tame functions with at most polynomial asymptotic growth and argue that they suffice to describe the known string theory effective actions. Remarkably, the multi-field dependence of such functions can be reconstructed by one-dimensional linear test paths in each sector near the boundary. In four-dimensional effective theories, these test paths are traced out as a discrete set of cosmic string solutions. This indicates that such cosmic string solutions can serve as powerful tool to study the near-boundary field space region of any four-dimensional effective field theory. To illustrate these general observations we discuss the central role of tameness and cosmic string solutions in Calabi-Yau compactifications of Type IIB string theory.
引用
收藏
相关论文
共 133 条
[1]  
Palti E(2019) = 1 Fortsch. Phys. 67 1900037-undefined
[2]  
Ooguri H(2007) = 1 Nucl. Phys. B 766 21-undefined
[3]  
Vafa C(2018) = 4 JHEP 08 143-undefined
[4]  
Grimm TW(2018) = 2 JHEP 10 164-undefined
[5]  
Palti E(2019)undefined Nucl. Phys. B 938 321-undefined
[6]  
Valenzuela I(2019)undefined JHEP 08 088-undefined
[7]  
Lee S-J(2019)undefined JHEP 08 044-undefined
[8]  
Lerche W(2022)undefined JHEP 02 096-undefined
[9]  
Weigand T(2020)undefined JHEP 03 020-undefined
[10]  
Lee S-J(2022)undefined JHEP 02 190-undefined