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引用次数: 0
摘要
我们提出了 q-施瓦兹量子力学与柳维尔引力之间的一种新的全息对偶性。q-Schwarzian 是 Schwarzian 的单参数变形,它与 JT 引力是对偶的,并描述了 SYK 的低能段。我们证明了 q-Schwarzian 与 sinh 稀释引力是对偶的。JT引力的这种单参数变形可以重写为Liouville引力。我们匹配了 q-Schwarzian 引力和 Liouville 引力之间的热力学和经典两点函数。我们通过把 sinh 稀拉顿引力重写为拓扑规理论,进一步证明了量子层面的对偶性,并证明后者等同于 q-Schwarzian 引力。由于 q-Schwarzian 可以精确量子化,这种对偶性可以被看作是 sinh 稀拉顿引力在圆盘拓扑上的精确解。对于实q,这个q-Schwarzian对应于双尺度SYK,与正弦稀拉顿引力是对偶的。
We present a new holographic duality between q-Schwarzian quantum mechanics and Liouville gravity. The q-Schwarzian is a one parameter deformation of the Schwarzian, which is dual to JT gravity and describes the low energy sector of SYK. We show that the q-Schwarzian in turn is dual to sinh dilaton gravity. This one parameter deformation of JT gravity can be rewritten as Liouville gravity. We match the thermodynamics and classical two point function between q-Schwarzian and Liouville gravity. We further prove the duality on the quantum level by rewriting sinh dilaton gravity as a topological gauge theory, and showing that the latter equals the q-Schwarzian. As the q-Schwarzian can be quantized exactly, this duality can be viewed as an exact solution of sinh dilaton gravity on the disk topology. For real q, this q-Schwarzian corresponds to double-scaled SYK and is dual to a sine dilaton gravity.
期刊介绍:
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