Classical and Quantum Integrability of 2D Dilaton Gravities in Euclidean space
L. Bergamin (Vienna, Tech. U.), D. Grumiller (Leipzig U.), W. Kummer, (Vienna, Tech. U.), D.V. Vassilevich (Leipzig U.)

TL;DR
This paper investigates the classical solutions and quantum properties of 2D Euclidean dilaton gravity, revealing topological restrictions and performing non-perturbative path integral quantization, with detailed analysis of Liouville gravity.
Contribution
It provides a comprehensive classification of classical solutions and a non-perturbative quantization approach for 2D Euclidean dilaton gravity, including a detailed study of Liouville gravity.
Findings
All local classical solutions are obtained.
Only certain topologies are consistent with the metric and dilaton.
Non-perturbative path integral quantization is achieved.
Abstract
Euclidean dilaton gravity in two dimensions is studied exploiting its representation as a complexified first order gravity model. All local classical solutions are obtained. A global discussion reveals that for a given model only a restricted class of topologies is consistent with the metric and the dilaton. A particular case of string motivated Liouville gravity is studied in detail. Path integral quantisation in generic Euclidean dilaton gravity is performed non-perturbatively by analogy to the Minkowskian case.
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