
TL;DR
This paper investigates the properties of naked singularities within a modified gravity framework using quantum fluctuation methods, revealing limitations in classifying certain geometries at a specific approximation level.
Contribution
It applies a quantum fluctuation approach to analyze naked singularities in f(R) gravity, comparing them with wormholes and exploring their classification.
Findings
Cannot classify Schwarzschild and naked singularity geometries at this approximation level.
Uses Wheeler-De Witt equation as a Sturm-Liouville problem.
Highlights limitations of current methods in geometry spectrum analysis.
Abstract
The cosmological constant induced by quantum fluctuation of the graviton on a given background is considered as a tool for building a spectrum of different geometries. In particular, we apply the method to the Schwarzschild background with positive and negative mass parameter. In this way, we put on the same level of comparison the related naked singularity (-M) and the positive mass wormhole. We discuss how to extract information in the context of a f(R) theory. We use the Wheeler-De Witt equation as a basic equation to perform such an analysis regarded as a Sturm-Liouville problem . The application of the same procedure used for the ordinary theory, namely f(R)=R, reveals that to this approximation level, it is not possible to classify the Schwarzschild and its naked partner into a geometry spectrum.
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