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<title>Shouvik Datta Choudhury — Neckpinch</title><link>https://neckpinch.com/authors/shouvik-datta-choudhury/</link><description>New arXiv papers by Shouvik Datta Choudhury, from Neckpinch</description>
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<item><title>Evolution and Monotonicity of Geometric Constants under Extended Ricci Flows with Variable Coupling Parameters</title><link>https://neckpinch.com/papers/2412.05281/</link><guid isPermaLink="false">arxiv:2412.05281</guid><pubDate>Mon, 04 Nov 2024 00:00:00 GMT</pubDate><description>Shouvik Datta Choudhury — This paper explores the evolution and monotonicity of geometric constants within the framework of extended Ricci flows, incorporating variable coupling parameters. Building on Hamiltons foundational Ricci flow and subsequent extensions by List (2008), we introduce modifications to the extended Ricci flow by varying parameters that affect the interaction between the metric and scalar fields. Specifically, we modify the coefficients in the evolution equations governing geometric constants, thereby introducing new degrees of freedom in the analysis. The primary contributions include deriving evolution formulas for the modified geometric constant lambda under the extended and normalized extended Ricci flows, and proving conditions under which monotonicity is maintained.</description><category>Ricci flow</category></item>
<item><title>Evolution of Functionals Under Extended Ricci Flow</title><link>https://neckpinch.com/papers/2411.03353/</link><guid isPermaLink="false">arxiv:2411.03353</guid><pubDate>Mon, 04 Nov 2024 00:00:00 GMT</pubDate><description>Shouvik Datta Choudhury — In this paper, we investigate the evolution of certain functionals involving higher powers of a scalar quantity F under Bernard List&apos;s extended Ricci flow on a compact Riemannian manifold. By deriving explicit expressions for the time derivative of integrals of the form ∫_M Fⁿ · ∂F/∂t dμ for various powers n, we explore the intricate interplay between geometric quantities and scalar functions without making any assumptions about the manifold, the scalar field Φ, or the function u.</description><category>Ricci flow</category></item>
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