Geometry of {\delta}-almost gradient Yamabe solitons on pseudo-Riemannian manifolds
Rajdip Biswas, Santu Dey, Arindam Bhattacharyya

TL;DR
This paper investigates { extdelta}-almost Yamabe solitons on various types of para-contact metric manifolds, establishing conditions under which the potential vector field is Killing or parallel, and providing examples of such structures.
Contribution
It characterizes { extdelta}-almost Yamabe solitons on para-contact manifolds, revealing conditions for the potential vector field and scalar curvature, and constructs explicit examples.
Findings
Potential vector field Z is Killing when Z is an infinitesimal contact transformation.
If Z is collinear with , the manifold is K-paracontact.
On para-Sasakian manifolds, specific conditions for { extdelta}-almost gradient Yamabe solitons are established.
Abstract
In this article, we studied {\delta}-almost Yamabe solitons within the framework of para- contact metric manifolds. First, we proved that for a paracontact metric manifold {M}, if a paracontact metric g represents a {\delta}-almost Yamabe soliton associated with the potential vector field {Z} being an infinitesimal contact transformation, then {Z} is Killing and if the potential vector field {Z} is collinear with {\xi}, then the manifold {M} is {K}-paracontact. Next, if we take a {K}-paracontact metric mani- fold admitting {\delta}-almost Yamabe soliton with the potential vector field {Z} parallel to the characteristic vector field and with constant scalar curvature then either scalar curvature will vanish or {g} becomes a {\delta}-Yamabe soliton under a certain condition. We established some results on {K}-paracontact manifold admitting {\delta}-almost gradient Yamabe soliton.…
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Taxonomy
TopicsGeometric Analysis and Curvature Flows · Nonlinear Partial Differential Equations · Contact Mechanics and Variational Inequalities
