A note on time-asymptotic bounds with a sharp algebraic rate and a transitional exponent for the sublinear Fujita problem
David John Needham, John Christopher Meyer

TL;DR
This paper derives precise algebraic decay bounds for the sublinear Fujita problem, revealing a transitional stability exponent linked to the classical blow-up exponent, advancing understanding of long-term solution behavior.
Contribution
It introduces sharp time-asymptotic bounds for the sublinear Fujita problem and identifies a transitional stability exponent with a reciprocal relation to the classical blow-up exponent.
Findings
Established sharp algebraic decay bounds for sublinear Fujita evolution.
Identified a transitional stability exponent with a simple reciprocity relation.
Enhanced understanding of long-term solution behavior in sublinear Fujita problems.
Abstract
This note establishes sharp time-asymptotic algebraic rate bounds for the classical evolution problem of Fujita, but with sublinear rather than superlinear exponent. A transitional stability exponent is identified, which has a simple reciprocity relation with the classical Fujita critical blow-up exponent.
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Taxonomy
TopicsSpectral Theory in Mathematical Physics · Advanced Mathematical Modeling in Engineering · Stochastic processes and financial applications
