On the existence of a v_2^32-self map on M(1,4) at the prime 2
Mark Behrens, Michael Hill, Michael J. Hopkins, Mark Mahowald

TL;DR
This paper proves the existence of a specific v_2^32-self map on M(1,4) at the prime 2, which leads to new periodic families in the stable homotopy groups of spheres.
Contribution
It establishes the existence of a minimal v_2-self map on M(1,4), extending known self-maps and revealing new periodic phenomena in stable homotopy groups.
Findings
Existence of v_2^32-self map on M(1,4) at prime 2
Implication of 192-periodic families in stable homotopy groups
Extension of known self-maps to higher chromatic levels
Abstract
Let M(1) be the mod 2 Moore spectrum. J.F. Adams proved that M(1) admits a minimal v_1-self map v_1^4: Sigma^8 M(1) -> M(1). Let M(1,4) be the cofiber of this self-map. The purpose of this paper is to prove that M(1,4) admits a minimal v_2-self map of the form v_2^32: Sigma^192 M(1,4) -> M(1,4). The existence of this map implies the existence of many 192-periodic families of elements in the stable homotopy groups of spheres.
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Taxonomy
TopicsHomotopy and Cohomology in Algebraic Topology · Algebraic structures and combinatorial models · Geometric and Algebraic Topology
