Construction of conformally invariant higher spin operators using transvector algebras (Q2928093)
From MaRDI portal
| This is the item page for this Wikibase entity, intended for internal use and editing purposes. Please use this page instead for the normal view: Construction of conformally invariant higher spin operators using transvector algebras |
scientific article; zbMATH DE number 6366325
| Language | Label | Description | Also known as |
|---|---|---|---|
| English | Construction of conformally invariant higher spin operators using transvector algebras |
scientific article; zbMATH DE number 6366325 |
Statements
Construction of conformally invariant higher spin operators using transvector algebras (English)
0 references
6 November 2014
0 references
Dirac operator
0 references
spin Dirac operator
0 references
twisted Dirac operator
0 references
conformal invariance
0 references
Clifford analysis, higher spin analysis
0 references
0 references
0 references
0 references
0.91670716
0 references
0.9163104
0 references
0.89546704
0 references
0.8922716
0 references
0.8914787
0 references
0.8847151
0 references
0.88324845
0 references
0.8832484
0 references
The paper under review systematically constructs elliptic higher spin differential operators acting on functions on the \(m\)-dimensional Euclidean space \({\mathbb R}^m\) taking values in arbitrary half-integer irreducible spin-representations, i.e. the higher version of the Dirac operator and associated twistor operators together with their duals. They are constructed as generators of a transvector algebra or Michelsson-Zhelobenko algebra (e.g.\textit{D. P. Zhelobenko} [Group theoretical methods in physics, Proc. 3rd Semin., Yurmala/USSR 1985, Vol. 2, 71--93 (1986; Zbl 0684.22011)]).NEWLINENEWLINENaturally, the authors sustain the construction also to prove conformal invariance of these operators by explicit calculations, verifying that the first-order generalized symmetries generate a Lie algebra isomorphic to \(\mathfrak{so}(1,m+1)\). The present objective is pursued by exploiting the techniques of abstract representation theory for Lie algebras combined with those of Clifford analysis.
0 references