On field theoretic generalizations of a Poisson algebra
Abstract
A few generalizations of a Poisson algebra to field theory canonically formulated in terms of the polymomentum variables are discussed. A graded Poisson bracket on differential forms and an ( n + l)-ary bracket on functions are considered. The Poisson bracket on differential forms gives rise to various generalizations of a Gerstenhaber algebra: the noncommutative (in the sense of Loday) and the higher-order (in the sense of the higher-order graded Leibniz rule). The ( n + l)-ary bracket fulfills the properties of the Nambu bracket including the "fundamental identity", thus leading to the Nambu-Poisson algebra. We point out that in the field theory context the Nambu bracket with a properly defined covariant analogue of Hamilton's function determines a joint evolution of several dynamical variables.
- Publication:
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Reports on Mathematical Physics
- Pub Date:
- October 1997
- DOI:
- 10.1016/S0034-4877(97)85919-8
- arXiv:
- arXiv:hep-th/9710069
- Bibcode:
- 1997RpMP...40..225K
- Keywords:
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- High Energy Physics - Theory;
- General Relativity and Quantum Cosmology;
- Mathematical Physics;
- Mathematics - Differential Geometry;
- Mathematics - Quantum Algebra
- E-Print:
- 10 pages, LaTeX2e. Missprint in Ref. 1 is corrected (hep-th/9709229 instead of ...029)