Coherent states, entanglement, and geometric invariant theory
arXiv:quant-ph/0206012
Abstract
The main objective of the paper is to unveil an adequate mathematics hidden behind entanglement, that is Geometric Invariant Theory. More specifically relation between these two subjects can be described by the following theses. (i) Total variance of completely entangled state is maximal. (ii) This distinguishes the state as a minimal vector in its orbit under action of complexified dynamic group. (iii) An ultimate aim of Geometric Invariant Theory is a description of complex orbits and their minimal vectors. It suggests that noncompletely entangled states are just GIT semistable vectors.
19 pages
References in corpus (3)
Cited by in corpus (21)
- All noncontextuality inequalities for the n-cycle scenario
- The Structure of Bipartite Quantum States - Insights from Group Theory and Cryptography
- Quantum marginal problem and representations of the symmetric group
- Entropic Inequalities and Marginal Problems
- Entanglement of four qubit systems: a geometric atlas with polynomial compass I (the finite world)
- Geometric descriptions of entangled states by auxiliaries varieties
- Entanglement and Subsystems, Entanglement beyond Subsystems, and All That
- Noncontextuality Inequalities from Antidistinguishability
- What makes quantum clicks special?
- Dynamic symmetry approach to entanglement
- The minimal canonical form of a tensor network
- Contextuality in Quantum Mechanics: Testing the Klyachko Inequality
- Roots and (re)sources of value (in)definiteness versus contextuality. A contribution to the Pitowsky Volume in memory of Itamar Pitowsky (1950--2010)
- A Complete Set of Invariants for LU-Equivalence of Density Operators
- Quantum realism and quantum surrealism
- Quantum circuits of CNOT gates
- Universal points in the asymptotic spectrum of tensors
- The Degree of Quantum Contextuality in terms of Concurrence for the KCBS Scenario
- Entanglement and its facets in condensed matter systems
- Quantum entanglement, Calabi-Yau manifolds, and noncommutative algebraic geometry
- Efficient classical simulation of cluster state quantum circuits with alternative inputs