Quantum entangling power of adiabatically connected hamiltonians
Alioscia Hamma, Paolo Zanardi
Abstract
The space of quantum Hamiltonians has a natural partition in classes of operators that can be adiabatically deformed into each other. We consider parametric families of Hamiltonians acting on a bi-partite quantum state-space. When the different Hamiltonians in the family fall in the same adiabatic class one can manipulate entanglement by moving through energy eigenstates corresponding to different value of the control parameters. We introduce an associated notion of adiabatic entangling power. This novel measure is analyzed for general d× d quantum systems and specific two-qubits examples are studied
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