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Article
Qubit unitary lattice algorithm for spin-2 Bose–Einstein Condensates. I – Theory and Pade initial conditions
Radiation Effects and Defects in Solids (2020)
  • George Vahala, William & Mary
  • Linda Vahala
  • Min Soe
Abstract
A qubit unitary lattice algorithm is developed for the evolution of five coupled Gross–Pitaesvkii equations that govern the dynamics of a spin-2 Bose–Einstein Condensate. On introducing 2 qubits/scalar component of the order parameter, 10 qubits/lattice node are required. The interleaved sequence of unitary collide-stream operators relies on their non-commutivity in order that their be non-trivial evolution equations. This collisional entanglement followed by streaming of this entanglement throughout the lattice is a hallmark of the algorithm. The qubit algorithm for spin-2 is summarized and new Pade initial conditions are determined. Being unitary, the algorithm can be directly encoded onto a quantum-gate computer.
Disciplines
Publication Date
March, 2020
DOI
https://doi.org/10.1080/10420150.2020.1718135
Citation Information
George Vahala, Linda Vahala and Min Soe. "Qubit unitary lattice algorithm for spin-2 Bose–Einstein Condensates. I – Theory and Pade initial conditions" Radiation Effects and Defects in Solids Vol. 175 Iss. 1-2 (2020)
Available at: http://works.bepress.com/george-vahala/12/