Solving the Hamiltonian Cycle Problem using a Quantum Computer
Anuradha Mahasinghe, Richard Hua, Michael J. Dinneen, Rajni Goyal
Abstract
Anuradha Mahasinghe, Richard Hua, Michael J. Dinneen, Rajni Goyal
Abstract
We review existing quantum computational methods for solving the Hamiltonian cycle problem in different computational frameworks such as quantum circuits, quantum walks and adiabatic quantum computation. Then we present a QUBO (quadratic unconstrained binary optimization) formulation, which is suitable for the adiabatic quantum computation for a D-Wave architecture. Further, we derive a physical Hamiltonian from the QUBO formulation and discuss its adequateness in the adiabatic framework. Finally, we discuss the complexity of running the Hamiltonian cycle QUBO on a D-Wave quantum computer, and compare it with existing quantum computational methods.
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We review existing quantum computational methods for solving the Hamiltonian cycle problem in different computational frameworks such as quantum circuits, quantum walks and adiabatic quantum computation. Then we present a QUBO (quadratic unconstrained binary optimization) formulation, which is suitable for the adiabatic quantum computation for a D-Wave architecture. Further, we derive a physical Hamiltonian from the QUBO formulation and discuss its adequateness in the adiabatic framework. Finally, we discuss the complexity of running the Hamiltonian cycle QUBO on a D-Wave quantum computer, and compare it with existing quantum computational methods.
Key concepts: Quadratic unconstrained binary optimization, Adiabatic quantum computation, Quantum computer, Hamiltonian (control theory), Quantum annealing, Adiabatic process, Quantum, Quantum algorithm