Journal of Modern Optics · 2000 · 247 citations · 18 references
ComputingComputer SciencePhysicsFault-tolerant ComputingQuantum ComputingQuantum MechanicsComputational Quantum MechanicsFault-tolerant Quantum ComputingQuantum CircuitsQuantum ComputationQuantum GatesQuantum Hardware ArchitecturesFault-tolerant Gate ConstructionFault-tolerant GatesFault-tolerant Quantum CircuitsFault-tolerant Quantum ComputationGeometric Phase EffectsPhase Shifts
Abstract We describe in detail a general strategy for implementing a conditional geometric phase between two spins. Combined with single-spin operations, this simple operation is a universal gate for quantum computation, in that any unitary transformation can be implemented with arbitrary precision using only single-spin operations and conditional phase shifts. Thus quantum geometrical phases can form the basis of any quantum computation. Moreover, as the induced conditional phase depends only on the geometry of the paths executed by the spins it is resilient to certain types of errors and offers the potential of a naturally fault-tolerant way of performing quantum computation.
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