Quantum ground-mode computation with static gates
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We develop a computation model for solving Boolean networks by implementing wires through quantum ground-mode computation and gates through identities following from angular momentum algebra and statistics. Gates are represented by three-dimensional (triplet) symmetries due to particle indistinguishability and are identically satisfied throughout computation being constants of the motion. The relaxation of the wires yields the network solutions. Such gates cost no computation time, which is comparable with that of an easier Boolean network where all the gate constraints implemented as constants of the motion are removed. This model computation is robust with respect to decoherence and yields a generalized quantum speed-up for all NP problems.
4 pages, PDF, fifth page is a figure; short version of arXiv:quant-ph/0209084 v1 13 Sep 2002; static gates yield a speed-up by doing nothing, being constants of the motion
4 pages, PDF, fifth page is a figure; short version of arXiv:quant-ph/0209084 v1 13 Sep 2002; static gates yield a speed-up by doing nothing, being constants of the motion