(Enter summary)
Abstract: q are distinct primes, QACC[q] is strictly more
powerful than its classical counterpart, as is QAC
0
when fanout is allowed. This adds to
the growing list of quantum complexity classes which are provably more powerful than
their classical counterparts. We also develop techniques for proving upper bounds for
QACC in terms of related language classes. We dene classes of languages closely related
to QACC[2] and show that restricted versions of them can be simulated by polynomialsize... (Update)
Cited by: More
Quantum Lower Bounds for Fanout - Fang, Fenner, Green, Homer, Zhang (2003)
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2: Algebraic methods in the theory of lower bounds for Boolean circuit complexity (context) - Smolensky - 1987
2: American Mathematical Society (context) - Shashkin, volume et al. - 1991
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BibTeX entry: (Update)
F. Green, S. Homer, C. Moore and C. Pollett, "Counting, Fanout and the Complexity of Quantum ACC," Quantum Information and Computation # (2002) 35-65. http://citeseer.ist.psu.edu/green02counting.html More
@misc{ green02counting,
author = "F. Green and S. Homer and C. Moore and C. Pollett",
title = "Counting, Fanout and the Complexity of Quantum ACC",
text = "F. Green, S. Homer, C. Moore and C. Pollett, Counting, Fanout and the Complexity
of Quantum ACC, Quantum Information and Computation # (2002) 35-65.",
year = "2002",
url = "citeseer.ist.psu.edu/green02counting.html" }
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