Results 271 to 280 of about 93,203 (297)
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Degrees of Circuit Complexity

1977
Several types of reductions between finite Boolean functions are introduced and compared. The corresponding degrees are investigated with the purpose to classify Boolean functions.
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Boolean circuit complexity

1992
The talk will survey some old, and some recent, results relating to Boolean circuits, and will concentrate particularly on the lower levels of complexity.
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Circuit Complexity of Shuffle

2013
We show that Shuffle(x,y,w), the problem of determining whether a string w can be composed from an order preserving shuffle of strings x and y, is not in AC 0, but it is in AC 1. The fact that shuffle is not in AC 0 is shown by a reduction of parity to shuffle and invoking the seminal result [FSS84, while the fact that it is in AC 1 is implicit in the ...
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The Complexity of Tensor Circuit Evaluation

computational complexity, 2001
The study of tensor calculus over semirings in terms of complexity theory was initiated by Damm et al. in [8]. Here we first look at tensor circuits, a natural generalization of tensor formulas; we show that the problem of asking whether the output of such circuits is non-zero is complete for the class NE = NTIME(2O(n)) for circuits over the boolean ...
Martin Beaudry, Markus Holzer 0001
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P-uniform circuit complexity

Journal of the ACM, 1989
Much complexity-theoretic work on parallelism has focused on the class NC, which is defined in terms of logspace-uniform circuits. Yet P-uniform circuit complexity is in some ways a more natural setting for studying feasible parallelism. In this paper, P-uniform NC (PUNC) is characterized in terms of space-bounded AuxPDAs and alternating ...
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The polynomial method in circuit complexity

[1993] Proceedings of the Eigth Annual Structure in Complexity Theory Conference, 2002
The basic techniques for using polynomials in complexity theory are examined, emphasizing intuition at the expense of formality. The focus is on the connections to constant-depth circuits, at the expense of polynomial-time Turing machines. The closure properties, upper bounds, and lower bounds obtained by this approach are surveyed. >
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On the complexity of planar Boolean circuits

Computational Complexity, 1995
zbMATH Open Web Interface contents unavailable due to conflicting licenses.
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On the complexity of encoding in analog circuits

Information Processing Letters, 1996
zbMATH Open Web Interface contents unavailable due to conflicting licenses.
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Borel sets and circuit complexity

Proceedings of the fifteenth annual ACM symposium on Theory of computing - STOC '83, 1983
It is shown that for every k, polynomial-size, depth-k Boolean circuits are more powerful than polynomial-size, depth-(k−1) Boolean circuits. Connections with a problem about Borel sets and other questions are discussed.
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Complexity in Electronic Switching Circuits

IRE Transactions on Electronic Computers, 1956
The complexity of an electronic switching circuit is defined in a sufficiently general way so that most definitions which are presently used may be included. If ?(p, q) is the complexity of a p input q output circuit which has been minimized then we may define E(p, q) as the maximum of ?(p, q) over all p input, q output circuits.
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