AbstractThe minimal number, of conjuctions in monotone circuits for quadratic Boolean functions, i.e. disjunctions of quadratic monomials xixj, is investigated. Single level circuits which have only one level of conjuctions are compared with arbitrary monotone circuits. The computation of the single level complexity is shown to be NP complete. For almost all quadratic functions, almost optimal circuits can be computed in polynomial time. The single level conjecture is disproved, i.e. a quadratic function is defined whose single level complexity is larger than its conjuctive complexit
Our main result is a combinatorial lower bounds criterion for a general model of monotone circuits, ...
AbstractBy a result of Berkowitz (1982), the monotone circuit complexity of slice functions cannot b...
Computational complexity theory aims to understand what problems can be efficiently solved by comput...
AbstractLet the multiplicative complexity L(f) of a boolean function f be the minimal number of ∧-ga...
We consider the power of single level circuits in the context of graph complexity. We first prove ...
We consider the power of single level circuits in the context of graph complexity. We first prove ...
AbstractLet the multiplicative complexity L(f) of a boolean function f be the minimal number of ∧-ga...
We study the monotone circuit complexity of the so called semi-disjoint bilinear forms over the Bool...
Monotone Boolean functions, and the monotone Boolean circuits that compute them, have been intensive...
Monotone Boolean functions, and the monotone Boolean circuits that compute them, have been intensive...
AbstractThe multiplicative complexity c∧(f) of a Boolean function f is the minimum number of AND gat...
A monotone Boolean circuit is composed of OR gates, AND gates and input gates corresponding to the i...
AbstractA sequence of monotone switching functions hn:{0,1}n→ {0,1}n is constructed, such that the m...
We consider the power of single level circuits in the context of graph complexity. We first prove th...
AbstractWe construct a sequence of monotone Boolean functions hn :{0, 1}n→{0, 1}n, such that the mon...
Our main result is a combinatorial lower bounds criterion for a general model of monotone circuits, ...
AbstractBy a result of Berkowitz (1982), the monotone circuit complexity of slice functions cannot b...
Computational complexity theory aims to understand what problems can be efficiently solved by comput...
AbstractLet the multiplicative complexity L(f) of a boolean function f be the minimal number of ∧-ga...
We consider the power of single level circuits in the context of graph complexity. We first prove ...
We consider the power of single level circuits in the context of graph complexity. We first prove ...
AbstractLet the multiplicative complexity L(f) of a boolean function f be the minimal number of ∧-ga...
We study the monotone circuit complexity of the so called semi-disjoint bilinear forms over the Bool...
Monotone Boolean functions, and the monotone Boolean circuits that compute them, have been intensive...
Monotone Boolean functions, and the monotone Boolean circuits that compute them, have been intensive...
AbstractThe multiplicative complexity c∧(f) of a Boolean function f is the minimum number of AND gat...
A monotone Boolean circuit is composed of OR gates, AND gates and input gates corresponding to the i...
AbstractA sequence of monotone switching functions hn:{0,1}n→ {0,1}n is constructed, such that the m...
We consider the power of single level circuits in the context of graph complexity. We first prove th...
AbstractWe construct a sequence of monotone Boolean functions hn :{0, 1}n→{0, 1}n, such that the mon...
Our main result is a combinatorial lower bounds criterion for a general model of monotone circuits, ...
AbstractBy a result of Berkowitz (1982), the monotone circuit complexity of slice functions cannot b...
Computational complexity theory aims to understand what problems can be efficiently solved by comput...