Abstract: We prove tight size bounds on monotone switching networks for the NP-complete problem of k-clique, and for an explicit monotone problem by analyzing a pyramid structure of height h for the P-complete problem of generation. This gives alternative proofs of the separations of m-NC from m-P and of m-NCi from m-NCi+1, different from Raz–McKenzie (Combinatorica 1999). The enumerative-combinatorial and Fourier analytic techniques in this paper are very different from a large body of work on circuit depth lower bounds, and may be of independent interest. ACM Classification: F.1.3 AMS Classification: 68Q17, 68Q15, 68Q10 Key words and phrases: lower bounds, space complexity, parallel complexity, monotone complexity, switching networks, Fou...
We study the realization of monotone Boolean functions by networks. Our main result is a precise ver...
In 1990, following up on the (now renowned) work of Karchmer and Wigderson connecting communication ...
In 1990, following up on the (now renowned) work of Karchmer and Wigderson connecting communication ...
Abstract—An approximate computation of a Boolean func-tion by a circuit or switching network is a co...
An approximate computation of a function f: {0, 1}n → {0, 1} by a circuit or switching network M is ...
Thesis: Ph. D., Massachusetts Institute of Technology, Department of Mathematics, 2015.Cataloged fro...
In this paper, we consider the size of combinational switching networks required to synthesize monot...
This dissertation presents some circuit complexity results and techniques. Circuit complexity is a b...
This dissertation presents some circuit complexity results and techniques. Circuit complexity is a b...
Using a notion of real communication complexity recently introduced by J. Krajcek, we prove a lower ...
AbstractWe prove a lower bound, exponential in the eighth root of the input length, on the size of m...
There are specific kinds of circuits for which lower bounds techniques were successfully developed. ...
Our main result is a combinatorial lower bounds criterion for a general model of monotone circuits, ...
AbstractWe prove an exponential lower bound for the majority function on constant depth monotone cir...
We consider the problem of proving circuit lower bounds against the polynomial-time hierarchy. We gi...
We study the realization of monotone Boolean functions by networks. Our main result is a precise ver...
In 1990, following up on the (now renowned) work of Karchmer and Wigderson connecting communication ...
In 1990, following up on the (now renowned) work of Karchmer and Wigderson connecting communication ...
Abstract—An approximate computation of a Boolean func-tion by a circuit or switching network is a co...
An approximate computation of a function f: {0, 1}n → {0, 1} by a circuit or switching network M is ...
Thesis: Ph. D., Massachusetts Institute of Technology, Department of Mathematics, 2015.Cataloged fro...
In this paper, we consider the size of combinational switching networks required to synthesize monot...
This dissertation presents some circuit complexity results and techniques. Circuit complexity is a b...
This dissertation presents some circuit complexity results and techniques. Circuit complexity is a b...
Using a notion of real communication complexity recently introduced by J. Krajcek, we prove a lower ...
AbstractWe prove a lower bound, exponential in the eighth root of the input length, on the size of m...
There are specific kinds of circuits for which lower bounds techniques were successfully developed. ...
Our main result is a combinatorial lower bounds criterion for a general model of monotone circuits, ...
AbstractWe prove an exponential lower bound for the majority function on constant depth monotone cir...
We consider the problem of proving circuit lower bounds against the polynomial-time hierarchy. We gi...
We study the realization of monotone Boolean functions by networks. Our main result is a precise ver...
In 1990, following up on the (now renowned) work of Karchmer and Wigderson connecting communication ...
In 1990, following up on the (now renowned) work of Karchmer and Wigderson connecting communication ...