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Electronic Colloquium on Computational Complexity

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TR19-133 | 2nd October 2019
Nutan Limaye, Srikanth Srinivasan, Utkarsh Tripathi

More on $AC^0[\oplus]$ and Variants of the Majority Function

Revisions: 1

In this paper we prove two results about $AC^0[\oplus]$ circuits.

We show that for $d(N) = o(\sqrt{\log N/\log \log N})$ and $N \leq s(N) \leq 2^{dN^{1/d^2}}$ there is an explicit family of functions $\{f_N:\{0,1\}^N\rightarrow \{0,1\}\}$ such that
$f_N$ has uniform $AC^0$ formulas of depth $d$ and size at ... more >>>


TR19-132 | 26th September 2019
Klim Efremenko, Gillat Kol, Raghuvansh Saxena

Radio Network Coding Requires Logarithmic Overhead

Revisions: 1

We consider the celebrated radio network model for abstracting communication in wireless networks. In this model, in any round, each node in the network may broadcast a message to all its neighbors. However, a node is able to hear a message broadcast by a neighbor only if no collision occurred, ... more >>>


TR19-131 | 11th September 2019
Lieuwe Vinkhuijzen, André Deutz

A Simple Proof of Vyalyi's Theorem and some Generalizations

In quantum computational complexity theory, the class QMA models the set of problems efficiently verifiable by a quantum computer the same way that NP models this for classical computation. Vyalyi proved that if $\text{QMA}=\text{PP}$ then $\text{PH}\subseteq \text{QMA}$. In this note, we give a simple, self-contained proof of the theorem, using ... more >>>



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