
arXiv: 2008.00266
We study parity decision trees for Boolean functions. The motivation of our study is the log-rank conjecture for XOR functions and its connection to Fourier analysis and parity decision tree complexity. Our contributions are as follows: Let \(f : \mathbb {F}_2^n \rightarrow \lbrace -1, 1\rbrace\) be a Boolean function with Fourier support 𝒮 and Fourier sparsity k .
FOS: Computer and information sciences, Data structures, Parity decision trees, 68Q11, Communication complexity, information complexity, Computational Complexity (cs.CC), parity decision trees, 004, log-rank conjecture, Computer Science - Computational Complexity, communication complexity, analysis of Boolean functions, Boolean functions, F.1.1, ddc: ddc:004
FOS: Computer and information sciences, Data structures, Parity decision trees, 68Q11, Communication complexity, information complexity, Computational Complexity (cs.CC), parity decision trees, 004, log-rank conjecture, Computer Science - Computational Complexity, communication complexity, analysis of Boolean functions, Boolean functions, F.1.1, ddc: ddc:004
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