AbstractWe define the rank of a decision tree and show that for any fixed r, the class of all decision trees of rank at most r on n Boolean variables is learnable from random examples in time polynomial in n and linear in 1/ɛ and log(1/δ), where ɛ is the accuracy parameter and δ is the confidence parameter. Using a suitable encoding of variables, Rivest's polynomial learnability result for decision lists can be interpreted as a special case of this result for rank 1. As another corollary, we show that decision trees on n Boolean variables of size polynomial in n are learnable from random examples in time linear in nO(logn), 1/ɛ, and log(1/δ). As a third corollary, we show that Boolean functions that have polynomial size DNF expressions for ...
We prove the following results. Any Boolean function of O(log n) relevant variables can be exactly ...
We prove the following results. Any Boolean function of O(log n) relevant variables can be exactly l...
We give an algorithm that learns any monotone Boolean function f: {−1, 1}n → {−1, 1} to any constant...
AbstractWe define the rank of a decision tree and show that for any fixed r, the class of all decisi...
We consider a model of learning Boolean functions from examples generated by a uniform random walk o...
We consider a model of learning Boolean functions from examples generated by a uniform random walk o...
AbstractDecision trees are popular representations of Boolean functions. We show that, given an alte...
A classic result of Nisan [SICOMP '91] states that the deterministic decision tree∗depth∗complexity ...
Abstract. We investigate the problem of learning Boolean functions with a short DNF representation u...
We consider a model of learning Boolean functions from examples generated by a uniform random walk o...
AbstractWe consider a model of learning Boolean functions from examples generated by a uniform rando...
We consider a model of learning Boolean functions from examples generated by a uniform random walk o...
We give an algorithm that learns any monotone Boolean function f: f1; 1gn! f1; 1g to any constant ac...
We consider a model of learning Boolean functions from examples generated by a uniform random walk o...
We consider a model of learning Boolean functions from examples generated by a uniform random walk o...
We prove the following results. Any Boolean function of O(log n) relevant variables can be exactly ...
We prove the following results. Any Boolean function of O(log n) relevant variables can be exactly l...
We give an algorithm that learns any monotone Boolean function f: {−1, 1}n → {−1, 1} to any constant...
AbstractWe define the rank of a decision tree and show that for any fixed r, the class of all decisi...
We consider a model of learning Boolean functions from examples generated by a uniform random walk o...
We consider a model of learning Boolean functions from examples generated by a uniform random walk o...
AbstractDecision trees are popular representations of Boolean functions. We show that, given an alte...
A classic result of Nisan [SICOMP '91] states that the deterministic decision tree∗depth∗complexity ...
Abstract. We investigate the problem of learning Boolean functions with a short DNF representation u...
We consider a model of learning Boolean functions from examples generated by a uniform random walk o...
AbstractWe consider a model of learning Boolean functions from examples generated by a uniform rando...
We consider a model of learning Boolean functions from examples generated by a uniform random walk o...
We give an algorithm that learns any monotone Boolean function f: f1; 1gn! f1; 1g to any constant ac...
We consider a model of learning Boolean functions from examples generated by a uniform random walk o...
We consider a model of learning Boolean functions from examples generated by a uniform random walk o...
We prove the following results. Any Boolean function of O(log n) relevant variables can be exactly ...
We prove the following results. Any Boolean function of O(log n) relevant variables can be exactly l...
We give an algorithm that learns any monotone Boolean function f: {−1, 1}n → {−1, 1} to any constant...