The Complexity of Learning According to Two Models of a Drifting Environment
Abstract
We show that a \(\frac{{c \in ^3 }}{{{\text{VCdim(}}\mathcal{F}{\text{)}}}}\) bound on the rate of drift of the distribution generating the examples is sufficient for agnostic learning to relative accuracy ∈, where c > 0 is a constant; this matches a known necessary condition to within a constant factor. We establish a \(\frac{{c \in ^2 }}{{{\text{VCdim(}}\mathcal{F}{\text{)}}}}\) sufficient condition for the realizable case, also matching a known necessary condition to within a constant factor. We provide a relatively simple proof of a bound of \(O(\frac{1}{{_ \in 2}}({\text{VCdim(}}\mathcal{F}{\text{)}}\) + \(\log \frac{1}{\delta }))\) on the sample complexity of agnostic learning in a fixed environment.
Cite
Text
Long. "The Complexity of Learning According to Two Models of a Drifting Environment." Machine Learning, 1999. doi:10.1023/A:1007666507971Markdown
[Long. "The Complexity of Learning According to Two Models of a Drifting Environment." Machine Learning, 1999.](https://mlanthology.org/mlj/1999/long1999mlj-complexity/) doi:10.1023/A:1007666507971BibTeX
@article{long1999mlj-complexity,
title = {{The Complexity of Learning According to Two Models of a Drifting Environment}},
author = {Long, Philip M.},
journal = {Machine Learning},
year = {1999},
pages = {337-354},
doi = {10.1023/A:1007666507971},
volume = {37},
url = {https://mlanthology.org/mlj/1999/long1999mlj-complexity/}
}