Created by W.Langdon from gp-bibliography.bib Revision:1.2031
@PhdThesis{Stephenson:thesis,
author = "Mark W. Stephenson",
title = "Automating the Construction of Compiler Heuristics
Using Machine Learning",
school = "Department of Electrical Engineering and Computer
Science, Massachusetts Institute of Technology",
year = "2006",
type = "Doctor of Philosophy of Science in Computer Science
and Engineering",
address = "Cambridge, MA, USA",
month = may # " 23",
keywords = "genetic algorithms, genetic programming, SBSE, SVN,
regularisation, LOOCV, Priority Functions",
URL = "
http://www.cag.csail.mit.edu/~mstephen/stephenson_phdthesis.pdf",
size = "162 pages",
abstract = "Compiler writers are expected to create effective and
inexpensive solutions to NP-hard problems such as
instruction scheduling and register allocation. To make
matters worse, separate optimisation phases have strong
interactions and competing resource constraints.
Compiler writers deal with system complexity by
dividing the problem into multiple phases and devising
approximate heuristics for each phase. However, to
achieve satisfactory performance, developers are forced
to manually tweak their heuristics with trial-and-error
experimentation.
In this dissertation I present meta optimization, a
methodology for automatically constructing high quality
compiler heuristics using machine learning techniques.
This thesis describes machine-learned heuristics for
three important compiler optimisations: hyperblock
formation, register allocation, and loop unrolling. The
machine-learned heuristics outperform (by as much as 3x
in some cases) their state-of-the-art hand-crafted
counterparts. By automatically collecting data and
systematically analysing them, my techniques discover
subtle interactions that even experienced engineers
would likely overlook. In addition to improving
performance, my techniques can significantly reduce the
human effort involved in compiler design. Machine
learning algorithms can design critical portions of
compiler heuristics, thereby freeing the human designer
to focus on compiler correctness.
The progression of experiments I conduct in this thesis
leads to collaborative compilation, an approach which
enables ordinary users to transparently train compiler
heuristics by running their applications as they
normally would. The collaborative system automatically
adapts itself to the applications in which a community
of users is interested.",
notes = "Thesis Supervisor: Saman Amarasing
p98 'policy search with genetic programming can find
effective priority functions with little human
intervention'
p150 My thesis describes a simple and effective
approach called policy search, that automatically
creates excellent priority functions. My genetic
programming-based implementation found better priority
functions -- sometimes much better -- than the best
human-constructed priority functions, and with
virtually no human intervention.
Also known as \cite{stephenson:phd-thesis:2006}",
}
Genetic Programming entries for Mark Stephenson