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University of Essex

Automatic Parallelisation of Programs onto CPU+GPU Hybrid Systems

Abstract

dc:description.abstract

The advent of Graphics Processing Units being used in addition to the more traditional Central Processing Units has introduced a world of complexity into software development: not only is the core programming model drastically different, but what may be efficient on a CPU may be inefficient on a GPU. Furthermore, any program that contains parallel elements must be substantially re-written in order to run on a GPU architecture. This research aims to produce a system that will allow programs to be run without specifying which set of devices they can be run on. This will allow programs to be more easily moved between different configurations of processors, but will also allow the system to automatically determine which processor best suits a particular piece of code, producing an efficient implementation without the developer's assistance. This system uses a custom programming language, PolyLISP, that can define individual kernels with special looping constructs, and a runtime system, PolyCube, that is able to divide up tasks and pass them off to the given processors. The target platform is CUDA graphics cards, and the target programming language is NVidia's PTX, an intermediary assembly language. Programs written in PolyLISP are compiled into kernels of PTX assembly that are connected using the dataflow architecture, which was originally designed for parallel processing.

Degree

thesis:*
Level dc:type.qualificationlevel
masters
Grantor dc:publisher.institution
University of Essex
Year dc:date.issued
2015

Author and committee

dc:creator, dc:contributor.*
Author dc:creator
  • Benjamin, Sago

Subjects

dc:subject × 1

Rights

Language dc:language
en

Chain of custody

source
Harvested from
University of Essex
Base URL
repository.essex.ac.uk/cgi/oai2
Last updated
2026-07-24
Source record
OAI-PMH GetRecord
citation

Benjamin, Sago. Automatic Parallelisation of Programs onto CPU+GPU Hybrid Systems. masters thesis, University of Essex, 2015.