Demo- The SABER system for window-based hybrid stream processing with GPGPUs
File(s)saber-demo-debs16.pdf (4.95 MB)
Accepted version
Author(s)
Type
Conference Paper
Abstract
Heterogeneous architectures that combine multi-core CPUs with
many-core GPGPUs have the potential to improve the performance
of data-intensive stream processing applications. Yet, a stream pro-
cessing engine must execute streaming SQL queries with sufficient
data-parallelism to fully utilise the available heterogeneous proces-
sors, and decide how to use each processor in the most effective
way. Addressing these challenges, we demonstrate SABER, a
hybrid high-performance relational stream processing engine for
CPUs and GPGPUs. SABER executes window-based streaming SQL queries in a data-parallel fashion and employs an adaptive scheduling strategy to balance the load on the different types of processors. To hide
data movement costs, SABER pipelines the transfer of stream data
between CPU and GPGPU memory. In this paper, we review the
design principles of SABER in terms of its hybrid stream processing
model and its architecture for query execution. We also present a
web front-end that monitors processing throughput.
many-core GPGPUs have the potential to improve the performance
of data-intensive stream processing applications. Yet, a stream pro-
cessing engine must execute streaming SQL queries with sufficient
data-parallelism to fully utilise the available heterogeneous proces-
sors, and decide how to use each processor in the most effective
way. Addressing these challenges, we demonstrate SABER, a
hybrid high-performance relational stream processing engine for
CPUs and GPGPUs. SABER executes window-based streaming SQL queries in a data-parallel fashion and employs an adaptive scheduling strategy to balance the load on the different types of processors. To hide
data movement costs, SABER pipelines the transfer of stream data
between CPU and GPGPU memory. In this paper, we review the
design principles of SABER in terms of its hybrid stream processing
model and its architecture for query execution. We also present a
web front-end that monitors processing throughput.
Date Issued
2016-06-30
Date Acceptance
2016-06-12
Citation
Proceeding of the10th ACM International Conference on Distributed and Event-Based Systems, 2016, pp.354-357
ISBN
978-1-4503-4021-2
Publisher
Association for Computing Machinery
Start Page
354
End Page
357
Journal / Book Title
Proceeding of the10th ACM International Conference on Distributed and Event-Based Systems
Copyright Statement
© 2016 ACM. This is the author's version of the work. It is posted here by permission of ACM for your personal use. Not for redistribution. The definitive version was published in Proceedings of the 10th ACM International Conference on Distributed and Event-based Systems, (2016) http://doi.acm.org/10.1145/2933267.2933291
Sponsor
Commission of the European Communities
Grant Number
FP7 - 318521
Source
DEBS 2016
Publication Status
Published
Start Date
2016-06-20
Finish Date
2016-06-24
Coverage Spatial
Irvine, CA