Title
Combining Background Memory Management and Regular Array Co-Partitioning, Illustrated on a Full Motion Estimation Kernel
Abstract
In this paper an approach is presented to combine the design of background memory architectures and processor arrays for data dominated real-time applications. The formalized data transfer and storage exploration (DTSE) approach of IMEC involves a stepwise methodology for the design of a low-power small-size background memory organizations, meeting real-time constraints. The systematic space-time transformation and the subsequent co-partitioning approach of the Dresden University of Technology, allow the design of realistic processor arrays adapted to a given memory architecture. However, neither methodology can derive on its own the complete solution of a fully optimized memory organization, combining background and foreground memory. Extensions to enable this important problem will be presented here. First, both complementary methodologies will be summarized. Next, the main emphasis in this paper will be on the approach to design the processor array within the context of an already optimized and hence given memory architecture. The feasibility of the proposed combination is demonstrated on a representative test-vehicle for an important class of applications, namely a full motion estimation kernel in MPEG.
Year
DOI
Venue
2000
10.1109/ICVD.2000.812592
VLSI Design
Keywords
Field
DocType
optimized memory organization,subsequent co-partitioning approach,memory architecture,formalized data transfer,low-power small-size background memory,foreground memory,full motion estimation kernel,background memory architecture,combining background memory,realistic processor,regular array co-partitioning,processor array,complementary methodology,real time systems,space time,parallel processing,design methodology,motion estimation,memory management,design optimization,real time,space technology,testing,data transfer,process design
Memory protection,Computer science,Processor array,Computing with Memory,Real-time computing,Electronic engineering,Process design,Memory management,Flat memory model,Memory organisation,Memory architecture
Conference
Volume
Issue
ISBN
15
3-4
0-7695-0487-6
Citations 
PageRank 
References 
1
0.38
0
Authors
3
Name
Order
Citations
PageRank
Rainer Schaffer1295.30
Renate Merker215920.59
Francky Catthoor33932423.30