Using physical compilation to implement a system on chip platform
Abstract (Summary)
The goal of this thesis was to setup a complete design flow involving physical
synthesis. The design chosen for this purpose was a system-on-chip (SoC)
platform developed at the University of Tennessee. It involves a Leon Processor
with a minimal cache configuration, an AMBA on-chip bus and an Advanced
Encryption Standard module which performs decryption.
As transistor size has entered the deep submicron level, iterations involved in
the design cycle have increased due to the domination of interconnect delays
over cell delays. Traditionally, interconnect delay has been estimated through the
use of wire-load models. However, since there is no physical placement
information, the delay estimation may be ineffective and result in increased
iterations. Hence, placement-based synthesis has recently been introduced to
provide better interconnect delay estimation. The tool used in this thesis to
implement the system-on-chip design using physical synthesis is Synopsys
Physical Compiler. The flow has been setup through the use of the Galaxy
Reference Flow scripts obtained from Synopsys.
As part of the thesis, an analysis of the differences between a physically
synthesized design and a logically synthesized one in terms of area and delay is
presented.
iii
Bibliographical Information:
Advisor:
School:The University of Tennessee at Chattanooga
School Location:USA - Tennessee
Source Type:Master's Thesis
Keywords:
ISBN:
Date of Publication: