Proceedings Article10.1145/343647.343859
Standards for system-level design: practical reality or solution in search of a question?
Christopher K. Lennard,Patrick Schaumont,G. de Jong,A. Haverinen,P. Hardee +4 more
- 01 Jan 2000
- pp 576-585
TL;DR: An overview of three standards in the system-level VC integration space is presented, and two distinct industrial case studies are described to support their practicality.
read more
Abstract: We address the issue of standards development for the system-level design space System-level design IP re-use standards are key to the future of the VSIA However, the concept of system-level standards has its share of sceptics: what role can standards play in this developing market segment? In response we present an overview of three standards in the system-level VC integration space, and describe two distinct industrial case studies to support their practicality
read more
Chat with Paper
AI Agents for this Paper
Find similar papers on Google Scholar, PubMed and Arxiv
Write a critical review of this paper
Analyze citations of this paper to find unaddressed research gaps
Citations
Automatic Generation of Fast Timed Simulation Models for Operating Systems in SoC Design
Sungjoo Yoo,Gabriela Nicolescu,Lovic Gauthier,Ahmed Amine Jerraya +3 more
- 04 Mar 2002
TL;DR: This approach provides two orders of magnitude higher simulation speedup compared to the simulation using instruction set simulators for SW simulation.
A generic wrapper architecture for multi-processor SoC cosimulation and design
Sungjoo Yoo,Gabriela Nicolescu,D. Lyonnard,Amer Baghdadi,Ahmed Amine Jerraya +4 more
- 25 Apr 2001
TL;DR: A generic wrapper architecture that can adapt different protocols or different abstraction levels, or both is presented and applied to mixed-level cosimulation of an IS-95 CDMA cellular phone system.
An efficient architecture model for systematic design of application-specific multiprocessor SoC
Amer Baghdadi,D. Lyonnard,Nacer-Eddine Zergainoh,Ahmed Amine Jerraya +3 more
- 13 Mar 2001
TL;DR: A novel approach for the design of application specific multiprocessor systems-on chip based on a generic architecture model which is used as a template throughout the design process that allows one accelerate the design cycle.
Automatic generation of embedded memory wrapper for multiprocessor SoC
Ferid Gharsalli,Samy Meftali,Frederic Rousseau,Ahmed Amine Jerraya +3 more
- 10 Jun 2002
TL;DR: This paper presents a new methodology for embedded memory design in the case of application specific multiprocessor system-on-chip, and gives also a generic architecture to produce this memory wrapper.
Mixed-level cosimulation for fine gradual refinement of communication in SoC design
Gabriela Nicolescu,Sungjoo Yoo,Ahmed Amine Jerraya +2 more
- 13 Mar 2001
TL;DR: A method of mixed-level cosimulation that enables gradual refinement of SoC communication from protocol-neutral communication to protocol-fixed communication and the designer can perform more extensive design space exploration in communication refinement.
44
References
Interface-based design
James A. Rowson,Alberto Sangiovanni-Vincentelli +1 more
- 13 Jun 1997
TL;DR: A new system design methodology is proposed that separates communication from behavior and the potential for this methodology to improve verification, modelling and synthesis is explored.
Heterogeneous concurrent modeling and design
John Davis,Ron Galicia,Mudit Goel,Christopher Hylands,Edward A. Lee,Jie Liu,Xiaojun Liu,Lukito Muliadi,Steve Neuendorffer,John Reekie,Neil Smyth,Jeff Tsay,Yuhong Xiong +12 more
- 01 Jan 1999
TL;DR: This paper presentsion and modu-larity mechanisms for concurrent computing, and some of the mechanisms behind these mechanisms have been described and are described in detail.
Ptolemy II, Heterogeneous Concurrent Modeling and Design in JAVA
Edward A. Lee,John Davis,Lukito Muliadi,Steve Neuendorffer,Jeff Tsay +4 more
- 01 May 2001
TL;DR: The Ptolemy project studied heterogeneous modeling, simulation, and design of concurrent systems, particularly those that mix technologies including, for example, analog and digital electronics, hardware and software, and electronics and mechanical devices.