2013 · 53 citations · 23 references
EngineeringComputer EngineeringComputer ScienceEmbedded SystemsSafety EngineeringSystem-on-chip DesignEmbedded Systems DesignMixed-criticality SystemsSafety SystemsSafety-critical Embedded SystemsSafety-critical SystemsAnti-lock Braking System IntegrationCore SystemsMany-core ArchitectureMultiprocessor Mixed-criticality SystemsProtectionSafety-critical ArchitectureSafety-critical Systems AnalysisSafety-critical Systems Architecture
Increasing demand for performance and further integration promotes the use of multi- and many-core systems - also in safety-critical embedded systems. In this domain, hardware platforms obviously have to support real-time, predictability constrained applications such as an anti-lock braking system. However, the on-going trend to integrate multiple functions with different criticalities (mixed critical) on a single platform calls for a paradigm shift. Mixed-critical systems require special attention with respect to functional (access protection) and non-functional (performance) isolation. An additional layer of protection and guaranteed service on the underlying infrastructure enables the efficient adoption of such architectures in safety-critical domains. In this paper, we present the IDAMC, a many-core platform which provides mechanisms to integrate applications of different criticalities on a single platform.
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Introduction to the Cell multiprocessor
J. Kahle, Michael Day, H. Peter Hofstee et al. · IBM Journal of Research and Development · 2005 · 941 citations
The time-triggered architecture
Hermann Kopetz, G. Bauer · Proceedings of the IEEE · 2003 · 852 citations
Response-Time Analysis for Mixed Criticality Systems
Sanjoy Baruah, Alan Burns, Robert I. Davis · 2011 · 352 citations