Carles Hernández, Jose Flieh, Roberto Paredes, Charles-Alexis Lefebvre, Imanol Allende, J. Abella, David Trillin, Martin Matschnig, Bernhard Fischer, Konrad Schwarz, J. Kiszka, Martin Rönnbäck, Johan Klockars, Nicholas Mc Guire, F. Rammerstorfer, C. Schwarzl, Franck Wartet, Dierk Lüdemann, M. Labayen
{"title":"高性能安全关键系统的自我监控可靠平台","authors":"Carles Hernández, Jose Flieh, Roberto Paredes, Charles-Alexis Lefebvre, Imanol Allende, J. Abella, David Trillin, Martin Matschnig, Bernhard Fischer, Konrad Schwarz, J. Kiszka, Martin Rönnbäck, Johan Klockars, Nicholas Mc Guire, F. Rammerstorfer, C. Schwarzl, Franck Wartet, Dierk Lüdemann, M. Labayen","doi":"10.1109/DSD51259.2020.00066","DOIUrl":null,"url":null,"abstract":"Existing HW/SW platforms for safety-critical systems suffer from limited performance and/or from lack of flexibility due to building on specific proprietary components. This jeopardizes their wide deployment across domains. While some research has been done to overcome these limitations, they have had limited success owing to missing flexibility and extensibility. Flexibility and extensibility are the cornerstones of industry adoption: industries dealing in capital goods need technologies on which they can rely on during decades (e.g. avionics, space, automotive). SELENE aims at covering this gap by proposing a new family of safety-critical computing platforms, which builds upon open source components such as the RISC-V instruction set architecture, GNU/Linux, and the Jailhouse hypervisor. SELENE will develop an advanced computing platform that is able to: (1) adapt the system to the specific requirements of different application domains, to changing environmental conditions, and to internal conditions of the system itself; (2) allow the integration of applications of different criticalities and performance demands in the same platform, guaranteeing functional and temporal isolation properties; (3) achieve flexible diverse redundancy by exploiting the inherent redundant capabilities of the multicore; and (4) efficiently execute compute-intensive applications by means of specific accelerators.","PeriodicalId":128527,"journal":{"name":"2020 23rd Euromicro Conference on Digital System Design (DSD)","volume":"24 1 1","pages":"0"},"PeriodicalIF":0.0000,"publicationDate":"2020-08-01","publicationTypes":"Journal Article","fieldsOfStudy":null,"isOpenAccess":false,"openAccessPdf":"","citationCount":"16","resultStr":"{\"title\":\"SELENE: Self-Monitored Dependable Platform for High-Performance Safety-Critical Systems\",\"authors\":\"Carles Hernández, Jose Flieh, Roberto Paredes, Charles-Alexis Lefebvre, Imanol Allende, J. 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SELENE aims at covering this gap by proposing a new family of safety-critical computing platforms, which builds upon open source components such as the RISC-V instruction set architecture, GNU/Linux, and the Jailhouse hypervisor. 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SELENE: Self-Monitored Dependable Platform for High-Performance Safety-Critical Systems
Existing HW/SW platforms for safety-critical systems suffer from limited performance and/or from lack of flexibility due to building on specific proprietary components. This jeopardizes their wide deployment across domains. While some research has been done to overcome these limitations, they have had limited success owing to missing flexibility and extensibility. Flexibility and extensibility are the cornerstones of industry adoption: industries dealing in capital goods need technologies on which they can rely on during decades (e.g. avionics, space, automotive). SELENE aims at covering this gap by proposing a new family of safety-critical computing platforms, which builds upon open source components such as the RISC-V instruction set architecture, GNU/Linux, and the Jailhouse hypervisor. SELENE will develop an advanced computing platform that is able to: (1) adapt the system to the specific requirements of different application domains, to changing environmental conditions, and to internal conditions of the system itself; (2) allow the integration of applications of different criticalities and performance demands in the same platform, guaranteeing functional and temporal isolation properties; (3) achieve flexible diverse redundancy by exploiting the inherent redundant capabilities of the multicore; and (4) efficiently execute compute-intensive applications by means of specific accelerators.