Orlando / Madrid / Tucson / Phoenix / San Diego / /
Company
IEEE Computer Society Press / Real-Time Systems / /
Continent
Europe / /
Country
United States / United Kingdom / Spain / / /
Facility
University of York / M. G. Harbour / University of North Carolina / Massachusetts Institute of Technology / /
IndustryTerm
mixed-criticality task systems / preemptive scheduled systems / multi-criticality systems / certifiable mixed-criticality systems / safety-critical embedded systems / task systems / integrity systems / mixed criticality systems / exhaustive search / priority assignment algorithm / smallest positive solution / shared run-time software / mixed-criticality systems / adaptive run-time scheduling algorithm / Mode change protocols / safety-critical systems / safety critical systems / dynamic slack reclaiming algorithm / certifiable mixedcriticality sporadic task systems / multimedia applications / sporadic task systems / safetycritical applications / /
Organization
National Science Foundation / University of York / University of North Carolina / Laboratory for Computer Science / Massachusetts Institute of Technology / Department of Computer Science / IEEE Computer Society / Mixed Criticality Systems S.K. Baruah A. Burns R.I. Davis Department of Computer Science / /
Person
Addison Wesley Longman / Cj Tj / S. Baruah / V / /
Position
editor / system designer / engineer / representative / /
ProgrammingLanguage
C / Ada / /
ProvinceOrState
Maine / Hawaii / Florida / North Carolina / California / Arizona / Massachusetts / /
PublishedMedium
Lecture Notes in Computer Science / /
TVStation
WCET / /
Technology
dynamic slack reclaiming algorithm / priority assignment algorithm / following adaptive run-time scheduling algorithm / two scheduling algorithms / Operating Systems / one processor / six algorithms / UUnifast algorithm / Mode change protocols / IEEE Real-Time Technology / using the six algorithms / /
Response-Time Analysis for Mixed Criticality Systems S.K. Baruah