Mixed-criticality systems integrate components of different criticality. Different criticality levels require different levels of confidence in the correct behavior of a component. One aspect of correctness is timing. Confidence in worst-case execution time (WCET) estimates depends on the process by which they have been obtained. A somewhat naive view is that static WCET analyses determines safe bounds in which we can have absolute confidence, while measurement-based approaches are inherently unreliable. In this paper, we refine this view by exploring sources of doubt in the correctness of both static and measurement-based WCET analysis
In this paper we present a measurement-based approach that produces both a WCET (Worst Case Executio...
Critical embedded systems are generally composed of repetitive tasks that must meet hard timing cons...
The pressing market demand for competitive performance/cost ratios compels Critical Real-Time Embedd...
Mixed-criticality systems integrate components of different criticality. Different criticality level...
Mixed-criticality systems integrate components of different criticality. Different criticality level...
International audienceMixed-criticality systems integrate components of different criticality. Diffe...
International audienceAll contemporary safety standards require to demonstrate the absence of functi...
In the last three decades a number of methods have been devised to find upper-bounds for the executi...
Estimating the worst-case execution time (WCET) of tasks in a system is an important step in timing ...
To reduce complexity while computing an upper bound on the worst-case execution time, static WCET an...
Measurement-Based Probabilistic Timing Analysis (MBPTA) has been shown to be an industrially viable ...
Precise operation of real-time systems depends on functionally correct computations that are deliver...
Over the last years, we are witnessing the steady and rapid growth of Critica! Real-Time Embedded Sy...
A prerequisite for creating a safe and predictable real time computer system is to have knowledge ab...
Obtaining Worst-Case Execution Time (WCET) estimates is a required step in real-time embedded system...
In this paper we present a measurement-based approach that produces both a WCET (Worst Case Executio...
Critical embedded systems are generally composed of repetitive tasks that must meet hard timing cons...
The pressing market demand for competitive performance/cost ratios compels Critical Real-Time Embedd...
Mixed-criticality systems integrate components of different criticality. Different criticality level...
Mixed-criticality systems integrate components of different criticality. Different criticality level...
International audienceMixed-criticality systems integrate components of different criticality. Diffe...
International audienceAll contemporary safety standards require to demonstrate the absence of functi...
In the last three decades a number of methods have been devised to find upper-bounds for the executi...
Estimating the worst-case execution time (WCET) of tasks in a system is an important step in timing ...
To reduce complexity while computing an upper bound on the worst-case execution time, static WCET an...
Measurement-Based Probabilistic Timing Analysis (MBPTA) has been shown to be an industrially viable ...
Precise operation of real-time systems depends on functionally correct computations that are deliver...
Over the last years, we are witnessing the steady and rapid growth of Critica! Real-Time Embedded Sy...
A prerequisite for creating a safe and predictable real time computer system is to have knowledge ab...
Obtaining Worst-Case Execution Time (WCET) estimates is a required step in real-time embedded system...
In this paper we present a measurement-based approach that produces both a WCET (Worst Case Executio...
Critical embedded systems are generally composed of repetitive tasks that must meet hard timing cons...
The pressing market demand for competitive performance/cost ratios compels Critical Real-Time Embedd...