This paper introduces the first general and rigorous formalization of the classic busy-window principle for uniprocessors. The essence of the principle is identified as a minimal set of generic, high-level hypotheses that allow for a unified and general abstract response-time analysis, which is independent of specific scheduling policies, workload models, and preemption policy details. From this abstract core, the paper shows how to obtain concrete analysis instantiations for specific uniprocessor schedulers via a sequence of refinement steps, and provides formally verified response-time bounds for eight common schedulers and workloads, including the widely used fixed-priority (FP) and earliest-deadline first (EDF) scheduling policies in th...
This paper provides an exact and sustainable schedulability test for a set of non-preemptive jobs sc...
An effective way to increase the timing predictability of multicore platforms is to use non-preempti...
Real-time systems usually consist of a set of periodic and sporadic tasks. Periodic tasks can be div...
This artifact provides the means to validate and reproduce the results of the associated paper "Abst...
Abstract—Recently, there have been several promising tech-niques developed for schedulability analys...
The paper introduces foundational response-time analysis (RTA) as a means to produce strong and inde...
In this paper, we present a conjecture for exact best-case response times of periodic released, inde...
When modelling software components for timing analysis, we typically encounter functional chains of...
Abstract—In this paper we address the problem of schedulabil-ity analysis for a set of sporadic task...
Since worst case response times must be determined repeatedly during the interactive design of real-...
For the development of complex software systems, we often resort to component-based approaches that ...
Compared to fixed-priority preemptive scheduling (FPPS), fixedpriorityscheduling with preemption thr...
Many approaches to determine the response time of a task have difficulty to model tasks with multipl...
In this paper, we present and prove exact best-case response time and improved jitter analysis of re...
This paper provides an exact and sustainable schedulability test for a set of non-preemptive jobs sc...
An effective way to increase the timing predictability of multicore platforms is to use non-preempti...
Real-time systems usually consist of a set of periodic and sporadic tasks. Periodic tasks can be div...
This artifact provides the means to validate and reproduce the results of the associated paper "Abst...
Abstract—Recently, there have been several promising tech-niques developed for schedulability analys...
The paper introduces foundational response-time analysis (RTA) as a means to produce strong and inde...
In this paper, we present a conjecture for exact best-case response times of periodic released, inde...
When modelling software components for timing analysis, we typically encounter functional chains of...
Abstract—In this paper we address the problem of schedulabil-ity analysis for a set of sporadic task...
Since worst case response times must be determined repeatedly during the interactive design of real-...
For the development of complex software systems, we often resort to component-based approaches that ...
Compared to fixed-priority preemptive scheduling (FPPS), fixedpriorityscheduling with preemption thr...
Many approaches to determine the response time of a task have difficulty to model tasks with multipl...
In this paper, we present and prove exact best-case response time and improved jitter analysis of re...
This paper provides an exact and sustainable schedulability test for a set of non-preemptive jobs sc...
An effective way to increase the timing predictability of multicore platforms is to use non-preempti...
Real-time systems usually consist of a set of periodic and sporadic tasks. Periodic tasks can be div...