Real-Time Calculus (RTC) is a framework for modeling and performance analysis of real-time networked systems. In RTC, workload and resources are modeled as arrival and service curves, and processing semantics are modeled by abstract components. Greedy Processing Component (GPC) is one of the fundamental abstract components in RTC, which processes incoming events in a greedy fashion as long as there are available resources. The relations between inputs and outputs of GPC have been established, which are consistent with its behaviors. In this paper, we first revise the original proof of calculating output curves in GPC, and then propose a new method to obtain tighter output arrival curves. Experiment results show that the precision of output ...
This paper advocates a rigorously formal and compositional style for obtaining key performance and/o...
Abstract We present a tool for compositional timing and performance analysis of real-time systems mo...
There are two important questions to ask regarding the correct execution of a real-time program: (i)...
Real-Time Calculus (RTC) is a powerful framework for modeling and analyzing complex networked real-t...
International audienceReal-Time Calculus (RTC) is a framework to analyze heterogeneous, real-time sy...
The Real-Time Calculus (RTC) [19] is a framework to analyze heterogeneous real-time systems that pro...
The Real-Time Calculus (RTC) framework proposed in [5, 16] and subsequently extended [17, 18] is tar...
Abstract—We present an approach to connect the Real-Time Calculus (RTC) method to the syn-chronous d...
In real-time theory, there exist two approaches for computing the response time of tasks: the classi...
Abstract—This paper studies the performance analysis prob-lem of energy-harvesting real-time network...
International audienceClassical Response Time Analysis (RTA) and Network Calculus (NC) are two major...
To analyze complex and heterogeneous real-time embedded systems, recent works have proposed interfac...
To analyze complex and heterogeneous real-time embedded systems, recent works have proposed interfac...
Classical Response Time Analysis (RTA) and Network Calculus (NC) are two major formalisms used for t...
Abstract: To analyze the complex and heterogenous real-time embedded systems, recent works have prop...
This paper advocates a rigorously formal and compositional style for obtaining key performance and/o...
Abstract We present a tool for compositional timing and performance analysis of real-time systems mo...
There are two important questions to ask regarding the correct execution of a real-time program: (i)...
Real-Time Calculus (RTC) is a powerful framework for modeling and analyzing complex networked real-t...
International audienceReal-Time Calculus (RTC) is a framework to analyze heterogeneous, real-time sy...
The Real-Time Calculus (RTC) [19] is a framework to analyze heterogeneous real-time systems that pro...
The Real-Time Calculus (RTC) framework proposed in [5, 16] and subsequently extended [17, 18] is tar...
Abstract—We present an approach to connect the Real-Time Calculus (RTC) method to the syn-chronous d...
In real-time theory, there exist two approaches for computing the response time of tasks: the classi...
Abstract—This paper studies the performance analysis prob-lem of energy-harvesting real-time network...
International audienceClassical Response Time Analysis (RTA) and Network Calculus (NC) are two major...
To analyze complex and heterogeneous real-time embedded systems, recent works have proposed interfac...
To analyze complex and heterogeneous real-time embedded systems, recent works have proposed interfac...
Classical Response Time Analysis (RTA) and Network Calculus (NC) are two major formalisms used for t...
Abstract: To analyze the complex and heterogenous real-time embedded systems, recent works have prop...
This paper advocates a rigorously formal and compositional style for obtaining key performance and/o...
Abstract We present a tool for compositional timing and performance analysis of real-time systems mo...
There are two important questions to ask regarding the correct execution of a real-time program: (i)...