Girish Mahajan (Editor)

Modeling and Analysis of Real Time and Embedded systems

Updated on
Edit
Like
Comment
Share on FacebookTweet on TwitterShare on LinkedInShare on Reddit

Modeling and analysis of real time and embedded systems


Modeling and Analysis of Real Time and Embedded systems also known as MARTE is the OMG standard for modeling real-time and embedded applications with UML2.

Contents

Description

The UML modeling language has been extended by the OMG consortium to support model-driven development of real-time and embedded application. This extension has been defined via a UML2 profile called MARTE (Modeling and Analysis of Real-Time and Embedded systems). It consists mainly of four parts:

  • a core framework defining the basic concepts required to support real-time and embedded domain.
  • a first specialization (refinement) of this core package to support pure modeling of applications (e.g. hardware and software platform modeling).
  • a second specialization (refinement) of this core package to support quantitative analysis of UML2 models, specially schedulability and performance analysis.
  • a last part gathering all the MARTE annexes such as the one defining a textual language for value specification within UML2 models, and the one conflating the standard MARTE model libraries dedicated to RT/E system modeling.
  • The MARTE specification is publicly available on the OMG web site. Currently, two open-source tools are available for system modeling using the MARTE profile: Modelio provides an open source modeling environment for designing high level UML models using the MARTE profile, and also provides guidelines on the utilization of MARTE profile; while an open-source implementation based on Eclipse of the MARTE profile is available in Papyrus UML. This latter is running within the Eclipse UML2 plug-in and within the open-source tool for UML2 Papyrus.

    Core

    The core part of MARTE is made of five chapters.

  • CoreElements;
  • Non-Functional Properties: This chapter specifies some notations to define various kinds of values related to physical quantities: time, mass, energy;
  • Time: This chapter defines a rich model of time that supports both the definition of physical and logical time properties;. It comes with a companion language called CCSL defined as an annex.
  • Generic Resource Modeling: This chapter offers extensions required to model a general platform for executing real-time embedded applications;
  • Allocation Modeling: Finally, this chapter defines a notion of allocation to allocate application elements onto the execution platforms. A specific attention has been given to maintain compatibility with SysML allocation mechanism.
  • References

    Modeling and Analysis of Real Time and Embedded systems Wikipedia