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Embedded targets normally do not have much resources to aid developing and debugging the software. So model-driven development (MDD) is used for designing embedded software with a `first time right' approach. For such an approach, a good way of working (WoW) is required for embedded software development using MDD techniques. This paper discusses the preferred way of working for the development of embedded control software. Control software requires hard real-time support for the loop controllers. These controllers directly control the motor output. Soft and non real-time levels can be used for non loop control related software tasks. The paper also discusses model structure optimisation techniques, which prevent the complexity of resource scheduling for large robotic setups, These techniques allow the designer to keep his own preferred point of view, as the techniques try to optimise the model into efficient software from a execution point of view. This saves a huge amount of design effort, especially for distributed targets.

This paper is about using templates and passing model-specific information between tools via parameterized tokens in the generated, high-level code, to get a better separation of design steps. This allows for better quality of the models and more reuse, thus enhancing the efficiency of model-driven design for the (industrial) end user. This is illustrated by the realization of the embedded software of a real system. We conclude that reuse is easier. However, the presented method can be generalized more, as to connect to other tools and platforms.

The design of embedded control systems for monitoring and control of mechatronic systems has a multidisciplinary development trajectory. These systems consist of heterogeneous components developed by different disciplines (control engineering, electrical engineering, software engineering and often many more). The design trajectory needs therefore a multi-disciplinary design methodology that enables concurrent design and interactions between all involved disciplines, reducing inconsistencies and conflicts that occur during the design phase. This paper proposes a multi-view methodology to address the above-mentioned issues. The main purpose is to shorten the design time and at the same time increasing the reliability and predictability of embedded (computer) control systems.