An automated open-source framework wraps SystemC RTL models as FMI 3.0 Functional Mock-up Units, with step, intermediate-update, and interrupt-driven execution modes.
Hardware Software Co-design for Automotive CPS using Architecture Analysis and Design Language
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abstract
Modern cyber-physical systems (CPS) have a close inter-dependence between software and physical components. Automotive embedded systems are typical CPS, as physical chips, sensors and actuators are physical components and software embedded within are the cyber components. The current stage of embedded systems is highly complex in architecture design for both software and hardware. It is common in industrial practice that high level control algorithm development and low level code implementation on hardware platforms are developed separately with limited shared information. However, software code and hardware architecture become closely related with the increasing complexity. Correlated requirements and dependencies between hardware and software are emerging problems of industrial practice. We demonstrate in this paper a method to link model based system design with real-time simulations and analysis of the architecture model. This allows hardware software co-design and thus early selection of hardware architecture.
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Automatic integration of SystemC in the FMI standard for Software-defined Vehicle design
An automated open-source framework wraps SystemC RTL models as FMI 3.0 Functional Mock-up Units, with step, intermediate-update, and interrupt-driven execution modes.