On Line Service Composition in the Integrated Clinical Environment for eHealth and Medical Systems

Medical and eHealth systems are progressively realized in the context of standardized architectures that support safety and ease the integration of the heterogeneous (and often proprietary) medical devices and sensors. The Integrated Clinical Environment (ICE) architecture appeared recently with the goal of becoming a common framework for defining the structure of the medical applications as concerns the safe integration of medical devices and sensors.This research was partly supported by iLand (EU ARTEMIS-1-00026) granted by the ARTEMIS JUand the Spanish Ministry of Industry, Commerce and Tourism. It has also been partly funded by the REM4VSS (TIN2011-28339) project grant of the Spanish Ministry of Economy and Competitiveness and by Universidad Carlos III de Madrid. The authors would also like to mention the large development team of the iLand reference implementation that performed an outstanding role to achieve a software proven also on commercial applications, and they thank them for their valuable efforts and work.Publicad

Integration of Data Distribution Service and distributed partitioned systems

[EN] Avionics systems are complex and time-critical systems that are progressively adopting more flexible (though equally robust) architectural designs. Although a number of current avionics systems follow federated architectures, the Integrated Modular Avionics (IMA) paradign is becoming the dominant style in the more modern developments. The reason is that the IMA concept promotes modular designs where applications with different levels of criticality can execute in an isolated manner in the same hardware. This approach complies with the requirements of cost, safety, and weight of the avionics systems. FACE standard (Future Airborne Capability Environment) defines the architectural baseline for easing integration in avionics systems, including the communication functions across distributed components. As specified in FACE, middleware will be integrated into avionics systems to ease development of portable components that can interoperate effectively. This paper describes the usage of publish-subscribe middleware (precisely, DDS - Data Distribution Service for real-time systems) into a fully distributed partitioned system. We describe, from a practical point of view, the integration of the middleware communication overhead into the hierarchical scheduling (as compliant with ARINC 653) to allow the usage of middleware in the partitions. We explain the design of a realiable communication setting, exemplified on a distributed monitoring application in a partitioned environment. The obtained implementation results show that, given the stable communication overhead of the middleware, it can be integrated in the time windows of partitions.This work has been partly supported by the Spanish Ministry of Economy and Competitiveness through projects REM4VSS (TIN 2011-28339) and M2C2 (TIN2014-56158-C4-3-P).Garcia-Valls, M.; Domínguez-Poblete, J.; Eddine Touahria, I.; Lu, C. (2018). Integration of Data Distribution Service and distributed partitioned systems. Journal of Systems Architecture. 83:23-31. https://doi.org/10.1016/j.sysarc.2017.11.00123318