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    1. Friedrich-Alexander-Universität
    2. Technische Fakultät
    3. Department Informatik
    Friedrich-Alexander-Universität Lehrstuhl für Informatik 7 CS7
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    4. Transmission of Safety-Relevant Sensor Data in Intra-Car Communication Systems

    Transmission of Safety-Relevant Sensor Data in Intra-Car Communication Systems

    Bereichsnavigation: Forschung
    • Quality-of-Service
    • Connected Mobility
    • Smart Energy
    • Frühere Projekte
      • A⁵: Entwicklungsmethode für Fahrerassistenzsysteme auf Basis einer Domänenspezifischen Sprache
      • ACOOWEE – Activity Oriented Programming of Wireless Sensor Networks
      • ALF: Autonomous Localization Framework
      • Analysemethoden für nicht-Markowsche Modelle
      • BioNeting – Bio-inspired Networking
      • CoCar – Cooperative Cars
      • Data Quality and the Control of Automotive Manufacturing
      • Dezentrale Organisation von zukünftigen Energiesystemen basierend auf der Kombination von Blockchains und dem zellularen Ansatz
      • Dienstgütegarantien für Ethernet in der industriellen Kommunikation
      • e-NUE: Co-Simulation elektrifizierter & kommunikationsfähiger Fahrzeuge
      • Energiesystemanalyse Bayern
      • Formale Verifikation und Validierung der virtuellen Absicherung komplexer Fahrzeugsicherheitsfunktionen
      • GeTTeMo – Systematische Generierung von Testszenarien aus benutzungsorientierten Testmodellen
      • HISTORY – HIgh Speed neTwork mOnitoRing and analYsis
      • Hybride Simulation intelligenter Energiesysteme
      • Integrated Modeling Platforms for Computer Infrastructures
      • MaTeLo (Markov Test Logic)
      • Mo.S.I.S. (Modular Software Engineering for Interoperative Systems)
      • Modeling of External and Internal Impact Factors on the Performance of Wireless Local Area Networks
      • Modellunterstützung beim Entwurf, Test und Monitoring von Bildsystemarchitekturen
      • monk-it – Efficient distributed monitoring, attack detection, and event correlation
      • Nebenläufigkeit in zeiterweiterten Benutzungsmodellen zum Test im Automotivebereich
      • p2p4wsn – Efficient Data Management in Mobile Sensor Networks using Peer-to-Peer Technologies
      • Pal-Grid: Ein Umfassendes Simulationsframework für das Palästinensische Stromnetz
      • Privatsphäre in Fahrzeugnetzen
      • ProHTA: Prospective Assessment of Healthcare Technologies
      • Q.E.D. (QoS Enhanced Development Using UML2.0 and TTCN-3)
      • Quality of Service of Networked Embedded Systems
      • Requirements oriented testing with Markov chain usage models in the automotive domain
      • ROSES – Robot Assisted Sensor Networks
      • Security and Quality of Service and Aspects in ZigBee-based Wireless Communication
      • Self-organization of SN-MRS systems
      • Sensitivity Analysis of Queueing Networks
      • Sichere intelligente Mobilität – Testfeld Deutschland
      • SkyNet – Communicating Paragliders
      • Smart Grid Dienste
      • Smart Grid Solar
      • Software-in-the-Loop Simulation and Testing of Highly Dependable Distributed Automotive Applications
      • Support for inter-domain routing and data replication in virtual coordinate based networks
      • SWARM (Storage With Amply Redundant Megawatt)
      • Telematics Services in Hybrid Networks
      • Transmission of Safety-Relevant Sensor Data in Intra-Car Communication Systems
      • Veins 1.0 – Vehicles in Network Simulation
      • Web Cluster Laboratory
      • WinPEPSY-QNS - Performance Evaluation and Prediction System for Queueing Networks

    Transmission of Safety-Relevant Sensor Data in Intra-Car Communication Systems

    Projektbeschreibung

    Currently used airbag systems work independently, consisting of only few external and internal sensors and several firing units. To fulfill the demands of safety in an automotive environment, sensors and controllers are designed redundantly, plausibility tests are performed and activation of actuators is proved against misuse by so-called safing-concepts.
    The connection of different electronic systems within the car – e.g. electronic stability program (ESP) or anticipatory sensors with the airbag control unit (ACU) – leads to new architectures with sensors, actuators and several controllers. As a consequence of the connection, more signals and sensor data are available to the single control units and self-test functions can be integrated in software, increasing the reliability, availability and safety of the system while costs can be reduced as redundant components may become unnecessary.
    Nevertheless, the complexity of the overall system grows with such a distributed design of the intra-car network, especially in terms of predicting performance measures such as latencies, firing times or failure probabilities.
    To overcome this, a method is to be developed to analyze existing design layouts as well as new architecture patterns, taking into account key characteristics of network components (bus system and topology, controller, sensor), investigated scenarios (crash, roll-over, pre-crash phase, pedestrian protection) and common reliability engineering methods (SIL, FMEA, FTA, FEM, discrete and/or continuous simulation, Markov Chains). The method shall be validated by measurements for an actual system configuration on the one hand, while its basic applicability to arbitrary design patterns is to be assured on the other hand. The results are intended to give a sound basis for predicting the system behavior, especially when discussing new layout decisions in industrial committees (VDA) or boards of directors.

    Projektdauer

      2006-12-01 – 2009-11-30

    Projektmitglieder

    • Prof. Dr.-Ing. Reinhard German
    • Dr.-Ing. Thomas Herpel

    Förderer

    • AUDI AG (Ingolstadt)

    Mitwirkende Institutionen

    • Safety-Electronics / Airbag-Control-Systems
    • INI.FAU

    Verwandte Publikationen

    1. Ulrich Klehmet, Thomas Herpel, Kai-Steffen Jens Hielscher und Reinhard German, „Real-Time Guarantees for CAN Traffic,“ 2008 IEEE 67th Vehicular Technology Conference, Piscataway, N.J., Marina Bay, Singapore, pp. 3037-3041, Mai 2008
    2. Ulrich Klehmet, Thomas Herpel, Kai-Steffen Jens Hielscher und Reinhard German, „Delay Bounds for CAN Communication in Automotive Applications,“ Proc. 14th GI/ITG Conference Measurement, Modelling and Evaluation of Computer and Communication Systems, Berlin, Dortmund, Germany, pp. 157-171, März 2008
    3. Ulrich Klehmet, Thomas Herpel, Kai-Steffen Jens Hielscher und Reinhard German, „Worst Case Analysis for Multiple Priorities in Bitwise Arbitration,“ GI/ITG-Workshop MMBnet: Leistungs-, Zuverlässigkeits- und Verlässlichkeitsbewertung von Kommunikationsnetzen und verteilten Systemen, Hamburg, Germany, pp. 27-35, September 2007
    Lehrstuhl Informatik 7 (Rechnernetze und Kommunikationssysteme)
    Friedrich-Alexander-Universität Erlangen-Nürnberg

    Martensstr. 3
    91058 Erlangen
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