OOSCCAR uses a comprehensive integrated approach for the development of future advanced occupant protection systems. It will provide a unique human body model (HBM)-based development and assessment framework, covering main challenges of future road safety due to the introduction of highly automated vehicles as well as changes in demographics: relevant accident scenarios (mixed traffic), future vehicle interior designs, new occupant sitting positions, ageing population etc. This demands for targeted changes and adaptions of scenarios, procedures and tools for occupant safety development, assessment and homologation, not addressed by e.g. regulations or consumer crash tests today. The resulting complexity requires an emphasis on virtual methods. Based on the analysis of future relevant accident scenarios and considering new, highly automated vehicles (HAVs) enabled sitting positions, OSCCAR will develop and demonstrate advanced occupant protection principles. These require assessment with improved HBMs (omni-directionally biofidelic, active and robust), considering gender and demographic factors as well as improved soft tissues material properties. Furthermore, OSCCAR will develop fully integrated assessment methods for complex test scenarios of the complete crash phase providing the required level of confidence as current physical test procedures do. OSCCAR will also contribute to the harmonization of HBMs, a harmonized validation of injury criteria as well as the improvement of virtual testing standards. Eventually OSCCAR will develop a clear roadmap towards large scale implementation of virtual testing methods for advanced safety solutions, not only relevant in the automotive domain but also for two-wheelers, VRUs, or in sports. Due to its excellent partner consortium with key players from industry and research from Europe, North America and Asia, OSCCAR is in the position to ensure global future deployment and application of its results and achievements.

SIMUTOOL will develop a simulation platform for the manufacturing of composites through microwave MW heating. The simulation will include the electromagnetic field coupled with heat transfer mechanisms that take place during the production process. It will also include the process control loop which will enable the optimum design of the manufacturing process One of the major outputs of the simulation platform will be the successful design of a ceramic matrix composite tool with a MW absorbing layer in order to maximise the energy saving potential of the MW heating process. The project addresses the manufacturing issues of MW heating of composites which stem from the lack of understanding of the basic physics of the process (the most important item being how carbon fibers interact with the microwave field). The project will increase the Technology Readiness Level (TRL) of the MW heating of composites process to 6-7 -