If you are an automotive OEM or Tier-1 supplier designing interiors for highly automated vehicles — this project developed omnidirectional human body models and a virtual assessment demonstrator that lets you test occupant safety for reclined and rotated seating positions without building physical prototypes for each configuration. With 17 industry partners already involved in a EUR 6,989,395 effort, the tools are designed for real engineering workflows.
Virtual Crash Testing Tools That Make Automated Vehicle Interiors Safer
When self-driving cars let passengers recline, swivel, or face each other, traditional crash dummies and test procedures don't cut it anymore. OSCCAR built realistic digital human body models that can simulate how real people — young, old, different body types — get injured in crashes from any direction. Think of it as replacing expensive physical crash tests with highly accurate computer simulations that work for seating positions that don't even exist yet. The project also created a roadmap for regulators to accept these virtual tests instead of requiring every scenario to be physically crashed.
What needed solving
Automated vehicles introduce seating positions — reclined, rotated, facing backward — that current crash test dummies and physical test procedures were never designed for. Running physical crash tests for every possible seat configuration is prohibitively expensive, and regulators have no accepted virtual testing methods yet. Companies developing automated vehicle interiors are stuck between innovation and safety compliance.
What was built
OSCCAR delivered three key demonstrators: a homologation scenario demonstration using advanced harmonized human body models, a demonstrator for continuous integrated virtual assessment of complex crash simulations, and the openPASS software tool customized for integrated safety assessment of future accident scenarios. In total, 20 deliverables were produced.
Who needs this
Who can put this to work
If you are a simulation software provider looking to expand your crash testing capabilities for next-generation vehicles — this project delivered the openPASS software tool for integrated safety assessment and harmonized human body models validated across multiple crash scenarios. These tools can be integrated into existing simulation platforms to address the growing demand from OEMs designing automated vehicle interiors.
If you are a testing lab or certification body preparing for regulation changes around automated vehicles — this project delivered a homologation scenario demonstration using advanced harmonized human body models, providing a concrete path toward virtual type approval. With 26 consortium partners across 8 countries, the results carry weight with European regulators.
Quick answers
How much would it cost to license or access these virtual crash testing tools?
The project does not publish specific licensing costs. The openPASS tool is built on an open-source platform, which may reduce access barriers. For the human body models and integrated assessment demonstrator, licensing terms would need to be negotiated with the coordinator, Virtual Vehicle Research GmbH.
Can these virtual testing methods work at industrial scale for full vehicle development programs?
Yes — the project specifically built a demonstrator for continuous integrated virtual assessment of complex crash simulation tasks including human body models. This was designed to replace or supplement physical crash tests at production-engineering scale. The 65% industry ratio in the consortium (17 out of 26 partners) confirms the tools were developed with industrial application in mind.
What is the IP situation — who owns the results?
IP ownership typically follows EU Horizon 2020 rules, where each partner owns the results they generate. The coordinator Virtual Vehicle Research GmbH (Austria) would be the first point of contact for licensing discussions. The openPASS component uses an open-source approach, while the human body models likely have separate licensing terms.
How do these tools align with upcoming vehicle safety regulations?
The project delivered a homologation scenario demonstration specifically designed to show how virtual methods can support type approval. OSCCAR also contributed to harmonization of human body models and injury criteria, which feeds directly into Euro NCAP and UN regulation discussions for automated vehicles.
How long before these tools can be integrated into our existing simulation workflows?
The project ended in November 2021, and key deliverables including the virtual assessment demonstrator and the openPASS software tool were completed. Integration timelines depend on your existing CAE infrastructure, but the tools were built to work within standard crash simulation environments.
Does this only work for passenger cars, or also for other vehicle types?
Based on the project objective, the methods were primarily developed for cars, but the roadmap explicitly mentions applicability to two-wheelers, vulnerable road users, and even sports safety. The underlying human body models and virtual testing methods are vehicle-type agnostic.
Who built it
This is a heavyweight consortium with 26 partners across 8 countries, and a striking 65% industry ratio (17 industry partners out of 26). That signals this was not an academic exercise — the tools were built with direct input from the companies that would use them. The coordinator, Virtual Vehicle Research GmbH from Austria, is classified as an SME and a research organization, giving it the agility to commercialize results. The geographic spread across AT, BE, CN, DE, ES, FR, NL, and SE covers all major European automotive markets plus China, which strengthens the case for global applicability. With EUR 6,989,395 in EU funding and 7 universities backing the science, the technical credibility is solid.
- VIRTUAL VEHICLE RESEARCH GMBHCoordinator · AT
- AUTOLIV DEVELOPMENT ABparticipant · SE
- LUDWIG-MAXIMILIANS-UNIVERSITAET MUENCHENparticipant · DE
- TECHNISCHE UNIVERSITAET GRAZparticipant · AT
- ROBERT BOSCH GMBHparticipant · DE
- VOLVO PERSONVAGNAR ABparticipant · SE
- TOYOTA MOTOR EUROPE NVparticipant · BE
- MERCEDES-BENZ AGparticipant · DE
- RHEINISCH-WESTFAELISCHE TECHNISCHE HOCHSCHULE AACHENparticipant · DE
- KEYSIGHT TECHNOLOGIES FRANCE S.A.S.participant · FR
- ESI GERMANY GMBHthirdparty · DE
- TSINGHUA UNIVERSITYparticipant · CN
- IDIADA Fahrzeugtechnik GmbHthirdparty · DE
- UNIVERSITE DE STRASBOURGparticipant · FR
- AUTOLIV SVERIGE ABthirdparty · SE
- IDIADA AUTOMOTIVE TECHNOLOGY SAparticipant · ES
- SIEMENS INDUSTRY SOFTWARE NVparticipant · BE
- SIEMENS INDUSTRY SOFTWARE NETHERLANDS BVparticipant · NL
- UNIVERSITY OF STUTTGARTparticipant · DE
- FKA GMBHthirdparty · DE
- VOLKSWAGEN AKTIENGESELLSCHAFTparticipant · DE
- BUNDESANSTALT FUER STRASSEN-UND VERKEHRSWESENparticipant · DE
- CHALMERS TEKNISKA HOGSKOLA ABparticipant · SE
Virtual Vehicle Research GmbH (Austria) — contact via project website or SciTransfer introduction
Talk to the team behind this work.
Want to connect with the OSCCAR team to explore licensing the virtual crash testing tools or human body models for your vehicle development program? SciTransfer can arrange a direct introduction.