The main impacted areas are as follows:
- Automotive sensory data fusion and aggregation: VI-DAS has proposed a multi-core, multi-CPU hardware architecture capable of connecting multiple units for carrying out the computational load required for the processing of the perception, understanding and act activities.
Additionally, VI-DAS has produced the VCD metadata format, currently being standardised.
- Driver State Monitoring: VI-DAS has proposed a personalised driving and driver models based on non-intrusive parameters and flexible model building which are pre-trained but fined tune with each individual driver’s data. This approach helps to really understand the Individual State of the Diver.
- Driver modelling and risk evaluation: VI-DAS takes a steps towards the correct scene analysis of critical situations by categorisation of databases of accidents, near crash cases and difficult driving situations and driving errors; the prediction of the dynamic evolution of the traffic using v-SLAM technology and object tracking; the estimation of the consequences in terms of risk and utility by quantification of the cost of an expected event and the associate damage; and in the evaluation and selection of the most appropriate behavioural choice, leading to corresponding driver support actions or notifications
- Confidence estimation to support risk estimation: VI-DAS proposes an in the confidence estimation techniques for next-generation real-time techniques from artificial intelligence, specifically for deep learning. VI-DAS has explored an advanced concept on simulation-in-the-loop. In this approach, the LDM has been used as a basis for simulating the expected multi-modal sensory inputs.
- Developing, verifying and validating safety SW: New testing method and testing automation for (semi-)autonomous vehicles. Two software tools have been mainly used: RTMaps, created by Intempora, and PreScan, created by TASS. These tools have evolved within the project including new functionalities developed to provide support to the demanding requirements of testing and integration. Furthermore, an innovative Human-Centred Method has been implemented considering accidents and driving errors analysis in the design of VI- DAS prototypes.
- Efficient, customizable and optimized HMI: On the fly allocation of the HMI channel to be used in the holistic environment. The major advance in this field is the development of personalised cognitive-aware modality allocation systems that is based on driving models and scene understanding obtained from the sensors. By including the driver’s information processing characteristics, personal driving modes and situational context, automatic adaptive multimodal HMI systems have been generated for improving safety and comfort.
- Connected component security: The EVRA method has been enhanced by applying the inter-system communication-centric STRIDE-per-element threat analysis methodology.
- Insurance and legal innovation: VI-DAS has embedded insurance considerations within the technical outcomes of the project. This allowed the project to estimate both the auto liability reduction and the product liability increase for the VI-DAS car.