Optimizing the use of an electric vehicle such that energy consumption, battery aging and operational costs are minimal while constraints are kept is a wicked problem with many uncertain, non-observable or unknown factors. AI technologies help here with decision support in logistics and energy estimations within the vehicle. However, separating these concerns disregards that operational decisions do not only set a vehicle's current behavior, but also impact its ability to perform in the future. We address this interweaving of current behavior and the future development of the situation as well as of the vehicles capabilities within a novel dual awareness loop that combines situation awareness with inner system reflection. Providing a probabilistic reasoning system, we demonstrate this for an electric vehicle use case, where we concurrently diagnose and predict the vehicle's state and thus its capabilities given past, current, and expected operations that in turn depend on the predicted situation. This allows for better predictions of range and risks given expected situations, environmental effects, and consequences of decisions, providing for decision support within an operational strategy.
Risk-Averse Decision Support for Optimal Use of Electric Vehicles
2024-09-24
829825 byte
Conference paper
Electronic Resource
English
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