Drivers' Manoeuvre Modelling and Prediction for Safe HRI
- URL: http://arxiv.org/abs/2106.01730v1
- Date: Thu, 3 Jun 2021 10:07:55 GMT
- Title: Drivers' Manoeuvre Modelling and Prediction for Safe HRI
- Authors: Erwin Jose Lopez Pulgarin, Guido Herrmann, Ute Leonards
- Abstract summary: Theory of Mind has been broadly explored for robotics and recently for autonomous and semi-autonomous vehicles.
We explored how to predict human intentions before an action is performed by combining data from human-motion, vehicle-state and human inputs.
- Score: 0.0
- License: http://creativecommons.org/licenses/by-nc-nd/4.0/
- Abstract: As autonomous machines such as robots and vehicles start performing tasks
involving human users, ensuring a safe interaction between them becomes an
important issue. Translating methods from human-robot interaction (HRI) studies
to the interaction between humans and other highly complex machines (e.g.
semi-autonomous vehicles) could help advance the use of those machines in
scenarios requiring human interaction. One method involves understanding human
intentions and decision-making to estimate the human's present and near-future
actions whilst interacting with a robot. This idea originates from the
psychological concept of Theory of Mind, which has been broadly explored for
robotics and recently for autonomous and semi-autonomous vehicles. In this
work, we explored how to predict human intentions before an action is performed
by combining data from human-motion, vehicle-state and human inputs (e.g.
steering wheel, pedals). A data-driven approach based on Recurrent Neural
Network models was used to classify the current driving manoeuvre and to
predict the future manoeuvre to be performed. A state-transition model was used
with a fixed set of manoeuvres to label data recorded during the trials for
real-time applications. Models were trained and tested using drivers of
different seat preferences, driving expertise and arm-length; precision and
recall metrics over 95% for manoeuvre identification and 86% for manoeuvre
prediction were achieved, with prediction time-windows of up to 1 second for
both known and unknown test subjects. Compared to our previous results,
performance improved and manoeuvre prediction was possible for unknown test
subjects without knowing the current manoeuvre.
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