Controlling Steering with Energy-Based Models
Mikita Balesni, Ardi Tampuu, Tambet Matiisen

TL;DR
This paper evaluates energy-based models for steering control in self-driving cars, comparing them with explicit models, and finds they handle multimodalities slightly better but do not significantly improve driving performance.
Contribution
It provides an extensive comparison of energy-based and explicit behavioral cloning methods for steering control, highlighting their strengths and limitations in real-world driving tasks.
Findings
Energy-based models perform comparably to explicit models in safety interventions.
They exhibit higher jerk, indicating less smooth steering.
Handling multimodalities slightly better does not significantly improve driving ability.
Abstract
So-called implicit behavioral cloning with energy-based models has shown promising results in robotic manipulation tasks. We tested if the method's advantages carry on to controlling the steering of a real self-driving car with an end-to-end driving model. We performed an extensive comparison of the implicit behavioral cloning approach with explicit baseline approaches, all sharing the same neural network backbone architecture. Baseline explicit models were trained with regression (MAE) loss, classification loss (softmax and cross-entropy on a discretization), or as mixture density networks (MDN). While models using the energy-based formulation performed comparably to baseline approaches in terms of safety driver interventions, they had a higher whiteness measure, indicating higher jerk. To alleviate this, we show two methods that can be used to improve the smoothness of steering. We…
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Taxonomy
TopicsAutonomous Vehicle Technology and Safety · Human-Automation Interaction and Safety · Traffic and Road Safety
