Human Centered Autonomy
Katie Driggs-Campbell Electrical and Computer Engineering Coordinated Science Laboratory University of Illinois at Urbana-Champaign
Human Centered Autonomy Katie Driggs-Campbell Electrical and - - PowerPoint PPT Presentation
Human Centered Autonomy Katie Driggs-Campbell Electrical and Computer Engineering Coordinated Science Laboratory University of Illinois at Urbana-Champaign Canonical tasks State estimation Internal state estimation Motion
Katie Driggs-Campbell Electrical and Computer Engineering Coordinated Science Laboratory University of Illinois at Urbana-Champaign
▪ Canonical tasks
‐ State estimation ‐ Internal state estimation ‐ Motion prediction ‐ Motion planning
▪ Input Features ▪ Dataset ▪ Model Scope ▪ Evaluation Metrics
In Informative Models ls Robust Mod
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Empir iric ical l Reachable le Se Sets ts
Approximate stochastic reachability with an empirical reachable set, by: maximizing precision while maintaining accuracy argminΔ⊂ℝ𝑜 𝜇(Δ) subject to 𝑄
𝑌 Δ ≥ 𝛽
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Opti timiz izin ing Dis isturbances for r Reachable le Se Sets ts Empir iric ical l Reachable le Se Sets ts
Approximate stochastic reachability with an empirical reachable set, by: maximizing precision while maintaining accuracy argminΔ⊂ℝ𝑜 𝜇(Δ) subject to 𝑄
𝑌 Δ ≥ 𝛽
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Intervention Function
𝑙 𝛽, 𝜐 = ቊ1 , if ∃𝑙 𝑡. 𝑢. Δ𝑙 ∩ 𝒟𝑙 ≥ 𝜐 0 , otherwise
Driver Prediction Model Predictive Control Environment Model
If we can identify the driver state and effectively predict their likely behavior, can we design better, less invasive active safety systems?
ITS 2014.
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If we can predict likely driver responses in cooperative maneuvers, can we design autonomous systems that can effectively integrate with human drivers?
cost function subject to dynamic feasibility safety constraints: <insert human model>
Intelligent Transportation, 2017.