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Reinforcement Learning Under Algorithmic Triage

arXiv 2109.11328 ↗First posted 23 Sep 2021cs.LGcited by 15

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Abstract (arXiv)

Methods to learn under algorithmic triage have predominantly focused on supervised learning settings where each decision, or prediction, is independent of each other. Under algorithmic triage, a supervised learning model predicts a fraction of the instances and humans predict the remaining ones. In this work, we take a first step towards developing reinforcement learning models that are optimized to operate under algorithmic triage. To this end, we look at the problem through the framework of options and develop a two-stage actor-critic method to learn reinforcement learning models under triage. The first stage performs offline, off-policy training using human data gathered in an environment where the human has operated on their own. The second stage performs on-policy training to account for the impact that switching may have on the human policy, which may be difficult to anticipate from the above human data. Extensive simulation experiments in a synthetic car driving task show that the machine models and the triage policies trained using our two-stage method effectively complement human policies and outperform those provided by several competitive baselines.

Key facts. Cited by 15 papers in the map (data through 7 Oct 2026). Builds on 32 of its 59 references that are in the map. First posted on arXiv 23 Sep 2021.

Builds on

32 of 59 references.

References · 32

  1. 2017CARLA: An Open Urban Driving Simulatorcited by 2,431
  2. 2016The Option-Critic Architecturecited by 433
  3. 2019SelectiveNet: A Deep Neural Network with an Integrated Reject Optioncited by 333
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  9. 2015An Emphatic Approach to the Problem of Off-policy Temporal-Difference Learningcited by 103
  10. 2019The Algorithmic Automation Problem: Prediction, Triage, and Human Effortcited by 101
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20 more
  1. 2021Differentiable Learning Under Triagecited by 74
  2. 2019Deep Gamblers: Learning to Abstain with Portfolio Theorycited by 69
  3. 2018Shared Autonomy via Deep Reinforcement Learningcited by 65
  4. 2018Learning Policy Representations in Multiagent Systemscited by 48
  5. 2020Classification Under Human Assistancecited by 42
  6. 2019Regression Under Human Assistancecited by 40
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  8. 2018An Off-policy Policy Gradient Theorem Using Emphatic Weightingscited by 34
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  10. 2019Interactive Teaching Algorithms for Inverse Reinforcement Learningcited by 24
  11. 2015On Convergence of Emphatic Temporal-Difference Learningcited by 21
  12. 2018Teaching Inverse Reinforcement Learners via Features and Demonstrationscited by 19
  13. 2019Exploring applications of deep reinforcement learning for real-world autonomous driving systemscited by 18
  14. 2019Learner-aware Teaching: Inverse Reinforcement Learning with Preferences and Constraintscited by 18
  15. 2017The Atari Grand Challenge Datasetcited by 14
  16. 2019Learning to Collaborate in Markov Decision Processescited by 14
  17. 2018Safe Option-Critic: Learning Safety in the Option-Critic Architecturecited by 10
  18. 2020Learning Not to Learn in the Presence of Noisy Labelscited by 9
  19. 2020Is the Most Accurate AI the Best Teammate? Optimizing AI for Teamworkcited by 9
  20. 2017Mathematical Models of Adaptation in Human-Robot Collaborationcited by 2

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