日本フィジカルAI新聞

世界のフィジカルAIを、日本語で。

人間機械系/運転支援arXiv:2104.06264

CANコーチ:人間のサイバーフィジカルシステムによる車両制御

CAN Coach: Vehicular Control through Human Cyber-Physical Systems

シェア:XThreadsFacebookLINEはてブBluesky

CANバスから得られるレーダー情報(前方車両との相対速度・位置)を音声フィードバックとして運転者に提示し、車間時間制御の精度が平均73%向上することを実証した研究。

著者: M. Nice, S. Elmadani, R. Bhadani, M. Bunting, J. Sprinkle, D. Work

分類: cs.RO, cs.SY, eess.SY

原文アブストラクト

This work addresses whether a human-in-the-loop cyber-physical system (HCPS) can be effective in improving the longitudinal control of an individual vehicle in a traffic flow. We introduce the CAN Coach, which is a system that gives feedback to the human-in-the-loop using radar data (relative speed and position information to objects ahead) that is available on the controller area network (CAN). Using a cohort of six human subjects driving an instrumented vehicle, we compare the ability of the human-in-the-loop driver to achieve a constant time-gap control policy using only human-based visual perception to the car ahead, and by augmenting human perception with audible feedback from CAN sensor data. The addition of CAN-based feedback reduces the mean time-gap error by an average of 73%, and also improves the consistency of the human by reducing the standard deviation of the time-gap error by 53%. We remove human perception from the loop using a ghost mode in which the human-in-the-loop is coached to track a virtual vehicle on the road, rather than a physical one. The loss of visual perception of the vehicle ahead degrades the performance for most drivers, but by varying amounts. We show that human subjects can match the velocity of the lead vehicle ahead with and without CAN-based feedback, but velocity matching does not offer regulation of vehicle spacing. The viability of dynamic time-gap control is also demonstrated. We conclude that (1) it is possible to coach drivers to improve performance on driving tasks using CAN data, and (2) it is a true HCPS, since removing human perception from the control loop reduces performance at the given control objective.

  1. 1Boston Dynamics、車輪付きAtlasの研究試作機を紹介研究・技術
  2. 2Hugging Face、ロボット学習基盤「LeRobot v0.7.0」を公開 対話操作と大規模データ学習に対応新製品・発表
  3. 3AGIBOTのG2 6台、上海のコンビニで24時間試験 1,730タスクを実施量産・展開
  4. 4Agility Robotics、ナスダックで取引開始 米国初の人型ロボット専業上場企業と報道業界動向
  5. 5UC BerkeleyとNVIDIAの研究者、AIエージェントでロボット制御コードを仮想環境で改善研究・技術
PR本紙発行元 EmplifAI