Autonomous systems are expected to execute increasingly complex tasks in dynamic environments, often in close proximity to or in cooperation with humans, within the context of mobility and cooperative controls. However, achieving effective perception, scene understanding, and safe decision-making while interacting with humans is highly challenging due to computational and processing constraints, model uncertainties, and safety concerns. The goal of this fundamental research at the NODE Lab is to enable reliable operation of autonomous systems in complex scenarios, enhance their resilience to disturbances in dynamic environments, and identify human objectives for cooperative tasks.
J Weng, E Hashemi, A Arami
Human gait cost function varies with walking speed: An inverse optimal control study
IEEE Robotics and Automation LettersÂ
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Ehsan Hashemi, Milad Jalali, Amir Khajepour, Alireza Kasaiezadeh, Shih-ken Chen
Vehicle stability control: Model predictive approach and combined-slip effect
IEEE/ASME Transactions on Mechatronics
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Ehsan Hashemi, Xingkang He, Karl Henrik Johansson
A dynamical game approach for integrated stabilization and path tracking for autonomous vehicles
2020 American Control Conference (ACC)
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Ehsan Hashemi, Yechen Qin, Amir Khajepour
Slip-aware driver assistance path tracking and stability control
Control Engineering Practice
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Jiacheng Weng, Ehsan Hashemi, Arash Arami
Natural walking with musculoskeletal models using deep reinforcement learning
IEEE Robotics and Automation Letters
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Abdullah Yeaser, James Tung, Jan Huissoon, Ehsan Hashemi
Learning-aided user intent estimation for smart rollators
IEEE EMBC 2020
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