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Quadratic programming and impedance control for transfemoral prosthesis.

, , and . ICRA, page 1341-1347. IEEE, (2014)

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Bipedal robotic running with partial hybrid zero dynamics and human-inspired optimization., , and . IROS, page 1821-1827. IEEE, (2012)Human-inspired walking via unified PD and impedance control., , , and . ICRA, page 5088-5094. IEEE, (2014)First steps toward translating robotic walking to prostheses: a nonlinear optimization based control approach., , , , and . Auton. Robots, 41 (3): 725-742 (2017)Realization of nonlinear real-time optimization based controllers on self-contained transfemoral prosthesis., , , , and . ICCPS, page 130-138. ACM, (2015)Human-inspired multi-contact locomotion with AMBER2., , , and . ICCPS, page 199-210. IEEE Computer Society, (2014)Demonstration of locomotion with the powered prosthesis AMPRO utilizing online optimization-based control., , , , and . HSCC, page 305-306. ACM, (2015)Multicontact Locomotion on Transfemoral Prostheses via Hybrid System Models and Optimization-Based Control., , , , and . IEEE Trans. Automation Science and Engineering, 13 (2): 502-513 (2016)A hybrid systems and optimization-based control approach to realizing multi-contact locomotion on transfemoral prostheses., , , , and . CDC, page 1607-1612. IEEE, (2015)Learning impedance controller parameters for lower-limb prostheses., , , , , and . IROS, page 4268-4274. IEEE, (2013)Outputs of human walking for bipedal robotic controller design., , , and . ACC, page 4843-4848. IEEE, (2012)