Design and Simulation of a Novel Hybrid Leg Mechanism for Walking Machines

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Demirel, Murat
Kiper, Gökhan

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Abstract

This paper introduces a novel hybrid structure design that is composed of rigid links and cables for a robotic leg with static walking. The proposed mechanism is characterized by actuated hip joints, passive knee joints and an actuated prismatic foot joint. The foot is the moving platform of the proposed mechanism which possesses pure translational motion due to the passive parallelograms with cables. Kinematic analysis has been worked out for evaluating a typical human-like gait trajectory. A 3-D model has been developed and simulation are made in SolidWorks® environment. Simulation results show that the proposed mechanism is able to perform an ovoid walking cycle of a foot point and the computed actuator torques and forces are in a feasible range for a low-cost and easy-operation design. The simulation results will be used for a prototype construction in a future work.

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Keywords

Walking machines, Hybrid mechanisms, Leg mechanisms, Static walking simulation, Static walking simulation, Leg mechanisms, Hybrid mechanisms, Walking machines

Fields of Science

0209 industrial biotechnology, 0203 mechanical engineering, 02 engineering and technology

Citation

Demirel, M., Carbone, G., Ceccarelli, M., and Kiper, G. (2018). Design and Simulation of a Novel Hybrid Leg Mechanism for Walking Machines. In Doroftei I., Oprisan C., Pisla D., & Lovasz E. (Eds.), New Advances in Mechanism and Machine Science. Mechanisms and Machine Science, (pp. 283-290). Springer, Cham.doi:10.1007/978-3-319-79111-1_28

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1

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57

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Start Page

283

End Page

290
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Scopus : 3

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Mendeley Readers : 5

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