Quadrupedal robots operating in unstructured environments require adaptive control systems that can handle diverse terrain conditions without prior surface characterization. This paper presents an integrated control architecture that combines Model Predictive Control (MPC) with adaptive impedance control and SINDy‐ba...
Peter James McConnellogue, Mien Van, Rhyss McMullan et al.· International Journal of Rob...· 0 citations
This paper presents a proprioception-based rolling control framework for wheeled-quadruped robots. The proposed framework serves as a reactive control approach for adaptive terrain traversal and body stabilization, without explicit motion planning. For wheeled-quadruped robots, adding wheels significantly increases t...
Shi-Chao Zhou, Zhong-Qu Xie, Ling-Kun Chen et al.· Proceedings of the Instituti...· 0 citations
Locomotion on granular terrain is an essential capability for quadrupedal robots in field applications such as planetary exploration: soft soil yields under load, dissipates propulsive energy, and often alternates abruptly with rigid ground. On such substrates, the mismatch between idealized rigid-contact training and...
Jun-Long Guo, Qing-Yang Wang, Peng Tian et al.· IEEE Robotics and Automation...· 0 citations
High nonlinearity and limited computational resources create persistent challenges for achieving autonomous, stable, and accurate locomotion in insect-scale crawling robots, hindering their practical deployment. In this study, we build the mathematical models of the insect-scale micro crawling robot named PLioBot and p...
Qun-Wei Zhu, Tao Jiang, Zi-Rong Luo et al.· Biomimetics· 0 citations
The paper presents proposed Body-State Supervisory Modulation (BSSM) framework integrated with a Dynamic Support Trajectory (DST) to improve hexapod locomotion stability on deformable terrain. Traditional adaptive locomotion techniques, such Environment-Trailed Trajectory (ETT), use force- or trajectory-based activatio...
Spider robots are widely preferred due to their superior mobility enabled by multi-legged structures and articulated joints, which allow effective locomotion on uneven terrain and obstacle negotiation. However, the mechanical complexity of legged systems may lead to limited payload capacity, a high number of moving par...
Yusuf Bolat, Hüseyin Ömerbaşoğlu, Merdan Özkahraman et al.· Konya Journal of Engineering...· 0 citations
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