4 accepted papers
Grasping operations constitute a fundamental mechanism for robotic interaction with the environment and task execution, playing a critical role in logistics, unmanned systems, and complex terrain exploration. Conventional rigid grasping devices are often bulky and exhibit limited adaptability and co…
Traditional rigid actuators in soft robotics, particularly for bionic hands, suffer from structural complexity, bulkiness, and limited biomimetic motion. To address these limitations, we developed an electrospun composite fiber membrane composed of thermoplastic polyurethane (TPU) and liquid crystal…
As autonomous driving technology transitions from small-scale validation to large-scale deployment, its development in unstructured road environments has become a critical and inevitable trend. Autonomous vehicles increasingly rely on high-quality and diverse datasets for perception systems. However
Fueled by the rapid evolution of robotics, the demand for intelligent and lightweight robotic systems continues to grow across industries. However, conventional designs often separate sensing and actuation, resulting in structural complexity and diminished reliability. While integrated sensor-actuat