H-MaP: An Iterative and Hybrid Sequential Manipulation Planner

This study introduces the Hybrid Sequential Manipulation Planner (H-MaP), a novel approach that iteratively does motion planning using contact points and waypoints for complex sequential manipulation tasks in robotics. Combining optimization-based methods for generalizability and sampling-based methods for robustness, H-MaP enhances manipulation planning through active contact mode switches and enables interactions with auxiliary objects and tools. This framework, validated by a series of diverse physical manipulation tasks and real-robot experiments, offers a scalable and adaptable solution for complex real-world applications in robotic manipulation.

FViT-Grasp: Grasping Objects With Using Fast Vision Transformers

This study addresses the challenge of manipulation, a prominent issue in robotics. We have devised a novel methodology for swiftly and precisely identifying the optimal grasp point for a robot to manipulate an object. Our approach leverages a Fast Vision Transformer (FViT), a type of neural network designed for processing visual data and predicting the most suitable grasp location. Demonstrating state-of-the-art performance in terms of speed while maintaining a high level of accuracy, our method holds promise for potential deployment in real-time robotic grasping applications. We believe that this study provides a baseline for future research in vision-based robotic grasp applications. Its high speed and accuracy bring researchers closer to real-life applications.