2019· International Journal of Intelligent Automation & Robotics Engineering· 0 citations
TL;DR
A deep examination of the vision-based object manipulation through collaborative robotics with respect to perception pipelines, object detection and recognition, pose estimation, grasp planning, and real time control integration is given.
Abstract
The use of collaborative robots (cobots) is slowly being implemented in human-to-robot workplaces owing to the flexibility, safety, and versatility. Object manipulation Object handle Object handle Vision handled objects, Vision-based object handling as an enabling technology has become a critical inhibition technology for cobots enabling them to perceive, identify, localize and further manipulate objects in dynamic and unstructured environments. Compared to the old-fashioned industrial robotic systems, which use pre-set paths and absolute positioning of the objects, the collaborative robotic systems have to work under uncertainty, different lighting regimes, obstructions and human interference. This paper will give a deep examination of the vision-based object manipulation through collaborative robotics with respect to perception pipelines, object detection and recognition, pose estimation, grasp planning, and real time control integration. A literature review is carried out to examine both classical and deep learning-based vision methods implemented in co-operation manipulation problems. The suggested methodology includes a stepwise vision-based object manipulation system that combines the use of RGB-D sensing, the convolutional neural net-based object identification, and visual servo control in executing a closed-loop object manipulation. The performance measures that are discussed include accuracy of detection, success rate of grasp and latency to perform the grasping action. Results of the experiment with typical collaborative tasks prove the efficiency of vision-based systems in enhancing the adaptability and safety. Lastly, the paper identifies the major issues, among them real-time limits, robustness, and human conscious perception and presents research directions in future towards intelligent, autonomous, and reliable collaborative robotic systems.
The outcomes demonstrate the efficacy of combining edge intelligence with closed-loop robotic control by confirming consistent behavior throughout simulation and limited physical testing.
Xiaoming Liu, Wei Su, Jie Zhang et al.· Scientific Reports· 0 citations
A novel 7-DoF grasping pose generation framework that integrates sparse attention and null convolution is introduced, which enhances the model’s ability to capture fine-grained features from point clouds, significantly improving the accuracy of parallel gripping pose estimation.
Hui Zhang, Yue Wang, Kang An et al.· Signal, Image and Video Proc...· 0 citations
The integration of robotic systems with machine learning and computer vision has become increasingly critical in automating systems. This is specifically essential to accomplish complex and different tasks, hence enabling intelligent systems to operate with minimal human intervention. These tasks include object recognition, classification, and manipulation. However, accurate object localization and manipulation pose challenges for robotic systems relying on non-calibrated cameras due to positional inaccuracies. This paper introduces a new non-calibrated camera mapping technique to enhance precision in robotic pick-and-place operations. To this end, a robotic arm controller is implemented to pick and place objects using efficient machine learning and computer vision techniques. The proposed approach is used to pick and place different objects that are identified and labeled by certain classes and sorted accordingly. The location of the objects is found using a proposed non-calibrated camera approach. This approach eliminates the need for expensive calibration procedures while maintaining high accuracy. The proposed method is evaluated by comparing actual object locations with those found using the camera mapping, resulting in a 2.458% error rate. In addition, a comparison with other non-calibrated camera approaches demonstrated that the proposed method achieved higher accuracy and lower errors. These results show promise for applications in industrial automation and robotics systems.
Asma T. Saadoon, Abdulrazzaq M. Kamil, Ahmed A. Jasim et al.· Iraqi Journal of Science· 0 citations
This work added YOLO-based object and hand detection, stereo vision-based localization using the robot's built-in low-resolution fisheye cameras, and task-specific corrections for grasp execution to form a novel calibration-based grasping pipeline that does not require RGB-D cameras, motion capture, or external tracking systems.
Developing a human-robot collaborative workplace is the solution to perform faster and more efficient tasks by merging human cognition, awareness, and consciousness with the robot’s power generation, capacity, and precision. In this paper, we address the problem of manipulating linear deformable objects such as cables, ropes, or textiles in a collaborative setup.The proposed method is based on a real-time model-based control algorithm used to position a given point belonging to the object, which is grasped by a human and a robot at its endpoints. The basis of this method lies in (i) the theory of catenaries for modeling the object’s deformation in real-time (ii) the formulation of an interaction matrix representing the robot controller gradient to reach the target position. The experimental results show that the proposed method is reactive to human motion during manipulation and able to reach the desired position accurately.
Racha Ghaddar, A. Koessler, Mourad Benoussaad et al.· 2026 IEEE/ASME International...· 0 citations
Experiments show that M-VTOP achieves sub-millimeter accuracy under complex geometries, occlusions, and tight tolerances, demonstrating its promise for high-precision robotic manipulation.
M. Oller, Qiyang Qian, Radu Corcodel et al.· 0 citations