Aug 2026· Journal of Computer Science and Artificial Intelligence· Vol 8, pp. 12-16· 0 citations· 18 references
TL;DR
This paper identifies several common challenges encountered during industry deployment, including insufficient stability in recognizing complex scenes, difficulty balancing computational power with recognition accuracy, significant gaps between simulation training and real-world conditions, and a lack of unified application standards across industries.
Abstract
Currently, most commercial robots rely on fixed programs to perform repetitive tasks. The visual modules equipped on these devices have limited anti-interference capabilities, making it difficult to adapt to complex structures and variable environments, which in turn limits the practical effectiveness of robotic intelligence deployment. Drawing from hands-on experience in robot debugging and project implementation, this paper explores the integration of computer vision and embodied intelligence. Based on common application scenarios such as industrial sorting, power inspection, and intelligent services, it analyzes specific methods by which visual technologies assist robots in environmental perception, intelligent decision-making, motion adjustment, and model updating. The study identifies several common challenges encountered during industry deployment, including insufficient stability in recognizing complex scenes, difficulty balancing computational power with recognition accuracy, significant gaps between simulation training and real-world conditions, and a lack of unified application standards across industries. Addressing these practical issues, the paper proposes feasible improvement strategies from four perspectives: algorithm enhancement, computational power upgrade, simulation optimization, and the establishment of industry standards. The conclusions drawn from this research offer practical insights for advancing robot vision technology, expanding application scenarios, and promoting standardized development within the industry.
Robotic grasping is a crucial step in enabling practical robotic applications, and many scholars in the robotics field have conducted long-term and in-depth studies in this area. In recent years, embodied intelligent systems driven by large models have demonstrated remarkable potential in robotic grasping tasks. By int...
Xu Lu, Hai-Jun Liu, Hanyuan Huang et al.· Proceedings of the Instituti...· 0 citations
As manufacturing tasks become increasingly complex and dynamic, traditional automation solutions struggle to keep up with rapidly changing markets and the demand for highly customized products. Smarter, self-governing manufacturing systems are needed. This research aims to develop an autonomous robotic assembly system...
Fouzan Abdullah, R. Moraga, Christy Nguyen et al.· IISE Annual Conference &...· 0 citations
The review finds that multimodal fusion and semantic SLAM are overcoming perception bottlenecks, that deep learning and force/position hybrid control are balancing flexible adaptability with high-precision operation, and that deep reinforcement learning and large models are advancing intelligent process planning.
Zheng-Yang Chen· Advances in Engineering Inno...· 0 citations
With the digitalization of industry, the need for reliable and interpretable robotic systems for object manipulation is growing. This paper examines an integrated ROS-based system that provides a complete cycle from visual object detection to its grasping and movement. The goal of the study is to develop a unified arch...
P. Rakhmetova, A. Rysbaeva, L. Kurmangaliyeva et al.· Bulletin of the National Eng...· 0 citations
This work aims to establish a unified perspective on vision-based mistake analysis in procedural activities, highlighting its potential across diverse domains and aspects and categorizing approaches based on their use of procedural structure, supervision levels and learning strategies.
Konstantinos Bacharidis, Antonis A. Argyros, Hazel Doughty· 0 citations
This work introduces a dual-process architecture that combines the strengths of robust reasoning and learning in a neuro-symbolic perspective on nonlinear motion planning and suggests that tightly coupling learning with structured reasoning offers a scalable path toward more capable and adaptive robotic systems.
Jia-Yi Yan, Francesco Fabiano, Alessandro Abate· 1 citation
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