Robotic Arm Vision Systems: Advances and Applications in Manufacturing Automation

Year : 2024 | Volume :14 | Issue : 01 | Page : 38-44
By

Raj Mahesh Shinde

Sahil Santosh Kumar Saklecha

Ashutosh Macchindra Shelar

  1. Student Department Electronics & Telecommunication Engineering, Sinhgad College of Engineering, Pune Maharashtra India
  2. Student Department Electronics & Telecommunication Engineering, Sinhgad College of Engineering, Pune Maharashtra India
  3. Student Department Electronics & Telecommunication Engineering, Sinhgad College of Engineering, Pune Maharashtra India

Abstract

Robotics might be defined more practically as the study, development, and use of robot systems for industry. The first industrial robot was made by George Charles Devol, who is commonly regarded to as the father of robotics. Their absolute precision can range from several mms (±5–10 mm, ±0.5–1.8 mm) due to mechanical tolerances, elasticities, temperature, and other factors. Historically, their position can be altered frequently with a modest repeatability error in the submillimeter range of ±0.3 mm. The goal of the Intelligent Industrial Robotic Arm project is to create, develop, and deploy an advanced robotic arm system that will improve and automate a range of industrial manufacturing processes. This project creates a flexible and effective solution for the contemporary production environment by integrating state-of-the-art technologies including sophisticated robotics, computer vision, and artificial intelligence. The goal of the Intelligent Industrial Robotic Arm project is to further automation in production, which will eventually result in more productivity, better-quality products, and safer working conditions. Intelligent technology integration guarantees scalability and adaptability, which makes it a valuable asset in the dynamic field of industrial automation.

Keywords: Robotics, automation, ESP32, microprocessor, artificial intelligence.

[This article belongs to Journal of Instrumentation Technology & Innovations(joiti)]

How to cite this article: Raj Mahesh Shinde, Sahil Santosh Kumar Saklecha, Ashutosh Macchindra Shelar. Robotic Arm Vision Systems: Advances and Applications in Manufacturing Automation. Journal of Instrumentation Technology & Innovations. 2024; 14(01):38-44.
How to cite this URL: Raj Mahesh Shinde, Sahil Santosh Kumar Saklecha, Ashutosh Macchindra Shelar. Robotic Arm Vision Systems: Advances and Applications in Manufacturing Automation. Journal of Instrumentation Technology & Innovations. 2024; 14(01):38-44. Available from: https://journals.stmjournals.com/joiti/article=2024/view=150997




Browse Figures

References

  1. Industrial Robotic Arm” International Research Journal of Engineering and Technology (IRJET) e-
  2. ISSN: 2395 -0056 Volume: 04 Issue: 03 | Mar -2017 www.irjet.net p-ISSN: 2395-0072).
  3. S. Pujari, M. S. Patil, and S. S. Ingleshwar, “Remotely controlled autonomous robot using Android
  4. application”, 2017 IEEE on I-SMAC (IoT in Social, Mobile, Analytics, and Cloud) (I-SMAC), 2017.
  5. R. Mishi, R. Bibi, and T. Ahsan, “Multiple motion control systems of the robotic car based on IoT
  6. to produce cloud service,” 2017 IEEE Electrical, Computer and Communication Engineering
  7. (ECCE), 2017.
  8. Amareswar, G. S. S. K. Goud, K. R. Maheshwari, E. Akhil, S. Aashraya, and
  9. Naveen,”Multipurpose military service robot,” 2017 IEEE,Communication, and Aerospace
  10. Technology (ICECA), 2017.
  11. Nageswara Rao, B.Sridhar, “Iot Based Smart Crop-Field Monitoring And Automation Irrigation
  12. System”, (ICISC 2018) IEEE Xplore Compliant.
  13. Abhilash V, P.K.Mani, “IOT Based Wheeled Robotic Arm” International Journal of Engineering &
  14. Technology, (2.24) (2018) 16-19.
  15. .yothsnadevi1,K.Chandisivapriya,B.Saikrishnateja,L.Nagajyothi,U.Dushyanthkumar “IOT
  16. Controlled Robotic Arm”, International. Journal of Scientific & Engineering Research Volume 10,
  17. Issue 3, March-2019.
  18. Aparna Ajith, Niraj Mohan Nambiar, etc “Saksha-Self Automated Kinematic Smart Haptic Arm”
  19. International Conference on Robotics and Smart Manufacturing (RoSMa2018).
  20. Standard, I. Manipulating industrial robots–vocabulary (1994).
  21. Reinhart, G., Gräser, R.-G., Klingel, R. Qualification of standard industrial robots to cope with sophisticated assembly tasks. CIRP Annals-Manufacturing Technology (1998) 47(1): 1-4.
  22. Young, K., Pickin, C.G. Accuracy assessment of the modern industrial robot. Industrial Robot: An International Journal (2000) 27(6): 427-436
  23. Pérez, L., et al. Robot guidance using machine vision techniques in industrial environments: a comparative review. Sensors (2016) 16(3): 335.
  24. Yuan, J., Yu, S. End-effector position-orientation measurement. IEEE Transactions on Robotics and Automation (1999) 15(3): 592-595.
  25. Zhang, L., et al. Tracking mobile robot in indoor wireless sensor networks. Mathematical Problems in Engineering (2014).
  26. Corke, P., Lobo, J., Dias, J. An introduction to inertial and visual sensing. The International Journal of Robotics Research (2007) 26(6): 519-535.
  27. Kiang, C.T., Spowage, A., Yoong, C.K. Review of control and sensor system of flexible manipulator. Journal of Intelligent & Robotic Systems (2015) 77(1): 187-213.

Regular Issue Subscription Original Research
Volume 14
Issue 01
Received May 1, 2024
Accepted May 15, 2024
Published May 25, 2024