RAAD 2017: Advances in Service and Industrial Robotics pp 621-629 | Cite as
Experimental Results for QuBu Gripper: A 3-Jaw Electric Gripper
Abstract
Main factors influencing modern industrial processes are competition in a global market and more and more customized products. Thanks to new technologies, the idea of the “next day delivery” is becoming a standard for all kind of customers. This requires more flexible, automated and efficient processes. In fact, industrial robots play a fundamental role: they are becoming more and more “smarter”, faster, less expensive and “collaborative”. Therefore, it is clear how the link between the robots use and the integration of manipulation devices is extremely tight. In fact, a correct and smart manipulation allows more effective, efficient and sustainable industrial processes.
The present paper presents an innovative industrial gripper, called “QuBu Gripper”. It shows all steps that have interested the design process and it is focused on the experimental results obtained. The main function of this gripper is to manipulate products belonging to the family “oil ring seals” within an automated robotic molding cell. The criteria that have guided the entire design process, until the implementation and industrialization of the first prototype, are flexibility, versatility, cost rationalization and performance improvement.
Keywords
Industrial manipulation Electric gripper Design process Automation RoboticsNotes
Acknowledgements
This work has been performed under a research project with Freudenberg Sealing Technologies Italia.
References
- 1.IFR (2015) World Robotics 2015 - Industrial RobotsGoogle Scholar
- 2.Gareth RSHS, Monkman J, Hesse S (2007) Robot grippers. Wiley-VCH, WeinheimGoogle Scholar
- 3.Wolf A, Steinmann R, Schunk H (2006) Grippers in motion: the fascination of automated handling tasks. SpringerGoogle Scholar
- 4.Chen FY (1982) Gripping mechanisms for industrial robots: an overview. Mech Mach Theory 17(5):299–311CrossRefGoogle Scholar
- 5.Fantoni G, Gabelloni D, Tilli J (2013) Concept design of new grippers using abstraction and analogy. In: Proceedings of the institution of mechanical engineers, part B: journal of engineering manufactureGoogle Scholar
- 6.Manti M, Hassan T, Passetti G, D’Elia N, Laschi C, Cianchetti M (2015) A bioinspired soft robotic gripper for adaptable and effective grasping. Soft Robot 2(3):107–116CrossRefGoogle Scholar
- 7.Birglen L, Laliberté T, Gosselin CM (2008) Underactuated robotic hands. SpringerGoogle Scholar
- 8.Quaglia G, Butera LG (2016) Study of 3-jaw gripper architectures. In: Advances in robot design and intelligent control. Springer, pp 105–113Google Scholar