In the conventional machining system different tools are used in this like the lathes, boring machines, the milling machines, drilling machines and other machines as well so the sharp cutting tool is also used so that these tools can be helpful in removing the material and to achieve the desired shape or geometry of the material. This is an important factor in reshaping and giving geometry to the products and different metals. Conventional machining of the product is most usually defined as the process in which the mechanical energy is used. In the conventional machining, the product is reshaped and the thing that is demanded in this process is the time and the energy and this will also increase the cost because more time and effort is put in this. Conventional machining system is efficient and it takes time and provides the best product by using the motion emery. A conventional machining system is run by the robots, because the robots are efficient and utilize as the proper time and energy in order to get the required product (Cheng, Tianxi and Yang).

Design and implementation of Robot Mass Finishing

It can be noted that design and implementation is an important part of the project that is being used. In that section, there is detail information about the design of the robot and its implementation

Proposed solution of Robot Mass Finishing

From the given literature review, it can be seen that the proposed robotic mass finishing must be perfect. For that, there is a lot of solution that can be performed for designing robot mass finishing. There are many proposed solutions for mass finishing. But according to the analysis from above, the solution that is recommended is drag finishing technology. With the help of this type of finishing, it will be extremely easy to finish delicate components because it contains a high-intensity process. This type of mass finishing is ideal for such high-value components that are required the perfect finish. 

Implementation of Robot Mass Finishing

From the above information, it can be seen that drag finishing is used in producing high-value components. When there is a need for the ideal finishing of the components, such a method is required for a perfect finish. From the past few years, this technology is emerging all over the industries. This technology is implemented in Orthopedic implants and making different components for the airplane. Moreover, this type of finishing is also applied for manufacturing the boat propellers and gearbox for the automobiles and making different tools. Mainly this technology is implemented when there is quite high pressure is required between the manufacturing of the different pieces.

References of Conventional Machining system of Robot Mass Finishing 

Ahluwalia, K., R. Mediratta and S. H. Yeo. "Experimental Investigation of Fixtured Vibratory Finishing." In Proceedings of the World Congress on Engineering, vol. 2, (2016): 714-718.

Braumann, Johannes and Sigrid Brell-Cokcan. "Parametric robot control: integrated CAD/CAM for architectural design." (2011).

Cheng, Wei, Liu Tianxi and Zhao Yang. "Grasping strategy in space robot capturing floating target." Chinese Journal of Aeronautics (2010).

Dethlefs, Arne, Eckart Uhlmann and Alexander Eulitz. "Investigation of material removal and surface topography formation in vibratory finishing." Procedia CIRP (2014): 25-30.

E., A. Dethlefs Uhlmann and A. Eulitz. "Investigation into a geometry-based model for surface roughness prediction in vibratory finishing processes." The International Journal of Advanced Manufacturing Technology (2014): 815-823.

Ng, Charles WX, et al. "A method for capturing the tacit knowledge in the surface finishing skill by demonstration for programming a robot." In 2014 IEEE International Conference on Robotics and Automation (ICRA) (2014).

Paolo Redaelli. "Surface flow finishing machine." .S. Patent 8,920,215 (2014).

Sugita, Shinichi, T. Itaya and Y. Takeuchi. "Development of robot teaching support devices to automate deburring and finishing works in casting." The International Journal of Advanced Manufacturing Technology (2004).

Uhlmann, Eckart, et al. "Discrete element modelling of drag finishing." Procedia Cirp (2015): 369-374.