Frugal mechatronic design and assembly of robotic hand using additive manufacturing
DOI:
https://doi.org/10.5281/zenodo.15127411Keywords:
robotic hand, Mechatronics design, Frugal innovation, Additive manufacturing, robotsAbstract
This manuscript presents the design and assembly of a robotic hand obtained through the implementation of a sequential mechatronic design methodology, with a frugal innovation approach, which allowed for achieving a low-cost, open-architecture mechatronic system. First, the modeling, manufacturing, construction, and assembly process is presented through CAD modeling and 3D printing. Subsequently, the modeling process of the mechanical design is shown using the Fusion 360 software, which allowed for modeling the joint movement of the fingers of the hand, obtaining modifiable, reproducible, and scalable parts and mechanisms, to study the various manipulation and grip functions. In terms of mobility, it can imitate the complex functionality of a real human hand. Using a virtual reality model was generated to visualize the final design, before its instrumentation and construction. Finally, the actual manufacturing and assembly of the hand were carried out to validate the theoretical design and mobility proposal.
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