3D4UR

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3D4UR, also known as "space for undefined reciprocal-axes rotation," is a geometric modeling technique developed to better understand and be able to generate digital models of complex physical objects. It has wide applications in areas such as 3D printing, CAD/CAM and robotics. This article will discuss the application field and working principle of 3D4UR and how it can be used to create more intricate digital models.

The application field of 3D4UR ranges from designing complex 3D models to simulation and motion control. It has been used in digital design for 3D printing, CAD/CAM, robotics, aerospace, biomedicine and more.

The working principle of 3D4UR lies in its ability to achieve a minimum number of parameters to form a reciprocal-axes rotation model. A 3D4UR model is generated via a mechanism that assembles mechanical parameters respectively in X, Y and Z-axis, which is then used to control the physical behavior of the complex object. The mechanism consists four parts, with the first part as the rotatable reciprocal-axis along X, Y and Z-axis, the second part is a cylindrical guide, the third part is a floating control mechanism and the last part is a local friction compensation system. With the help of a 3D4UR model, users can generate more accurate and intricate digital models in 3D design of 3D printing, CAD/CAM, robotics, and other 3D applications.

In 3D printing, 3D4UR can be used to generate models with high geometrical complexity with accuracy and precision. With 3D4UR, 3D printed models are able to achieve a higher degree of geometric accuracy and detail. In CAD/CAM, 3D4UR can be used to design and manufacture molds and dies more efficiently and accurately. The model generated with 3D4UR provides more realistic results that can be used as templates for CNC machining. In robotics, 3D4UR can be used to better understand the dynamics of robotic motion and control robots in accurate and complicated positions with less effort.

In conclusion, 3D4UR enables users to generate complex digital models in various 3D applications. The application field of 3D4UR is wide and covers areas such as 3D printing, CAD/CAM, robotics and aerospace. As its working principle is based on a mechanism that assembles mechanical parameters, complex physical objects can be accurately simulated and translated into digital objects and controlled with the help of 3D4UR. The accuracy and precision of 3D4UR makes it an attractive technique for various engineering and design applications.

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