A design and implementation method of oblique wedge module

Abstract

The invention discloses a method for designing and realizing an oblique wedge module, which comprises the following steps: A, inputting graphic elements and related parameters; B, carry out feature extraction, and screening and combine feature elements; C, carry out differential element processing, jud that measuring direction and envelope of the adjacent contours, and obtaining graphics set suchas points and finite element which are convenient to be described; D, describe that envelope of the merged contour of the graphic set, obtain the geometric information of the envelope, and matching and selecting an oblique wedge; E, carry out shape and position calculation, and instantiating a set of size parameter, coordinate characteristics, node positions and that like required by the inclinedwedge module; F, jud whether that shape-position relationship require by the instantiation of the related nodes conforms to the standard; G, outputting the coordinate system, width, angle and node position required for the instantiation of the coincidence; H, instantiate that inclined wedge to obtain a visual inclined wedge scheme and an assembly result; I, carry on the interactive processing after the instantiation, obtains the final oblique wedge scheme and its related characteristic, the graph, the volume, the tree graph leaf node.

Description

technical field [0001] The invention relates to intelligent mold design and manufacturing technology, in particular to a design and realization method of a wedge module. Background technique [0002] In the existing mold design technology, the "shape", "position" size and the relationship between each part are generally judged subjectively by the designer. For parts such as wedges that are prone to conflict with each other, they need to be revised many times , to get a relatively perfect solution. In the existing solutions, there is no technology to automatically identify design elements, automatically calculate shape and size, and automatically interact with the relationship between parts. At present, the most advanced design technology only makes some fragmented parameterized models for some knowledge points. For the randomness of the input and the complexity of the environment (relative to a certain component) brought about by it, There is no mathematical model to solve...

AI Technical Summary

Problems solved by technology

At present, the most advanced design technology only makes some fragmented parameterized models for some knowledge points. For the randomness of the input and the complexity of the environment (relative to a certain component) brought about by it, no mathematical model to solve

The final result can only be obtained through manual judgment and manual cycle trial and error

It is relatively easy to manually model a certain knowledge point, but it is much more difficult to associate this knowledge point in a random environment

Images