Manufacturing mold of structural surface model in direct shear test

Abstract

The invention relates to a manufacturing mold of a structural surface model in a direct shear test, which comprises an upper disk mold, a lower disk mold and a positioning pin, wherein the upper disk mold is positioned on the lower disk mold; the positioning pin for centering the upper disk mold and the lower disk mold is arranged on the bottom surface of a side plate of the upper disk mold; the upper disk mold comprises an upper front side plate, an upper left side plate, an upper back side plate and an upper right side plate; the cavity shape formed by the upper disk mold is matched with the structural surface model of the upper disk to be manufactured; the upper front side plate is fixedly connected with the upper left side plate and the upper right side plate, and the upper back side plate is fixedly connected with the upper left side plate and the upper right side plate; the lower disk mold comprises a lower front side plate, a lower left side plate, a lower back side plate and a lower right side plate; the cavity shape formed by the lower disk mold is matched with the structural surface model of the lower disk to be manufactured; and the lower front side plate is fixedly connected with the lower left side plate and the lower right side plate, and the lower back side plate is fixedly connected with the lower left side plate and the lower right side plate. The manufacturing mold of the invention not only has the advantages of convenient operation, high speed and high accuracy but also can be used for manufacturing multi-scale structural surfaces of which the upper disks and the lower disks are completely matched.

Description

the structure of the environmentally friendly knitted fabric provided by the present invention; figure 2 Flow chart of the yarn wrapping machine for environmentally friendly knitted fabrics and storage devices; image 3 Is the parameter map of the yarn covering machine

Login to View More

AI Technical Summary

Benefits of technology

This patented technology allows for creating accurate structures by accurately simulating different types of rocks under various conditions such as stress or strain levels without requiring expensive equipment like laboratory tests. It achieves this through making sure each part matches perfectly during manufacturing process.

Problems solved by technology

This technical problem addressed by this patented method relates to improving the accuracy of testing rocks' properties when they have undergone physical impacts or other external influences on their structure. Traditional methods involve directly measuring these forces without considering any differences among them due to imperfections in manufacture processes used for materials like concrete. However, there may also exist variations within certain types of material called lithium carbonate (LiC2), making accurate assessment challenging even more than just simply observing changes over time.

Images