Composite energy absorption structure based on elastic material and 3D printing process thereof
A technology of elastic materials and energy-absorbing structures, applied in the field of 3D printing technology, can solve problems such as weak impact resistance, unsatisfactory miniaturization, customized design requirements and product requirements, and achieve the effect of high-efficiency cushioning performance
- Summary
- Abstract
- Description
- Claims
- Application Information
AI Technical Summary
Problems solved by technology
Method used
Image
Examples
Embodiment 1
[0048] This embodiment provides a 3D printing method for a composite energy-absorbing structure based on elastic materials. For details of the composite energy-absorbing structure, see figure 1 As shown, it includes end plates 3 on both sides, and a negative Poisson’s ratio-honeycomb energy-absorbing region made of elastic material between the two end plates 3, the negative Poisson’s ratio-honeycomb energy-absorbing region The area is composed of honeycomb structure monomer layers and negative Poisson's ratio structure monomer layers arranged alternately in sequence, wherein the honeycomb structure monomer layer is composed of several honeycomb structure monomers 1 arranged side by side, and the negative Poisson's ratio The Sonny's ratio structural monomer layer is composed of several negative Poisson's ratio structural monomers 2 arranged side by side. The sides are bent such that two of the interior angles of the hexagon are greater than 180°).
[0049] see you again figur...
Embodiment 2
[0062] Compared with Example 1, most of them are the same, except that the composite energy-absorbing structure in this example is replaced by figure 2 structure, specifically:
[0063] Two adjacent rows of honeycomb structure monomers 1 of the same honeycomb structure monomer layer are stacked in the form of "side to side", and the same row of honeycomb structure monomers 1 is stacked "bottom to bottom". The forms are arranged side by side; at this time, there is a natural transition between the two layers of monomers, forming a zero-thickness zigzag section. The sides of the honeycomb structural monomer 1 and the negative Poisson's ratio structural monomer 2 are respectively facing the end plate 3, and the side of the honeycomb structural monomer 1 is facing the side of the negative Poisson's ratio structural monomer 2, At this time, b=b', t=t'.
[0064] When the end plate 3 is a honeycomb structure monomer layer, the honeycomb structure monomer layer continues for half a...
PUM
Login to View More Abstract
Description
Claims
Application Information
Login to View More 


