A temperature-controlled self-deformation device based on 4D printing and its preparation method
A technology of self-deformation and high-temperature deformation, which is applied in the direction of improving process efficiency, additive processing, and improving energy efficiency. It can solve problems such as limited phase transition temperature range, and achieve the effect of alleviating interface bonding and stress mutation
- Summary
- Abstract
- Description
- Claims
- Application Information
AI Technical Summary
Problems solved by technology
Method used
Image
Examples
preparation example Construction
[0039] Specifically, as Figure 8 As shown, a method for preparing a temperature-controlled self-deformable device based on 4D printing of the present invention may include the following steps:
[0040] The first step is to use 3D modeling software to establish a 3D model of the self-deformable device, and divide the 3D model into regions according to the preset deformation process and functions. Generally, the part where the shape changes in the low temperature state is set as the low temperature deformation zone, the part that starts to deform at the low temperature and ends in the high temperature state is set as the transition zone, and the part that does not change at the low temperature but only changes at the high temperature state It is set as a high-temperature deformation zone (low temperature and high temperature in the present invention are relative concepts). However, in the present invention, it is not limited to the division of the above-mentioned three regions...
Embodiment 1
[0047] This embodiment 1 comprises the following steps:
[0048] 1) Use computer software to draw such as Figure 4 The hexagonal 3D model is shown, and the 3D model is divided into three regions according to the preset deformation process and function. Figure 4 Among them, 1 is the low-temperature deformation zone, 2 is the transition zone, and 3 is the high-temperature deformation zone. Export the STL file format and slice the model.
[0049] 2) Import the model into the processing system, and select the printing method as strip partition plus interlayer rotation, wherein the partition width is 4mm, and the interlayer rotation angle is 67°. Input selected process parameters in different areas, and finally generate processing paths and files.
[0050] 3) Put the screened and dried powder into the printing equipment, vacuumize the forming chamber, inject high-purity argon gas, and preheat the nickel-titanium substrate.
[0051] 4) In the forming process, partition manufac...
Embodiment 2
[0055] This embodiment 2 comprises the following steps:
[0056] 1) Use computer software to draw such as Figure 4 The hexagonal 3D model is shown, and the 3D model is divided into three regions according to the preset deformation process and function. Figure 4 Among them, 1 is the low-temperature deformation zone, 2 is the transition zone, and 3 is the high-temperature deformation zone. Export the STL file format and slice the model.
[0057] 2) Import the model into the processing system, and select the printing method as strip partition plus interlayer rotation, wherein the partition width is 4mm, and the interlayer rotation angle is 67°. Input selected process parameters in different areas, and finally generate processing paths and files.
[0058] 3) Put the screened and dried powder into the printing equipment, vacuumize the forming chamber, inject high-purity argon gas, and preheat the nickel-titanium substrate.
[0059] 4) In the forming process, partition manufac...
PUM
| Property | Measurement | Unit |
|---|---|---|
| thickness | aaaaa | aaaaa |
Abstract
Description
Claims
Application Information
Login to View More