Solar module frame and solar panel module based on 3D printing technology
A solar module, 3D printing technology, applied in electrical components, photovoltaic power generation, photovoltaic modules, etc., can solve problems such as soil erosion, power generation failure, paralysis, etc., to achieve the effect of maintaining the same strength, simple structure, and reducing weight
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Example Embodiment
[0031] Example 1
[0032] Such as Figure 1 to Figure 4 As shown, the solar module frame 1 based on 3D printing technology of embodiment 1, the inner surface of the solar module frame 1 is provided with a module card slot 2 for embedding the solar module 3, and the outer surface of the solar module frame 1 is provided with a first-level blind In the hole 4, the bottom surface of the primary blind hole 4 is provided with secondary blind holes 5 at intervals, and the apertures of the secondary blind holes 5 are evenly distributed on the bottom surface of the primary blind hole 4.
[0033] In this embodiment, the aperture width of the primary blind holes 4 is not greater than 1 / 5 of the width of the corresponding solar module frame 1; the primary blind holes 4 are arranged in a matrix on the outer surface of the solar module frame 1, and the secondary blind holes 5 The shape and size of the first-level blind hole 4 are spherical and the first-level blind hole 4 located on the outer s...
Example Embodiment
[0035] Example 2
[0036] Such as Figure 5 As shown, the difference between Embodiment 2 and Embodiment 1 is that the first-level blind holes 4 in two adjacent rows are arranged in a staggered arrangement; the second-level blind holes 5 are in a regular quadrangular pyramid shape, and the bottom surface of the first-level blind holes 4 is composed of several corresponding A honeycomb grid surface composed of squares.
[0037] In the honeycomb grid surface formed by the combination of several corresponding squares, the square apertures in two adjacent rows can be arranged in a staggered manner. The tensile strength of the frame of this structural component is about 215MPa.
Example Embodiment
[0038] Example 3
[0039] Such as Image 6 As shown, the difference between Embodiment 3 and Embodiment 1 is that the first-level blind hole 4 includes a first-level blind hole 4-1 and a second-level blind hole 4-2. The aperture area is larger than the aperture area of the second-level blind hole 4-2. The first-level blind holes 4-1 and the second-level blind holes 4-2 are both arranged in a matrix on the outer surface of the solar module frame 1. The second-level blind hole 4-2 is set at the intersection of four adjacent first-level blind holes 4-1 in a square arrangement; the second-level blind hole 5 is a regular hexagonal pyramid, and the first-level blind hole The bottom surfaces of the holes of 4-1 and the second-level blind hole 4-2 are both honeycomb grid surfaces composed of a number of regular hexagons. The tensile strength of the frame of the structural component is about 210MPa.
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