CN114087851A

CN114087851A - Processing bearing module and spin-drying device

Info

Publication number: CN114087851A
Application number: CN202011048653.9A
Authority: CN
Inventors: 陈峰明; 邵志敏; 林金润
Original assignee: TPK Glass Solutions Xiamen Inc
Current assignee: Chenda Additive Manufacturing Xiamen Co ltd
Priority date: 2020-06-29
Filing date: 2020-09-29
Publication date: 2022-02-25
Anticipated expiration: 2040-09-29
Also published as: TWM608034U; CN114087851B; TW202200348A; TWI823608B; CN213273468U; TW202304693A; TWI793461B

Abstract

The invention relates to the technical field of machining, and provides a machining bearing module and a spin-drying device. The processing bearing module comprises a bearing layer and a containing groove. The bearing layer comprises a bearing surface, a first side surface and a second side surface. The first side surface is connected with the bearing surface and is provided with a first protruding structure. The second side surface is connected with the bearing surface and is provided with at least one second protruding structure. The first side and the second side are opposite. The accommodating groove comprises at least one first buckle structure and at least one second buckle structure. The first buckle structure and the second buckle structure are formed on two opposite sides of the accommodating groove. The first buckle structure buckles the first protruding structure, and the second buckle structure buckles the second protruding structure. The spin-drying device and the processing bearing module can provide effective recovery function.

Description

Processing bearing module and spin-drying device

Technical Field

The invention relates to the field of processing, in particular to a processing bearing module and a spin-drying device.

Background

In recent years, with the development of additive manufacturing technology, 3D printing technology capable of rapidly manufacturing three-dimensional objects is also beginning to be fully applied to design, manufacturing and production lines. Through computer control and the process of adding constantly, 3D printing technique can be abundant prints out the three-dimensional object that possesses any shape and geometric characteristics fast according to three-dimensional model or other electronic data.

Among conventional 3D printing techniques, a method of fabricating a three-dimensional object using photocuring properties and thermoplasticity of various resins is one of the major development items. However, after the three-dimensional object is cured, the resin remaining on the three-dimensional object is still removed by spin-drying. However, these residual resins are easily contaminated in the dryer and cannot be reused, resulting in waste materials and raising the overall manufacturing cost.

Disclosure of Invention

In order to solve the above-mentioned problem of metal conductor visibility and overcome the shortcomings of the prior art, the present invention provides a processing carrier module capable of recycling resin, which has a good resin recycling function.

The processing bearing module of one embodiment of the invention comprises a bearing layer and a containing groove. The bearing layer comprises a bearing surface, a first side surface and a second side surface. The first side surface is connected with the bearing surface and is provided with a first protruding structure. The second side surface is connected with the bearing surface and is provided with at least one second protruding structure. The first side and the second side are opposite. The accommodating groove comprises at least one first buckle structure and at least one second buckle structure. The first buckle structure and the second buckle structure are formed on two opposite sides of the accommodating groove. The first buckle structure buckles the first protruding structure, and the second buckle structure buckles the second protruding structure.

The spin-drying device provided by the embodiment of the invention comprises a shell, a rotating element and the processing bearing module. The rotating element is connected in the shell through a first rotating shaft. A plurality of accommodating spaces are formed between the periphery of the rotating element and the shell. The rotating element is provided with fixing grooves at two sides of each accommodating space, and the extending direction of the fixing grooves is the same as that of the first rotating shaft. The processing bearing module is configured in one of the plurality of accommodating spaces, and part of the processing bearing module is inserted into the fixing grooves at two sides of the accommodating space.

In an embodiment of the invention, the accommodating groove has a receiving layer, a first sidewall and a second sidewall. The first sidewall is opposite the second sidewall. The bearing layer is connected with the first side wall and the second side wall. The first buckle structure is formed on the first side wall, and the second buckle structure is formed on the second side wall.

In an embodiment of the invention, the bearing layer includes a third side. The third side surface is provided with a first holding structure. The accommodating groove comprises a third side wall which is provided with a first opening. The first holding structure passes through the first opening. The third side wall is connected with the first side wall, the second side wall and the bearing layer.

In an embodiment of the invention, the accommodating groove includes a fourth sidewall opposite to the third sidewall. And the fourth side wall has a second opening.

In an embodiment of the invention, the third sidewall has a first height in the first direction, and the fourth sidewall has a second height in the first direction. The first height is greater than the second height, and the first direction is parallel to the normal vector of the bearing surface.

In an embodiment of the invention, the fourth sidewall is spaced from the supporting surface by a distance in a first direction, and the first direction is parallel to a normal vector of the supporting surface.

In an embodiment of the invention, the first side surface has a second holding structure formed on an edge of the first side surface away from the carrying surface. The first protruding structures are arranged adjacent to the bearing surface. The second side surface is provided with a third holding structure which is formed on the edge of the second side surface far away from the bearing surface. The second protruding structures are arranged adjacent to the bearing surface.

In an embodiment of the invention, the second holding structure and the third holding structure extend along a second direction. The first buckle structure and the second buckle structure are bent openings, and part of the first buckle structure and part of the second buckle structure extend along the second direction.

In an embodiment of the invention, the first protruding structures are formed on the edge of the first side surface away from the carrying surface, and the second protruding structures are formed on the edge of the second side surface away from the carrying surface. The first projection structure and the second projection structure extend along a second direction. The first snap structure includes a first groove extending along the second direction. The second snap structure includes a second groove extending along a second direction.

In an embodiment of the invention, the accommodating groove includes a third opening and a fourth opening. The third opening is adjacent to the first groove, and the fourth opening is adjacent to the second groove.

As can be seen from the above, the bearing layer of the processing bearing module according to the embodiment of the present invention can provide a bearing surface, and when a user prints and manufactures a three-dimensional object on the bearing surface in a 3D manner, the accommodating groove can collect resin that is separated from the three-dimensional object by the processing bearing module during a spin-drying process. The spin-drying device provided by the embodiment of the invention can effectively recover residual resin in the processing process.

Drawings

FIG. 1 is an exploded perspective view of a process carrier module according to one embodiment of the present invention;

FIGS. 2 and 3 are side views of a process carrier module according to an embodiment of the present invention;

FIG. 4 is a top view of a process carrier module according to an embodiment of the present invention;

FIG. 5 is a bottom view of a process carrier module according to one embodiment of the invention;

FIG. 6 is an exploded perspective view of a tooling carrier module according to another embodiment of the present invention;

FIG. 7 is a top view of a process carrier module according to another embodiment of the invention;

FIG. 8 is a bottom view of a tooling carrier module according to another embodiment of the present invention;

FIG. 9 is a top view of a spin drying apparatus according to still another embodiment of the present invention;

fig. 10 is a perspective view of a spin-drying device according to still another embodiment of the present invention.

[ notation ] to show

A1 rotating shaft

A2 first rotating shaft

d1 first direction

d2 second direction

d3 third Direction

g1 distance

H1 height

H2 height

100 processing bearing module

110 bearing layer

111 bearing surface

112 first side face

113A first projection structure

113B second projection structure

114 second side

115A second projection structure

115B second projection structure

116 third side

117 first holding structure

118 the fourth side

119 second holding structure

1110 the third holding structure

120 is a containing groove

121A first fastening structure

121B first fastening structure

122A second fastening structure

122B second fastening structure

123 first side wall

123T upper edge

124 second side wall

125 receiving layer

126 third side wall

127 the fourth side wall

128 first opening

129 second opening

200 processing bearing module

210 bearing layer

211 bearing surface

212 first side face

214 second side face

215A first projection structure

215B second projection Structure

216 third side

217 first holding structure

220 containing groove

221 first fastening structure

221A first groove

221B third opening

222 second fastening structure

222A second groove

222B the fourth opening

223 first side wall

224 second side wall

225 receiving layer

226 third side wall

227: the fourth side wall

300 drying device

301, a containing space

310 casing

320 rotating element

321 fixing groove

Detailed Description

The present invention will be described in further detail with reference to the accompanying drawings and specific embodiments.

The processing bearing module provided by the embodiment of the invention can be applied to a 3D printing system.

It will be understood that, although the terms "first," "second," "third," etc. may be used herein to describe various components, features, regions, layers or sections, these components, features, regions, layers or sections should not be limited by these terms. These terms are only used to distinguish one element, component, region, layer or section from another element, component, region, layer or section. Thus, a "first component," "member," "region," "layer" or "portion" discussed below could also be termed a second component, member, region, layer or portion without departing from the teachings herein.

On the other hand, for clarity of description, the drawings referred to in the embodiments of the present invention will vary in height, thickness and width with viewing angle to describe in detail the relative positions of the elements in the embodiments of the present invention, which should not be construed as limiting the invention.

Fig. 1 is an exploded perspective view of a process carrier module in accordance with an embodiment of the present invention. Referring to fig. 1, in an embodiment of the invention, the processing carrier module 100 includes a carrier layer 110 and a receiving groove 120. The carrier layer 110 includes a carrier surface 111, a first side 112 and a second side 114.

The first side surface 112 is connected to the bearing surface 111, and the first side surface 112 has a first protruding structure 113A and a first protruding structure 113B. The second side surface 114 is connected to the carrying surface 111, and the second side surface 114 has a second protruding structure (not shown in fig. 1). The first side 112 is opposite the second side 114.

Specifically, in the present embodiment, the first side surface 112 has a plurality of first protruding

structures

113A and 113B, the second side surface 114 also has a plurality of second protruding structures (not shown in fig. 1), and the first protruding

structures

113A and 113B and the second protruding structures have similar shapes and positions corresponding to each other.

The receiving cavity 120 includes a first fastening structure 121A, a first fastening structure 121B, a second fastening structure 122A, and a second fastening structure 122B. The first fastening structure 121A and the second fastening structure 122A are formed on two opposite sides of the receiving cavity 120, and the first fastening structure 121B and the second fastening structure 122B are formed on two opposite sides of the receiving cavity 120.

Specifically, the first catch structure 121A and the first catch structure 121B are adapted to catch the first protrusion structure 113A and the first protrusion structure 113B, respectively. The second snap structure 122A and the second snap structure 122B are adapted to each snap the second protruding structure of the second side 114.

Fig. 2 and 3 are side views of a processing carrier module according to an embodiment of the invention, wherein fig. 2 is directed to a first side 112 and fig. 3 is directed to a second side 114. Referring to fig. 2, the first engaging structure 121A engages with the first protruding structure 113A on the first side surface 112, and the first engaging structure 121B engages with the first protruding structure 113B on the first side surface 112. Referring to fig. 3, the second side surface 114 has a second protrusion structure 115A and a second protrusion structure 115B. The second snap structure 122A snaps over the second protruding structure 115A on the second side 114, and the first snap structure 122B snaps over the second protruding structure 115B on the second side 114.

Referring to fig. 2, in the embodiment, a distance g1 is formed between the supporting surface 111 and the receiving cavity 120, so that the supporting surface 111 is suitable for supporting a three-dimensional structure formed by 3D printing, and the receiving cavity 120 can be covered on the supporting layer 110 toward the three-dimensional structure. Therefore, when the carrying module 100 is spin-dried, the residual resin in the three-dimensional structure on the carrying surface 111 can be collected by the accommodating groove 120, and the residual resin can be prevented from being polluted, thereby providing a good recycling function.

It should be noted that, in the present specification, the distance g1 in the drawings is reduced for clarity of illustrating the accommodating groove 120 and the carrying layer 110 of the processing carrying module 100, but the drawings are only for reference and are not intended to limit the invention. In some embodiments of the present invention, the distance g1 between the carrying surface 111 and the receiving groove 120 may be adjusted according to the size of the workpiece and the size of the dryer, so as to provide a sufficient space for receiving the three-dimensional object and collecting the resin without interference of the mechanisms.

In detail, referring to fig. 1, in the present embodiment, the receiving groove 120 includes a receiving layer 125, a first sidewall 123 and a second sidewall 124. The first sidewall 123 is opposite to the second sidewall 124, and the receiving layer 125 connects the first sidewall 123 and the second sidewall 124. Specifically, the first sidewall 123 and the receiving layer 125 of the present embodiment are vertically connected, and the second sidewall 124 and the receiving layer 125 are also vertically connected.

The first fastening structure 121A and the first fastening structure 121B are formed on the first sidewall 123, and the second fastening structure 122A and the second fastening structure 122B are formed on the second sidewall 124, so that the positions of the

first fastening structures

121A and 121B and the positions of the

second fastening structures

122A and 122B can correspond to each other, and the accommodating groove 120 can be easily fastened to the carrier layer 110.

In the present embodiment, the carrier layer 110 includes a third side 116 having a first holding structure 117. Specifically, the first holding structure 117 of the present embodiment is formed in a U shape to facilitate grasping by a hand or a robot arm. The first grip structure 117 extends outward from the third side 116 along the second direction d 2.

On the other hand, the receiving groove 120 includes a third sidewall 126, the third sidewall 126 connects the first sidewall 123, the second sidewall 124 and the carrier layer 125, and the third sidewall 126 has a first opening 128. Referring to fig. 2, when the receiving groove 120 is fastened to the carrier layer 110, the third sidewall 126 is adjacent to the third side surface 116, and the first holding structure 117 passes through the first opening 128. Therefore, when a user or a robot arm takes the processing carrier module 100 from the first holding structure 117, the accommodating groove 120 can be fastened to the carrier layer 110 through the

first fastening structures

121A and 121B and the

second fastening structures

122A and 122B (see fig. 3), and the third sidewall 126 can also bear against the third sidewall 116, so that the relative position between the accommodating groove 120 and the carrier layer 110 cannot be easily changed.

Referring to fig. 1, in the present embodiment, the accommodating groove 120 further includes a fourth sidewall 127. The fourth side wall 127 is opposite to the third side wall 126, and the fourth side wall 127 has a second opening 129. The second opening 129 substantially allows a portion of the carrier layer 110 to pass through, so that the carrier layer 110 and the receiving cavity 120 can be conveniently buckled.

For example, referring to fig. 2, when the processing carrier module 100 rotates along the rotation axis a1, the resin separated from the carrier surface 111 moves toward the receiving layer 125 due to centrifugal force and is recovered in the receiving groove 120. When the rotation axis a1 extends substantially vertically, the first holding structure 117 can be disposed upward for the user or the robot to take, and the fourth side wall 127 is located below the receiving layer 125 in the second direction d1, so as to receive the resin flowing downward from the receiving layer 125.

Fig. 4 is a top view of a process carrier module according to an embodiment of the present invention, and fig. 5 is a bottom view of the process carrier module according to an embodiment of the present invention. Referring to fig. 4 and 5, in the present embodiment, the third sidewall 126 has a first height H1 in the first direction d1, and the fourth sidewall 127 has a second height H2 in the first direction d 1. The first height H1 is greater than the second height H2, and the first direction d1 is parallel to the normal vector of the carrying surface 111.

Since the first height H1 is greater than the second height H2, a portion of the carrier layer 110 is adapted to enter and snap into the receiving groove 120 from a side adjacent to the fourth sidewall 127. Meanwhile, the first height H1 of the third sidewall 126 is higher and has a larger area, and is suitable for bearing against the third side 116 of the carrier layer 110, so that the fastening between the receiving groove 120 and the carrier layer 110 can be more stable. On the other hand, the third sidewall 126 also exceeds the upper edge 123T of the first sidewall 123 and the upper edge 124T of the second sidewall 124, so that when the bearing layer 110 is buckled with the accommodating groove 120 through the first protruding structure 113A and the second protruding structure 115A, the area of the third sidewall 126 bearing against the third side surface 116 is large, and the third sidewall 126 can be prevented from being turned over during the spin-drying process.

Referring to fig. 5, in the present embodiment, the first side surface 112 has a second holding structure 119. The second holding structure 119 is formed on the edge of the first side surface 112 away from the carrying surface 111. The first protrusion structures 113B are disposed adjacent to the carrying surface 111. In other words, in the first direction d1, the first protruding structure 113B is located between the carrying surface 111 and the second holding structure 119.

Second side 114 has a third grip structure 1110. The third grip structure 1110 is formed on the edge of the second side surface 114 away from the carrying surface 111. The second protrusion structures 115B are disposed adjacent to the carrying surface 111. In other words, in the first direction d1, the second protrusion structure 115B is located between the carrying surface 111 and the third grip structure 1110.

Further, referring to fig. 1, the second holding structure 119 and the third holding structure 1110 extend along the second direction d 2. The

first fastening structures

121A and 121B and the

second fastening structures

122A and 122B are respectively bent openings. Part of the first snap structure 121A extends along the second direction d2, and part of the first snap structure 121B also extends along the second direction d 2. Part of the second snap structure 122A extends along the second direction d2, and part of the second snap structure 122B also extends along the second direction d 2.

Still further, the ends of the

first fastening structures

121A and 121B and the

second fastening structures

122A and 122B of the present embodiment extend toward the third sidewall 126 along the second direction d2, respectively. Therefore, the carrier layer 110 may be buckled with the receiving groove 120 toward the third sidewall 126 of the receiving groove 120 along the second direction d 2.

Fig. 6 is an exploded perspective view of a tooling carrier module according to another embodiment of the present invention. Referring to fig. 6, a processing carrier module 200 according to another embodiment of the invention includes a carrier layer 210 and a receiving groove 220. The carrier layer 210 includes a carrier surface 211, a first side surface 212, and a second side surface 214. The bearing surface 211 connects the first side 212 and the second side 214.

Further, the carrier layer 210 is similar to the carrier layer 110, and the same elements and detailed descriptions thereof are not repeated herein. A first gripping structure 217 is formed on the third side 216 of the carrier layer 210. The first side 212 and the second side 214 of the carrier layer 210 are opposite to each other, and a first protruding structure 215A is formed on the first side 212 and a second protruding structure 215B is formed on the second side 214.

The receiving groove 220 includes a first fastening structure 221 and a second fastening structure 222. The first fastening structure 221 and the second fastening structure 222 are formed on two opposite sides of the receiving groove 220. Further, the first sidewall 223 of the receiving groove 220 is formed with a first latch structure 221, the second sidewall 224 is formed with a second latch structure 222, and the receiving groove 220 further has a third sidewall 226 and a fourth sidewall 227 opposite to each other, and a receiving layer 225 connecting the first sidewall 223, the second sidewall 224, the third sidewall 226 and the fourth sidewall 227.

In the present embodiment, the first protrusion structures 215A are formed on the edge of the first side surface 212 away from the supporting surface 211, and the second protrusion structures 215B are formed on the edge of the second side surface 214 away from the supporting surface 211. Both the first projection structure 215A and the second projection structure 215B extend along the second direction d 2.

The first catch structure 221 includes a first groove 221A extending along the second direction d2, and the second catch structure 222 includes a second groove 222A extending along the second direction d 2. Since the extending directions of the first protruding structure 215A, the second protruding structure 215B, the first latching structure 221 and the second latching structure 222 are parallel to each other, the carrier layer 210 can be inserted into and latched to the receiving groove 220 along the second direction d 2.

Figure 7 is a top view of a tooling carrier module according to another embodiment of the present invention. Referring to fig. 7, in the present embodiment, the first protruding structure 215A may be fastened to the first groove 221A of the first fastening structure 221, and the second protruding structure 215B may be fastened to the second groove 222A of the second fastening structure 222, so as to fix the relative positions of the carrier layer 210 and the receiving groove 220 in the first direction d 1.

On the other hand, in the first direction d1, the third sidewall 226 and the third side surface 216 overlap each other, and therefore the third sidewall 226 can also limit the relative positions of the carrier layer 210 and the accommodating groove 220 in the second direction d 2. Meanwhile, a space is formed between the bearing layer 210 and the bearing layer 225 to accommodate a three-dimensional object.

Referring to fig. 6, in the present embodiment, the accommodating groove 220 further includes a third opening 221B and a fourth opening 222B. The third opening 221B is adjacent to the first groove 221A, and the fourth opening 222B is adjacent to the second groove 222A. Specifically, when the receiving groove 220 and the carrying layer 210 are buckled, the third opening 221B may expose a portion of the first side surface 212 and the first protruding structure 215A, and the fourth opening 222B may expose a portion of the second side surface 214 and the second protruding structure 215B. Therefore, the first fastening structure 221 and the second fastening structure 222 of the present embodiment can also be held by a user, and the third opening 221B and the fourth opening 222B can allow the user to simultaneously contact the first protruding structure 215A and the second protruding structure 215B, so as to avoid relative sliding between the accommodating groove 220 and the carrier layer 210 during the moving process.

Figure 8 is a bottom view of a tooling carrier module according to another embodiment of the present invention. Referring to fig. 8, the fourth sidewall 227 of the present embodiment is substantially U-shaped, and at least a distance g2 is formed between the fourth sidewall 227 and the supporting surface 211 in the first direction d 1. Therefore, the carrier layer 210 can easily move from above the third sidewall 227 to the receiving cavity 220, and when the receiving cavity 220 receives resin from the carrier surface 211, the fourth sidewall 227 can also prevent the resin from flowing out.

Fig. 9 is a top view of a spin-drying apparatus according to still another embodiment of the present invention. Referring to fig. 9, in another embodiment of the present invention, a spin-drying device 300 includes a housing 310, a rotating element 320, and the processing load module 200.

The rotating element 320 is connected to the housing 310 with a first axis of rotation a 2. A plurality of receiving spaces 301 are formed between the periphery of the rotating member 320 and the housing 310. The rotating element 320 has fixing grooves 321 on two sides of each accommodating space 301. The processing carrier module 200 is disposed in one of the accommodating spaces 301, and a part of the processing carrier module 200 is inserted into the fixing grooves 321 on two sides of the accommodating space 301.

Specifically, in the embodiment, the spin-drying device 300 has three accommodating spaces 301, and can accommodate three processing carrying modules 200 at the same time, but the invention is not limited thereto. The two fixing grooves 321 located at two sides of the accommodating space 301 can respectively accommodate the first latching structure 221 and the second latching structure 222 of the processing carrier module 200, so that the processing carrier module 200 cannot be separated from the rotating element 320 and the housing 310 when rotating along the first rotating axis a2 with the rotating element 320.

Fig. 10 is a perspective view schematically illustrating a spin-drying apparatus according to still another embodiment of the present invention. Referring to fig. 10, the extending direction of the fixing recess 211 of the present embodiment is the same as the first rotation axis a 2. Specifically, the fixing groove 211 and the first rotating shaft a2 may be parallel to the third direction d3, so that the process carrying module 200 may enter and exit the housing 310 along the third direction d3 and rotate along the first rotating shaft a2 with the rotating element 320.

The above embodiment is an example of processing the carrying module 200, but the invention is not limited thereto. In other embodiments, the spin-drying apparatus 300 may also include the processing carrying module 100 (see fig. 1) in the above embodiments, and the second holding structure 119 and the third holding structure are fixed by the fixing groove 321.

In summary, the processing bearing module and the spin-drying device in the embodiments of the present invention can be fastened by the accommodating groove and the bearing layer, and the bearing surface of the bearing layer can bear a three-dimensional object formed by resin. When the processing bearing module is used for spin-drying, the containing groove can receive residual resin on the three-dimensional object, the residual resin is prevented from being polluted, and an effective recycling function is provided.

The above description is only for the purpose of illustrating the preferred embodiments of the present invention and is not to be construed as limiting the invention, and any modifications, equivalents, improvements and the like made within the spirit and principle of the present invention should be included in the scope of the present invention.

Claims

1. A process carrier module, comprising:

a carrier layer, comprising:

a bearing surface;

the first side surface is connected with the bearing surface and is provided with at least one first protruding structure; and

the second side surface is connected with the bearing surface and provided with at least one second protruding structure, and the first side surface is opposite to the second side surface; and

the storage tank includes:

at least one first buckle structure; and

the first buckle structure and the second buckle structure are formed on two opposite sides of the accommodating groove, the first buckle structure buckles the first protruding structure, and the second buckle structure buckles the second protruding structure.

2. The process carrier module of claim 1, wherein the receiving cavity has a receiving layer, a first sidewall and a second sidewall, the first sidewall being opposite the second sidewall, the receiving layer connecting the first sidewall and the second sidewall, the first snap structure being formed on the first sidewall, and the second snap structure being formed on the second sidewall.

3. The process carrier module of claim 2, wherein the carrier layer includes a third side having a first gripping structure, the receiving slot includes a third side having a first opening through which the first gripping structure passes, and the third side connects the first side, the second side, and the carrier layer.

4. The process carrier module of claim 3, wherein the receiving slot includes a fourth sidewall opposite the third sidewall, the fourth sidewall having a second opening.

5. The process carrier module of claim 4, wherein the third sidewall has a first height in a first direction, the fourth sidewall has a second height in the first direction, the first height is greater than the second height, and the first direction is parallel to a normal vector of the carrying surface.

6. The process carrier module of claim 4, wherein the fourth sidewall is spaced from the carrying surface in a first direction that is parallel to a normal to the carrying surface.

7. The process carrier module of claim 1, wherein the first side surface has a second gripping structure formed on an edge of the first side surface remote from the load-supporting surface, the first protrusion structure is disposed adjacent the load-supporting surface, the second side surface has a third gripping structure formed on an edge of the second side surface remote from the load-supporting surface, the second protrusion structure is disposed adjacent the load-supporting surface.

8. The process carrier module of claim 7, wherein the second and third gripping structures extend along a second direction, and wherein the first and second snap structures are each a bent opening, and wherein a portion of the first and second snap structures extend along the second direction.

9. The process carrier module of claim 1, wherein the first protruding feature is formed on an edge of the first side surface remote from the load-supporting surface, the second protruding feature is formed on an edge of the second side surface remote from the load-supporting surface, and the first protruding feature and the second protruding feature both extend along a second direction, and the first snap feature comprises a first groove extending along the second direction, and the second snap feature comprises a second groove extending along the second direction.

10. The process carrier module of claim 9, wherein the receiving slot includes a third opening and a fourth opening, the third opening being adjacent to the first recess and the fourth opening being adjacent to the second recess.

11. A spin-drying device, comprising:

a housing;

the rotating element is connected in the shell through a first rotating shaft, a plurality of accommodating spaces are formed between the periphery of the rotating element and the shell, fixing grooves are formed in two sides of each accommodating space of the rotating element, and the extending direction of each fixing groove is the same as that of the first rotating shaft; and

a processing bearing module, configured in one of the accommodating spaces, and a part of the processing bearing module is inserted into the fixing grooves at two sides of the accommodating space, the processing bearing module includes:

a carrier layer, comprising:

a bearing surface;

the storage tank includes:

at least one first buckle structure; and

12. The spin dryer of claim 11, wherein the receiving receptacle has a receiving layer, a first sidewall and a second sidewall, the first sidewall being opposite the second sidewall, the receiving layer connecting the first sidewall and the second sidewall, the first snap structure being formed on the first sidewall and the second snap structure being formed on the second sidewall.

13. The spin dryer of claim 12, wherein the carrier layer includes a third side having a first gripping structure, the receiving channel includes a third side having a first opening through which the first gripping structure passes, and the third side connects the first side, the second side, and the carrier layer.

14. The spin dryer of claim 13, wherein the container comprises a fourth sidewall opposite the third sidewall, the fourth sidewall having a second opening.

15. The spin dryer of claim 14 wherein the third sidewall has a first height in a first direction and the fourth sidewall has a second height in the first direction, the first height being greater than the second height, and the first direction being parallel to a normal to the load-carrying surface.

16. The spin apparatus of claim 14 wherein the fourth sidewall is spaced from the carrying surface a distance in a first direction, the first direction being parallel to a normal vector of the carrying surface.

17. The spin dryer of claim 11 wherein the first side has a second gripping structure formed on an edge of the first side remote from the load-supporting surface, the first protruding structure being disposed adjacent the load-supporting surface, the second side having a third gripping structure formed on an edge of the second side remote from the load-supporting surface, the second protruding structure being disposed adjacent the load-supporting surface.

18. The spin-drying apparatus of claim 17 wherein the second and third gripping structures extend along a second direction, and wherein the first and second snap structures are each a bent opening, and wherein a portion of the first and second snap structures extend along the second direction.

19. The spin dryer of claim 11 wherein the first protruding feature is formed on an edge of the first side surface remote from the load-supporting surface, the second protruding feature is formed on an edge of the second side surface remote from the load-supporting surface, and the first protruding feature and the second protruding feature both extend along a second direction, and wherein the first snap feature comprises a first groove extending along the second direction and the second snap feature comprises a second groove extending along the second direction.

20. The spin dryer of claim 19, wherein the container includes a third opening adjacent the first recess and a fourth opening adjacent the second recess.