Diamond processing auxiliary tool

Abstract

The utility model relates to the related field of diamond cultivation, in particular to a diamond processing auxiliary tool for transferring diamonds between two processing procedures, which comprises grouped plate-shaped main bodies, a plurality of accommodating grooves for accommodating diamonds are arranged on the largest surface of each plate-shaped main body, each plate-shaped main body is respectively provided with a positioning structure, and the positioning structures are used for positioning the diamonds in the accommodating grooves. When any two plate-shaped main bodies in the group of plate-shaped main bodies are buckled in a mode that the notches of the containing grooves are opposite, the notches of the containing grooves in the corresponding positions on the two plate-shaped main bodies are right opposite, after positioning is completed, the whole plate-shaped main bodies are turned over by 180 degrees, then the plate-shaped main body on the upper side is detached, and transfer of diamonds between procedures can be completed. According to the connector, the plate-shaped tool which is simple and reliable in structure is utilized, one-step operation is achieved, time and labor are saved, and batch and efficient transfer of diamonds can be achieved.

Description

Technical Field

[0001] The utility model relates to the field of cultivated diamonds, in particular to a diamond processing auxiliary tool for realizing diamond transfer between two processing procedures. Background Art

[0002] Cultivated diamonds have physical and chemical properties similar to those of natural diamonds. With the increasing maturity of artificial diamond production technology, and because their price is only about one-third of that of natural diamonds, cultivated diamonds have a wider audience than natural diamonds. In the production process of cultivated diamonds, heat treatment and ultrasonic cleaning are two essential processing procedures. In the prior art, during the production process of cultivated diamonds, multiple procedures such as heat treatment and ultrasonic cleaning need to be carried out in batches. Different machines are required for processing. In the existing production process, before each procedure starts, the cultivated diamonds need to be taken out one by one from the bags used for corresponding production batches for traceability, and placed orderly on the flat bearing trays of the corresponding machines to start processing. After completing this procedure, they are taken out from the bearing tools and bagged separately. Before the next procedure starts, the above steps are repeated until the processing is completed. The existing diamonds not only have a cumbersome process when realizing batch transfer between procedures, but also cannot rule out the phenomenon that the flat bearing trays tilt during the picking and placing movement, resulting in diamond stacking and confusion and inability to distinguish. Summary of the Utility Model

[0003] The purpose of the utility model is to provide a diamond processing auxiliary tool, which solves the problem that when converting the existing diamond processing procedures, it is necessary to pick and place cultivated diamonds on the bearing tools one by one, and the movement procedure is relatively cumbersome. It can complete the batch transfer of diamonds in a shorter time and a faster way during the flow between two production procedures on the premise of ensuring the quality of the product processing procedures, and further improve the production efficiency.

[0004] To achieve the above purpose, the utility model provides a diamond processing auxiliary tool, including a group of plate-shaped main bodies. A plurality of accommodating grooves are provided on the largest surfaces of each plate-shaped main body for accommodating each diamond. Positioning structures are respectively provided on each plate-shaped main body to ensure that when any two plate-shaped main bodies in the group of plate-shaped main bodies are buckled with the notch of the accommodating groove facing each other, the notch of the accommodating groove corresponding to the position on the two plate-shaped main bodies is directly opposite.

[0005] Further, the positioning structure includes positioning holes provided on the buckling surfaces of the plate-shaped main bodies. There are more than two positioning holes or the positioning holes are non-circular holes. The positioning of the two plate-shaped main bodies is realized by positioning pins respectively inserted at both ends into the positioning holes of the two plate-shaped main bodies.

[0006] Further, the plate-shaped main body is square, there is one positioning hole and it is arranged at a corner position of the plate-shaped main body, and the positioning hole is a cross-shaped hole.

[0007] Furthermore, a connecting structure for connecting two plate-shaped bodies is respectively provided on each plate-shaped body.

[0008] Furthermore, the connecting structure includes connecting holes provided on the fastening surfaces of the plate-shaped bodies, and the two plate-shaped bodies are connected by connecting pins respectively inserted into the connecting holes of the two plate-shaped bodies at both ends.

[0009] Furthermore, there are multiple connecting holes, and some are located at the edge positions of the plate-shaped bodies, and some are located in the middle regions of the plate-shaped bodies.

[0010] Furthermore, the receiving grooves are arranged in a matrix.

[0011] Furthermore, the largest surface of the plate-shaped body is a grid structure, and the grooves corresponding to each grid constitute the receiving grooves.

[0012] Furthermore, the grouped plate-shaped bodies include a graphite plate-shaped body that can undergo a heat treatment process and an alloy plate-shaped body that can undergo ultrasonic cleaning.

[0013] It can be seen from the above technical solutions that the present utility model provides a pioneering diamond processing auxiliary tool, including a group of plate-shaped bodies. Since a plurality of receiving grooves for accommodating diamonds are provided on the largest surface of the plate-shaped bodies, in addition, a positioning structure is provided on each plate-shaped body to ensure that when any two plate-shaped bodies in the grouped plate-shaped bodies are buckled with the openings of the receiving grooves facing each other, the openings of the receiving grooves corresponding to the positions on the two plate-shaped bodies are in an independent corresponding relationship. Therefore, in actual operation, after completing the previous process, the plate-shaped body required for the next process is buckled on the plate-shaped body containing diamonds with the openings of the corresponding receiving grooves facing each other, and positioned through the positioning structure on the two fastening surfaces. After positioning, the whole is flipped 180°, and then the upper plate-shaped body is disassembled, and the transfer of diamonds between processes can be completed. In the above entire operation process, with the assistance of the plate-shaped body and the positioning structure, during the production process, using a simple carrying tool, while ensuring the operability of the process, using a simple operation method, it changes the cumbersome picking and placing method during the conversion between processes in the prior art. It can not only transfer diamonds in batches, but also realize the one-to-one correspondence between diamonds and production batches through the positioning structure, improving the production efficiency and saving manpower and time without affecting the traceability effect. BRIEF DESCRIPTION OF THE DRAWINGS

[0014] Figure 1 It is a schematic structural diagram of the insertion surface of the plate-shaped body of the diamond processing auxiliary tool according to an embodiment of the present utility model;

[0015] Figure 2 It is a three-dimensional structural diagram of the plate-shaped body of the diamond processing auxiliary tool according to an embodiment of the present utility model;

[0016] Figure 3 Schematic structural diagram when two plate-shaped main bodies are used in combination

[0017] In the figure: 1. First plate-shaped main body; 2. Receiving groove; 3. Positioning hole; 4. Connecting hole; 5. Second plate-shaped main body; 6. Positioning pin Specific embodiments

[0018] The features and performance of the present utility model will be further described in detail below in conjunction with the embodiments

[0019] The diamond processing auxiliary tool of the present utility model mainly aims at a diamond processing auxiliary tool used for batch transfer of diamonds during diamond processing procedures and when switching between adjacent procedures, avoiding the low transfer efficiency caused by the existing transfer method of repeatedly picking and placing diamonds, which in turn affects the overall production efficiency. The existing transfer method uses a separate bag corresponding to each diamond as the transfer medium. When completing the previous procedure, the operation process includes taking out from the carrying tool and bagging them one by one, and then taking out the diamonds from the corresponding bags one by one before starting the next procedure and arranging them orderly on the carrying tool. The transfer process is very cumbersome, time-consuming and laborious, and there may be a risk of diamond confusion or dropping and bumping during the repeated picking and placing process

[0020] Therefore, the diamond processing auxiliary tool of the present utility model mainly optimizes the existing diamond transfer process, omits the transfer medium in the existing transfer method, and uses the groove-to-groove buckling of any two plate-shaped main bodies in the set of plate-shaped main bodies to complete the one-step transfer of a batch of diamonds without affecting the quality of diamond products, improving the production efficiency and reducing the time-consuming of the operation of switching the production process. Specifically, the diamond processing auxiliary tool of the present utility model provides a set of plate-shaped main bodies that can be used in pairs with each other. Multiple receiving grooves for accommodating each diamond and positioning structures are provided on the largest surface of each plate-shaped main body. By using the positioning structure, it can be ensured that when any two plate-shaped main bodies in the set of plate-shaped main bodies are buckled with the groove openings of the receiving grooves facing each other, the groove openings of the receiving grooves corresponding in position on the two plate-shaped main bodies just maintain a facing position relationship. By simplifying the transfer process, the batch transfer of diamonds can be completed in one operation, greatly improving the production efficiency

[0021] Based on the above main idea, the following embodiments are provided for illustration

[0022] As Figure 1-2As shown, the diamond-assisted processing tool in the embodiment includes a plate-shaped main body as shown in the figure. A plurality of receiving grooves 2 for accommodating diamonds and a positioning structure are provided on the largest surface of the plate-shaped main body. This positioning structure can not only ensure that when any two of the group of plate-shaped main bodies are buckled with the openings of the receiving grooves 2 facing each other, the openings of the receiving grooves 2 corresponding to the positions on the two plate-shaped main bodies are exactly facing each other, but also ensure that the diamonds in different receiving grooves will not be confused due to shaking during the flipping process. During use, the buckling surfaces of the first plate-shaped main body 1 and the second plate-shaped main body 6 are buckled, and attention should be paid to the alignment of the positioning structures of the two plate-shaped main bodies in the vertical direction. The positioning structure can be set as an annular protrusion distributed on the side surface of the plate-shaped main body and an annular groove that can cooperate with the annular protrusion. The annular protrusion and the annular groove should be provided on the two plate-shaped main bodies respectively. However, the above positioning structure is only applicable when the number of sets of plate-shaped main bodies is two. Otherwise, when the number of sets of plate-shaped main bodies is more than two, setting the above positioning structure cannot achieve that any two plate-shaped main bodies can be used in cooperation, and when the side surface of the plate-shaped main body is a cylindrical surface, the positioning structure cannot play a positioning role. Therefore, in a more optimal embodiment, the positioning structure can be positioning holes provided on the buckling surface of the plate-shaped main body. In order to limit the relative positions of the two plate-shaped main bodies, there are more than two positioning holes or the positioning holes are set as non-circular holes. Considering the actual processing problems and installation efficiency, the positioning structure of this embodiment includes positioning holes 3 provided on the buckling surface of the plate-shaped main body. The plate-shaped main body is square, and the positioning holes 3 are cross-shaped holes provided at any corner position of each plate-shaped main body. The positioning of the two plate-shaped main bodies is achieved through positioning pins 6 inserted at both ends into the positioning holes 3 of the two plate-shaped main bodies respectively.

[0023] In a more preferred embodiment, to ensure that the plate-shaped bodies will not be disengaged due to human factors when used in pairs, and considering that the plate-shaped bodies need to be frequently moved and flipped during use, in order to fix them firmly enough, connection structures for connecting two plate-shaped bodies are respectively provided on each plate-shaped body. The connection methods can adopt threaded connection, dovetail groove and dovetail slider sliding connection, etc. Specifically, when adopting the threaded connection method, the corresponding connection structure can be threaded through holes provided on the mating surfaces of each plate-shaped body, and the connection is realized by bolts and nuts adapted to the threaded holes when any two plate-shaped bodies are butted. In addition, when using the dovetail groove and dovetail slider sliding connection method, the corresponding connection structure can be that one of the dovetail groove and dovetail slider is provided at the edge position of each plate-shaped body, and the other is provided at another edge parallel to the edge position. After considering the comprehensive processing difficulty and production cost, in this embodiment, the connection holes 4 provided on the mating surfaces of the plate-shaped bodies are preferably used to connect the two plate-shaped bodies. To further ensure the reliability of the connection, there are multiple connection holes 4, and some are at the edge position of the plate-shaped body, and some are in the middle area of the plate-shaped body. The connection between the two plate-shaped bodies is realized by connection pins respectively inserted into the connection holes 4 of the two plate-shaped bodies at both ends. During actual operation, it is necessary to make the openings of the receiving grooves 2 of any two plate-shaped bodies completely opposite. To ensure quick alignment during the butting process, in this embodiment, the positioning holes 3 and the connection holes 4 are provided at the edge positions of the plate-shaped bodies, so that when butting or removing the plate-shaped bodies, only an upward or downward force needs to be applied in the direction perpendicular to the mating surface to easily complete the loading and unloading.

[0024] From the above technical solutions, it can be seen that for the diamond processing auxiliary tool provided by the present utility model, since a plurality of receiving grooves 2 capable of accommodating diamonds are provided on the largest surface of the plate-shaped body, the receiving grooves 2 can be arranged in different ways on the largest surface of the plate-shaped body. However, in order to keep the diamonds accommodated in the receiving grooves 2 always in a certain positional relationship with the positioning holes 3, it is convenient to trace the production batches of the diamonds at the corresponding positions. In a more preferred embodiment, the receiving grooves 2 are arranged in a matrix. The shape of the receiving grooves 2 arranged in a matrix can be set as square, circular, etc. Considering that in the actual processing process, the diamonds may have irregular appearance shapes, to avoid unnecessary bumps or jams during the placement or transfer of the diamonds, which may affect the product qualification rate, in another specific embodiment, the largest surface of each plate-shaped body is set as a grid, and the grooves corresponding to each grid constitute the receiving grooves 2.

[0025] To more clearly illustrate the usage method of the diamond processing auxiliary tool provided by the present utility model, as Figure 3As shown, the first plate-shaped main body 1 is a carrying tool used in the previous process, and the second plate-shaped main body 5 is a carrying tool used in the next process. Before starting the next process, the second plate-shaped main body 51 is buckled on the first plate-shaped main body containing diamonds. The positioning holes 3 and the connection holes 4 of the two plate-shaped main bodies correspond to each other, and positioning pins and connection pins are respectively used for positioning and connection. After confirming the completion of the connection, the whole is flipped 180°, and then the first plate-shaped main body 1 is disassembled, and the batch transfer of diamonds can be realized. During the whole process, due to the arrangement mode of the accommodation grooves 2 and the setting of the positioning holes 3, each diamond can maintain its original arrangement order, and there will be no collision between diamonds. The diamonds in different accommodation grooves will not only not be confused during the flipping process of the two plate-shaped main bodies, but also ensure that the diamonds will not collide with each other, which improves the yield rate to a certain extent.

[0026] Due to the differences in diamond processing procedures, in addition to playing a transfer role during the switching of production procedures, each plate-shaped main body also plays a carrying role in each production procedure. To adapt to the different processing procedure environments and ensure that each plate-shaped main body can be used for a long time in its respective working environment and reduce deformation and damage, therefore, taking the two processing procedures of heat treatment and ultrasonic cleaning as examples, in a more preferable embodiment, the plate-shaped main body used in the heat treatment procedure can be but not limited to a graphite plate-shaped main body, and the plate-shaped main body used for ultrasonic cleaning can be an alloy plate-shaped main body.

[0027] The above is only a preferred embodiment of the present invention and is not intended to limit the present invention. The patent protection scope of the present invention is subject to the claims. All equivalent structural changes made by using the description and drawings of the present invention should, by the same token, be included in the protection scope of the present invention.

Claims

1. A diamond processing auxiliary tool, characterized in that: It comprises a group of plate-like bodies, each of which is provided with a plurality of accommodating grooves on the largest surface thereof for accommodating each diamond, and each of which is provided with a positioning structure to ensure that when any two of the group of plate-like bodies are buckled in a manner in which the notches of the accommodating grooves are opposite to each other, the notches of the accommodating grooves corresponding to the positions on the two plate-like bodies are facing each other, the positioning structure comprises a positioning hole arranged on the buckling surface of the plate-like body, there are more than two positioning holes or the positioning holes are non-circular holes, and the positioning of the two plate-like bodies is achieved by positioning pins whose two ends are respectively inserted into the positioning holes of the two plate-like bodies, the plate-like body is square, the positioning hole has one and is arranged at a corner of the plate-like body, and the positioning hole is a cross-shaped hole, and each of the plate-like bodies is provided with a connecting structure for connecting the two plate-like bodies, the connecting structure comprises a connecting hole arranged on the buckling surface of the plate-like body, and the connection of the two plate-like bodies is achieved by connecting pins whose two ends are respectively inserted into the connecting holes of the two plate-like bodies.

2. The diamond processing auxiliary tool according to claim 1, characterized in that: There are multiple connection holes, some of which are located at the edge of the plate-shaped body, and some are located in the middle area of ​​the plate-shaped body.

3. The diamond processing auxiliary tool according to claim 1 or 2, characterized in that: The receiving slots are arranged in a matrix.

4. The diamond processing auxiliary tool according to claim 3, characterized in that: The largest surface of the plate-like body is a grid structure, and the grooves corresponding to each grid constitute the receiving groove.

5. The diamond processing auxiliary tool according to claim 1 or 2, characterized in that: The set of plate-like bodies includes a graphite plate-like body that can be subjected to a heat treatment process and an alloy plate-like body that can be subjected to ultrasonic cleaning.

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