Conveying and cooling mechanism for production of high-capacity blue light storage medium

Abstract

The utility model relates to the technical field of blue light storage medium processing, in particular to a transmission cooling mechanism for high-capacity blue light storage medium production, which comprises a plurality of cooling lines arranged at intervals, each cooling line comprises a pair of linear conveying lines arranged in parallel at intervals, a bent conveying line is connected between the two linear conveying lines, and the bent conveying line is connected with the cooling lines. A transfer manipulator is arranged between every two adjacent cooling lines, and a clamping fixture for clamping a product is mounted at the driving end of each transfer manipulator; products needing to be cooled enter the cooling lines and then advance along the linear conveying line, the bent conveying line and the linear conveying line in sequence, and the products are transferred to the next cooling line through a clamping fixture of the transferring mechanical arm to continue standing and cooling. Due to the fact that the cooling lines are in the shape of the annular runway, long space is not occupied, a large amount of space is saved, the multiple cooling lines are matched with one another, a long-distance cooling area can be formed for standing and cooling of products, and the requirement for cooling is met.

Description

Technical Field

[0001] The utility model relates to the technical field of blue - ray storage medium processing, in particular to a transmission and cooling mechanism for the production of large - capacity blue - ray storage media. Background Technique

[0002] Sputtering is one of the main technologies for preparing thin - film materials. It uses ions generated by an ion source, which are accelerated and aggregated in a vacuum to form a high - speed and high - energy ion beam. The ion beam bombards the solid surface, and kinetic energy exchange occurs between the ions and the atoms on the solid surface, causing the atoms on the solid surface to leave the solid and deposit on the substrate surface. The solid being bombarded is the raw material for depositing the thin - film by sputtering, called the sputtering target.

[0003] In a sputtering production line, the temperature of the product after sputtering is relatively high and needs to be cooled. Most of the existing cooling mechanisms use a fan to blow away the surface temperature of the product. When the product passes through the blowing area of the fan, blowing cooling and heat dissipation are achieved. To increase the heat dissipation effect, a relatively long conveyor line is usually set up, and fans are arranged along the conveyor line to blow and cool the product respectively. This method requires a long space and affects the layout of other equipment. Content of the Utility Model

[0004] The purpose of the utility model is to provide a transmission and cooling mechanism for the production of large - capacity blue - ray storage media in view of the deficiencies of the prior art.

[0005] To achieve the above - mentioned purpose, the technical solution of the utility model is as follows:

[0006] A transmission and cooling mechanism for the production of large - capacity blue - ray storage media, including a plurality of cooling lines arranged at intervals, characterized in that:

[0007] Each cooling line includes a pair of straight conveyor lines arranged in parallel at intervals, with a curved conveyor line connected between the two straight conveyor lines. The two straight conveyor lines and the curved conveyor line form a ring - shaped runway - like cooling line;

[0008] Each cooling line further includes a straight support frame for supporting the straight conveyor line and a curved support frame for supporting the curved conveyor line; A transfer manipulator is arranged between two adjacent cooling lines, and a clamping fixture for clamping the product is installed at the driving end of the transfer manipulator.

[0009] Furthermore: A plurality of cooling fans are respectively arranged above the straight support frame and the curved support frame, and two adjacent cooling fans are arranged at intervals.

[0010] Furthermore: The straight conveyor line includes a straight conveyor belt and a pair of straight conveyor plates arranged at intervals, and the straight conveyor line is arranged along the length direction of the straight conveyor plates.

[0011] Further: The bending conveyor line includes a pair of arc plates arranged at intervals, and a conveyor roller assembly is arranged between the two arc plates. The conveyor roller assembly includes a plurality of forward conveyor rollers arranged at intervals, and two adjacent forward conveyor rollers are drivingly connected.

[0012] Further: The number of cooling lines is three. The transfer manipulator between the first cooling line and the second cooling line is located on the left; the transfer manipulator between the second cooling line and the third cooling line is located on the right.

[0013] Further: A blanking manipulator is arranged beside the third cooling line.

[0014] Further: The transfer manipulator includes a transfer support frame, a robot is installed on the top of the transfer support frame, and a clamping fixture is installed at the execution end of the robot.

[0015] Further: The robot includes a support base installed on the transfer support frame, a laterally rotatable lateral drive arm is installed on the support base, a longitudinally movable longitudinal drive arm is installed at the end of the lateral drive arm, and the clamping fixture is installed at the bottom of the longitudinal drive arm.

[0016] Further: A longitudinally arranged longitudinal telescopic cylinder is installed at the end of the lateral drive arm, and a connecting plate is installed at the driving end of the longitudinal telescopic cylinder.

[0017] Further: The clamping fixture includes a clamping drive seat connected to the connecting plate, a finger cylinder capable of performing an opening and closing movement is installed on the clamping drive seat, and a driving clamping block is installed at the driving end of the finger cylinder.

[0018] The beneficial effects of the present utility model: After the product to be cooled enters the cooling line, it advances along the straight conveyor line, the bending conveyor line and the straight conveyor line in sequence, and the clamping fixture of the transfer manipulator transfers the product to the next cooling line for further static cooling; Since the cooling line is in the shape of a circular runway, it does not occupy a long space, saving a large amount of space. Multiple cooling lines cooperate with each other to form a long cooling area for the product to be statically cooled, meeting the requirements of cooling and temperature reduction. Description of the Drawings

[0019] Figure 1 It is a schematic structural diagram of the transmission and cooling mechanism.

[0020] Figure 2 It is a schematic plan view of the transmission and cooling mechanism.

[0021] Figure 3 It is a schematic structural diagram of the cooling line.

[0022] Figure 4 It is a schematic structural diagram of the transfer manipulator.

[0023] The reference numerals include:

[0024] 1 - Cooling line,

[0025] 11 - Linear conveyor line, 12 - Linear conveyor belt, 13 - Linear conveyor plate, 14 - Curved conveyor line,

[0026] 15 - Arc plate, 16 - Forward conveyor roller, 17 - Linear support frame, 18 - Curved support frame,

[0027] 2 - Transfer manipulator,

[0028] 21 - Transfer support frame, 22 - Robot, 23 - Lateral drive arm, 24 - Longitudinal drive arm,

[0029] 25 - Longitudinal telescopic cylinder, 26 - Connecting plate, 27 - Clamping fixture, 28 - Clamping drive seat,

[0030] 29 - Finger cylinder, 30 - Driving clamping block. Detailed implementation manner

[0031] The following will describe the present utility model in detail with reference to the accompanying drawings.

[0032] As Figures 1-4 shown, a transfer cooling mechanism for the production of large - capacity Blu - ray storage media includes a plurality of cooling lines 1 arranged at intervals. The product is a large - capacity Blu - ray storage media, that is, an optical disc.

[0033] The cooling line 1 includes a pair of linear conveyor lines 11 arranged in parallel at intervals. A curved conveyor line 14 is connected between the two linear conveyor lines 11. The two linear conveyor lines 11 and the curved conveyor line 14 form a cooling line 1 in the shape of an annular runway; the cooling line 1 further includes a linear support frame 17 for supporting the linear conveyor line 11 and a curved support frame 18 for supporting the curved conveyor line 14; a transfer manipulator 2 is arranged between two adjacent cooling lines 1, and a clamping fixture 27 for clamping the product is installed at the driving end of the transfer manipulator 2.

[0034] After the product to be cooled enters the cooling line 1, it advances along the linear conveyor line 11, the curved conveyor line 14, and the linear conveyor line 11 in sequence. The clamping fixture 27 of the transfer manipulator 2 transfers the product to the next cooling line 1 for continued static cooling; since the cooling line 1 is in the shape of an annular runway, it does not occupy a long space, saving a large amount of space. Multiple cooling lines 1 cooperate with each other to form a long - distance cooling area for the product to be statically cooled, meeting the requirements of cooling and temperature reduction.

[0035] The linear conveyor line 11 includes a linear conveyor belt 12 and a pair of linearly spaced linear conveyor plates 13. The linear conveyor belt 12 is arranged along the length direction of the linear conveyor plates 13. The linear conveyor plates 13 support the linear conveyor belt 12 to enable the linear conveyor belt 12 to move smoothly. Products entering the linear conveyor belt 12 can advance smoothly for progressive conveying, facilitating static cooling.

[0036] The curved conveyor line 14 includes a pair of spaced arc-shaped plates 15. A conveyor roller assembly is arranged between the two arc-shaped plates 15. The conveyor roller assembly includes a plurality of spaced forward conveyor rollers 16, and two adjacent forward conveyor rollers 16 are drivingly connected. The arc-shaped plates 15 are in a semi-circular ring structure. One end of the arc-shaped plate 15 is connected to one of the linear conveyor lines 11, and the other end of the arc-shaped plate 15 is connected to the other linear conveyor line 11, thereby achieving closure. Products can be circulated and conveyed in the cooling line 1 to achieve circulating cooling.

[0037] There are three cooling lines 1. The transfer manipulator 2 between the first cooling line 1 and the second cooling line 1 is located on the left side; the transfer manipulator 2 between the second cooling line 1 and the third cooling line 1 is located on the right side. After the product circulates once in the first cooling line 1, it enters the clamping area of the transfer manipulator 2. At this time, the product can be transferred to the second cooling line 1 by the transfer manipulator 2 for continued cooling.

[0038] A blanking manipulator is arranged beside the third cooling line 1. After being cooled by multiple cooling lines 1, blanking is achieved through the blanking manipulator, and the product is transferred to the next process for further processing.

[0039] The transfer manipulator 2 includes a transfer support frame 21. A robot 22 is installed on the top of the transfer support frame 21, and a clamping fixture 27 is installed at the execution end of the robot 22. The robot 22 includes a support base installed on the transfer support frame 21. The support base is provided with a laterally rotatable lateral drive arm 23. A longitudinally movable longitudinal drive arm 24 is installed at the end of the lateral drive arm 23, and the clamping fixture 27 is installed at the bottom of the longitudinal drive arm 24. When transferring the product from the first cooling line 1 to the second cooling line 1, the lateral drive arm 23 of the robot 22 swings laterally to be longitudinally aligned with the first cooling line 1. Subsequently, the clamping fixture 27 installed on the longitudinal drive arm 24 descends, and the product is clamped by the clamping fixture 27. Then, the lateral drive arm 23 of the robot 22 swings laterally to be longitudinally aligned with the second cooling line 1, and the clamping fixture 27 installed on the longitudinal drive arm 24 descends to place the product into the second cooling line 1.

[0040] Furthermore, a longitudinally arranged longitudinal telescopic cylinder 25 is installed at the end of the lateral drive arm 23. A connecting plate 26 is installed at the driving end of the longitudinal telescopic cylinder 25. The clamping fixture 27 realizes lifting movement under the drive of the longitudinal telescopic cylinder 25.

[0041] Furthermore, the clamping fixture 27 includes a clamping drive seat 28 connected to the connecting plate 26. A finger cylinder 29 capable of performing opening and closing movements is installed on the clamping drive seat 28. A driving clamping block 30 is installed at the driving end of the finger cylinder 29. During clamping, the driving clamping blocks 30 are driven by the finger cylinder 29 to separate from or move away from each other, so as to achieve clamping or loosening.

[0042] In one embodiment, a plurality of cooling fans are respectively arranged above the linear support frame 17 and the bending support frame 18, and are arranged at intervals between adjacent two cooling fans; during cooling, the heat of the product can be blown away by setting the cooling fans, further improving the heat dissipation efficiency.

[0043] In summary, it can be seen that the present utility model has the excellent characteristics described above, so that it can enhance the efficiency that has never been achieved in the prior art during use and has practicability, becoming a product with extremely high practical value.

[0044] The above content is only the preferred embodiment of the present utility model. For those of ordinary skill in the art, according to the idea of the present utility model, there will be changes in the specific implementation manner and application scope. The content of this specification should not be construed as a limitation to the present utility model.

Claims

1. A transmission cooling mechanism for the production of large-capacity blue-ray storage media, comprising a plurality of cooling lines arranged at intervals, characterized in that: The cooling line comprises a pair of parallel and spaced straight conveying lines, a curved conveying line is connected between the two straight conveying lines, and the two straight conveying lines and the curved conveying line form a circular runway-shaped cooling line; The cooling line also includes a linear support frame for supporting the linear conveyor line and a curved support frame for supporting the curved conveyor line; a transfer robot is arranged between two adjacent cooling lines, and a clamping fixture for clamping the product is installed at the driving end of the transfer robot.

2. The transmission cooling mechanism for large-capacity blue-ray storage medium production according to claim 1, characterized in that: A plurality of cooling fans are arranged above the linear support frame and the curved support frame respectively, and two adjacent cooling fans are arranged at intervals.

3. The transmission cooling mechanism for producing large-capacity blue-ray storage media according to claim 2, characterized in that: The linear conveying line comprises a linear conveying belt and a pair of linear conveying plates arranged at intervals, and the linear conveying belt is arranged along the length direction of the linear conveying plates.

4. The transmission cooling mechanism for large-capacity blue-ray storage medium production according to claim 3, characterized in that: The curved conveyor line comprises a pair of arc-shaped plates arranged at intervals, a conveyor roller assembly is arranged between the two arc-shaped plates, the conveyor roller assembly comprises a plurality of forward conveyor rollers arranged at intervals, and two adjacent forward conveyor rollers are connected in transmission.

5. The transmission cooling mechanism for large-capacity blue-ray storage medium production according to claim 1, characterized in that: There are three cooling lines, and the transfer robot between the first cooling line and the second cooling line is located on the left; the transfer robot between the second cooling line and the third cooling line is located on the right.

6. The transmission cooling mechanism for large-capacity blue-ray storage medium production according to claim 5, characterized in that: A material unloading robot is arranged beside the third cooling line.

7. The transmission cooling mechanism for large-capacity blue-ray storage medium production according to claim 1, characterized in that: The transfer manipulator comprises a transfer support frame, a robot is installed on the top of the transfer support frame, and a clamping fixture is installed on the execution end of the robot.

8. The transmission cooling mechanism for producing large-capacity blue-ray storage media according to claim 7, characterized in that: The robot comprises a support base installed on a transfer support frame, the support base is provided with a transverse driving arm capable of transverse rotation, a longitudinal driving arm capable of longitudinal movement is installed at the end of the transverse driving arm, and a clamping fixture is installed at the bottom of the longitudinal driving arm.

9. The transmission cooling mechanism for producing large-capacity blue-ray storage media according to claim 8, characterized in that: A longitudinally arranged longitudinal telescopic cylinder is installed at the end of the transverse driving arm, and a connecting plate is installed at the driving end of the longitudinal telescopic cylinder.

10. The transmission cooling mechanism for large-capacity blue-ray storage medium production according to claim 9, characterized in that: The clamping fixture comprises a clamping drive seat connected to the connecting plate, the clamping drive seat is equipped with a finger cylinder capable of opening and closing movements, and a driving clamp block is installed at the driving end of the finger cylinder.

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