A solar cell silicon wafer stacking side-by-side basket structure

Abstract

The present invention discloses a solar cell silicon wafer stacking side-placed flower basket structure, which relates to the field of photovoltaic cell technology, and comprises a bottom plate, wherein the bottom four corners of the bottom plate are fixedly connected with universal wheels, a side wall at one end of the bottom plate is fixedly connected with a push-pull handle, and the top side wall of the bottom plate is symmetrically fixedly connected with two support plates, and the top side walls of the two support plates are fixedly connected with the same placement plate. The present invention can adjust the angle of the fixed plate according to the inclination angle of the two ends of the solar cell silicon wafer when it is necessary to use the flower basket structure to transport and process the curved solar cell silicon wafer, so that the two ends of the solar cell silicon wafer can be fixed by the fixed plate, and the curved solar cell silicon wafer can be firmly fixed without replacing different fixed plates according to the bending angle of the curved solar cell silicon wafer, which greatly improves the work efficiency and reliability of the solar cell silicon wafer production.

Description

Technical Field

[0001] The invention belongs to the technical field of photovoltaic cells, and in particular relates to a solar cell silicon wafer stacking side-placed basket structure. Background Art

[0002] After each production step of solar cell silicon wafers is completed, a flower basket structure is needed to transport the processed solar cell silicon wafers to the location of the next production step. Using a flower basket structure to transport solar cell silicon wafers can effectively protect the silicon wafers, reduce losses caused by collisions, scratches, etc. during transportation and handling, reduce material loss, and thus reduce production costs.

[0003] The flower basket structure in the prior art usually uses multiple fixing plates to form multiple placement spaces, and then the solar cell silicon wafers are directly placed in the placement space, and then the solar cell silicon wafers are fixed by using the fixing plates with adjustable positions, and then the transportation of the solar cell silicon wafers is completed by moving the flower basket structure. However, in building integrated photovoltaic (BIPV) applications, in order to match the curved surface design of the building, such as curved roofs and facades, the solar cell silicon wafers will be designed to adapt to the shapes of these curves. When the curved cell silicon wafers are directly fixed by the fixing plates, it is easy to cause damage to the surface of the cell silicon wafers. When different fixing plates are designed according to the shape of the curved cell silicon wafers to fix the cell silicon wafers, the cost is relatively high. In addition, when the bending angles of the cell silicon wafers produced in each batch are different, the corresponding fixing plates need to be replaced according to the bending angles of the cell silicon wafers, which greatly reduces the work efficiency and reliability of the solar cell silicon wafer production.

[0004] Therefore, we propose a solar cell silicon wafer stacking side-by-side basket structure to solve the above problems. Summary of the invention

[0005] In order to achieve the above object, the present invention adopts the following technical solutions:

[0006] The foldable structure is a kind of solar cell silicon wafer stacking side-placed flower basket structure, comprising a bottom plate, the four corners of the bottom end of the bottom plate are fixedly connected with universal wheels, one end side wall of the bottom plate is fixedly connected with a push-pull handle, the top side wall of the bottom plate is symmetrically fixedly connected with two support plates, the top side walls of the two support plates are fixedly connected with the same placement plate, the side wall of the placement plate is provided with a plurality of placement openings, the upper and lower inner walls of the placement opening are symmetrically provided with two first grooves, the inner walls of the first grooves are fixedly connected with a first electric slide rail, the side walls of the first electric slide rail are slidably connected with a first slide plate, the side walls of the first slide plate are fixedly connected with an active support assembly, the upper and lower inner walls of the placement opening are symmetrically provided with two second grooves, the inner wall of one end of the second groove is fixedly connected with an auxiliary support assembly, the inner walls of the two ends of the placement opening are symmetrically provided with two third grooves, and the inner wall of the third groove is rotatably connected with a reinforcement assembly.

[0007] Preferably, the active support component includes an installation frame fixedly connected to the side wall of the first slide, the inner wall of the installation frame is fixedly connected to the second electric slide rail, the top side wall of the second electric slide rail is slidably connected to the second slide, the inner wall of the second slide is provided with a first cavity, the bottom inner wall of the first cavity is fixedly connected to the first motor, and the top side wall of the second slide is rotatably connected to the first electric telescopic rod.

[0008] Preferably, the output ends of the first motors pass through the side walls of the second slide plates and are fixedly connected to one end of the corresponding first electric telescopic rods, the telescopic ends of the first electric telescopic rods are fixedly connected to the first U-shaped plates, two second electric telescopic rods are symmetrically fixedly connected to the inner walls at both ends of the first U-shaped plates, and the telescopic ends of the second electric telescopic rods are fixedly connected to the fixing plates.

[0009] Preferably, the auxiliary support assembly includes a third electric telescopic rod fixedly connected to the inner wall at one end of the second groove, the telescopic ends of the third electric telescopic rod are fixedly connected to the support frame, the bottom inner wall of the support frame is fixedly connected to the third electric slide rail, the top side walls of the third electric slide rail are slidably connected to the third slide plate, the third slide plate is provided with a second cavity inside, and the inner wall of the second cavity is fixedly connected to the second motor.

[0010] Preferably, the top side walls of the third slide plate are rotatably connected to the fourth electric telescopic rod, the telescopic ends of the second motors pass through the side walls of the third slide plate and are fixedly connected to one end of the corresponding fourth electric telescopic rod, the telescopic ends of the fourth electric telescopic rods are fixedly connected to the second U-shaped plate, the inner walls at both ends of the second U-shaped plate are symmetrically fixedly connected to two fifth electric telescopic rods, and the telescopic ends of the fifth electric telescopic rods are fixedly connected to clamping plates.

[0011] Preferably, the reinforcement assembly includes a bidirectional screw rotatably connected to the inner wall of the third groove, the rod walls of the bidirectional screw are threadedly rotatably connected to two movable plates, the side walls of the placement plate are fixedly connected to multiple third motors, the output ends of the multiple third motors all penetrate the side walls of the placement plate and are fixedly connected to one end of the corresponding bidirectional screw, one end side wall of the movable plate is fixedly connected to an eighth electric telescopic rod, and the telescopic ends of the eighth electric telescopic rod are fixedly connected to a connecting plate.

[0012] Preferably, the side walls at one end of the connecting plate are fixedly connected to the sixth electric telescopic rod, the telescopic end of the sixth electric telescopic rod is rotatably connected to the first round rod, the rod walls of the first round rod are fixedly connected to the reinforcement plate, the side walls at one end of the connecting plate are fixedly connected to the seventh electric telescopic rod, the telescopic end of the seventh electric telescopic rod is rotatably connected to the second round rod, and the side walls at one end of the reinforcement plate are provided with a fourth groove.

[0013] Preferably, the inner walls of the fourth grooves are slidably connected with a moving block, the side walls of the moving block are rotatably connected to the outer wall of the second round rod, the inner walls at both ends of the third grooves are fixedly connected to the same guide rod, the rod walls of the guide rods are slidably connected with two limit plates, and the bottom side walls of the limit plates are fixedly connected to the top side walls of the corresponding moving plates.

[0014] Compared with the prior art, the present invention has the following beneficial effects:

[0015] The active support component, auxiliary support component and reinforcement component that are set up can adjust the angle of the fixing plate according to the inclination angle of the two ends of the solar cell silicon wafer when it is necessary to use the basket structure to transport and process the curved solar cell silicon wafer. This makes it convenient to fix the two ends of the solar cell silicon wafer with the fixing plate. At the same time, the inclination angle of the clamping plate can be matched with the inclination angles of the two sides of the middle bend of the solar cell silicon wafer. This makes it convenient to fix the two sides of the middle bend of the solar cell silicon wafer with the clamping plate, so as to fix the upper and lower ends of the curved solar cell silicon wafer. The inclination angle of the reinforcement plate can also be adjusted so that the reinforcement plate fixes the two ends of the middle bend of the solar cell silicon wafer, thereby firmly fixing the curved solar cell silicon wafer, avoiding damage to the surface of the battery silicon wafer by directly fixing the curved battery silicon wafer with the fixing plate, and there is no need to replace different fixing plates according to the bending angle of the curved solar cell silicon wafer. This greatly improves the work efficiency and reliability during the production of solar cell silicon wafers. BRIEF DESCRIPTION OF THE DRAWINGS

[0016] Figure 1 It is a structural schematic diagram of the present invention from a first angle;

[0017] Figure 2 It is a structural schematic diagram of the present invention from a second angle;

[0018] Figure 3 It is a schematic cross-sectional view of part of the structure of the present invention;

[0019] Figure 4 For the present invention Figure 3 A magnified view of part A;

[0020] Figure 5 It is a partial structural schematic diagram of the present invention;

[0021] Figure 6 This is another structural schematic diagram of the present invention.

[0022] In the figure: 1, bottom plate; 2, universal wheel; 3, push-pull handle; 4, support plate; 5, placement plate; 6, placement opening; 7, first groove; 8, first electric slide rail; 9, first slide plate; 10, active support assembly; 101, mounting frame; 102, second electric slide rail; 103, second slide plate; 104, first cavity; 105, first motor; 106, first electric telescopic rod; 107, first U-shaped plate; 108, second electric telescopic rod; 109, fixing plate; 11, second groove; 12, auxiliary support assembly; 121, third electric telescopic rod; 122, support frame; 123, third electric slide rail; 124, first three slide plates; 125, second cavity; 126, second motor; 127, fourth electric telescopic rod; 128, second U-shaped plate; 129, fifth electric telescopic rod; 1210, clamping plate; 13, third groove; 14, reinforcement assembly; 141, bidirectional screw; 142, moving plate; 143, third motor; 144, connecting plate; 145, sixth electric telescopic rod; 146, first round rod; 147, reinforcement plate; 148, seventh electric telescopic rod; 149, second round rod; 1410, fourth groove; 1411, moving block; 1412, guide rod; 1413, limit plate; 1414, eighth electric telescopic rod. DETAILED DESCRIPTION

[0023] The technical solutions in the embodiments of the present invention will be described clearly and completely below in conjunction with the drawings in the embodiments of the present invention. Obviously, the described embodiments are only part of the embodiments of the present invention, rather than all the embodiments.

[0024] The following electrical components are all electrically connected to the peripheral PLC controller.

[0025] Reference Figure 1 - Figure 6A solar cell silicon wafer stacking side-placed flower basket structure, comprising a bottom plate 1, universal wheels 2 are fixedly connected at the four corners of the bottom end of the bottom plate 1, a push-pull handle 3 is fixedly connected to the side wall of one end of the bottom plate 1, two support plates 4 are symmetrically fixedly connected to the top side wall of the bottom plate 1, the top side walls of the two support plates 4 are fixedly connected to the same placement plate 5, a plurality of placement openings 6 are provided on the side wall of the placement plate 5, two first grooves 7 are symmetrically provided on the inner walls at the upper and lower ends of the placement opening 6, the inner walls of the first grooves 7 are fixedly connected to the first electric slide rails 8, the side walls of the first electric slide rails 8 are slidably connected to the first slide plate 9, the side walls of the first slide plate 9 are fixedly connected to the active support components 10, two second grooves 11 are symmetrically provided on the inner walls at the upper and lower ends of the placement opening 6, an auxiliary support component 12 is fixedly connected to the inner wall of one end of the second groove 11, two third grooves 13 are symmetrically provided on the inner walls at the two ends of the placement opening 6, and a reinforcement component 14 is rotatably connected to the inner wall of the third groove 13.

[0026] In the embodiment, the active support assembly 10 includes a mounting frame 101 to which the side wall of the first slide plate 9 is fixedly connected, the inner wall of the mounting frame 101 is fixedly connected with the second electric slide rail 102, the top side wall of the second electric slide rail 102 is slidably connected with the second slide plate 103, the inner wall of the second slide plate 103 is provided with a first cavity 104, the bottom inner wall of the first cavity 104 is fixedly connected with the first motor 105, and the top side wall of the second slide plate 103 is rotatably connected with the first electric telescopic rod 106;

[0027] The output ends of the first motors 105 pass through the side walls of the second slide plate 103 and are fixedly connected to one end of the corresponding first electric telescopic rod 106. The telescopic ends of the first electric telescopic rod 106 are fixedly connected to the first U-shaped plate 107. Two second electric telescopic rods 108 are symmetrically fixedly connected to the inner walls at both ends of the first U-shaped plate 107. The telescopic ends of the second electric telescopic rods 108 are fixedly connected to the fixing plates 109.

[0028] Specifically, when the flower basket structure is needed to transport curved solar cell silicon wafers, the angle of the fixing plate 109 can be adjusted according to the inclination angles of the two ends of the solar cell silicon wafer, so that the two ends of the solar cell silicon wafer can be fixed by the fixing plate 109.

[0029] In the embodiment, the auxiliary support assembly 12 includes a third electric telescopic rod 121 fixedly connected to the inner wall of one end of the second groove 11, the telescopic ends of the third electric telescopic rod 121 are fixedly connected to the support frame 122, the inner wall of the bottom end of the support frame 122 is fixedly connected to the third electric slide rail 123, the top side wall of the third electric slide rail 123 is slidably connected to the third slide plate 124, the interior of the third slide plate 124 is provided with a second cavity 125, and the inner wall of the second cavity 125 is fixedly connected to the second motor 126;

[0030] The top side walls of the third slide plate 124 are rotatably connected to the fourth electric telescopic rod 127, the telescopic ends of the second motors 126 penetrate the side walls of the third slide plate 124 and are fixedly connected to one end of the corresponding fourth electric telescopic rod 127, the telescopic ends of the fourth electric telescopic rod 127 are fixedly connected to the second U-shaped plate 128, and two fifth electric telescopic rods 129 are symmetrically fixedly connected to the inner walls at both ends of the second U-shaped plate 128, and the telescopic ends of the fifth electric telescopic rod 129 are fixedly connected to the clamping plate 1210.

[0031] Specifically, the inclination angle of the clamp 1210 can be matched with the inclination angles on both sides of the middle bend of the solar cell silicon wafer, so that the clamp 1210 can be used to fix the two sides of the middle bend of the solar cell silicon wafer, thereby fixing the upper and lower ends of the curved solar cell silicon wafer.

[0032] In the embodiment, the reinforcement assembly 14 includes a bidirectional screw 141 rotatably connected to the inner wall of the third groove 13, the rod wall of the bidirectional screw 141 is threadedly rotatably connected to two movable plates 142, a plurality of third motors 143 are fixedly connected to the side wall of the placement plate 5, the output ends of the plurality of third motors 143 all penetrate the side wall of the placement plate 5 and are fixedly connected to one end of the corresponding bidirectional screw 141, the side wall at one end of the movable plate 142 is fixedly connected to the eighth electric telescopic rod 1414, and the telescopic end of the eighth electric telescopic rod 1414 is fixedly connected to the connecting plate 144;

[0033] The side wall at one end of the connecting plate 144 is fixedly connected with a sixth electric telescopic rod 145, the telescopic end of the sixth electric telescopic rod 145 is rotatably connected with a first round rod 146, the rod wall of the first round rod 146 is fixedly connected with a reinforcing plate 147, the side wall at one end of the connecting plate 144 is fixedly connected with a seventh electric telescopic rod 148, the telescopic end of the seventh electric telescopic rod 148 is rotatably connected with a second round rod 149, and the side wall at one end of the reinforcing plate 147 is provided with a fourth groove 1410;

[0034] The inner walls of the fourth groove 1410 are slidably connected with a moving block 1411, and the side walls of the moving block 1411 are rotatably connected to the outer wall of the second round rod 149. The inner walls at both ends of the third groove 13 are fixedly connected with the same guide rod 1412, and the rod walls of the guide rod 1412 are slidably connected with two limit plates 1413, and the bottom side walls of the limit plates 1413 are fixedly connected to the top side walls of the corresponding moving plates 142. During the movement of the moving plate 142, the limit plates 1413 are slidably connected to the rod walls of the guide rod 1412. At this time, the limit plates 1413 will limit the moving plate 142 to prevent the moving plate 142 from following the rotation of the bidirectional screw 141 and becoming unable to move, thereby ensuring that the moving plate 142 can move stably.

[0035] Specifically, the inclination angle of the reinforcing plate 147 can be adjusted so that the reinforcing plate 147 fixes the two ends of the middle bend of the solar cell silicon wafer, thereby firmly fixing the curved solar cell silicon wafer.

[0036] The operating principle of the present invention is now described as follows:

[0037] In the present invention, when it is necessary to use the basket structure to transport and process the solar cell silicon wafers, firstly, the second electric slide rail 102 is controlled to start, and the two second slide plates 103 are driven to move, so that the spacing between the two second slide plates 103 matches the spacing at the two ends of the solar cell silicon wafer, and then the first motor 105 is controlled to start, and the first electric telescopic rod 106 is driven to rotate, and the first U-shaped plate 107 is driven to rotate, so that the angle of the opening above the first U-shaped plate 107 can match the inclination angle of the two ends of the solar cell silicon wafer, and then the staff puts the bottom ends of the solar cell silicon wafers into the first U-shaped plates 107 at both ends located at the bottom of the placement opening 6, and then the second electric telescopic rod 108 is controlled to start, and the fixed plate 109 is driven to move. The fixing plate 109 rotates along with the first U-shaped plate 107 during its rotation. At this time, the inclination angle of the fixing plate 109 matches the inclination angle of the outer wall of the solar cell silicon wafer. The fixing plate 109 is used to fix the bottom of the solar cell silicon wafer. After the bottom of the solar cell silicon wafer is fixed, the first electric telescopic rod 106 at the bottom of the opening 6 is controlled to start, driving the solar cell silicon wafer to move upward for a distance. Then, the two first electric telescopic rods 106 above the opening 6 are controlled to start, driving the two corresponding first U-shaped plates 107 to move downward, so that the opening of the first U-shaped plate 107 is located at both ends of the solar cell silicon wafer. Then, the corresponding second electric telescopic rods 108 are controlled to start, and the fixing plate 109 is used to move the solar cell silicon wafer upward for a distance. The two ends above the battery silicon wafer are fixed, and the simple positioning of the solar cell silicon wafer is completed at this time. Then the third electric telescopic rod 121 is controlled to start, driving the support frame 122 to move, so that the support frame 122 and the two sides of the middle bend of the solar cell silicon wafer are in the same plane, and then the third electric slide rail 123 is controlled to start, driving the two third slide plates 124 to move, so that the two third slide plates 124 are respectively located directly below the two sides of the middle bend of the solar cell silicon wafer, and then the second motor 126 is controlled to start, driving the fourth electric telescopic rod 127 to rotate, driving the second U-shaped plate 128 to rotate, so that the angle of the second U-shaped plate 128 can match the inclination angles of the two sides of the middle bend of the solar cell silicon wafer, and then the fourth electric telescopic rod 127 is controlled to start , driving the second U-shaped plate 128 to move toward one end of the solar cell silicon wafer, so that the inner wall of the second U-shaped plate 128 is located on both sides of the solar cell silicon wafer, and then controlling the fifth electric telescopic rod 129 to start, driving the clamping plate 1210 to move, at this time, the inclination angle of the clamping plate 1210 matches the inclination angles on both sides of the middle bend of the solar cell silicon wafer, and the clamping plate 1210 is used to fix both sides of the middle bend of the solar cell silicon wafer, and the upper and lower ends of the solar cell silicon wafer are fixed at this time, and then the third motor 143 is controlled to start, driving the bidirectional screw 141 to rotate, and in the process of the bidirectional screw 141 rotating, it will drive the two moving plates 142 to move, so that the two moving plates 142 move to the two ends of the middle bend of the solar cell silicon wafer,After that, the third motor 143 is controlled to be turned off, and then the sixth electric telescopic rod 145 and the seventh electric telescopic rod 148 are controlled to be started at the same time, and after the reinforcement plate 147 is driven to move a certain distance toward the solar cell silicon wafer, the seventh electric telescopic rod 148 is controlled to extend or retract. During the process of extending or retracting the seventh electric telescopic rod 148, since one end of the reinforcement plate 147 is limited by the first round rod 146, as the seventh electric telescopic rod 148 is extended or retracted, the second round rod 149 will drive the moving block 1411 to move inside the fourth groove 1410, and at this time, the reinforcement plate 147 will be centered on the first round rod 146. The eighth electric telescopic rod 1414 is controlled to start after the reinforcing plate 147 is rotated to an angle matching the two ends of the middle bend of the solar cell silicon wafer, and the connecting plate 144 and the reinforcing plate 147 are driven to move toward one side of the solar cell silicon wafer, and the two sides of the solar cell silicon wafer are fixed by the reinforcing plate 147 with the adjusted angle, so as to ensure that the solar cell silicon wafer can be firmly fixed when the solar cell silicon wafer is transported and processed by the flower basket structure, and when the solar cell silicon wafer needs to be taken out of the flower basket structure by the mechanical arm, the reinforcing plate 147 and the clamping plate 1210 will not be moved by the solar cell silicon wafer. After that, the first electric slide rail 8 is controlled to start, driving the first slide plate 9 to move, so that the solar cell silicon wafer moves from the inside of the placement opening 6, so that the robot arm can transport the solar cell silicon wafer to the production line. When the flower basket structure is needed to transport and process the curved solar cell silicon wafer, the angle of the fixing plate 109 can be adjusted according to the inclination angles at both ends of the solar cell silicon wafer, so that the fixing plate 109 can be used to fix the two ends of the solar cell silicon wafer, and at the same time, the inclination angle of the clamping plate 1210 can be matched with the inclination angles on both sides of the middle bend of the solar cell silicon wafer, so that the clamping plate 1210 can be used to fix the two ends of the solar cell silicon wafer. The two sides of the middle bend of the solar cell silicon wafer can be fixed to fix the upper and lower ends of the curved solar cell silicon wafer. The inclination angle of the reinforcing plate 147 can be adjusted so that the reinforcing plate 147 can fix the two ends of the middle bend of the solar cell silicon wafer, thereby firmly fixing the curved solar cell silicon wafer, avoiding directly using the fixing plate 109 to fix the curved cell silicon wafer to damage the cell silicon wafer surface, and there is no need to replace different fixing plates 109 according to the bending angle of the curved solar cell silicon wafer, which greatly improves the work efficiency and reliability of the solar cell silicon wafer production.

[0038] The above description is only a preferred specific implementation manner of the present invention, but the protection scope of the present invention is not limited thereto. Any technician familiar with the technical field can make equivalent replacements or changes according to the technical scheme and inventive concept of the present invention within the technical scope disclosed by the present invention, which should be covered by the protection scope of the present invention.

Claims

1. A solar cell silicon wafer stacking side-by-side basket structure, comprising a bottom plate, characterized in that: The four corners of the bottom end of the bottom plate are fixedly connected to universal wheels, and a push-pull handle is fixedly connected to the side wall of one end of the bottom plate, and the top side wall of the bottom plate is symmetrically fixedly connected to two support plates, and the top side walls of the two support plates are fixedly connected to the same placement plate, and the side wall of the placement plate is provided with multiple placement openings, and the upper and lower inner walls of the placement opening are symmetrically provided with two first grooves, the inner walls of the first grooves are fixedly connected with a first electric slide rail, and the side walls of the first electric slide rail are slidably connected with a first slide plate, and the side walls of the first slide plate are fixedly connected with an active support component, and the upper and lower inner walls of the placement opening are symmetrically provided with two second grooves, and the inner wall of one end of the second groove is fixedly connected with an auxiliary support component, and the inner walls of the two ends of the placement opening are symmetrically provided with two third grooves, and the inner wall of the third groove is rotatably connected with a reinforcement component; The active support assembly includes a mounting frame to which the side wall of the first slide is fixedly connected, the inner wall of the mounting frame is fixedly connected to the second electric slide rail, the top side wall of the second electric slide rail is slidably connected to the second slide, the inner wall of the second slide is provided with a first cavity, the bottom inner wall of the first cavity is fixedly connected to the first motor, and the top side wall of the second slide is rotatably connected to the first electric telescopic rod; The output ends of the first motors all pass through the side walls of the second slide plate and are fixedly connected to one end of the corresponding first electric telescopic rod, the telescopic ends of the first electric telescopic rods are all fixedly connected to the first U-shaped plate, the inner walls at both ends of the first U-shaped plate are symmetrically fixedly connected to two second electric telescopic rods, and the telescopic ends of the second electric telescopic rods are all fixedly connected to the fixing plate; The reinforcement component includes a bidirectional screw rotatably connected to the inner wall of the third groove, the rod walls of the bidirectional screw are threadedly rotatably connected to two movable plates, the side walls of the placement plate are fixedly connected to multiple third motors, the output ends of the multiple third motors all penetrate the side walls of the placement plate and are fixedly connected to one end of the corresponding bidirectional screw, the side walls of one end of the movable plate are fixedly connected to the eighth electric telescopic rod, and the telescopic ends of the eighth electric telescopic rod are fixedly connected to the connecting plate.

2. A solar cell silicon wafer stacking side-by-side basket structure according to claim 1, characterized in that: The auxiliary support assembly includes a third electric telescopic rod fixedly connected to the inner wall of one end of the second groove, the telescopic ends of the third electric telescopic rod are fixedly connected to the support frame, the bottom inner wall of the support frame is fixedly connected to the third electric slide rail, the top side wall of the third electric slide rail is slidably connected to the third slide plate, the third slide plate is provided with a second cavity inside, and the inner wall of the second cavity is fixedly connected to the second motor.

3. The solar cell silicon wafer stacking side-by-side basket structure according to claim 2, characterized in that: The top side walls of the third slide plate are rotatably connected to the fourth electric telescopic rod, the telescopic ends of the second motors pass through the side walls of the third slide plate and are fixedly connected to one end of the corresponding fourth electric telescopic rod, the telescopic ends of the fourth electric telescopic rods are fixedly connected to the second U-shaped plate, the inner walls at both ends of the second U-shaped plate are symmetrically fixedly connected to two fifth electric telescopic rods, and the telescopic ends of the fifth electric telescopic rods are fixedly connected to clamping plates.

4. The solar cell silicon wafer stacking side basket structure according to claim 1, characterized in that: The side walls at one end of the connecting plate are fixedly connected to the sixth electric telescopic rod, the telescopic end of the sixth electric telescopic rod is rotatably connected to the first round rod, the rod walls of the first round rod are fixedly connected to the reinforcement plate, the side walls at one end of the connecting plate are fixedly connected to the seventh electric telescopic rod, the telescopic end of the seventh electric telescopic rod is rotatably connected to the second round rod, and the side walls at one end of the reinforcement plate are provided with a fourth groove.

5. The solar cell silicon wafer stacking side-by-side basket structure according to claim 4, characterized in that: The inner walls of the fourth grooves are slidably connected with moving blocks, and the side walls of the moving blocks are rotatably connected to the outer wall of the second round rod. The inner walls at both ends of the third grooves are fixedly connected to the same guide rod, and the rod walls of the guide rods are slidably connected with two limit plates, and the bottom side walls of the limit plates are fixedly connected to the top side walls of the corresponding moving plates.

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