Silicon steel sheet double-station receiving and stacking device and silicon steel sheet blanking line

Abstract

The utility model discloses a silicon steel sheet double-station material receiving and stacking device and a silicon steel sheet blanking line, and the silicon steel sheet double-station material receiving and stacking device comprises a material arranging machine which is used for conveying silicon steel sheets and can loosen and fall the silicon steel sheets; and the material receiving unit comprises a displacement motor and two oppositely-arranged material receiving assemblies, and the displacement motor is connected with the two material receiving assemblies and drives the two material receiving assemblies to do linear reciprocating motion together so that one material receiving assembly can be driven to transversely enter the material arranging machine and bear the stacked silicon steel sheets, and the other material receiving assembly can be driven to move out of the material arranging machine to discharge the silicon steel sheets. Silicon steel sheets are conveyed through the material arranging machine and fall, a displacement motor in the material receiving unit drives the two oppositely-arranged material receiving assemblies to do linear reciprocating motion together, and when one material receiving assembly enters the material arranging machine to receive the stacked silicon steel sheets, the other material receiving assembly can synchronously move out of the material arranging machine for discharging. The problem that a traditional device needs to be shut down for outward conveying after receiving and stacking is solved, continuous operation of silicon steel sheet conveying and stacking is achieved, and the production efficiency is greatly improved.

Description

TECHNICAL FIELD

[0001] The utility model relates to the technical field of silicon steel sheet production, especially to silicon steel sheet double station material receiving and stacking device and the silicon steel sheet blanking line with silicon steel sheet double station material receiving and stacking device. BACKGROUND

[0002] In the production and manufacturing field of silicon steel sheet, the silicon steel sheet conveying line is a key link in the production process, which mainly functions to convey silicon steel sheets from the production source to the designated position and stack them according to the process requirements for subsequent processing or storage operations.

[0003] At present, the silicon steel sheet conveying line commonly used in the industry has a serious efficiency bottleneck in the working process after completing the material receiving and stacking task of silicon steel sheets. Specifically, the existing conveying line usually only has a single working mode, i.e., after the material receiving and stacking operation is completed, the entire conveying line system must stop running. This is because there is a lack of effective continuous blanking mechanism, and the outward conveying of the stacked silicon steel group can only be realized by manual intervention. The operator needs to manually carry the stacked silicon steel group to the next process or storage area in the stopped state. This traditional operation method has many adverse effects. First, frequent stoppage of operation greatly reduces production efficiency. Each stoppage will interrupt the continuous conveying and stacking process of silicon steel sheets, causing production rhythm disorder and failing to meet the demand for large-scale and high-efficiency production. SUMMARY

[0004] The utility model aims to solve at least one of the technical problems existing in the prior art. To this end, the utility model provides a silicon steel sheet double station material receiving and stacking device, which realizes double station operation through unique design, so that material receiving and blanking can be performed simultaneously without the need for stoppage and waiting, significantly improving production efficiency, reducing manual operation burden and equipment wear and tear, reducing production cost, and making silicon steel production more continuous and efficient.

[0005] The utility model also provides a silicon steel sheet blanking line with the above-mentioned silicon steel sheet double station material receiving and stacking device.

[0006] The silicon steel sheet double station material receiving and stacking device according to the utility model comprises:

[0007] The sorting machine is used to convey silicon steel sheets and can loosen and drop the silicon steel sheets;

[0008] The material receiving unit comprises a displacement motor and two material receiving assemblies, the two material receiving assemblies are arranged opposite to each other, the displacement motor is connected to and drives the two material receiving assemblies to move linearly reciprocally, so as to drive one of the material receiving assemblies to enter the sorting machine transversely and receive and stack the silicon steel sheets, and drive the other material receiving assembly to move out of the sorting machine to blank the silicon steel sheets.

[0009] The silicon steel sheet double-station material receiving and stacking device has at least the following beneficial effects: the silicon steel sheets are conveyed and allowed to fall by the sorting machine, the displacement motor of the material receiving unit drives the two oppositely arranged material receiving assemblies to jointly linearly reciprocate, when one material receiving assembly enters the sorting machine to receive and stack the silicon steel sheets, the other material receiving assembly can be synchronously moved out of the sorting machine to discharge the silicon steel sheets, the problem that the traditional device needs to be stopped for external delivery after receiving and stacking is avoided, the continuous operation of the silicon steel sheet conveying and stacking is realized, the production efficiency is greatly improved, the increase of labor cost, equipment wear and tear and the interference with the production rhythm caused by the stoppage are reduced, and the smoothness and efficiency of production are ensured.

[0010] According to some embodiments of the silicon steel sheet double-station material receiving and stacking device, the material receiving unit further comprises a track, the track is arranged horizontally and perpendicularly to the conveying direction of the silicon steel sheets, and the two material receiving assemblies are slidingly arranged on the track.

[0011] According to some embodiments of the silicon steel sheet double-station material receiving and stacking device, the material receiving assembly comprises a rack and a plurality of rollers, the plurality of rollers are arranged around the bottom of the rack, and the rollers are rollingly matched with the track.

[0012] According to some embodiments of the silicon steel sheet double-station material receiving and stacking device, the displacement motor is connected to and drives the two rollers symmetrically arranged on the rack to jointly rotate.

[0013] According to some embodiments of the silicon steel sheet double-station material receiving and stacking device, the material receiving unit further comprises a connecting rod, two ends of the connecting rod are fixedly connected with the two material receiving assemblies respectively, so as to drive the two material receiving assemblies to jointly move.

[0014] According to some embodiments of the silicon steel sheet double-station material receiving and stacking device, the material receiving unit further comprises two anti-collision rubbers, and the two anti-collision rubbers are arranged on the opposite sides of the two material receiving assemblies respectively.

[0015] According to some embodiments of the silicon steel sheet double-station material receiving and stacking device, the material receiving assembly comprises a conveying line and a lifting assembly, the lifting assembly can support the silicon steel sheets and transfer the silicon steel sheets to the conveying line.

[0016] According to some embodiments of the silicon steel sheet double-station material receiving and stacking device, the conveying line comprises a plurality of interval arranged rollers, the lifting assembly comprises a lifting motor and a lifting rack, the lifting motor is connected to and drives the lifting rack to move along the vertical direction, the lifting rack can support a material receiving plate for receiving the silicon steel sheets, and the lifting rack can sink into the rollers downward and transfer the material receiving plate to the rollers.

[0017] The silicon steel sheet double-station material receiving and stacking device according to some embodiments of the present application, the conveying line comprises a conveying chain, a conveying motor and a pressing sprocket, the conveying motor is connected with and drives the conveying chain to move in a closed loop, the conveying chain is connected with and drives a plurality of the rollers to move together, the pressing sprocket is located between the two rollers and at the lower side of the rollers, and the conveying chain is arranged around the pressing sprocket to leave a sinking space for accommodating the lifting frame.

[0018] The silicon steel sheet blanking line according to the present application comprises the silicon steel sheet double-station material receiving and stacking device.

[0019] The silicon steel sheet blanking line according to the present application has at least the following beneficial effects: the double-station, high-efficiency and stable characteristics of the device are fully utilized, the silicon steel sheet blanking line can complete the material receiving, stacking and blanking of the silicon steel sheet without interruption, the overall efficiency of the silicon steel sheet production is greatly improved, the production cost is reduced, and the product quality and the automation level of the production process are improved.

[0020] Additional aspects and advantages of the present application will be in part apparent and in part pointed out hereinafter. BRIEF DESCRIPTION OF DRAWINGS

[0021] The above and / or additional aspects and advantages of the present application will become apparent and be readily appreciated from the following description, including the appended drawings.

[0022] Figure 1 FIG. 1 is a schematic view of the overall structure of the silicon steel sheet double-station material receiving and stacking device according to an embodiment of the present application;

[0023] Figure 2 FIG. 2 is a schematic view of the structure of the material receiving unit of the silicon steel sheet double-station material receiving and stacking device according to an embodiment of the present application;

[0024] Figure 3 FIG. 3 is a schematic view of the structure of the lifting frame of the silicon steel sheet double-station material receiving and stacking device according to an embodiment of the present application when the lifting frame is at a high position;

[0025] Figure 4 FIG. 4 is a schematic view of the structure of the lifting frame of the silicon steel sheet double-station material receiving and stacking device according to an embodiment of the present application when the lifting frame is at a low position.

[0026] BRIEF DESCRIPTION OF DRAWINGS

[0027] frame 100; roller 110;

[0028] conveying line 200; roller 210; conveying chain 220; conveying motor 230; pressing sprocket 240; conveying frame 250; accommodating groove 2501;

[0029] Lifting assembly 300; lifting motor 310; lifting frame 320; supporting beam 321; screw rod 331; screw block 332; speed reducer 340; transmission shaft 350;

[0030] Material receiving plate 400;

[0031] Material sorting machine 500;

[0032] Material receiving unit 600; displacement motor 610; material receiving assembly 620; track 630; connecting rod 640; anti-collision rubber 650. DETAILED DESCRIPTION

[0033] The embodiments of the present application are described in detail below, examples of which are shown in the accompanying drawings, wherein the same or similar notations represent the same or similar elements or elements having the same or similar functions throughout. The embodiments described below by referring to the drawings are exemplary only, and are used only for explaining the present application, and cannot be understood as a limitation of the present application.

[0034] In the description of the present application, it is understood that the orientation description, such as the orientation or position relationship indicated by up, down, front, back, left, right, etc. is based on the orientation or position relationship shown in the drawings, and is only for the convenience of describing the present application and simplifying the description, and therefore cannot be understood as a limitation of the present application.

[0035] In the description of the present application, the meaning of several is one or more, and the meaning of multiple is two or more, greater than, less than, more than, etc. are understood as not including the number, above, below, etc. are understood as including the number. If it is described as first, second, it is only used for the purpose of distinguishing technical features, and cannot be understood as indicating or implying relative importance or implicitly indicating the number of indicated technical features or the order of indicated technical features.

[0036] In the description of the present application, unless otherwise explicitly limited, the words such as setting, installing, connecting, etc. should be broadly understood, and the skilled in the art can reasonably determine the specific meaning of the above words in the present application in combination with the specific content of the technical solution.

[0037] In the description of the utility model, the description of the reference terms "one embodiment", "some embodiments", "illustrative embodiment", "example", "specific example" or "some examples" means that the specific features, structures, materials or characteristics described in combination with the embodiment or example are contained in at least one embodiment or example of the utility model. In the specification, the illustrative description of the above terms does not necessarily refer to the same embodiment or example. Moreover, the specific features, structures, materials or characteristics described can be combined in any one or more embodiments or examples in a suitable manner.

[0038] In the field of silicon steel sheet production and manufacturing, the silicon steel sheet conveying line is a key link in the production process, and its main function is to convey the silicon steel sheet from the production source to the designated position and stack it according to the process requirements, so as to facilitate subsequent processing or storage and other operations.

[0039] At present, the silicon steel sheet conveying line commonly used in the industry has a serious efficiency bottleneck in the working process after completing the material receiving and stacking task of the silicon steel sheet. Specifically, the existing conveying line usually only has a single working mode, that is, after the material receiving and stacking operation is completed, the entire conveying line system must stop running. This is because there is a lack of effective continuous feeding mechanism, and only manual intervention can be used to realize the outward conveying of the stacked silicon steel sheet group. The operator needs to manually carry the stacked silicon steel sheet group to the next process or storage area under the stop state. This traditional operation method has brought many adverse effects. First of all, frequent stop operation greatly reduces the production efficiency. Each stop will interrupt the continuous conveying and stacking process of the silicon steel sheet, causing the production rhythm to be disorderly and unable to meet the demand of large-scale and high-efficiency production.

[0040] Therefore, as Figures 1 to 4As shown, the silicon steel sheet double-station receiving and stacking device comprises a material sorting machine 500 and a receiving unit 600, wherein the material sorting machine 500 is used for conveying silicon steel sheets and can release the silicon steel sheets to fall down, for example, the silicon steel sheet material sorting machine 500 magnetically attracts the silicon steel sheets to convey, and releases the silicon steel sheets at a higher position to make the silicon steel sheets fall down. Further, the receiving unit 600 comprises a displacement motor 610 and two receiving assemblies 620, the two receiving assemblies 620 are oppositely arranged, the displacement motor 610 is connected with and drives the two receiving assemblies 620 to jointly linearly reciprocate, so as to drive one receiving assembly 620 to laterally enter the material sorting machine 500 and receive and stack the silicon steel sheets, and drive the other receiving assembly 620 to move out of the material sorting machine 500 to unload the silicon steel sheets. It is easy to understand that the silicon steel sheets are conveyed and made to fall down by the material sorting machine 500, the displacement motor 610 in the receiving unit 600 drives the two oppositely arranged receiving assemblies 620 to jointly linearly reciprocate, when one receiving assembly 620 enters the material sorting machine 500 to receive and stack the silicon steel sheets, the other receiving assembly 620 can synchronously move out of the material sorting machine 500 to unload, which avoids the problem that the traditional device needs to stop after receiving and stacking, realizes the continuous operation of the silicon steel sheet conveying and stacking, greatly improves the production efficiency, reduces the increase of labor cost, equipment wear and tear and the interference to the production rhythm caused by stopping, and guarantees the smoothness and efficiency of production.

[0041] Referring again to Figure 1 and Figure 2In some embodiments of the utility model, the material receiving unit 600 includes a track 630, the track 630 is horizontally arranged perpendicular to the conveying direction of silicon steel sheet, two material receiving assemblies 620 are both slidingly arranged on the track 630, so that the movement of the material receiving assembly 620 is more stable and accurate, and the material receiving assembly 620 can be conveniently extended into the material sorting machine 500 to receive the silicon steel sheet. Moreover, the track 630 provides a clear movement path for the material receiving assembly 620, limits unnecessary shaking and deviation, and ensures that the material receiving assembly 620 can accurately perform linear reciprocating motion according to the predetermined trajectory under the driving of the displacement motor 610. Whether it is to receive the silicon steel sheet into the material sorting machine 500 or to perform the discharging operation by moving out of the material sorting machine 500, the accuracy of the action can be ensured, thereby improving the reliability and stability of the entire device operation, and helping to improve the quality and efficiency of the silicon steel sheet receiving and stacking and discharging. Further, in some embodiments of the utility model, the material receiving assembly 620 includes a rack 100 and a plurality of rollers 110, the plurality of rollers 110 are arranged around the bottom of the rack 100, the rollers 110 are rollingly matched with the track 630, and the friction of the material receiving assembly 620 when moving on the track 630 is greatly reduced. Compared with the sliding mode, the rolling friction coefficient is much smaller, so that the material receiving assembly 620 can move more easily and smoothly on the track 630, which not only reduces the power consumption required for the displacement motor 610 to drive the material receiving assembly 620, but also further improves the speed and response performance of the material receiving assembly 620. The action of receiving the material into the material sorting machine 500 and moving out of the material sorting machine 500 for discharging can be completed faster, thereby improving the working efficiency of the entire silicon steel sheet double-station receiving and stacking device. Specifically, the displacement motor 610 is connected to and drives the two rollers 110 symmetrically arranged on the rack 100 to rotate together. It is easy to understand that the two rollers 110 symmetrically arranged are driven by the displacement motor 610 to achieve more balanced power transmission. In this regard, the two rollers 110 rotate synchronously, so that the stress of the rack 100 on the track 630 is more uniform, avoiding problems such as unstable operation, jamming or deviation from the track 630 of the material receiving assembly 620 caused by uneven stress on one side. This design ensures the stability of the movement of the material receiving assembly 620, ensures that it can maintain accurate position and posture during receiving and conveying the silicon steel sheet, and is beneficial to improve the neatness and accuracy of the silicon steel sheet stacking, thereby improving the product quality. Alternatively, the two rollers 110 symmetrically arranged are fixedly connected by a rotating rod, and the displacement motor 610 is connected to and drives the rotating rod to rotate.

[0042] Referring again to Figure 2In some embodiments of the utility model, the material receiving unit 600 includes a connecting rod 640, both ends of the connecting rod 640 are fixedly connected with two material receiving assemblies 620 respectively, so as to drive the two material receiving assemblies 620 to move together. It should be noted that the existence of the connecting rod 640 enhances the cooperation and integrity between the two material receiving assemblies 620, and under the action of the displacement motor 610, the connecting rod 640 can ensure that the two material receiving assemblies 620 always maintain the consistency of relative position and perform linear reciprocating motion synchronously. This not only enables the two material receiving assemblies 620 to complete the work more coordinately and smoothly when they alternately perform material receiving and discharging operations, but also avoids the problems of collision and interference that may occur due to the asynchronous movement of the two material receiving assemblies 620, further improves the reliability and stability of the device operation, and ensures the smooth progress of the silicon steel sheet material receiving and stacking and discharging work. Further, in the actual operation process, due to the possible vibration or movement deviation of the equipment, the two material receiving assemblies 620 have the risk of collision when approaching the limit position or in the case of unexpected situations. To this end, the material receiving unit 600 includes two anti-collision rubbers 650, which are arranged on the sides opposite to the two material receiving assemblies 620 respectively. The anti-collision rubber 650 has good buffering performance and can absorb and disperse the energy generated by the collision to avoid damage to the material receiving assembly 620 caused by direct impact force. For example, the anti-collision rubber 650 is made of polyurethane, rubber or the like.

[0043] In some applications, the silicon steel sheet sorting machine 500 magnetically attracts the silicon steel sheets for conveying and releases the silicon steel sheets at a higher position to make the silicon steel sheets fall down. However, the existing material receiving device mostly lacks the ability to flexibly adjust the discharging height and cannot quickly and accurately adapt to different discharging heights according to actual needs. For example, it is not convenient to manually take away the silicon steel sheets after receiving the silicon steel sheets at a higher position, and the silicon steel sheets will fall a long distance when receiving the silicon steel sheets at a lower position, which may cause a large positional deviation during falling and thus result in poor material receiving effect. This leads to the need for complex adjustment or even replacement of the equipment during production, which not only increases the complexity and workload of the operation, but also seriously affects the production efficiency and reduces the continuity and stability of production.

[0044] To this end, referring again to Figure 3 and Figure 4In some embodiments of the utility model, the material receiving assembly 620 includes a conveying line 200 and a lifting assembly 300, the lifting assembly 300 can support the silicon steel sheet and transfer the silicon steel sheet to the conveying line 200. Further, the lifting assembly 300 can accurately adjust the height position of the silicon steel sheet as needed, ensuring that the silicon steel sheet can be accurately placed on the conveying line 200, avoiding problems such as silicon steel sheet sliding, collision, etc. caused by inconsistent height. At the same time, the setting of the lifting assembly 300 also provides convenience for the stacking of the silicon steel sheet, which can neatly stack the silicon steel sheet according to the set height and order, improving the quality and efficiency of the silicon steel sheet stacking.

[0045] The conveying line 200 includes a plurality of spaced rollers 210, the lifting assembly 300 includes a lifting motor 310 and a lifting frame 320, the lifting motor 310 is connected and drives the lifting frame 320 to move in the vertical direction, and the lifting frame 320 can hold the material receiving plate 400, the lifting frame 320 can sink into the roller 210 downward and transfer the material receiving plate 400 to the roller 210. It should be noted that the lifting motor 310 of the lifting assembly 300 drives the lifting frame 320 to move in the vertical direction, which is suitable for different unloading heights, and after the material receiving plate 400 receives the material, it can be transferred to the roller 210, and the conveying line 200 uses a plurality of spaced rollers 210, which can not only stably support the material receiving plate 400, but also facilitate the conveying of the material receiving plate 400. For example, when the silicon steel sheet sorting machine 500 releases the silicon steel sheet at a higher height, the lifting frame 320 can quickly and accurately move to the corresponding height, avoiding the problem of difficult or poor material receiving caused by inconsistent height. By adjusting the height of the lifting frame 320, the material receiving plate 400 can be placed in the appropriate position for material receiving, and after the material receiving is completed, the material receiving plate 400 can sink into the roller 210, so that the material receiving plate 400 is transferred to the roller 210, realizing the smooth transition of the silicon steel sheet from the material receiving plate 400 to the conveying line 200. The rolling characteristics of the roller 210 enable the silicon steel sheet to be smoothly conveyed in the subsequent process, the whole process is smooth and continuous, and the production efficiency is further improved.

[0046] When the material receiving plate 400 is transferred to the roller 210, in addition to manually pulling out the material receiving plate 400, referring again to Figures 1 to 4 In some embodiments of the utility model, the conveying line 200 includes a conveying chain 220 and a conveying motor 230, the conveying motor 230 is connected and drives the conveying chain 220 to move in a closed loop, and the conveying chain 220 is connected and drives a plurality of rollers 210 to move together, so that the power source of the conveying line 200 is more stable and reliable, and the material receiving plate 400 can be conveyed outward by operating the conveying motor 230, for example, referring to Figure 1The receiving plate 400 is conveyed outwards to the receiving trolley, allowing workers to transport the receiving plate 400 as a whole using the trolley. Furthermore, the closed-loop conveyor chain 220 ensures the synchronous rotation of each roller 210, preventing problems such as jamming or deviation of the silicon steel sheets during conveying due to differences in the rotational speed of individual rollers 210. Further, the conveyor line 200 includes multiple pressure sprockets 240, located between two rollers 210 and below them. The conveyor chain 220 is wound around the pressure sprockets 240 to allow space for the lowering of the lifting frame 320. On one hand, the presence of the pressure sprockets 240 effectively tensions the conveyor chain 220, preventing slackness during operation and ensuring that the conveyor chain 220 is always under appropriate tension, thereby ensuring the stability and accuracy of the chain drive. On the other hand, the reasonable arrangement of the pressure sprocket 240 provides the necessary space for the lifting frame 320 to descend, allowing it to smoothly sink between the rollers 210 when the receiving plate 400 needs to be transferred to the rollers 210. This avoids interference with the conveyor chain 220, ensuring the normal operation of the receiving assembly 620 and the smooth progress of the receiving operation. Furthermore, the conveyor line 200 includes a conveyor frame 250 with multiple receiving slots 2501. Each receiving slot corresponds to one of the pressure sprockets 240 and is located above it, further preventing interference with the conveyor chain 220 around the pressure sprocket 240 when the lifting frame 320 sinks into the receiving slot 2501, thus ensuring the stability of the conveyor line 200.

[0047] In some embodiments of this utility model, the lifting frame 320 has a frame structure, which has high structural strength and rigidity, and can withstand greater weight and external forces. During the material receiving process, it can stably support and transfer the receiving plate 400 and the silicon steel sheets stacked on it, and is not easily deformed or damaged. Secondly, the frame structure is relatively lightweight and will not place an excessive load on the lifting motor 310, which is beneficial to the stable operation of the lifting motor 310 and extends its service life. Specifically, as... Figure 3 As shown, the lifting frame 320 includes multiple support beams 321, which are staggered from the rollers 210 and can sink downwards between the two rollers 210. This staggered arrangement of the support beams 321 better adapts to the arrangement of the rollers 210, avoiding potential collisions or slippage that could occur if the lifting frame 320 directly contacts the rollers 210 during descent, thus ensuring the safety and stability of the receiving plate 400 during transfer.

[0048] Refer to Figure 3 and Figure 4In some embodiments of the utility model, lifting assembly 300 includes screw rod 331 rotationally arranged on rack 100 and screw block 332 fixedly connected to lifting frame 320, screw rod 331 is vertically arranged, lifting frame 320 is slidingly arranged on rack 100 along the vertical direction, lifting motor 310 is connected to and drives screw rod 331 to rotate, screw block 332 is threadedly driven with screw rod 331 to drive lifting frame 320 to move along the vertical direction. Threaded transmission mode has the remarkable advantages of high transmission accuracy and good stability, through the accurate cooperation of screw rod 331 and screw block 332, lifting motor 310 can accurately control the ascending and descending positions of lifting frame 320, thereby realizing accurate adaptation to different discharging heights. Compared with the traditional hydraulic or pneumatic driving mode, threaded transmission is not affected by external environmental factors (such as temperature, humidity, etc.), can maintain stable performance in various complex working environments, and threaded transmission mode has self-locking function, ensures that material receiving assembly 620 can stably stay at the preset height position and reliably operate, improves the reliability of the equipment. Specifically, screw rod 331 and screw block 332 are both two, two screw blocks 332 are fixedly connected to the two ends of lifting frame 320 respectively, lifting motor 310 drives two screw rods 331 to rotate together, which can effectively avoid the inclination and shaking of lifting frame 320 during movement, and ensure the stability and accuracy of the transfer process of material receiving plate 400. At the same time, double screw rods 331 driving can also improve the carrying capacity of lifting assembly 300, so that it can adapt to heavier material receiving plate 400 and silicon steel sheet load, further enhance the stability and reliability of the equipment, prolong the service life of the equipment and reduce the failure rate of the equipment. Further, lifting assembly 300 includes transmission shaft 350 and two speed reducers 340, screw rod 331 is arranged one-to-one with speed reducer 340 and connected to the output side of speed reducer 340, lifting motor 310 is connected to and drives transmission shaft 350 to rotate, and the two ends of transmission shaft 350 are respectively connected to the input side of speed reducer 340. It is easy to understand that the cooperation of transmission shaft 350 and speed reducer 340 can effectively adjust the rotating speed and torque of lifting motor 310, so that it is more suitable for the movement demand of lifting frame 320. Among them, speed reducer 340 can convert the high-speed rotation of lifting motor 310 into the low-speed high-torque output required by screw rod 331, so as to ensure that lifting frame 320 can move stably and slowly, and avoid shaking or damage of material receiving plate 400 due to excessive speed. Transmission shaft 350 uniformly transmits the power of lifting motor 310 to speed reducer 340, ensures that two screw rods 331 can rotate synchronously, further improves the stability and reliability of lifting assembly 300, and makes material receiving assembly 620 maintain good working performance under different load conditions.

[0049] The silicon steel sheet blanking line according to the embodiment of the utility model, including according to the silicon steel sheet double position receiving material stacking device of the utility model embodiment. The characteristics of the device, such as double position, high efficiency and stability, are fully utilized, so that the silicon steel sheet blanking line can complete the receiving, stacking and blanking work of the silicon steel sheet without interruption, greatly improving the overall efficiency of the silicon steel sheet production, reducing the production cost, improving the product quality and the automation level of the production process.

[0050] Other configurations and operations of the silicon steel sheet blanking line according to the embodiment of the utility model are known to those skilled in the art, and will not be described in detail here.

[0051] The above describes the embodiments of the utility model in detail in combination with the drawings, but the utility model is not limited to the above embodiments, and various changes can be made within the knowledge range of the ordinary skill in the art without departing from the purpose of the utility model.

Claims

1. A silicon steel sheet double station receiving stacker apparatus, characterized by, include: A feeder for conveying silicon steel sheets and capable of releasing and dropping the silicon steel sheets; The receiving unit includes a shifting motor and two receiving components. The two receiving components are arranged opposite to each other. The shifting motor is connected to and drives the two receiving components to move linearly and reciprocally together, so as to drive one receiving component to enter the material handling machine laterally and receive the stacked silicon steel sheets, and drive the other receiving component to move out of the material handling machine to unload the silicon steel sheets.

2. The silicon steel sheet double station receiving stacker apparatus of claim 1, wherein: The receiving unit also includes a track, which is arranged horizontally perpendicular to the conveying direction of the silicon steel sheet, and both receiving components are slidably mounted on the track.

3. The silicon steel sheet double station receiving stacker apparatus of claim 2, wherein: The receiving assembly includes a frame and multiple rollers, which are arranged around the bottom of the frame and roll in cooperation with the track.

4. The silicon steel sheet double station receiving stacker apparatus of claim 3, wherein: The shifting motor is connected to and drives two rollers symmetrically arranged on the frame to rotate together.

5. The silicon steel sheet double station receiving stacker apparatus of any one of claims 1 to 4, wherein: The receiving unit also includes a connecting rod, the two ends of which are fixedly connected to the two receiving components respectively, so as to drive the two receiving components to move together.

6. The silicon steel sheet double station receiving stacker apparatus of claim 1, wherein: The receiving unit also includes two anti-collision rubbers, which are respectively disposed on opposite sides of the two receiving components.

7. The silicon steel sheet double station receiving stacker apparatus of claim 1, wherein: The receiving assembly includes a conveyor line and a lifting assembly. The lifting assembly can support the silicon steel sheet and transfer the silicon steel sheet to the conveyor line.

8. The silicon steel sheet double station receiving stacker apparatus of claim 7, wherein: The conveyor line includes multiple spaced rollers, and the lifting assembly includes a lifting motor and a lifting frame. The lifting motor is connected to and drives the lifting frame to move in the vertical direction. The lifting frame can hold a receiving plate for receiving the silicon steel sheet. The lifting frame can sink down into the roller and transfer the receiving plate onto the roller.

9. The silicon steel sheet double station receiving stacker apparatus of claim 8, wherein: The conveyor line includes a conveyor chain, a conveyor motor, and a pressure sprocket. The conveyor motor is connected to and drives the conveyor chain to move in a closed loop. The conveyor chain is connected to and drives multiple rollers to move together. The pressure sprocket is located between two rollers and below the rollers. The conveyor chain is wound around the pressure sprocket to leave space for the lowering of the lifting frame.

10. A silicon steel sheet blanking line, characterized by: Includes the dual-station receiving and stacking device for silicon steel sheets as described in any one of claims 1 to 9.

Images