A computing power scheduling device

Abstract

The application belongs to the technical field of computing power scheduling, in particular to a computing power scheduling device, which comprises a computing device, a turnover device, an operation screen and an internal cleaning component, the turnover device is arranged on the upper part of the computing device, the operation screen is arranged in the internal turnover device, and the internal cleaning component is arranged on the top of the computing device; the turnover device comprises a docking clamp frame, a temperature sensor and an internal circulation component, the docking clamp frames on the front and back sides are connected together through the threads at the corners, and the operation screen and the internal circulation component are sleeved in the internal turnover device. The device can protect the operation screen through the external docking clamp frame. In order to avoid the problem of poor heat dissipation of the operation screen, the rubber strip filled with cooling liquid is arranged in the interlayer of the docking clamp frame and the operation screen, so that the operation screen can be effectively cooled during work, and the problem of poor heat dissipation of the operation screen and the low-temperature scalding of the hands of the operator when contacting the operation screen can be avoided.

Description

Technical Field

[0001] This invention belongs to the field of computing power scheduling technology, specifically a computing power scheduling device. Background Technology

[0002] Computing power scheduling equipment refers to equipment used to manage and allocate computing resources, enabling more efficient use of these resources. Computing power scheduling equipment can help managers schedule and allocate computing resources, and is mainly used in fields such as cloud computing, big data processing, and artificial intelligence.

[0003] An existing computing power scheduling device with publication number CN223229931U uses a dustproof plate to cover the wiring holes to prevent dust and impurities from entering the wiring holes, thereby improving the service life of the wiring holes. However, the operation screen of this device is surrounded by the upper frame, which causes the temperature in the gap between the frame and the operation screen to be high when the device is working continuously. This results in poor heat dissipation of the operation screen as a whole, which may cause operators to be burned by low temperature. Therefore, improvements are needed. Summary of the Invention

[0004] To address the problem of overheating of the control panel caused by the frame of existing equipment while protecting it, the present invention provides a computing power scheduling device, comprising a computing device, a flipping device, a control panel, and an internal cleaning component. The flipping device is located on top of the computing device, the control panel is located inside the flipping device, and the internal cleaning component is located on top of the computing device. The flipping device includes a docking clamp frame, a temperature sensor, and an internal circulation component. The docking clamp frames on the front and rear sides are connected together by threads at the corners, and the operating screen and the internal circulation component are fitted inside. The inner circulation component is located inside the docking clamp frame, and the bottom end of the inner circulation component is located on the upper part of the computing device through a buffer component. The outer surface of the operation screen is engaged with the inner wall of the docking clamp frame. The inner cavity of the docking clamp frame is symmetrically provided with heat dissipation grooves on the left and right sides, and the bottom of the inner cavity of the docking clamp frame is symmetrically provided with docking ports on both sides. The top of the inner cavity of the docking clamp frame is inserted into the outer surface of the temperature sensor through a slot, and the bottom of the temperature sensor is provided with a temperature sensing strip. After the docking clamp frames on the front and rear sides are docked, the operation screen and the internal circulation component are fitted inside. The internal circulation component drives the coolant to circulate and absorb the heat outside the operation screen. The temperature sensor senses the temperature of the internal circulation component through the temperature sensing strip at the bottom.

[0005] Furthermore, the internal circulation component includes: A rubber strip, the inner cavity of which is filled with coolant, the outer surface of which is engaged with the inner cavity of the mating frame, and the upper surface of which is pressed against the bottom of the temperature sensor through the temperature sensing strip, and the temperature sensor contacts the upper surface of the rubber strip through the temperature sensing strip at the bottom. A circulating hydraulic pump has guide tubes evenly inserted into the top of its inner cavity. The top of the guide tubes extends into the interior of the docking clamp frame and is inserted into the inner cavity of the rubber strip. The top of the circulating hydraulic pump has five through-pipes. The middle three are used to guide the coolant inside the rubber strip to the outside for fluid replacement. The through-pipes on the left and right sides are connected. The circulating hydraulic pump absorbs the coolant from the inner wall of the rubber strip through the left through-pipe and then pumps the coolant into the rubber strip through the right through-pipe, causing the coolant to flow counterclockwise inside the rubber strip.

[0006] Furthermore, the computing device includes: The container housing has heat dissipation baffles symmetrically arranged on the left and right sides of the inner wall of the container housing, and support feet are evenly arranged on the bottom of the container housing. The docking slots are evenly distributed on the front of the container housing; The sliding sealing plate has its outer surface slidably connected to the outer surface of the container shell via an outer sliding frame, and is connected to the external plug-in via a front docking slot. The docking slot that is not connected to the plug-in can be closed by the sliding sealing plate.

[0007] Furthermore, the computing device also includes: An operating panel is located on the top of the container housing, and the bottom of the operating panel is connected to the inner cavity of the container housing via a connecting wire; The guide shaft is symmetrically positioned on the upper surface of the container shell near the tilting device via a rotating groove. A connecting plate is provided, the bottom end of which is inserted into the outer surface of the guide shaft, and the top end of which is inserted into the bottom of the inner cavity of the docking frame through a docking port. The docking frame, which is spliced ​​to form a frame, is inserted into the top of the connecting plate through the docking port at the bottom, so that the flipping device can deflect around the guide shaft. The limiting component is located in the middle of the upper surface of the container housing.

[0008] Furthermore, the limiting component includes: A side-mounted pressurization box, wherein the outer surface of the side-mounted pressurization box is snapped onto the back of the outer surface of the container housing; A connecting hose, the bottom end of which is inserted into the top of the inner cavity of the side-positioned pressurization box; The rubber air cushion has its top end inserted into the inner cavity of the connecting hose, and its upper surface inserted into the outer surface of the circulating hydraulic pump. After the side pressure box pressurizes the rubber air cushion through its internal air pump, the resistance at the bottom of the docking clamp frame will increase. At this time, the actual deflection amplitude of the docking clamp frame will decrease, and the rubber air cushion can also expand to lock the flipping device at a fixed deflection angle.

[0009] Furthermore, the internal cleaning component includes: The storage bin has its outer surface engaged with the side of the upper surface of the container shell near the tipping device via a groove. The dust collection strip has an outer surface that is slidably connected to the upper surface of the container shell near the flipping device via a groove. The inner cavity of the dust collection strip is evenly connected with a material conveying pipe. The end of the material conveying pipe away from the dust collection strip is connected to the inner cavity of the storage box. When the flipping device is placed flat on the upper surface of the container shell, the top of the dust collection strip will be directly aligned with the bottom of the inner wall of the docking frame. Vibration-enhancing components are symmetrically arranged on the left and right sides of the inner cavity of the storage box via slots.

[0010] Furthermore, the vibration-enhancing component includes: The pressure control strip has uniformly spaced drainage grooves on its outer surface, and its bottom is inserted into the inner cavity of the storage box via a slot.

[0011] Furthermore, the vibration-enhancing component also includes: A hollow compression head, the bottom end of which is inserted into the top of the inner cavity of the pressure control bar cylinder; Solid steel balls are evenly clamped to the top of the hollow compression head cavity through grooves. The pressure control bar can control the internal pressure of the hollow compression head to drive the hollow compression head to reciprocate in the vertical direction, thereby causing the solid steel balls at the top to repeatedly hit the outer surface of the docking clamp frame to achieve a vibration effect.

[0012] The beneficial effects of this invention are as follows: 1. The device can protect the operating panel through an external docking clamp frame. In order to avoid the problem of poor heat dissipation of the operating panel, a rubber strip filled with coolant is set in the gap between the docking clamp frame and the operating panel, so that the operating panel can be effectively cooled during operation, avoiding the problem of poor heat dissipation of the operating panel and low-temperature burns to the operator's hands when touching the operating panel.

[0013] 2. After absorbing heat for a long time, the coolant inside the rubber strip will increase its own temperature, which will lead to a decrease in its cooling capacity. Therefore, the temperature sensor will start the circulating hydraulic pump to make the coolant circulate counterclockwise inside the rubber strip. When the coolant passes through the circulating hydraulic pump, the circulating hydraulic pump can cool it through air cooling, so that the coolant maintains a strong heat absorption capacity to continuously cool the control panel and extend the device's endurance.

[0014] 3. After the operator opens the tilting device, it may continue to tilt backward due to inertia. At this time, the rubber air cushion at the bottom will prevent the tilting device from accelerating backward through the buffering effect, preventing the tilting device from applying a large torque to the connecting plate and guide shaft at the root when rotating, which could cause them to bend, deform or misalign. The tilting device is tilted at a certain angle by the guide shaft. When the angle meets the operator's observation angle, the rubber air cushion expands and locks the docking clamp frame at this angle to achieve a fixing effect, so as to adapt to operators of different heights and improve user comfort.

[0015] 4. After the operator finishes using the device, the floating dust and impurities accumulated at the bottom of the inner wall of the docking clamp frame will be sucked away by the opposite dust suction strip, achieving the effect of removing impurities. At this time, the vibration components stuck on both sides of the storage box will repeatedly push the hollow compression head to continuously and slightly hit the outer surface of the docking clamp frame with solid steel balls to achieve a high-frequency vibration effect, thereby shaking out the impurities in the gap between the docking clamp frame and the operating screen. Combined with the adsorption work of the dust suction strip, the effect of removing impurities is achieved, avoiding the problem of poor heat dissipation of the operating screen caused by the accumulation of impurities. Attached Figure Description

[0016] Figure 1 This is the front view of the present invention; Figure 2 This is a cross-sectional view of the flipping device of the present invention; Figure 3 This is a cross-sectional view of the rubber strip of the present invention; Figure 4 This is a schematic diagram of the structure of the computing device of the present invention; Figure 5 This is a schematic diagram of the structure of the limiting component of the present invention; Figure 6 This is a schematic diagram of the internal cleaning component of the present invention; Figure 7 This is a schematic diagram of the structure of the vibration-enhancing component of the present invention.

[0017] In the diagram: 1. Calculation device; 2. Tilting device; 3. Operation panel; 4. Internal cleaning component; 21. Docking frame; 22. Heat dissipation groove; 23. Temperature sensor; 24. Temperature sensing strip; 25. Docking port; 6. Internal circulation component; 61. Circulating hydraulic pump; 62. Guide rigid pipe; 63. Rubber strip; 11. Container shell; 12. Heat dissipation baffle; 13. Support base; 14. Docking slot; 15. Sliding sealing plate; 16. Operation panel; 17. Guide shaft; 18. Connecting plate; 5. Limiting component; 51. Side pressure box; 52. Connecting hose; 53. Rubber air cushion; 41. Storage box; 42. Material conveying pipe; 43. Dust suction strip; 44. Vibration component; 441. Pressure control strip cylinder; 442. Hollow compression head; 443. Solid steel ball. Detailed Implementation

[0018] The present invention will now be described in further detail with reference to the accompanying drawings and specific embodiments. The embodiments of the present invention are given for illustrative and descriptive purposes only, and are not intended to be exhaustive or to limit the invention to the forms disclosed. Many modifications and variations will be apparent to those skilled in the art. The embodiments were chosen and described to better illustrate the principles and practical application of the invention, and to enable those skilled in the art to understand the invention and design various embodiments with various modifications suitable for a particular purpose.

[0019] Example 1, please refer to Figures 1-4 The present invention provides a technical solution: a computing power scheduling device, comprising a computing device 1, a flipping device 2, an operation screen 3, and an internal cleaning component 4. The flipping device 2 is disposed on the upper part of the computing device 1, the operation screen 3 is disposed inside the flipping device 2, and the internal cleaning component 4 is disposed on the top of the computing device 1. The flipping device 2 includes a docking clamp frame 21, a temperature sensor 23, and an internal circulation component 6. The docking clamp frames 21 on the front and rear sides are connected together by threads at the corners, and the operation panel 3 and the internal circulation component 6 are fitted inside. The inner circulation component 6 is located inside the docking clamp frame 21. The bottom end of the inner circulation component 6 is located on the upper part of the computing device 1 through a buffer component. The outer surface of the operation screen 3 is engaged with the inner wall of the docking clamp frame 21. The inner cavity of the docking frame 21 is symmetrically provided with heat dissipation grooves 22 on the left and right sides, and docking ports 25 are symmetrically provided on the bottom sides of the inner cavity of the docking frame 21. The top of the inner cavity of the docking frame 21 is inserted into the outer surface of the temperature sensor 23 through a slot, and the bottom of the temperature sensor 23 is provided with a temperature sensing strip 24. After the docking frames 21 on the front and rear sides are docked, the operation screen 3 and the internal circulation component 6 are fitted inside it. The internal circulation component 6 drives the coolant to circulate and absorb the heat outside the operation screen 3. The temperature sensor 23 senses the temperature of the internal circulation component 6 through the temperature sensing strip 24 at the bottom.

[0020] The internal circulation component 6 includes: The rubber strip 63 has a cavity filled with coolant. The outer surface of the rubber strip 63 is engaged with the cavity of the mating frame 21. The upper surface of the rubber strip 63 is pressed against the bottom of the temperature sensor 23 through the temperature sensing strip 24. The temperature sensor 23 contacts the upper surface of the rubber strip 63 through the temperature sensing strip 24 at the bottom. The circulating hydraulic pump 61 has guide tubes 62 evenly inserted into the top of its inner cavity. The top of the guide tubes 62 extends into the interior of the docking clamp frame 21 and is inserted into the inner cavity of the rubber strip 63. The top of the circulating hydraulic pump 61 has five through pipes. The middle three are used to guide the coolant inside the rubber strip 63 to the outside for fluid replacement. The through pipes on the left and right sides are connected. The circulating hydraulic pump 61 absorbs the coolant from the inner wall of the rubber strip 63 through the through pipe on the left side and then pumps the coolant out into the rubber strip 63 through the through pipe on the right side, so that the coolant flows counterclockwise inside the rubber strip 63.

[0021] Computing device 1 includes: The container housing 11 has heat dissipation baffles 12 symmetrically arranged on the left and right sides of the inner wall of the container housing 11, and support feet 13 are evenly arranged at the bottom of the container housing 11. The docking slots 14 are evenly distributed on the front of the housing 11; The outer surface of the sliding sealing plate 15 is slidably connected to the outer surface of the container housing 11 through the outer sliding frame, and is connected to the outside through the front docking slot 14. The docking slot 14 without the plug wire can be closed by the sliding sealing plate 15.

[0022] Computing device 1 also includes: The control panel 16 is located on the top of the container housing 11, and the bottom of the control panel 16 is connected to the inner cavity of the container housing 11 via a connecting wire. The guide shaft 17 is symmetrically arranged on the upper surface of the container housing 11 near the tilting device 2 via a rotating groove; Connecting plate 18, the bottom end of connecting plate 18 is inserted into the outer surface of guide shaft 17, and the top end of connecting plate 18 is inserted into the bottom of the inner cavity of docking frame 21 through docking port 25. After splicing, docking frame 21, which forms a frame, is inserted into the top of connecting plate 18 through docking port 25 at the bottom, so that the flipping device 2 can deflect around guide shaft 17. The limiting component 5 is located in the middle of the upper surface of the container housing 11.

[0023] Before using the computing device 1, first attach the rubber strip 63 to the outer surface of the operation screen 3, then attach the docking clamps 21 on the front and rear sides of the operation screen 3 respectively, and reinforce them with bolts. Then, pressurize the coolant into the rubber strip 63 through the bottom circulating hydraulic pump 61, so that the rubber strip 63 fits tightly with the outer surface of the operation screen 3. Then, insert the bottom of the circulating hydraulic pump 61 into the top of the rubber air cushion 53 to complete the preparation work.

[0024] According to the actual usage requirements of computing device 1, the corresponding wires are connected to its docking slot 14, and the docking slot 14 without wires can be closed by sliding sealing plate 15 to play a protective role.

[0025] The operator controls the computing device 1 to perform calculations through the control panel 16 and observes the data indications through the upper control screen 3. Since the control screen 3 is enclosed by the docking clamp frame 21 and performs imaging work for a long time, the control screen 3 will heat up rapidly. At this time, the rubber strip 63 in contact with the control screen 3 will be cooled by the internal coolant. The coolant, which is stationary inside the rubber strip 63, continuously absorbs heat and will also heat up quickly. At this time, the temperature sensor 23 detects that the temperature of the rubber strip 63 is high through the temperature sensing strip 24 at the bottom and will feed back to the circulating hydraulic pump 61 through an electromagnetic signal to start it working.

[0026] The circulating hydraulic pump 61 draws out the coolant from inside the rubber strip 63 through the left-side pipe and pumps the coolant back into the rubber strip 63 through the right-side pipe, causing the coolant to circulate counterclockwise inside the rubber strip 63. As the coolant passes through the circulating hydraulic pump 61, it is cooled by air cooling, with the airflow coming from the side pressure box 51. This cooling process maintains the heat absorption capacity and continuously cools the operating panel 3.

[0027] Example 2, please refer to Figures 1-7 The present invention provides a technical solution: based on embodiment 1, the limiting component 5 includes: The side-positioned pressure box 51 has its outer surface snapped onto the back of the outer surface of the container housing 11. Connecting hose 52, the bottom end of which is inserted into the top of the inner cavity of the side pressure box 51; The top end of the connecting hose 52 is inserted into the inner cavity of the rubber air cushion 53, and the upper surface of the rubber air cushion 53 is inserted into the outer surface of the circulating hydraulic pump 61. After the side pressure box 51 pressurizes the rubber air cushion 53 through the internal air pump, the resistance at the bottom of the docking clamp 21 will increase. At this time, the actual deflection amplitude of the docking clamp 21 will decrease, and the rubber air cushion 53 can also expand to lock the flipping device 2 at a fixed deflection angle.

[0028] Internal cleaning component 4 includes: Storage box 41, the outer surface of storage box 41 is engaged with the side of the upper surface of container shell 11 near the tilting device 2 by a groove; The outer surface of the dust suction plate 43 is slidably connected to the upper surface of the container shell 11 near the flipping device 2 via a groove. The inner cavity of the dust suction plate 43 is evenly connected with a material conveying pipe 42. The end of the material conveying pipe 42 away from the dust suction plate 43 is connected to the inner cavity of the storage box 41. When the flipping device 2 is placed flat on the upper surface of the container shell 11, the top of the dust suction plate 43 will be directly aligned with the bottom of the inner wall of the docking frame 21. Vibration enhancement component 44 is symmetrically arranged on the left and right sides of the inner cavity of storage box 41 through slots.

[0029] Vibration-enhancing component 44 includes: The pressure control bar 441 has uniformly opened drainage grooves on its outer surface, and the bottom of the pressure control bar 441 is inserted into the inner cavity of the storage box 41 through a slot.

[0030] The vibration-enhancing component 44 also includes: Hollow compression head 442, the bottom end of which is inserted into the top of the inner cavity of the pressure control bar 441; Solid steel balls 443 are evenly engaged in the top of the inner cavity of the hollow compression head 442 through grooves. The pressure control bar 441 can control the internal pressure of the hollow compression head 442 to drive the hollow compression head 442 to reciprocate in the vertical direction, thereby causing the solid steel balls 443 at the top to repeatedly hit the outer surface of the docking clamp frame 21 to achieve a vibration effect.

[0031] After the operator opens the flipping device 2, the flipping device 2 may continue to tilt backward due to inertia. At this time, the rubber air cushion 53 at the bottom will prevent the flipping device 2 from accelerating backward through the buffering effect, and prevent the flipping device 2 from applying a large torque to the connecting plate 18 and the guide shaft 17 at the root when it rotates. The flipping device 2 deflects at a certain angle through the guide shaft 17. When the angle meets the operator's observation angle, the side pressure box 51 located at the back will pressurize the rubber air cushion 53 significantly through the connecting hose 52, so that the rubber air cushion 53 expands and locks the docking clamp 21 at this angle.

[0032] After the operator finishes using the device, the flipping device 2 will be placed on the upper surface of the container housing 11. At this time, the docking clamp 21 will completely cover the upper surface of the inner cleaning component 4, and the floating dust and impurities gathered at the bottom of the inner wall of the docking clamp 21 will be sucked away by the opposite dust suction strip 43, thus achieving the effect of removing impurities.

[0033] When the dust collection strip 43 is working, the vibration-enhancing components 44, which are stuck on both sides of the storage box 41, will repeatedly push the hollow compression head 442 and use solid steel balls 443 to continuously and slightly hit the outer surface of the docking clamp 21 to achieve a high-frequency vibration effect. This will shake out the impurities in the gap between the docking clamp 21 and the operation screen 3. Combined with the adsorption work of the dust collection strip 43, the impurity removal effect is achieved, avoiding the problem of impurity accumulation causing poor heat dissipation of the operation screen 3.

[0034] Obviously, the described embodiments are only a part of the embodiments of the present invention, and not all of them. All other embodiments obtained by those skilled in the art and related fields based on the embodiments of the present invention without inventive effort should fall within the scope of protection of the present invention. Structures, devices, and operating methods not specifically described and explained in the present invention, unless otherwise specified or limited, shall be implemented according to conventional means in the art.

Claims

1. A computing power scheduling device, comprising a computing device (1), a flipping device (2), an operation screen (3), and an internal cleaning component (4), wherein the flipping device (2) is disposed on the upper part of the computing device (1), the operation screen (3) is disposed inside the flipping device (2), and the internal cleaning component (4) is disposed on the top of the computing device (1): Its features are: The flipping device (2) includes a docking clamp (21), a temperature sensor (23), and an internal circulation component (6): The inner circulation component (6) is located inside the docking clamp frame (21), and the bottom end of the inner circulation component (6) is located on the upper part of the computing device (1) through a buffer component. The outer surface of the operation screen (3) is engaged with the inner wall of the docking clamp frame (21). The inner cavity of the docking clamp (21) is symmetrically provided with heat dissipation grooves (22) on the left and right sides. The bottom of the inner cavity of the docking clamp (21) is symmetrically provided with docking ports (25). The top of the inner cavity of the docking clamp (21) is inserted into the outer surface of the temperature sensor (23) through a slot. The bottom of the temperature sensor (23) is provided with a temperature sensing strip (24). After the docking clamps (21) on the front and rear sides are docked, the operation screen (3) and the inner circulation component (6) are fitted inside it. The coolant inside the inner circulation component (6) is driven to circulate and absorb the heat outside the operation screen (3). The temperature sensor (23) senses the temperature of the inner circulation component (6) through the temperature sensing strip (24) at the bottom.

2. The computing power scheduling device according to claim 1, characterized in that: The internal circulation component (6) includes: The rubber strip (63) has a cavity filled with coolant. The outer surface of the rubber strip (63) is engaged with the cavity of the docking frame (21), and the upper surface of the rubber strip (63) is pressed against the bottom of the temperature sensor (23) by the temperature sensing strip (24). A circulating hydraulic pump (61) has a guide tube (62) evenly inserted into the top of its inner cavity. The top end of the guide tube (62) extends into the interior of the docking clamp frame (21), and the top end of the guide tube (62) is inserted into the inner cavity of the rubber strip (63).

3. The computing power scheduling device according to claim 2, characterized in that: The computing device (1) includes: The container housing (11) has heat dissipation baffles (12) symmetrically arranged on the left and right sides of the inner wall of the container housing (11), and support feet (13) are evenly arranged at the bottom of the container housing (11). The docking slots (14) are evenly distributed on the front of the housing (11); The outer surface of the sliding sealing plate (15) is slidably connected to the outer surface of the container shell (11) through an outer sliding frame.

4. The computing power scheduling device according to claim 3, characterized in that: The computing device (1) further includes: An operating panel (16) is located on the top of the container housing (11), and the bottom of the operating panel (16) is connected to the inner cavity of the container housing (11) via a connecting wire. The guide shaft (17) is symmetrically arranged on the upper surface of the container housing (11) near the tilting device (2) via a rotating groove; Connecting plate (18), the bottom end of the connecting plate (18) is inserted into the outer surface of the guide shaft (17), and the top end of the connecting plate (18) is inserted into the bottom of the inner cavity of the docking frame (21) through the docking socket (25); The limiting component (5) is located in the middle of the upper surface of the container housing (11).

5. The computing power scheduling device according to claim 4, characterized in that: The limiting component (5) includes: Side-positioned pressurization box (51), the outer surface of which is snapped into the back of the outer surface of the container housing (11); A connecting hose (52) is inserted at the bottom end of which is connected to the top of the inner cavity of the side pressure box (51); The rubber air cushion (53) has its top end inserted into the inner cavity of the connecting hose (52), and its upper surface is inserted into the outer surface of the circulating hydraulic pump (61).

6. The computing power scheduling device according to claim 1, characterized in that: The internal cleaning component (4) includes: Storage box (41), the outer surface of which is engaged with the side of the upper surface of the container shell (11) near the flipping device (2) by means of a groove; The outer surface of the dust suction plate (43) is slidably connected to the upper surface of the container shell (11) near the flipping device (2) through a groove. The inner cavity of the dust suction plate (43) is uniformly inserted with a material conveying pipe (42). The end of the material conveying pipe (42) away from the dust suction plate (43) is inserted into the inner cavity of the storage box (41). Vibration enhancement component (44) is symmetrically arranged on the left and right sides of the inner cavity of the storage box (41) through slots.

7. The computing power scheduling device according to claim 6, characterized in that: The vibration-enhancing component (44) includes: The pressure control strip (441) has a uniformly distributed drainage groove on its outer surface, and the bottom of the pressure control strip (441) is inserted into the inner cavity of the storage box (41) through a slot.

8. The computing power scheduling device according to claim 7, characterized in that: The vibration-enhancing component (44) also includes: Hollow compression head (442), the bottom end of which is inserted into the top of the inner cavity of the pressure control bar cylinder (441); Solid steel ball (443) is evenly engaged in the top of the cavity of the hollow compression head (442) through grooves.

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