Energy-saving equipment for reducing carbon emission

Abstract

The utility model provides energy-saving equipment for reducing carbon emission, which comprises a base, a filter box is fixedly arranged at the top of the base, a first rotating shaft and a second rotating shaft are slidably arranged in the filter box along the horizontal direction, the first rotating shaft is positioned on the inner wall of the top of the filter box, and the second rotating shaft is positioned on the inner wall of the bottom of the filter box; a first filter plate is fixedly arranged on the outer surface of the first rotating shaft, a second filter plate is fixedly arranged on the outer surface of the second rotating shaft, elastic blocks are fixedly arranged at the end, away from the first rotating shaft, of the first filter plate and the end, away from the second rotating shaft, of the second filter plate, and the two elastic blocks are in transmission contact; a driving mechanism for driving the first rotating shaft and the second rotating shaft to slide and a transmission part for realizing rotation of the first rotating shaft and the second rotating shaft are arranged in the filtering box. The driving mechanism can drive the filter plate to rotate, so that workers are prevented from frequently detaching and cleaning the filter plate, and the workload of the workers is reduced.

Description

Technical Field

[0001] This utility model belongs to the field of carbon emission technology, and specifically relates to an energy-saving device for reducing carbon emissions. Background Technology

[0002] Carbon emissions refer to the release of greenhouse gases into the environment during human activities. The main sources of carbon emissions include the burning of fossil fuels, industrial production processes, land-use change, and forestry activities. Since carbon dioxide accounts for the largest proportion of greenhouse gases, "carbon emissions" is often used as an abbreviation for "carbon dioxide emissions." Carbon dioxide emissions pollute the environment, necessitating emission reduction devices to lower their levels. However, existing emission reduction devices are not very effective; a large amount of dust and impurities in the exhaust gases are not properly treated, resulting in exhaust gases still containing significant amounts of impurities and reducing the effectiveness of emission reduction.

[0003] The existing patent with publication number CN215352623U discloses a low-carbon emission device for buildings, including a base, a box fixedly installed on the top of the base, a fixing frame fixedly installed on the inner wall of the box, and a motor fixedly installed in the fixing frame; a guide bucket is provided in front of the motor, a filter screen is provided on the inner wall of the guide bucket, the filter screen is adapted to the guide bucket and both are conical, and an air pipe is fixedly installed at the front end of the guide bucket.

[0004] The above-mentioned solution increases the contact area between the filter and the exhaust gas by making the filter screen conical, thereby improving the filtration effect. However, during prolonged use, a large amount of impurities accumulate on the surface of the filter screen, which affects the filtration effect and reduces the efficiency of subsequent filtration. Furthermore, the aforementioned device is not convenient for cleaning the surface of the filter screen, reducing the service life of the filter plate and requiring frequent disassembly and cleaning by staff, thus increasing their workload. Utility Model Content

[0005] To address the problems existing in the background technology, this utility model provides an energy-saving device that reduces carbon emissions.

[0006] To achieve the above objectives, the present invention provides the following technical solution:

[0007] An energy-saving device for reducing carbon emissions includes a base, a filter box fixedly mounted on the top of the base, and a first rotating shaft and a second rotating shaft slidably mounted horizontally inside the filter box. The first rotating shaft is located on the top inner wall of the filter box, and the second rotating shaft is located on the bottom inner wall of the filter box. A first filter plate is fixedly mounted on the outer surface of the first rotating shaft, and a second filter plate is fixedly mounted on the outer surface of the second rotating shaft. Elastic blocks are fixedly mounted at the ends of the first filter plate away from the first rotating shaft and the ends of the second filter plate away from the second rotating shaft, and the two elastic blocks are in transmission contact. The filter box is equipped with both a drive mechanism for driving the sliding of the first and second rotating shafts and a transmission component for realizing the rotation of the first and second rotating shafts.

[0008] Furthermore, an air inlet pipe is connected to one side of the filter box, and an air outlet pipe is connected to the other side.

[0009] Furthermore, a reduction tank is fixedly installed on the top of the base, and the outlet pipe is connected to the reduction tank without being connected to the filter box; an outlet is opened on the top of the reduction tank, and an inlet and an outlet are opened on the outer surface of the reduction tank.

[0010] Furthermore, the side wall of the filter box is provided with two sets of sliding groove assemblies, one set of sliding groove assemblies corresponds to the first rotating shaft, and the other set of sliding groove assemblies corresponds to the second rotating shaft.

[0011] Furthermore, the sliding groove assembly acting on the first rotating shaft includes a first sliding groove, two first sliding grooves are formed on the outer surface of the filter box, and two second sliding grooves are formed inside the filter box, with the second sliding grooves corresponding to and communicating with the first sliding grooves one by one; a third sliding groove is formed on both sides of each second sliding groove, and a sealing plate is slidably arranged in each second sliding groove, with each sealing plate being slidably engaged with the third sliding grooves on both sides of the second sliding groove in which it is located; a support plate is slidably arranged in each first sliding groove, and both ends of the first rotating shaft correspond one-to-one with the sealing plate and one-to-one with the support plate, with each end of the first rotating shaft rotatably passing through the corresponding sealing plate and rotatably connected to the corresponding support plate.

[0012] Furthermore, the driving mechanism includes an electric push rod, and each first slide groove has a mounting groove on its side wall, in which an electric push rod is fixedly installed; the electric push rod corresponds one-to-one with the support plate, and the telescopic shaft of each electric push rod is fixedly connected to the corresponding support plate.

[0013] Furthermore, the transmission component includes tooth blocks, each tooth block is fixedly installed in each first sliding groove, and gears are fixedly sleeved at both ends of each first rotating shaft. The number of gears and tooth blocks are equal and they mesh with each other in a one-to-one manner. Each gear is provided with a positioning groove, and each support plate is provided with a spring positioning assembly. The spring positioning assembly and the positioning groove are connected and engaged in a one-to-one transmission.

[0014] Furthermore, the driving mechanism includes screws, each of the first sliding grooves is rotatably provided with a screw, the number of screws is equal to that of the support plates and they are threadedly connected one-to-one; each of the mounting grooves is fixedly installed with a motor, the number of motors is equal to that of the screws and they are threaded one-to-one, and the output shaft of each motor is coaxially fixedly connected to one end of the corresponding screw.

[0015] This application has the following beneficial effects:

[0016] 1. The drive mechanism can rotate the filter plate, causing the elastic blocks on the filter plate to collide with the inner wall of the filter box, thereby shaking off the impurities accumulated on the surface of the filter plate, increasing the service life of the filter plate, preventing the staff from frequently disassembling and cleaning the filter plate, and thus reducing the workload of the staff.

[0017] 2. The drive mechanism can drive the first filter plate and the second filter plate to rotate and separate, so that the upper and lower ends of the first filter plate and the second filter plate are in contact with the inner wall of the filter box, so that the exhaust gas can be filtered in multiple layers in the filter box, thereby improving the overall filtration effect. Attached Figure Description

[0018] The above and other objects, features, and advantages of the present invention will become readily understood by reading the following detailed description of exemplary embodiments with reference to the accompanying drawings. In the drawings, several embodiments of the present invention are shown by way of example and not limitation, and like or corresponding reference numerals denote like or corresponding parts, wherein:

[0019] Figure 1 This is a three-dimensional structural diagram of Embodiment 1 of the present utility model;

[0020] Figure 2 This is a schematic diagram of the structure of the first filter plate and the second filter plate in contact with each other in this utility model;

[0021] Figure 3 This is a schematic diagram of the internal structure of the first slide groove of this utility model;

[0022] Figure 4 This utility model Figure 3 A partial enlarged schematic diagram of point A in the middle;

[0023] Figure 5 This is a schematic diagram of the sliding groove assembly structure of this utility model;

[0024] Figure 6 This utility model Figure 5 A magnified view of a portion of point B in the middle;

[0025] Figure 7 This is a schematic diagram of the structure of the first filter plate and the second filter plate of this utility model being separated;

[0026] Figure 8 This is a schematic diagram of the drive mechanism structure of Embodiment 1 of this utility model;

[0027] Figure 9 This is a schematic diagram of the gear structure of this utility model;

[0028] Figure 10 This is a schematic diagram of the screw structure of this utility model.

[0029] Explanation of reference numerals in the attached figures:

[0030] 1. Base; 2. Filter box; 201. Air inlet pipe; 202. Air outlet pipe; 3. Emission reduction tank; 301. Air outlet; 302. Liquid inlet; 303. Liquid outlet; 4. Sealing plate; 5. First filter plate; 501. First rotating shaft; 6. Second filter plate; 601. Second rotating shaft; 7. Elastic block; 8. Support plate; 9. Tooth block; 10. Electric push rod; 11. First slide groove; 1101. Second slide groove; 1102. Mounting groove; 1103. Third slide groove; 12. Gear; 13. Spring positioning assembly; 14. Screw; 15. Positioning groove. Detailed Implementation

[0031] The technical solutions of the present utility model will be clearly and completely described below with reference to the accompanying drawings of the embodiments. Those skilled in the art should understand that the embodiments described below are only some, not all, of the embodiments disclosed. All other embodiments obtained by those skilled in the art based on the embodiments of the present utility model without creative effort are within the scope of protection of the present utility model.

[0032] Example 1: As Figures 1-9 As shown, the technical solution adopted by this utility model is as follows: An energy-saving device for reducing carbon emissions includes a base 1, a filter box 2 fixedly installed on the top of the base 1, an air inlet pipe 201 fixedly connected to one side of the filter box 2, and an air outlet pipe 202 fixedly connected to the other side. The outlet pipe 202 is connected to an emission reduction tank 3 instead of the filter box 2. The emission reduction tank 3 is fixedly installed on the top of the base 1. The filter box 2 is used to filter impurities in the exhaust gas and transport the filtered exhaust gas to the emission reduction tank 3 for emission reduction.

[0033] An outlet 301 is provided on the top of the emission reduction tank 3, and an inlet 302 and an outlet 303 are provided on the outer surface of the emission reduction tank 3. Sodium hydroxide solution is transported into the emission reduction tank 3 through the inlet 302. The sodium hydroxide solution transported into the emission reduction tank 3 absorbs carbon dioxide in the exhaust gas, thereby reducing carbon dioxide emissions. The dissolved exhaust gas is discharged through the outlet 301, and the dissolved solution is discharged from the outlet 303.

[0034] A first rotating shaft 501 and a second rotating shaft 601 are slidably disposed horizontally inside the filter box 2. The first rotating shaft 501 is located on the top inner wall of the filter box 2, and the second rotating shaft 601 is located on the bottom inner wall of the filter box 2. A first filter plate 5 is fixedly disposed on the outer surface of the first rotating shaft 501, and a second filter plate 6 is fixedly disposed on the outer surface of the second rotating shaft 601. An elastic block 7 is fixedly disposed at the end of the first filter plate 5 away from the first rotating shaft 501 and the end of the second filter plate 6 away from the second rotating shaft 601, and the two elastic blocks 7 are in transmission contact.

[0035] Two sets of sliding groove assemblies are provided on the side wall of the filter box 2. One set of sliding groove assemblies corresponds to the first rotating shaft 501, and the other set of sliding groove assemblies corresponds to the second rotating shaft 601.

[0036] The sliding groove assembly acting on the first rotating shaft 501 includes a first sliding groove 11. Two first sliding grooves 11 are formed on the outer surface of the filter box 2, and the two first sliding grooves 11 are symmetrically arranged on the top of the two side walls of the filter box 2. Two second sliding grooves 1101 are formed inside the filter box 2. The number of second sliding grooves 1101 is equal to that of the first sliding grooves 11, and they are connected one-to-one. The second sliding grooves 1101 are located inside the corresponding first sliding grooves 11. A third sliding groove 1103 is formed on both sides of each second sliding groove 1101. A sealing plate 4 is slidably arranged in each second sliding groove 1101, and each sealing plate 4 is slidably engaged with the third sliding groove 1103 on both sides of the second sliding groove 1101 it is in. In addition, a support plate 8 is slidably arranged in each first sliding groove 11. Both ends of the first rotating shaft 501 correspond one-to-one with the sealing plate 4 and one-to-one with the support plate 8. Each end of the first rotating shaft 501 rotates through the corresponding sealing plate 4 and is rotatably connected to the corresponding support plate 8.

[0037] The connection between the second slide groove 1101 and the third slide groove 1103 allows the sealing plate 4 to slide within the third slide groove 1103, thereby providing a good sealing effect when the first rotating shaft 501 slides.

[0038] The filter box 2 is equipped with both a drive mechanism for driving the first rotating shaft 501 to slide and a transmission component for realizing the rotation of the first rotating shaft 501.

[0039] The drive mechanism includes an electric push rod 10. Each first slide groove 11 has a mounting groove 1102 on its side wall, and an electric push rod 10 is fixedly installed in each mounting groove 1102. The electric push rod 10 corresponds one-to-one with the support plate 8, and the telescopic shaft of each electric push rod 10 is fixedly connected to the corresponding support plate 8.

[0040] When the electric push rod 10 is activated, its telescopic shaft drives the support plate 8 to slide within the first slide groove 11, thereby causing the first rotating shaft 501 to slide synchronously. At the same time, the sliding of the first rotating shaft 501 causes the sealing plate 4 to slide within the second slide groove 1101 and the third slide groove 1103, thus ensuring the sealing of the device when the first rotating shaft 501 slides.

[0041] The transmission components include toothed blocks 9, with one toothed block 9 fixedly installed in each first sliding groove 11. A gear 12 is fixedly fitted at both ends of each first rotating shaft 501. The number of gears 12 is equal to the number of toothed blocks 9, and they mesh one-to-one. The gears 12 are toothed gears. Additionally, each gear 12 has a positioning groove 15, and each support plate 8 has a spring positioning assembly 13. The spring positioning assembly 13 corresponds one-to-one with the positioning groove 15, and each spring positioning assembly 13 engages with its corresponding positioning groove 15 in a transmission engagement.

[0042] The sliding of the first rotating shaft 501 will drive the gear 12 to slide synchronously. During the sliding process, the gear 12 will contact the tooth block 9 and rotate after contact, thereby driving the first filter plate 5 to rotate synchronously, so that the first filter plate 5 rotates to the position shown in the figure. Figure 7 The vertical position is shown. During the rotation of the first filter plate 5, the elastic block 7 on the first filter plate 5 will collide with the bottom inner wall of the filter box 2, thereby shaking off the impurities attached to the surface of the first filter plate 5. In addition, this solution can be fitted with a hinged movable door (not shown in the figure) on the side of the filter box 2, so that the staff can clean the impurities shaken off multiple times inside the filter box 2.

[0043] The second rotating shaft 601 in this solution has the same connection method as described above. The difference is that the sliding groove assembly, drive mechanism, and transmission component of the second rotating shaft 601 are all centrally symmetrical with the sliding groove assembly, drive mechanism, and transmission component of the first rotating shaft 501. Therefore, this solution will not describe the connection method of the second rotating shaft 601 in detail.

[0044] Working principle of Example 1: Figure 2 As shown, in the initial state, the elastic block 7 at the bottom of the first filter plate 5 is in contact with the elastic block 7 at the top of the second filter plate 6.

[0045] When it is necessary to shake off impurities adhering to the surfaces of the first filter plate 5 and the second filter plate 6, stop supplying exhaust gas into the filter box 2. Activate the electric push rod 10, controlling the retraction of its telescopic shaft. The telescopic shaft of the electric push rod 10 drives the support plate 8 to slide within the first slide groove 11, causing the first rotating shaft 501 to move to the right and the second rotating shaft 601 to move to the left, thereby driving the first filter plate 5 to move to the right and the second filter plate 6 to move to the left.

[0046] At the same time, the sliding of the first rotating shaft 501 and the second rotating shaft 601 will cause the sealing plate 4 to slide within the second sliding groove 1101 and the third sliding groove 1103, thereby ensuring the sealing of the device when the first rotating shaft 501 and the second rotating shaft 601 slide.

[0047] The sliding of the first rotating shaft 501 and the second rotating shaft 601 will cause the gear 12 to slide, and the gear 12 will contact the tooth block 9 during the sliding process. As the sliding continues, after the gear 12 contacts the tooth block 9, the spring positioning assembly 13 will disengage from the positioning groove 15, and the gear 12 will rotate accordingly. This causes the first rotating shaft 501 to rotate clockwise and the second rotating shaft 601 to rotate counterclockwise, thereby causing the first filter plate 5 to rotate clockwise around the central axis of the first rotating shaft 501, and causing the second filter plate 6 to rotate counterclockwise around the central axis of the second rotating shaft 601. Figure 2 State transition to Figure 7 state.

[0048] During the rotation of the first filter plate 5, the elastic block 7 on the first filter plate 5 will collide with the bottom inner wall of the filter box 2. At the same time, during the rotation of the second filter plate 6, the elastic block 7 on the second filter plate 6 will collide with the top inner wall of the filter box 2, thereby shaking off impurities attached to the surfaces of the first filter plate 5 and the second filter plate 6. In addition, in this state, both the first filter plate 5 and the second filter plate 6 are in a vertical position, allowing the exhaust gas to undergo multi-layer filtration within the filter box 2, thereby improving the overall filtration effect.

[0049] When a reset is required, the telescopic shaft of the electric push rod 10 is extended, and the telescopic shaft of the electric push rod 10 drives the support plate 8 to slide in the first slide groove 11, so that the first rotating shaft 501 moves to the left and the second rotating shaft 601 moves to the right, thereby driving the first filter plate 5 to move to the left and the second filter plate 6 to move to the right.

[0050] The sliding of the first rotating shaft 501 and the second rotating shaft 601 will cause the gear 12 to slide. During the sliding process of the gear 12, the first rotating shaft 501 will rotate counterclockwise, causing the second rotating shaft 601 to rotate clockwise. This will cause the first filter plate 5 to rotate counterclockwise around the central axis of the first rotating shaft 501, and cause the second filter plate 6 to rotate clockwise around the central axis of the second rotating shaft 601.

[0051] As the sliding continues, gear 12 disengages from gear block 9, at which point spring positioning assembly 13 re-engages in positioning groove 15. Then, the telescopic shaft of electric push rod 10 is extended until the elastic block 7 of the second filter plate 6 abuts against the elastic block 7 of the first filter plate 5.

[0052] The gas filtered by the filter box 2 will be introduced into the emission reduction tank 3 through the gas outlet 202. Sodium hydroxide solution will be introduced into the emission reduction tank 3 through the liquid inlet 302, so that the filtered gas reacts with the solution in the emission reduction tank 3. The gas after reaction will be discharged through the gas outlet 301, and the solution after reaction will be discharged through the liquid outlet 303.

[0053] Example 2: Figure 10 As shown, the difference between Embodiment 2 and Embodiment 1 is that the driving mechanism includes a screw 14, with one screw 14 rotatably disposed in each first slide groove 11 in the horizontal direction. The number of screws 14 corresponds to the number of support plates 8, and each screw 14 is threadedly connected to the corresponding support plate 8. A motor (not shown in the figure) is fixedly installed in each mounting groove 1102, and the number of motors corresponds to the number of screws 14. The output shaft of each motor is coaxially fixedly connected to one end of the corresponding screw 14.

[0054] The working principle of Example 2: When it is necessary to shake off impurities attached to the surfaces of the first filter plate 5 and the second filter plate 6, the supply of exhaust gas into the filter box 2 is stopped. The motor is started, and the output shaft of the motor drives the screw 14 to rotate, thereby causing the support plate 8 to slide in the first slide groove 11, so that the first rotating shaft 501 moves to the right and the second rotating shaft 601 moves to the left, thereby causing the first filter plate 5 to move to the right and the second filter plate 6 to move to the left.

[0055] The sliding of the first rotating shaft 501 and the second rotating shaft 601 causes the gear 12 to slide, and the gear 12 will contact the toothed block 9 during the sliding process. As the sliding continues, after the gear 12 contacts the toothed block 9, the spring positioning assembly 13 will disengage from the positioning groove 15, and the gear 12 will rotate accordingly. This causes the first rotating shaft 501 to rotate clockwise and the second rotating shaft 601 to rotate counterclockwise, thereby causing the first filter plate 5 to rotate clockwise around the central axis of the first rotating shaft 501 and the second filter plate 6 to rotate counterclockwise around the central axis of the second rotating shaft 601.

[0056] When a reset is required, the output shaft of the control motor rotates in the reverse direction, thereby driving the screw 14 to rotate in the reverse direction, causing the first rotating shaft 501 to move to the left and the second rotating shaft 601 to move to the right, thereby driving the first filter plate 5 to move to the left and the second filter plate 6 to move to the right.

[0057] The sliding of the first rotating shaft 501 and the second rotating shaft 601 will cause the gear 12 to slide. During the sliding process of the gear 12, the first rotating shaft 501 will rotate counterclockwise, causing the second rotating shaft 601 to rotate clockwise. This will cause the first filter plate 5 to rotate counterclockwise around the central axis of the first rotating shaft 501, and cause the second filter plate 6 to rotate clockwise around the central axis of the second rotating shaft 601.

[0058] Although the present invention has been described in detail with reference to the foregoing embodiments, those skilled in the art can still modify the technical solutions described in the foregoing embodiments or make equivalent substitutions for some of the technical features. Any modifications, equivalent substitutions, improvements, etc., made within the spirit and principles of the present invention should be included within the protection scope of the present invention.

Claims

1. An energy-saving device for reducing carbon emissions, characterized in that, The filter box (2) is fixedly mounted on the top of the base (1). A first rotating shaft (501) and a second rotating shaft (601) are slidably mounted in the filter box (2) along the horizontal direction. The first rotating shaft (501) is located on the top inner wall of the filter box (2), and the second rotating shaft (601) is located on the bottom inner wall of the filter box (2). A first filter plate (5) is fixedly mounted on the outer surface of the first rotating shaft (501), and a second filter plate (6) is fixedly mounted on the outer surface of the second rotating shaft (601). An elastic block (7) is fixedly mounted on the end of the first filter plate (5) away from the first rotating shaft (501) and the end of the second filter plate (6) away from the second rotating shaft (601). The two elastic blocks (7) are in transmission contact. The filter box (2) is provided with both a driving mechanism for driving the first rotating shaft (501) and the second rotating shaft (601) to slide and a transmission component for realizing the rotation of the first rotating shaft (501) and the second rotating shaft (601).

2. The energy-saving equipment for reducing carbon emissions according to claim 1, characterized in that, The filter box (2) has an air inlet pipe (201) connected to one side and an air outlet pipe (202) connected to the other side.

3. The energy-saving equipment for reducing carbon emissions according to claim 2, characterized in that, The top of the base (1) is fixedly provided with a reduction tank (3), and the outlet pipe (202) is not connected to the pipe opening of the filter box (2) but is connected to the reduction tank (3); the top of the reduction tank (3) is provided with an outlet (301), and the outer surface of the reduction tank (3) is provided with an inlet (302) and an outlet (303).

4. The energy-saving equipment for reducing carbon emissions according to claim 1, characterized in that, The filter box (2) has two sets of sliding groove assemblies on its side wall. One set of sliding groove assemblies corresponds to the first rotating shaft (501), and the other set of sliding groove assemblies corresponds to the second rotating shaft (601).

5. The energy-saving equipment for reducing carbon emissions according to claim 4, characterized in that, The sliding groove assembly acting on the first rotating shaft (501) includes a first sliding groove (11), two first sliding grooves (11) are opened on the outer surface of the filter box (2), and two second sliding grooves (1101) are opened inside the filter box (2). The second sliding grooves (1101) are connected to the first sliding grooves (11) one by one. A third sliding groove (1103) is opened on both sides of each second sliding groove (1101). A sealing plate (4) is slidably arranged in each second sliding groove (1101). Each sealing plate (4) is slidably matched with the third sliding grooves (1103) on both sides of the second sliding groove (1101) in which it is located. A support plate (8) is slidably arranged in each first sliding groove (11). The two ends of the first rotating shaft (501) are both one-to-one with the sealing plate (4) and one-to-one with the support plate (8). Each end of the first rotating shaft (501) rotates through the corresponding sealing plate (4) and is rotatably connected to the corresponding support plate (8).

6. The energy-saving equipment for reducing carbon emissions according to claim 5, characterized in that, The driving mechanism includes an electric push rod (10). Each first slide groove (11) has a mounting groove (1102) on its side wall. An electric push rod (10) is fixedly installed in each mounting groove (1102). The electric push rod (10) corresponds one-to-one with the support plate (8). The telescopic shaft of each electric push rod (10) is fixedly connected to the corresponding support plate (8).

7. The energy-saving equipment for reducing carbon emissions according to claim 5, characterized in that, The transmission component includes tooth blocks (9), each first slide groove (11) is fixedly installed with tooth blocks (9), and each first rotating shaft (501) is fixedly fitted with gears (12) at both ends. The number of gears (12) and tooth blocks (9) are equal and they mesh and transmit power in a one-to-one correspondence. Each gear (12) is provided with a positioning groove (15), and each support plate (8) is provided with a spring positioning assembly (13). The spring positioning assembly (13) and the positioning groove (15) are connected and driven in a one-to-one correspondence.

8. The energy-saving equipment for reducing carbon emissions according to claim 6, characterized in that, The driving mechanism includes screws (14), and each first slide groove (11) is rotatably provided with screws (14). The number of screws (14) and support plates (8) are equal and they are threadedly connected one-to-one. Each mounting groove (1102) is fixedly installed with motors. The number of motors and screws (14) are equal and they are threaded one-to-one. The output shaft of each motor is coaxially fixedly connected to one end of the corresponding screw (14).

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