A sensor-based stationary source carbon emission monitoring system

Abstract

The application relates to the technical field of carbon emission monitoring, in particular to a fixed source carbon emission monitoring system based on a sensor, which comprises an emission pipe, a fixed plate and a backflow pipe are fixedly installed on the sidewall of the emission pipe, the backflow pipe is connected with the emission pipe, a monitor is fixedly installed in the emission pipe, a conduction emission mechanism is arranged in the emission pipe, an adjusting assembly connected with the conduction emission mechanism is arranged on the fixed plate, the adjusting assembly can drive the conduction emission mechanism to move so as to adjust the conduction state of the emission pipe, a synchronous regulation mechanism is arranged on the backflow pipe and connected with the conduction emission mechanism, a translation assembly connected with the synchronous regulation mechanism is further arranged on the backflow pipe, and a sealing disc matched with the backflow pipe is connected to the translation assembly. The emission pipe and the backflow pipe can be controlled according to the monitoring result, so that the emission or backflow reprocessing of the gas can be controlled.

Description

Technical Field

[0001] This invention relates to the field of carbon emission monitoring technology, specifically a sensor-based stationary source carbon emission monitoring system. Background Technology

[0002] Carbon emissions refer to the average amount of greenhouse gas emissions generated during the production, transportation, use, and recycling of a product. Dynamic carbon emissions, on the other hand, refer to the cumulative amount of greenhouse gases emitted per unit of goods; different batches of the same product may have different dynamic carbon emissions.

[0003] Developing reliable carbon emission monitoring technologies and accurately and comprehensively acquiring carbon emission data can provide strong technical support for the formulation of carbon emission reduction measures and the evaluation of their effects. There are several ways to monitor carbon emissions, including direct measurement methods, statistical methods, modeling methods, and standard methods.

[0004] In terms of direct measurement methods, the carbon content in the gas is generally monitored before carbon emissions, and the gas is either emitted or reprocessed based on the monitoring results. However, existing monitoring equipment requires controlling the sealing of the emission pipe and then controlling the conduction of the return equipment after the carbon content in the gas changes in order to reprocess the gas. Due to the complexity of the operation, gas may escape or accumulate in the emission pipe, resulting in poor gas reprocessing effect. Summary of the Invention

[0005] The purpose of this invention is to provide a sensor-based stationary source carbon emission monitoring system to solve the problems mentioned in the background art.

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

[0007] A sensor-based stationary source carbon emission monitoring system includes:

[0008] The discharge pipe has a fixing plate and a return pipe fixedly installed on its side wall. The return pipe is connected to the discharge pipe, and a monitoring instrument is fixedly installed inside the discharge pipe.

[0009] Its characteristic is that it further includes:

[0010] A discharge control mechanism is provided inside the discharge pipe. An adjustment component connected to the discharge control mechanism is provided on the fixed plate. The adjustment component can drive the discharge control mechanism to move in order to adjust the discharge pipe's conduction state.

[0011] A synchronous control mechanism is provided on the return pipe and connected to the discharge mechanism. The return pipe is also provided with a translation component connected to the synchronous control mechanism. A sealing disc that cooperates with the return pipe is connected to the translation component. The synchronous control mechanism can operate when the discharge mechanism moves and drive the sealing disc to move along the length of the return pipe through the translation component to adjust the conduction state of the return pipe.

[0012] A pressurizing mechanism is installed on the discharge pipe. The pressurizing mechanism can operate according to the change in the conduction state of the return pipe to deliver different gases into the discharge pipe.

[0013] As a further aspect of the present invention: the discharge mechanism includes a hollow disk fixedly installed inside the discharge pipe, a discharge hole is provided at the center of the hollow disk, a plurality of sealing plates are movably installed inside the hollow disk and are distributed equidistantly in a circle, and a rotating assembly connected to the sealing plates is provided on the discharge pipe.

[0014] As a further embodiment of the present invention: the rotating assembly includes an annular guide rail fixedly installed on the discharge pipe, a turntable rotatably installed on the annular guide rail, a support rod fixedly installed on the turntable and connected to the adjusting assembly, and an opening and closing structure connected to the sealing plate on the turntable.

[0015] As a further embodiment of the present invention: the opening and closing structure includes a plurality of inclined grooves formed on the hollow disk and distributed equidistantly in a circular pattern, a plurality of straight grooves formed on the turntable and distributed equidistantly in a circular pattern, and a receiving rod that penetrates the inclined grooves and the straight grooves is fixed on the sealing plate.

[0016] As a further embodiment of the present invention: the adjustment assembly includes a motor fixedly mounted on the fixed plate, a transmission rod rotatably mounted on the fixed plate and connected to the output shaft of the motor, and a first belt rotatably connected to the support rod is sleeved on the transmission rod.

[0017] As a further embodiment of the present invention: the synchronous control mechanism includes a second rotating rod rotatably mounted on the return pipe, a second belt rotatably connected to the support rod on the second rotating rod, a first bevel gear fixedly mounted on the second rotating rod, and a driven component connected to the first bevel gear on the return pipe.

[0018] As a further embodiment of the present invention: the driven component includes a baffle fixedly installed on the return pipe, a third rotating rod rotatably installed on the baffle, a second bevel gear meshing with the first bevel gear fixedly installed on the third rotating rod, a third belt sleeved on the end of the third rotating rod away from the second bevel gear, and the third belt connected to the translation component.

[0019] As a further embodiment of the present invention: the translation component includes a rotating sleeve rotatably mounted on the return pipe, the rotating sleeve being connected to the No. 3 belt, and a guide groove being provided on the inner wall of the rotating sleeve;

[0020] It also includes a movable rod that is movably installed inside the rotating sleeve and passes through the return pipe. The movable rod has a protrusion that is slidably connected to the guide groove. The movable rod is fixedly connected to the sealing disc.

[0021] As a further embodiment of the present invention: the pressurization mechanism includes a transfer pipe fixedly installed on the discharge pipe and passing through the discharge pipe, a conveying pipe and a pressurization pipe respectively connected to both sides of the transfer pipe, and an elastic component connected to the conveying pipe and the pressurization pipe is provided inside the transfer pipe.

[0022] As a further embodiment of the present invention: the elastic component includes a movable plate movably installed inside the transfer pipe, a guide pipe movably connected to the delivery pipe is fixedly installed on the movable plate, a plurality of delivery holes are provided on the guide pipe in a circumferentially equidistant manner, and a spring is sleeved on the guide pipe to abut against the movable plate.

[0023] Compared with the prior art, the beneficial effects of the present invention are as follows: The present application can adjust the conduction state of the discharge pipe and the return pipe according to the carbon content of the gas to be discharged or reprocessed. When the gas needs to be discharged, the discharge pipe is opened by the movement of the discharge mechanism under the action of the adjustment component. At the same time, the translation component is driven to move under the action of the synchronous control mechanism, thereby sealing the return pipe through the sealing plate. If the carbon content of the gas is too high, the gas needs to be reprocessed. At this time, the adjustment component can seal the discharge pipe through the discharge mechanism. At the same time, the discharge mechanism will also drive the translation component to move through the synchronous control mechanism, thereby controlling the conduction of the return pipe through the sealing plate. Under the action of the pressurization mechanism, the gas in the discharge pipe is controlled to enter the return pipe for reprocessing. Attached Figure Description

[0024] Figure 1 This is a schematic diagram of one embodiment of a sensor-based stationary source carbon emission monitoring system.

[0025] Figure 2This is a half-section diagram of one embodiment of a sensor-based stationary source carbon emission monitoring system.

[0026] Figure 3 This is a partial half-section diagram of one embodiment of a sensor-based stationary source carbon emission monitoring system.

[0027] Figure 4 This is a schematic diagram of the pressurization mechanism in one embodiment of a sensor-based stationary source carbon emission monitoring system.

[0028] Figure 5 This is a schematic diagram of the structure of a portion of the emission conduction mechanism in one embodiment of a sensor-based stationary source carbon emission monitoring system.

[0029] Figure 6 This is an exploded structural diagram of a portion of the emission conduction mechanism in one embodiment of a sensor-based stationary source carbon emission monitoring system.

[0030] Figure 7 This is a schematic diagram showing the connection relationship between some of the synchronization control mechanisms and some of the translation components in one embodiment of a sensor-based stationary source carbon emission monitoring system.

[0031] Figure 8 This is an exploded structural diagram of a translation component in one embodiment of a sensor-based stationary source carbon emission monitoring system.

[0032] In the diagram: 1. Discharge pipe; 2. Fixing plate; 3. Motor; 4. Transmission rod; 5. Belt No. 1; 6. Hollow disc; 7. Inclined groove; 8. Sealing plate; 9. Receiving rod; 10. Circular guide rail; 11. Turntable; 12. Straight groove; 13. Support rod; 14. Return pipe; 15. Rotating rod No. 2; 16. Belt No. 2; 17. Bevel gear No. 1; 18. Baffle; 19. Rotating rod No. 3; 20. Bevel gear No. 2; 21. Belt No. 3; 22. Rotating sleeve; 23. Guide groove; 24. Movable rod; 25. Protrusion; 26. Sealing disc; 27. Discharge hole; 28. Monitor; 29. ​​Transfer pipe; 30. Conveying pipe; 31. Pressure boosting pipe; 32. Movable plate; 33. Conducting pipe; 34. Conveying hole; 35. Spring. Detailed Implementation

[0033] The technical solutions of the embodiments of the present invention will be clearly and completely described below with reference to the accompanying drawings. Obviously, the described embodiments are only some embodiments of the present invention, and not all embodiments. Based on the embodiments of the present invention, all other embodiments obtained by those skilled in the art without creative effort are within the scope of protection of the present invention.

[0034] Furthermore, elements in this invention are referred to as being "fixed to" or "set on" another element, which may be directly on the other element or may also include an intervening element. When an element is considered to be "connected" to another element, it may be directly connected to the other element or may also include an intervening element. The terms "vertical," "horizontal," "left," "right," and similar expressions used herein are for illustrative purposes only and do not represent the only possible implementations.

[0035] Please see Figures 1 to 8 In this embodiment of the invention, a sensor-based stationary source carbon emission monitoring system includes:

[0036] The discharge pipe 1 has a fixing plate 2 and a return pipe 14 fixedly installed on its side wall. The return pipe 14 is connected to the discharge pipe 1. A monitoring instrument 28 is fixedly installed inside the discharge pipe 1.

[0037] Its characteristic is that it further includes:

[0038] Please see Figure 1 , Figure 2 , Figure 5 , Figure 6 A discharge mechanism is provided inside the discharge pipe 1. The discharge mechanism includes a hollow disk 6 fixedly installed inside the discharge pipe 1. A discharge hole 27 is opened at the center of the hollow disk 6. Multiple sealing plates 8 are movably installed inside the hollow disk 6 and are distributed equidistantly around the circumference. A rotating assembly connected to the sealing plates 8 is provided on the discharge pipe 1. The rotating assembly includes an annular guide rail 10 fixedly installed on the discharge pipe 1. A turntable 11 is rotatably installed on the annular guide rail 10. A support rod 13 connected to the adjusting assembly is fixedly installed on the turntable 11. An opening and closing structure connected to the sealing plates 8 is provided on the turntable 11. The opening and closing structure includes multiple inclined grooves 7 opened on the hollow disk 6 and distributed equidistantly around the circumference. Multiple straight grooves 12 opened on the turntable 11 are distributed equidistantly around the circumference. A receiving rod 9 is fixed on the sealing plate 8 and passes through the inclined grooves 7 and the straight grooves 12.

[0039] In detail, the discharge pipe 1 is used to discharge gas containing carbon. The monitor 28 is used to monitor the carbon content of the gas. In the initial state, the distance between the sealing plates 8 is the smallest, so that the discharge hole 27 is in a blocked state. When the gas is delivered into the discharge pipe 1, if the carbon content in the gas is within the standard range, the gas needs to be discharged. At this time, under the action of the adjustment component, the turntable 11 rotates around the annular guide rail 10. The turntable 11 also drives the straight groove 12 to move, thereby driving the receiving rod 9 to move. The receiving rod 9 will move along the length direction of the inclined groove 7, causing the sealing plates 8 to move. At this time, the discharge hole 27 will be open. When the receiving rod 9 moves to the end of the stroke on one side of the inclined groove 7, the conduction of the discharge hole 27 is the largest. At this time, the adjustment component stops moving, and the gas delivered by the discharge pipe 1 will be discharged to the outside of the discharge pipe 1 through the discharge hole 27.

[0040] Preferably, if the carbon content in the gas monitored by the monitor 28 exceeds the standard value, the gas needs to be reprocessed. Therefore, the discharge hole 27 needs to be blocked. At this time, under the action of the adjustment component, the turntable 11 moves towards the initial angle, and under the action of the straight groove 12 and the inclined groove 7, the blocking plate 8 is reset to block the discharge hole 27 again.

[0041] Please see Figure 1 , Figure 2 The fixed plate 2 is provided with an adjustment component connected to the discharge mechanism. The adjustment component can drive the discharge mechanism to move in order to adjust the discharge pipe 1's conduction state. The adjustment component includes a motor 3 fixedly installed on the fixed plate 2. A transmission rod 4 connected to the output shaft of the motor 3 is rotatably installed on the fixed plate 2. A first belt 5 rotatably connected to the support rod 13 is sleeved on the transmission rod 4.

[0042] It should be noted that when gas needs to be discharged, if the carbon content of the gas is within the standard value, it can be discharged. At this time, the motor 3 works, driving the transmission rod 4 to rotate, which in turn drives the first belt 5 to move. Under the action of the first belt 5, the support rod 13 rotates to control the movement of the sealing plate 8, and the discharge hole 27 will be open, and the gas will be discharged through the discharge hole 27. If the carbon content of the gas exceeds the standard value, the motor 3 works again and drives the transmission rod 4 to reverse, so that the first belt 5 drives the support rod 13 to reverse, so that the discharge hole 27 is sealed again.

[0043] Please see Figure 1 , Figure 2 , Figure 7A synchronous control mechanism is provided on the return pipe 14 and connected to the discharge mechanism. The synchronous control mechanism includes a second rotating rod 15 rotatably mounted on the return pipe 14. A second belt 16 rotatably connected to the support rod 13 is sleeved on the second rotating rod 15. A first bevel gear 17 is fixedly mounted on the second rotating rod 15. A driven component connected to the first bevel gear 17 is provided on the return pipe 14. The driven component includes a baffle 18 fixedly mounted on the return pipe 14. A third rotating rod 19 is rotatably mounted on the baffle 18. A second bevel gear 20 meshing with the first bevel gear 17 is fixedly mounted on the third rotating rod 19. A third belt 21 is sleeved on the end of the third rotating rod 19 away from the second bevel gear 20. The third belt 21 is connected to the translation component.

[0044] Furthermore, if the carbon content of the gas emitted from exhaust pipe 1 exceeds the standard value, the gas needs to be further treated. Therefore, it is necessary to control the conduction of return pipe 14. Initially, the sealing plate 8 is at the end of its stroke in the direction of mutual distance, making the exhaust hole 27 open. At this time, under the action of sealing disc 26, the return pipe 14 is blocked. When the carbon content of the gas increases, it is necessary to control the blockage of exhaust hole 27 and control the conduction of return pipe 14. At this time, support rod 13 will rotate, and drive second rotating rod 15 to rotate through second belt 16, causing first bevel gear 17 to rotate. The first bevel gear 17 meshes with the second bevel gear 20, causing the third rotating rod 19, which is fixed to the second bevel gear 20, to rotate. The third rotating rod 19 will drive the translation component to move through the third belt 21. Under the action of the translation component, the sealing disc 26 moves along the length of the return pipe 14 to control the return pipe 14 to be in a conducting state. At this time, the gas in the discharge pipe 1 will enter the return pipe 14 to be transported to the reprocessing equipment. The reprocessing equipment is used in the pre-processing of the discharged gas and can reduce the carbon content in the gas. This is an application of the prior art and will not be described in detail in this application.

[0045] Please see Figure 1 , Figure 2 , Figure 7 , Figure 8The return pipe 14 is also provided with a translation component connected to the synchronous control mechanism. The translation component is connected to a sealing disc 26 that cooperates with the return pipe 14. The synchronous control mechanism can operate when the discharge mechanism moves, and drive the sealing disc 26 to move along the length of the return pipe 14 through the translation component to adjust the conduction state of the return pipe 14. The translation component includes a rotating sleeve 22 rotatably mounted on the return pipe 14. The rotating sleeve 22 is connected to the No. 3 belt 21. The inner wall of the rotating sleeve 22 is provided with a guide groove 23. It also includes a movable rod 24 movably mounted in the rotating sleeve 22 and passing through the return pipe 14. The movable rod 24 is fixed with a protrusion 25 that is slidably connected to the guide groove 23. The movable rod 24 is fixedly connected to the sealing disc 26.

[0046] Furthermore, a limiting groove is provided on the movable rod 24, and a limiting rod that is slidably connected to the limiting groove is fixed on the return pipe 14. In the initial state, the movable rod 24 is located at the end of its stroke away from the discharge pipe 1, so that the sealing disc 26 is located inside the return pipe 14, preventing the gas in the discharge pipe 1 from entering the return pipe 14. If the carbon content in the gas is within the standard value, the gas can be discharged outside the discharge pipe 1. If the carbon content in the gas is higher than the standard value, the discharge hole 27 needs to be blocked, and the return pipe 14 needs to be kept open. Under the action of the third rotating rod 19, the third belt 21 drives the rotating sleeve 22 to rotate, thereby driving the guide groove 23 to move. The guide groove 23 is spirally arranged. Under the action of the guide groove 23 and the protrusion 25, the movable rod 24 moves along the length direction of the limiting rod, thereby driving the sealing plate 26 to move towards the discharge pipe 1. When the sealing plate 26 moves to the position of separation from the return pipe 14, the return pipe 14 will be opened. At this time, the gas in the discharge pipe 1 will enter the return pipe 14, thereby reprocessing the gas.

[0047] Please see Figures 1-4 A pressurizing mechanism is installed on the discharge pipe 1. The pressurizing mechanism can operate according to the change in the conduction state of the return pipe 14 to deliver different gases into the discharge pipe 1. The pressurizing mechanism includes a transfer pipe 29 fixedly installed on the discharge pipe 1 and passing through the discharge pipe 1. A delivery pipe 30 and a pressurizing pipe 31 are respectively connected to both sides of the transfer pipe 29. An elastic component connected to the delivery pipe 30 and the pressurizing pipe 31 is provided in the transfer pipe 29. The elastic component includes a movable plate 32 movably installed in the transfer pipe 29. A guide pipe 33 movably connected to the delivery pipe 30 is fixedly installed on the movable plate 32. A plurality of delivery holes 34 are opened on the guide pipe 33 in a circumferentially equidistant manner. A spring 35 is sleeved on the guide pipe 33 and abuts against the movable plate 32.

[0048] In the initial state, spring 35 is slightly compressed, causing movable plate 32 to be at the end of its stroke away from delivery pipe 30, thus blocking pressurization pipe 31. Delivery hole 34 on guide pipe 33 is connected to transfer pipe 29. At this time, the gas to be monitored can be delivered through delivery pipe 30 into guide pipe 33, and then through delivery hole 34 into transfer pipe 29, and finally into discharge pipe 1. Monitor 28 will monitor the gas. If the carbon content in the gas is higher than the specified value, the gas discharge needs to be stopped, and the gas in discharge pipe 1 is delivered to return pipe 14 for further processing. At this time, delivery pipe 30 no longer delivers gas, and guide pipe 33 delivers pressurized air into transfer pipe 29. Under pressure, the movable plate 32 is pushed towards the delivery pipe 30, and the spring 35 is compressed. The movable plate 32 also drives the guide pipe 33 to move, so that the delivery hole 34 enters the delivery pipe 30, thereby controlling the delivery pipe 30 and the guide pipe 33 to be in a blocked state. At this time, the pressurized air will enter the discharge pipe 1 through the transfer pipe 29, so that the gas in the discharge pipe 1 enters the return pipe 14, thereby ensuring that the gas can be reprocessed. When the gas is processed, the pressurized pipe 31 no longer delivers gas, the spring 35 is released elastically, so that the movable plate 32 and the guide pipe 33 are reset, the delivery hole 34 is disengaged from the delivery pipe 30, and the delivery pipe 30 and the guide pipe 33 are connected again. At this time, the required monitoring gas can continue to be delivered through the delivery pipe 30.

[0049] Taking the embodiment combining all the features described in this application as an example, in use, the discharge pipe 1 is used to discharge gas containing carbon. The discharged gas is used to monitor the carbon content of the gas. In the initial state, the spacing between the sealing plates 8 is minimal, so that the discharge hole 27 is in a blocked state. When the gas is delivered into the discharge pipe 1, if the carbon content in the gas is within the standard range, the gas needs to be discharged. At this time, the motor 3 works, driving the transmission rod 4 to rotate, thereby driving the first belt 5 to move. Under the action of belt 5, the support rod 13 rotates, causing the turntable 11 to rotate around the annular guide rail 10. The turntable 11 also drives the straight groove 12 to move, thereby driving the receiving rod 9 to move. The receiving rod 9 will move along the length of the inclined groove 7, causing the sealing plate 8 to move. At this time, the discharge hole 27 will be open. When the receiving rod 9 moves to the end of its stroke on one side of the inclined groove 7, the conduction of the discharge hole 27 is at its maximum. At this time, the motor 3 stops rotating, and the gas transported by the discharge pipe 1 will be discharged to the outside of the discharge pipe 1 through the discharge hole 27. If the discharge pipe 1 When the carbon content of the emitted gas exceeds the standard value, the gas needs to be further treated. Therefore, it is necessary to control the reflux pipe 14 to be open. At this time, the motor 3 starts working again and drives the transmission rod 4 to reverse, so as to drive the support rod 13 to reverse through the first belt 5, so that the emission hole 27 is blocked again. At the same time, the support rod 13 will rotate, and drive the second rotating rod 15 to rotate through the second belt 16, so that the first bevel gear 17 rotates. Since the first bevel gear 17 meshes with the second bevel gear 20, the third rotating rod, which is fixed with the second bevel gear 20, rotates. When the No. 19 rotating rod is rotated, the No. 3 rotating rod 19 will drive the rotating sleeve 22 to rotate via the No. 3 belt 21, thereby driving the guide groove 23 to move. The guide groove 23 is spirally arranged. Under the action of the guide groove 23 and the protrusion 25, the movable rod 24 moves along the length direction of the limiting rod, thereby driving the sealing disc 26 to move towards the discharge pipe 1. When the sealing disc 26 moves to the position where it is separated from the return pipe 14, the return pipe 14 will be opened. At this time, the gas in the discharge pipe 1 will enter the return pipe 14, thereby reprocessing the gas.

[0050] It will be apparent to those skilled in the art that the present invention is not limited to the details of the exemplary embodiments described above, and that the invention can be implemented in other specific forms without departing from its spirit or essential characteristics. Therefore, the embodiments should be considered in all respects as exemplary and non-limiting, and the scope of the invention is defined by the appended claims rather than the foregoing description. Thus, all variations falling within the meaning and scope of equivalents of the claims are intended to be included within the present invention. No reference numerals in the claims should be construed as limiting the scope of the claims.

[0051] Furthermore, it should be understood that although this specification describes embodiments, not every embodiment contains only one independent technical solution. This narrative style is merely for clarity. Those skilled in the art should consider the specification as a whole, and the technical solutions in each embodiment can also be appropriately combined to form other embodiments that can be understood by those skilled in the art.

Claims

1. A sensor-based stationary source carbon emission monitoring system, comprising: Discharge pipe (1), a fixing plate (2) and a return pipe (14) are fixedly installed on the side wall of the discharge pipe (1), the return pipe (14) is connected to the discharge pipe (1), and a monitoring instrument (28) is fixedly installed inside the discharge pipe (1). Its characteristic is that it further includes: A discharge mechanism is provided inside the discharge pipe (1). An adjustment component connected to the discharge mechanism is provided on the fixed plate (2). The adjustment component can drive the discharge mechanism to move in order to adjust the discharge pipe (1) conduction state. A synchronous control mechanism is provided on the return pipe (14) and connected to the discharge mechanism. The return pipe (14) is also provided with a translation component connected to the synchronous control mechanism. A sealing disc (26) that cooperates with the return pipe (14) is connected to the translation component. The synchronous control mechanism can operate when the discharge mechanism moves and drive the sealing disc (26) to move along the length direction of the return pipe (14) through the translation component to adjust the conduction state of the return pipe (14). A pressurizing mechanism is provided on the discharge pipe (1). The pressurizing mechanism can operate according to the change in the conduction state of the return pipe (14) to deliver the gas to be monitored or pressurized air into the discharge pipe (1). The pressurization mechanism includes a transfer pipe (29) fixedly installed on the discharge pipe (1) and passing through the discharge pipe (1). The transfer pipe (29) is connected to a conveying pipe (30) and a pressurization pipe (31) on both sides respectively. An elastic component connected to the conveying pipe (30) and the pressurization pipe (31) is provided inside the transfer pipe (29). The elastic component includes a movable plate (32) movably installed inside the transfer pipe (29), a guide pipe (33) fixedly installed on the movable plate (32) and movably connected to the delivery pipe (30), a plurality of delivery holes (34) circumferentially distributed on the guide pipe (33), and a spring (35) sleeved on the guide pipe (33) and abutting against the movable plate (32). When gas needs to be discharged, the discharge pipe (1) is opened by the movement of the discharge mechanism under the action of the regulating component. At the same time, the translation component is driven to move under the action of the synchronous control mechanism, thereby blocking the return pipe (14) through the sealing plate (26). If the carbon content of the gas is too high, the gas needs to be reprocessed. At this time, the regulating component can block the discharge pipe (1) through the discharge mechanism. At the same time, the discharge mechanism will also drive the translation component to move through the synchronous control mechanism, thereby controlling the return pipe (14) to be opened through the sealing plate (26). Under the action of the pressurizing mechanism, the pressurized air in the discharge pipe (1) is controlled to enter the return pipe (14) for reprocessing of the gas.

2. The sensor-based stationary source carbon emission monitoring system according to claim 1, characterized in that, The discharge mechanism includes a hollow disk (6) fixedly installed inside the discharge pipe (1). A discharge hole (27) is provided at the center of the hollow disk (6). Multiple sealing plates (8) are movably installed inside the hollow disk (6) and are distributed equidistantly in a circle. A rotating assembly connected to the sealing plates (8) is provided on the discharge pipe (1).

3. The sensor-based stationary source carbon emission monitoring system according to claim 2, characterized in that, The rotating assembly includes an annular guide rail (10) fixedly installed on the discharge pipe (1), a turntable (11) rotatably installed on the annular guide rail (10), a support rod (13) fixedly installed on the turntable (11) and connected to the adjusting assembly, and an opening and closing structure connected to the sealing plate (8) is provided on the turntable (11).

4. A sensor-based stationary source carbon emission monitoring system according to claim 3, characterized in that, The opening and closing structure includes multiple inclined grooves (7) that are opened on the hollow disk (6) and are distributed equidistantly around the circumference, and multiple straight grooves (12) that are distributed equidistantly around the circumference are opened on the turntable (11), and a receiving rod (9) that passes through the inclined grooves (7) and the straight grooves (12) is fixed on the sealing plate (8).

5. A sensor-based stationary source carbon emission monitoring system according to claim 3, characterized in that, The adjustment assembly includes a motor (3) fixedly mounted on the fixed plate (2), a transmission rod (4) rotatably mounted on the fixed plate (2) and connected to the output shaft of the motor (3), and a first belt (5) rotatably connected to the support rod (13) is sleeved on the transmission rod (4).

6. A sensor-based stationary source carbon emission monitoring system according to claim 3, characterized in that, The synchronous control mechanism includes a second rotating rod (15) rotatably mounted on the return pipe (14), a second belt (16) rotatably connected to the support rod (13) is sleeved on the second rotating rod (15), a first bevel gear (17) is fixedly mounted on the second rotating rod (15), and a driven component connected to the first bevel gear (17) is provided on the return pipe (14).

7. A sensor-based stationary source carbon emission monitoring system according to claim 6, characterized in that, The driven component includes a baffle (18) fixedly installed on the return pipe (14), a third rotating rod (19) rotatably installed on the baffle (18), a second bevel gear (20) meshing with the first bevel gear (17) fixedly installed on the third rotating rod (19), and a third belt (21) sleeved on the end of the third rotating rod (19) away from the second bevel gear (20), and the third belt (21) is connected to the translation component.

8. A sensor-based stationary source carbon emission monitoring system according to claim 7, characterized in that, The translation component includes a rotating sleeve (22) rotatably mounted on the return pipe (14), the rotating sleeve (22) being connected to the No. 3 belt (21), and a guide groove (23) being provided on the inner wall of the rotating sleeve (22). It also includes a movable rod (24) that is movably installed inside the rotating sleeve (22) and passes through the return pipe (14). The movable rod (24) has a protrusion (25) that is slidably connected to the guide groove (23). The movable rod (24) is fixedly connected to the sealing disc (26).

Images