Electric power carbon emission factor prediction system and use method thereof

Abstract

The invention discloses an electric power carbon emission factor prediction system and a use method thereof, belongs to the field of carbon emission factor prediction, and can solve the problems that in the background technology, an existing electric power carbon emission detection and prediction device is simple in structure, the temperature of gas is high, and the accuracy of a prediction system instrument is influenced by direct detection; the high temperature also causes damage to internal parts of a prediction system instrument, and when the gas is sampled and predicted, dust is contained in the gas, so that the trafficability of the gas is influenced, and the prediction is influenced. The method comprises the steps that S1, a corrugated pipe is pulled to be fixedly communicated with an electric carbon emission gas pipe; s2, a first motor is powered on to drive a filter screen ring plate to rotate, and the filter screen ring plate rotates to filter and clean dust; s3, the gas enters a cooling pipe and flows along a spiral plate to reduce the flow speed, and the gas is subjected to heat dissipation through a fin plate; and S4, the gas flows into a prediction system for detection and prediction.

Description

Technical Field

[0001] The present invention belongs to the field of carbon emission factor prediction, and in particular to a prediction system for an electric power carbon emission factor and a method for using the system. Background Art

[0002] Carbon dioxide is one of the main emission gases that cause the greenhouse effect. The greenhouse effect will affect the natural environment, leading to the retreat of glaciers, the rise of sea levels, the northward shift of climate zones, and the increase in natural disasters. It will also affect the increase in the incidence of cardiovascular and respiratory diseases. At the same time, the existing power generation is one of the industries that emit the most carbon dioxide. Therefore, it is urgent to establish an evaluation index system and a control system path for carbon emissions at this stage. Through the above system, key data of carbon emissions can be monitored, captured and predicted, so as to achieve the control of power carbon emission factors. The smaller the error of the monitored data, the more accurate the prediction. The existing power carbon emission detection and prediction device has a simple structure. The temperature of some gases is relatively high. If they are directly detected, the temperature will affect the accuracy of the prediction system instruments. At the same time, high temperature will also cause damage to the internal parts of the prediction system instruments. At the same time, when sampling and predicting the gas, the gas contains a lot of dust, which will affect the permeability of the gas and thus affect the prediction. At the same time, regular cleaning of the dust will increase the prediction cost, which is time-consuming and labor-intensive, and the cleaning requires shutdown, affecting the frequency of prediction. Summary of the invention

[0003] The purpose of the present invention is to solve the above problems existing in the prior art and to provide a prediction system for electric power carbon emission factors and a method for using the same.

[0004] To achieve the above purpose, the present invention adopts the following technical solutions:

[0005] A prediction system for electric power carbon emission factors comprises: a filtering system, a cooling system, a circulation system and a prediction system, wherein the filtering system is fixedly connected to one end of the cooling system, a circulation system is fixedly provided at the lower end of the cooling system, the circulation system is fixedly connected to the cooling system, and the other end of the cooling system is fixedly connected to the prediction system.

[0006] The filtering system comprises: a filter cover, a cavity one, a collecting cavity, an annular brush plate, an air vent, a sealing gasket, a bellows, a collecting cover and a filter unit, the filter cover being an annular barrel structure with an open end downwardly arranged, the lower end of the cavity one of the filter cover is the collecting cavity, the collecting cavity is connected with the cavity one, the upper end of the cavity one is provided with a plug interface penetrating the upper surface of the filter cover, an annular brush plate is fixed to the outer side of the inner ring plate of the filter cover, an air vent is arranged on the inner ring plate of the filter cover, the air vent penetrates the annular brush plate, a sealing gasket is arranged on the inner ring plate of the filter cover, the diameter of the sealing gasket is larger than the air vent, a bellows is fixed to the lower end of the filter cover, the air vent penetrates the outer ring plate of the filter cover, a collecting cover is fixed to the outer end of the filter cover, the size of the collecting cover matches the size of the air vent, and the filter unit is detachably and fixedly connected in the cavity one.

[0007] The filter unit includes: a cover, a motor, a fixing plate and a filter mesh ring plate, the lower end of the cover is fixed with a motor, the output shaft of the motor is fixed with a fixing plate, the fixing plate is slidably connected to the inner side surface of the cover, the lower end of the fixing plate is fixed with a filter mesh ring plate, the filter mesh ring plate passes through the plug interface and is arranged in a cavity, the outer side surface of the filter mesh ring plate slides against the inner side surface of the outer ring plate of the filter cover, the inner side surface of the filter mesh ring plate slides against the annular brush plate, the sealing gasket slides and seals against the inner side surface of the filter mesh ring plate, and the cover is detachably fixed to the outer wall of the filter cover by bolts.

[0008] The cooling system includes: a cooling tube, a second cavity, a heat sink, a fin plate and a spiral plate. One end of the cooling tube is fixedly connected to the collecting cover. A second cavity is provided in the cooling tube. The heat sink is provided in the second cavity. A plurality of fin plates are provided at the lower end of the second cavity. The plurality of fin plates are fixedly passed through the side wall of the cooling tube and are provided in the cooling tube. At least one heat sink is provided. A spiral plate is horizontally fixed in the cooling tube by a bracket. The other end of the cooling tube is fixedly connected to the prediction system.

[0009] The circulation system comprises: a cooling box, a motor box, Motor 2, blades, an air pump, a cooling pipe, a sealing unit, an oil supply pipe and an oil return pipe. The cooling box is fixed at the lower end of the cooling pipe, and the motor box is fixed at the lower end of the cooling box. Motor 2 is fixed inside the motor box. The output shaft of Motor 2 rotates and seals and penetrates into the bottom surface of the cooling box and is fixedly connected with the blades. An air pump is fixed inside the motor box, and the air inlet pipe of the air pump passes out of the motor box. The air outlet end of the air pump is fixedly connected with a cooling pipe, and the cooling pipe is fixedly inserted into the cooling box horizontally. A plurality of sealing units are arranged at the lower end of the cooling box, an oil supply pipe is arranged at one end of the cooling box, and an oil pump is fixedly connected to the oil supply pipe, the oil supply pipe is fixedly connected to the cooling pipe and is connected to cavity 2, and an oil return pipe is arranged at the other end of the cooling box, and the oil return pipe is fixed to the cooling pipe and is connected to cavity 2.

[0010] The multiple sealing units all include: a sealing tube, a slide, a sliding column, a spring and a sealing plug. A sealing tube is fixedly connected to the lower part of the cooling tube, a slide is horizontally fixed inside the sealing tube, the sliding column is slidably connected to the slide, a spring baffle is arranged at the upper end of the sliding column, a spring is sleeved on the sliding column, the spring is arranged between the spring baffle and the slide, a sealing plug is fixed to the lower end of the sliding column, and the sealing plug is sealingly pressed against the opening below the sealing tube.

[0011] A method for using a system for predicting a carbon emission factor of electricity comprises the following steps:

[0012] S1: pull the bellows to connect with the electric carbon exhaust gas pipe;

[0013] S2: Turn on the power of the motor to drive the filter ring plate to rotate, and the filter ring plate rotates to filter and clean the dust;

[0014] S3: The gas enters the cooling tube and flows along the spiral plate to reduce the flow rate. The gas dissipates heat through the fin plate.

[0015] S4: The gas flows into the prediction system for detection and prediction.

[0016] Compared with the prior art, the present invention has the following beneficial effects:

[0017] The present invention provides a prediction system for electric power carbon emission factors, which can solve the problems raised in the background technology: the existing electric power carbon emission detection and prediction devices have a simple structure, and some gases have a high temperature. If they are directly detected, the temperature will affect the accuracy of the prediction system instruments. At the same time, high temperature will also cause damage to the internal parts of the prediction system instruments. When the gas is sampled and predicted, a large amount of dust is contained in the gas, which will affect the permeability of the gas and thus affect the prediction. At the same time, regular cleaning of the dust will increase the prediction cost and be time-consuming and labor-intensive. It can also solve the problem of needing to shut down during cleaning, which affects the frequency of prediction.

[0018] By setting up a filtering system, the device can filter dust from the exhaust gas to avoid affecting the gas's permeability, and can also clean the dust so that the gas always passes through the filter ring plate that is not blocked by dust, thereby ensuring the flow consistency of the gas; by setting up a cooling system, the gas can be cooled, and the flow rate of the gas can be controlled to avoid the gas flow rate being too fast and affecting the cooling effect, as well as the prediction effect; by setting up a circulation system, the cooling system can achieve cyclic cooling, so that the cooling system is always in a low temperature state, which can better cool the gas. BRIEF DESCRIPTION OF THE DRAWINGS

[0019] Figure 1It is a schematic diagram of the overall structure;

[0020] Figure 2 is a schematic diagram of the filter cover structure;

[0021] Figure 3 It is a front view of the vent hole;

[0022] Figure 4 It is a top view of the filtration system;

[0023] Figure 5 is a schematic diagram of the filter unit structure;

[0024] Figure 6 It is a bottom view of the fixed plate;

[0025] Figure 7 It is a schematic diagram of the cooling system structure;

[0026] Figure 8 It is a schematic diagram of the circulatory system structure;

[0027] Fig. 9 It is a schematic diagram of the sealing unit structure. DETAILED DESCRIPTION

[0028] The technical solution of the present invention will be clearly and completely described below in conjunction with the drawings in the embodiments of the present invention. Obviously, the described embodiments are only part of the embodiments of the invention, rather than all of the embodiments. Based on the embodiments of the present invention, all other embodiments obtained by ordinary technicians in this field without making creative work are within the scope of protection of the present invention.

[0029] A prediction system for an electric power carbon emission factor comprises: a filtering system 1, a cooling system 2, a circulation system 3 and a prediction system 4, wherein the filtering system 1 is fixedly connected to one end of the cooling system 2, a circulation system 3 is fixedly provided at the lower end of the cooling system 2, the circulation system 3 is fixedly connected to the cooling system 2, and the other end of the cooling system 2 is fixedly connected to the prediction system 4.

[0030] The filtering system 1 comprises: a filter cover 1-1, a cavity 1-2, a collecting cavity 1-3, an annular brush plate 1-4, a vent 1-5, a sealing gasket 1-6, a bellows 1-7, a collecting cover 1-8 and a filtering unit 1-9. The filter cover 1-1 is an annular barrel structure with an open end arranged downward. The lower end of the cavity 1-2 of the filter cover 1-1 is the collecting cavity 1-3. The collecting cavity 1-3 is connected with the cavity 1-2. The upper end of the cavity 1-2 is provided with a plug interface penetrating the upper surface of the filter cover 1-1. The outer side of the inner ring plate of the filter cover 1-1 is fixed with an annular brush plate. 1-4, a vent hole 1-5 is arranged on the inner ring plate of the filter cover 1-1, and the vent hole 1-5 passes through the annular brush plate 1-4, a sealing gasket 1-6 is arranged on the inner ring plate of the filter cover 1-1, and the diameter of the sealing gasket 1-6 is larger than the vent hole 1-5, a bellows 1-7 is fixed to the lower end of the filter cover 1-1, and the vent hole 1-5 passes through the outer ring plate of the filter cover 1-1, a collecting cover 1-8 is fixed to the outer end of the filter cover 1-1, and the size of the collecting cover 1-8 matches the size of the vent hole 1-5, and the filter unit 1-9 is detachably fixedly connected in the cavity 1-2.

[0031] The filter unit 1-9 includes: a cover 1-9-1, a motor 1-9-2, a fixing plate 1-9-3 and a filter mesh ring plate 1-9-4. The lower end of the cover 1-9-1 is fixed with a motor 1-9-2, the output shaft of the motor 1-9-2 is fixed with a fixing plate 1-9-3, the fixing plate 1-9-3 is slidably connected to the inner side surface of the cover 1-9-1, the lower end of the fixing plate 1-9-3 is fixed with a filter mesh ring plate 1-9-4, the filter mesh ring plate 1-9-4 passes through the plug interface and is arranged in the cavity 1-2, the outer side surface of the filter mesh ring plate 1-9-4 slides against the inner side surface of the outer ring plate of the filter cover 1-1, the inner side surface of the filter mesh ring plate 1-9-4 slides against the annular brush plate 1-4, the sealing gasket 1-6 seals and slides against the inner side surface of the filter mesh ring plate 1-9-4, and the cover 1-9-1 is detachably fixedly connected to the outer wall of the filter cover 1-1 by bolts.

[0032] The cooling system 2 includes: a cooling tube 2-1, a cavity 2-2, a heat sink 2-3, a fin plate 2-4 and a spiral plate 2-5. One end of the cooling tube 2-1 is fixedly connected to the collecting cover 1-8. A cavity 2-2 is provided in the cooling tube 2-1. The heat sink 2-3 is provided in the cavity 2-2. A plurality of fin plates 2-4 are provided at the lower end of the cavity 2-2. The plurality of fin plates 2-4 are fixedly passed through the side wall of the cooling tube 2-1 and are provided in the cooling tube 2-1. At least one heat sink 2-3 is provided. A spiral plate 2-5 is horizontally fixed in the cooling tube 2-1 by a bracket. The other end of the cooling tube 2-1 is fixedly connected to the prediction system 4.

[0033] The circulation system 3 includes: a cooling box 3-1, a motor box 3-2, a motor 2 3-3, a blade 3-4, an air pump 3-5, a cooling pipe 3-6, a sealing unit 3-7, an oil supply pipe 3-8 and an oil return pipe 3-9. The cooling box 3-1 is fixed at the lower end of the cooling pipe 2-1, the motor box 3-2 is fixed at the lower end of the cooling box 3-1, the motor 2 3-3 is fixed inside the motor box 3-2, the output shaft of the motor 2 3-3 is sealed and rotated to penetrate the bottom surface of the cooling box 3-1, and is fixedly connected with the blade 3-4, the motor box 3-2 is fixed with an air pump 3-5, and the air pump 3-5 The air inlet pipe passes through the outside of the motor box 3-2, and the air outlet end of the air pump 3-5 is fixedly connected to a cooling pipe 3-6. The cooling pipe 3-6 is horizontally fixed and penetrates into the cooling box 3-1. A plurality of sealing units 3-7 are arranged at the lower end of the cooling box 3-1. An oil supply pipe 3-8 is arranged at one end of the cooling box 3-1, and an oil pump is fixedly connected to the oil supply pipe 3-8. The oil supply pipe 3-8 is fixed to the cooling pipe 2-1 and is connected to the cavity two 2-2. An oil return pipe 3-9 is arranged at the other end of the cooling box 3-1, and the oil return pipe 3-9 is fixed to the cooling pipe 2-1 and is connected to the cavity two 2-2.

[0034] The multiple sealing units 3-7 all include: a sealing tube 3-7-1, a slide 3-7-2, a slide column 3-7-3, a spring 3-7-4 and a sealing plug 3-7-5. The sealing tube 3-7-1 is fixedly connected to the lower part of the cooling tube 3-6. The slide 3-7-2 is horizontally fixed inside the sealing tube 3-7-1. The slide column 3-7-3 is slidably connected to the slide 3-7-2. A spring baffle is arranged on the upper end of the slide column 3-7-3. A spring 3-7-4 is mounted on the slide column 3-7-3. The spring 3-7-4 is arranged between the spring baffle and the slide 3-7-2. A sealing plug 3-7-5 is fixed to the lower end of the slide column 3-7-3. The sealing plug 3-7-5 is sealingly pressed against the opening below the sealing tube 3-7-1.

[0035] The prediction system 4, motor 1 1-9-2, motor 2 3-3, air pump 3-5 and oil pump are all purchased from outside using existing technology.

[0036] A method for using a system for predicting a carbon emission factor of electricity comprises the following steps:

[0037] S1: pull the bellows 1-7 to be fixedly connected with the electric carbon exhaust gas pipe;

[0038] S2: The motor 1-9-2 is powered on to drive the filter ring plate 1-9-4 to rotate, and the filter ring plate 1-9-4 rotates to filter and clean the dust;

[0039] S3: The gas enters the cooling tube 2-1, flows along the spiral plate 2-5 to reduce the flow rate, and the gas dissipates heat through the fin plate 2-4;

[0040] S4: The gas flows into the prediction system 4 for detection and prediction.

[0041] The working principle of the present invention is:

[0042] Pull the bellows 1-7 to be fixedly connected with the electric carbon emission gas pipe. The bellows 1-7 can be extended and bent to make it more convenient to connect with the electric carbon emission gas pipe. The device is connected to an external power supply. The gas enters the filter cover 1-1 through the bellows 1-7, and then flows out from the vent 1-5. After the dust is filtered by the filter ring plate 1-9-4, it passes through the vent 1-5 and enters the cooling pipe 2-1 through the collection cover 1-8. The filter ring plate 1-9-4 can filter out the dust in the gas. The motor 1-9-2 is energized, and the filter ring plate 1-9-4 is driven to rotate through the fixed plate 1-9-3. When the filter ring plate 1-94 rotates, it passes through the annular brush Plate 1-4 can brush off the adhered dust and drop it into the collection chamber 1-3 for collection, which solves the problem of time-consuming and labor-intensive manual cleaning and the need to stop the machine during cleaning, which affects the detection frequency. The dust discharge port is arranged at the lower end of the filter cover 1-1 and is connected to the collection chamber 1-3, so that the collected dust can be cleaned. The sealing gasket 1-6 is arranged to prevent gas from overflowing. At the same time, when the gas passes through the vent 1-5, the filter ring plate 1-9-4 is always in a rotating state, that is, the filter ring plate 1-9-4 that filters the dust will rotate forward quickly, so that the clean filter ring plate 1-9-4 located at the rear is at the vent 1-5, so as the filter ring plate 1-9-4 rotates continuously , the clean filter ring plate 1-9-4 can always be located at the vent hole 1-5, which solves the problem that dust accumulation affects the gas permeability and affects the prediction. At the same time, the gas permeability can be ensured to be consistent through the above method, and then the flow rate of the gas can be ensured to be consistent, thereby increasing the accuracy of the prediction system; when the device needs to be repaired when necessary, the bolts fixing the cover 1-9-1 can be removed, the cover 1-9-1 can be pulled out, and then the filter ring plate 1-9-4 can be pulled out for maintenance; when the gas enters the cooling pipe 2-1, it impacts on the spiral plate 2-5, which can reduce the flow rate of the gas and make the gas move along the spiral plate 2-5. Flow, at this time, the heat of the gas is transferred to the heat sink 2-3 through the fin plate 2-4, which can cool the gas, and can solve the problem that the temperature will affect the accuracy of the prediction system instrument and the high temperature will cause damage to the internal parts of the prediction system instrument. When the gas flows along the spiral plate 2-5, multiple fin plates 2-4 can further hinder the flow of the gas, and then can further reduce the flow speed of the gas, so that the gas stays in the cooling tube 2-1 for a longer time, which can better dissipate the heat of the gas. The heat-dissipated gas flows out through the other end of the cooling tube 2-1 and enters the prediction system 4 for detection and prediction, and then the gas is discharged to the outside through the exhaust port of the prediction system 4;Pour the cooling oil into the cooling box 3-1 in advance, and immerse the sealing tube 3-7-1 in the cooling oil, and energize the oil pump to draw the cooling oil in the cooling box 3-1 into the oil supply pipe 3-8, and send it into the cavity 2-2, so as to cool the heat sink 2-3 and then cool the fin plate 2-4. When the cooling oil in the cavity 2-2 is full, the cooling oil flows back to the cooling box 3-1 through the oil return pipe 3-9, so as to circulate and dissipate the heat of the cooling tube 2-1, so that the cooling tube 2-1 is always in a low temperature state, and the motor 2 3-3 drives the blade 3-4 to rotate, and the blade 3-4 rotates to stir the cooling oil in the cooling box 3-1, so that the cooling oil rolls, which can increase the contact area between the cooling oil and the air, and can quickly cool and dissipate the heat of the cooling oil, and energize the air pump 3-5 to suck in air and Sent into the cooling pipe 3-6, the air enters the sealing pipe 3-7-1 in the cooling pipe 3-6, and pushes the sealing plug 3-7-5 downward, compresses the spring 3-7-4 through the spring baffle, and the sealing plug 3-7-5 moves downward, creating a gap with the sealing pipe 3-7-1. At this time, the air flows out through the gap and sprays into the cooling oil, which can further accelerate the cooling and heat dissipation of the cooling oil. The cooling box 3-1 is provided with air holes for exhaust. When the cooling oil temperature drops, the power supply of the air pump 3-5 is stopped. At this time, the air does not flow into the cooling pipe 3-6, and the sealing plug 3-7-5 is reset by the action of the spring 3-7-4 to avoid the cooling oil from flowing back into the sealing pipe 3-7-1 and causing the cooling oil to be lost. A temperature sensor can be set in the cooling box 3-1 to detect the cooling oil temperature. The temperature sensor is an existing technology and can be purchased from outside. ;

[0043] It will be apparent to those skilled in the art that the invention is not limited to the details of the exemplary embodiments described above and that the invention can be implemented in other forms without departing from the spirit or essential features of the invention. 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, and it is intended that all variations within the meaning and range of equivalents of the claims be included in the invention. Any reference numeral in a claim should not be considered as limiting the claim to which it relates.

[0044] In addition, it should be understood that although the present specification is described according to implementation modes, not every implementation mode contains only one independent technical solution. This description of the specification is only for the sake of clarity. Those skilled in the art should regard the specification as a whole. The technical solutions in each embodiment may also be appropriately combined to form other implementation modes that can be understood by those skilled in the art.

Claims

1. A prediction system for electricity carbon emission factors, characterized by: include: A filtering system (1), a cooling system (2), a circulation system (3) and a prediction system (4), wherein the filtering system (1) is fixedly connected to one end of the cooling system (2), a circulation system (3) is fixedly provided at the lower end of the cooling system (2), the circulation system (3) is fixedly connected to the cooling system (2), and the other end of the cooling system (2) is fixedly connected to the prediction system (4).

2. The prediction system of the power carbon emission factor according to claim 1 is characterized by: The filtering system (1) comprises: a filter cover (1-1), a cavity (1-2), a collecting cavity (1-3), an annular brush plate (1-4), a vent (1-5), a sealing gasket (1-6), a bellows (1-7), a collecting cover (1-8) and a filtering unit (1-9); the filter cover (1-1) is an annular barrel structure with an open end arranged downward; the lower end of the cavity (1-2) of the filter cover (1-1) is the collecting cavity (1-3); the collecting cavity (1-3) is in communication with the cavity (1-2); the upper end of the cavity (1-2) is provided with an insertion port penetrating the upper surface of the filter cover (1-1); the outer side of the inner ring plate of the filter cover (1-1) is fixed with an annular brush plate (1-4), a vent hole (1-5) is arranged on the inner ring plate of the filter cover (1-1), the vent hole (1-5) penetrates the annular brush plate (1-4), a sealing gasket (1-6) is arranged on the inner ring plate of the filter cover (1-1), the diameter of the sealing gasket (1-6) is larger than the vent hole (1-5), a bellows (1-7) is fixed at the lower end of the filter cover (1-1), the vent hole (1-5) penetrates the outer ring plate of the filter cover (1-1), a collecting cover (1-8) is fixed at the outer end of the filter cover (1-1), the size of the collecting cover (1-8) matches the size of the vent hole (1-5), and the filter unit (1-9) is detachably fixedly connected in cavity one (1-2).

3. The prediction system of the power carbon emission factor according to claim 2 is characterized by: The filter unit (1-9) comprises: a cover (1-9-1), a motor (1-9-2), a fixing plate (1-9-3) and a filter ring plate (1-9-4); the cover (1-9-1) is fixed with a motor (1-9-2) at the lower end; the output shaft of the motor (1-9-2) is fixed with a fixing plate (1-9-3); the fixing plate (1-9-3) is slidably connected to the inner side surface of the cover (1-9-1); the fixing plate (1-9-3) is fixed with a filter ring plate (1-9-4) at the lower end The filter mesh ring plate (1-9-4) passes through the plug interface and is arranged in cavity one (1-2); the outer side surface of the filter mesh ring plate (1-9-4) slides against the inner side surface of the outer ring plate of the filter cover (1-1); the inner side surface of the filter mesh ring plate (1-9-4) slides against the annular brush plate (1-4); the sealing gasket (1-6) seals and slides against the inner side surface of the filter mesh ring plate (1-9-4); and the cover (1-9-1) is detachably fixedly connected to the outer wall of the filter cover (1-1) by bolts.

4. The prediction system of the power carbon emission factor according to claim 2 is characterized by: The cooling system (2) comprises: a cooling tube (2-1), a second cavity (2-2), a heat sink (2-3), a fin plate (2-4) and a spiral plate (2-5); one end of the cooling tube (2-1) is fixedly connected to a collecting cover (1-8); a second cavity (2-2) is arranged in the cooling tube (2-1); the heat sink (2-3) is arranged in the second cavity (2-2); a plurality of fin plates (2-4) are arranged at the lower end of the second cavity (2-2); the plurality of fin plates (2-4) are fixedly passed through the side wall of the cooling tube (2-1) and are arranged in the cooling tube (2-1); at least one heat sink (2-3) is arranged; a spiral plate (2-5) is horizontally fixed in the cooling tube (2-1) by a bracket; and the other end of the cooling tube (2-1) is fixedly connected to a prediction system (4).

5. The prediction system of the power carbon emission factor according to claim 4 is characterized by: The circulation system (3) comprises: a cooling box (3-1), a motor box (3-2), a second motor (3-3), a blade (3-4), an air pump (3-5), a cooling pipe (3-6), a sealing unit (3-7), an oil supply pipe (3-8) and an oil return pipe (3-9); the cooling box (3-1) is fixed at the lower end of the cooling pipe (2-1); the motor box (3-2) is fixed at the lower end of the cooling box (3-1); the second motor (3-3) is fixed inside the motor box (3-2); the output shaft of the second motor (3-3) is sealed and rotatably penetrates the bottom surface of the cooling box (3-1) and is fixedly connected to the blade (3-4); the air pump (3-5) is fixed inside the motor box (3-2); the air pump ( The air inlet pipe (3-5) passes through the outside of the motor box (3-2); the air outlet end of the air pump (3-5) is fixedly connected to a cooling pipe (3-6); the cooling pipe (3-6) is horizontally fixed and penetrates into the cooling box (3-1); a plurality of sealing units (3-7) are arranged at the lower end of the cooling box (3-1); an oil supply pipe (3-8) is arranged at one end of the cooling box (3-1); an oil pump is fixedly connected to the oil supply pipe (3-8); the oil supply pipe (3-8) is fixed to the cooling pipe (2-1) and is connected to the second cavity (2-2); an oil return pipe (3-9) is arranged at the other end of the cooling box (3-1); the oil return pipe (3-9) is fixed to the cooling pipe (2-1) and is connected to the second cavity (2-2).

6. The prediction system of the power carbon emission factor according to claim 5 is characterized by: The plurality of sealing units (3-7) all include: a sealing tube (3-7-1), a slide (3-7-2), a slide column (3-7-3), a spring (3-7-4) and a sealing plug (3-7-5); the cooling tube (3-6) is fixedly connected to the sealing tube (3-7-1) below; a slide column (3-7-2) is horizontally fixed inside the sealing tube (3-7-1); the slide column (3-7-3) is slidably connected to the slide column (3-7-2); a spring baffle is arranged at the upper end of the slide column (3-7-3); a spring (3-7-4) is sleeved on the slide column (3-7-3); the spring (3-7-4) is arranged between the spring baffle and the slide column (3-7-2); a sealing plug (3-7-5) is fixed to the lower end of the slide column (3-7-3); the sealing plug (3-7-5) seals against the opening below the sealing tube (3-7-1).

7. A method for using the power carbon emission factor prediction system according to claim 6, characterized in that: The method comprises the following steps: S1: pull the bellows (1-7) to be fixedly connected with the electric power carbon exhaust gas pipe; S2: energize the motor 1 (1-9-2) to drive the filter ring plate (1-9-4) to rotate, and the filter ring plate (1-9-4) rotates to filter and clean the dust; S3: The gas enters the cooling tube (2-1), flows along the spiral plate (2-5) to reduce the flow rate, and the gas dissipates heat through the fin plate (2-4); S4: The gas inflow prediction system (4) performs detection and prediction.

Images