High-temperature waste gas treatment device for rubber production

Abstract

The invention provides a rubber production high-temperature waste gas treatment device, and relates to the technical field of high-temperature waste gas treatment.The rubber production high-temperature waste gas treatment device comprises a waste gas treatment box, a waste gas treatment cavity is formed in the waste gas treatment box, embedded grooves a are formed in the top surface of the inner end of the waste gas treatment cavity, and embedded grooves b are formed in the top surfaces of the inner ends of the two embedded grooves a; through the position shielding design of a baffle and an atomizing nozzle, when a high-pressure water pump breaks down and water mist cannot be sprayed out, the baffle is synchronously driven to shield the atomizing nozzle again based on resetting of a reset spring, so that a matched induction block is synchronously made to return to the induction range of the monitoring assembly again; and on the basis of induction feedback matched with the induction block and the monitoring assembly, sound-light alarm can be realized at the first time, so that the problem that when water mist cannot be sprayed out normally, an effective real-time monitoring and alarm mechanism is lacked, so that high-temperature waste gas generated in the rubber production process is purified by adopting water mist adsorption at present is solved. And a worker cannot know the problem at the first time.

Description

Technical Field

[0001] The invention relates to the technical field of high-temperature waste gas treatment, and in particular to a high-temperature waste gas treatment device for rubber production. Background Art

[0002] In the process of rubber production, high-temperature waste gas will inevitably be generated, and these waste gases are mixed with a large number of rubber particles. In view of the strict restrictions of environmental protection requirements and emission standards, such high-temperature waste gas containing rubber particles obviously cannot be directly discharged into the atmosphere. Therefore, it is necessary to implement a purification process to reduce the concentration and content of rubber particles in the high-temperature waste gas before it can be allowed to be discharged in the subsequent operation, so as to prevent the occurrence of environmental pollution caused by waste gas emissions.

[0003] In the rubber production process, the current purification method used for the high-temperature exhaust gas generated is mainly to intercept and remove the rubber particles by water mist adsorption, thereby reducing the concentration and content of rubber particles in the high-temperature exhaust gas to meet the relevant requirements of environmental emissions. However, this purification method operates in a closed space. Once the system fails and the water mist cannot be sprayed normally, due to the lack of effective real-time monitoring and alarm mechanisms, it is difficult for the staff to detect the abnormal situation of the water mist spraying in the first time, resulting in a period of time after the failure. The unpurified high-temperature exhaust gas will continue to be transported and eventually directly discharged into the surrounding environment, which will inevitably cause pollution and damage to the surrounding ecological environment, and there are defects. Summary of the invention

[0004] The invention relates to a high-temperature waste gas treatment device for rubber production, which solves the problem that in the existing purification treatment measures for high-temperature waste gas generated in the rubber production process using water mist adsorption, when the water mist cannot be sprayed normally, due to the lack of effective real-time monitoring and alarm mechanism, the staff cannot be informed in the first time.

[0005] The present invention provides a high-temperature waste gas treatment device for rubber production, specifically comprising: a waste gas treatment box, a waste gas treatment chamber is provided inside the waste gas treatment box, an embedded groove a is provided on the left side and the right side of the inner end top surface of the waste gas treatment chamber, the embedded groove a is a triangular groove structure, and the right side surface of the inner end of the embedded groove a is arranged at an angle of 60 degrees with the inner end top surface of the waste gas treatment chamber; an embedded groove b is provided on the inner end top surfaces of the two embedded grooves a, and the right side surface of the inner end of the embedded groove b is arranged in parallel with the right side surface of the inner end of the embedded groove a; the inner ends of the two embedded grooves b are arranged at a right angle to the inner end of the embedded groove b. There is a sensing groove on the right side, and a group of monitoring components for proximity switches are fixedly installed inside the two sensing grooves, and the sensing end of the monitoring component is facing the open end of the sensing groove; a rotating shaft is fixedly installed inside the two embedded grooves b adjacent to the upper right angle, and a baffle is rotatably installed in the two embedded grooves b. The top of the baffle adopts a semicircular structure, and an axial hole is opened at the axial center, and the axial hole is rotatably connected to the rotating shaft; a mating sensing block that can cooperate with the monitoring component for induction is commonly embedded on the left and right end faces of the baffle.

[0006] Furthermore, the left end surface of the baffle is fixedly connected to the left inner surface of the embedded groove b by two return springs; when the return spring is in the natural state, the right end surface of the baffle is in contact with the right inner surface of the embedded groove b, and at this time, the matching sensing block corresponds to the position of the sensing groove, and the matching sensing block is within the sensing range of the monitoring component.

[0007] Furthermore, a conveying cavity is opened inside the exhaust gas treatment box adjacent to the right side of the two embedded grooves a; a secondary pipe connected to the exhaust gas treatment box is fixedly installed on the front end surface of the exhaust gas treatment box relative to the two conveying cavities; a main pipe is arranged on the front side of the exhaust gas treatment box, and the two secondary pipes are installed and connected to the main pipe, and the main pipe is installed and connected to the high-pressure water pump through a hose.

[0008] Furthermore, a row of atomizing nozzles connected to the adjacent conveying chambers are fixedly installed on the right side surfaces of the inner ends of the two embedded grooves a; when the return spring is in a natural state, the baffle completely covers and blocks the nozzle end of the atomizing nozzle; when the atomizing nozzle sprays water mist, under the impact of the water mist, the baffle rotates left along the rotating axis, and it will no longer block the atomizing nozzle, and at this time the return spring is compressed, and the cooperative sensing block is out of the sensing range of the monitoring component.

[0009] Furthermore, a supporting frame is fixedly installed on the outer end surface of the exhaust gas treatment box, and a control box is fixedly installed on the front end surface of the exhaust gas treatment box; the monitoring component and the high-pressure water pump are electrically connected to the control box; an audible and visual alarm electrically connected to the control box is fixedly installed on the top surface of the control box; when the monitoring component senses the matching sensing block, the monitoring component feeds back a signal to the control box, and the control box controls the audible and visual alarm to start.

[0010] Furthermore, a round-square pipe connected to the exhaust gas treatment chamber is fixedly installed on the left and right end faces of the exhaust gas treatment box; the round-square pipe located on the left side is installed and connected to the exhaust gas delivery pipeline; the round-square pipe located on the right side is fixedly installed with a group of solenoid valves, which are electrically connected to the control box; when the monitoring component senses the matching sensing block and feeds back a signal to the control box, the control box also controls the solenoid valve to close.

[0011] Furthermore, a converging sewage trough is provided on the inner bottom surface of the exhaust gas treatment chamber, the inner bottom surface of the converging sewage trough is a circular structure, and the top of the converging sewage trough is a rectangular structure; a group of sewage pipes connected to the bottom surface of the inner bottom surface of the converging sewage trough are installed on the bottom end surface of the exhaust gas treatment box body relative to the inner bottom surface of the converging sewage trough, and a sewage valve is installed on the sewage pipe.

[0012] Furthermore, the control box is also provided with a delay module electrically connected to it, and the delay value of the delay module is three seconds; when the high-pressure water pump and the delay module are started by the control box, when the delay value of the delay module is reached, the delay module feedback signal is given to the control box, and the control box controls the monitoring component to start.

[0013] The present invention provides a high-temperature waste gas treatment device for rubber production, which has the following beneficial effects:

[0014] The present invention purifies the high-temperature exhaust gas generated in the rubber production process through two water mist interception walls composed of water mist. First, when the high-temperature exhaust gas contacts the water mist interception wall, the rubber particles that may be contained in the exhaust gas will be adsorbed by the water mist. Through the adsorption effect of the water mist, the rubber particles will settle to the bottom of the exhaust gas treatment chamber together with the water mist, thereby effectively intercepting and purifying the rubber particles in the exhaust gas, and reducing the content of rubber particles in the exhaust gas during subsequent discharge. At the same time, because the water mist wall is composed of water mist at natural temperature, the high-temperature exhaust gas can be cooled simultaneously, so that the temperature of the high-temperature exhaust gas will be significantly reduced after passing through the water mist wall. The present invention forms a secondary purification mechanism based on the setting of two water mist interception walls, and performs secondary interception and purification on the high-temperature exhaust gas. The secondary purification treatment can filter out the rubber particles remaining in the exhaust gas to the greatest extent, further ensuring the purification effect of the exhaust gas, ensuring that the exhaust gas after double purification and cooling treatment can meet the emission standards when it is subsequently discharged, and will not cause any pollution to the environment, thereby realizing efficient and environmentally friendly purification of the high-temperature exhaust gas produced in the rubber production process.

[0015] The present invention adopts the position shielding design of the baffle and the atomizing nozzle, which is beneficial to the fact that during the operation of the present invention, when water mist is sprayed, the position of the baffle can be changed synchronously based on the impact of the water mist, thereby synchronously driving the matching sensing block to leave the sensing range of the monitoring component. Based on this structural design, when the high-pressure water pump fails and the water mist cannot be sprayed, the baffle will be synchronously driven to shield the atomizing nozzle again based on the resetting of the reset spring, thereby synchronously making the matching sensing block return to the sensing range of the monitoring component. Based on the sensing feedback of the matching sensing block and the monitoring component, an audible and visual alarm can be realized in the first time, thereby providing a warning to the staff, so that the staff can stop the machine for maintenance in time. In addition, the present invention also synchronously closes the solenoid valve, which is beneficial to closing the channel for high-temperature exhaust gas emission in the first time when the present invention cannot spray water mist, so as to avoid the emission of unpurified high-temperature exhaust gas, so as to avoid causing environmental pollution. BRIEF DESCRIPTION OF THE DRAWINGS

[0016] In order to more clearly illustrate the technical solution of the embodiment of the present invention, the drawings of the embodiment are briefly introduced below.

[0017] The drawings described below are only related to some embodiments of the present invention, but are not intended to limit the present invention.

[0018] In the attached picture:

[0019] Figure 1 The main structural diagram of the present application is shown;

[0020] Figure 2 The isometric structural diagram of the present application is shown;

[0021] Figure 3 A cross-sectional structural schematic diagram of the present application is shown;

[0022] Figure 4 This application shows Figure 3 A schematic diagram of the partially enlarged structure at center A;

[0023] Figure 5 This application shows Figure 4 Schematic diagram of the structure with the middle baffle removed;

[0024] Figure 6 It shows a partial enlarged structural schematic diagram of the embedded groove a and the embedded groove b of the present application when viewed from above;

[0025] Figure 7 It shows a schematic diagram of the cross-sectional structure of the converging sewage tank of the present application in a top view;

[0026] Figure 8 shows a system block diagram of the present application;

[0027] Reference numerals list

[0028] 1. Waste gas treatment box; 101. Round and square pipe; 102. Control box; 103. Sound and light alarm; 104. Solenoid valve; 105. Support frame; 106. Drain valve; 107. Main pipeline; 108. Sub-pipeline; 109. Waste gas treatment chamber; 1010. Converging drain trough; 1011. Conveying chamber; 1012. Embedded groove a; 1013. Embedded groove b; 1014. Atomizing nozzle; 1015. Induction groove; 1016. Monitoring component; 1017. Rotating shaft; 1018. Delay module; 1019. High-pressure water pump; 2. Baffle; 201. Matching induction block; 202. Reset spring. DETAILED DESCRIPTION

[0029] Example: Please refer to Figures 1 to 8 :

[0030] The present invention proposes a high-temperature waste gas treatment device for rubber production, comprising: a waste gas treatment box 1, a waste gas treatment chamber 109 is provided inside the waste gas treatment box 1; a converging sewage trough 1010 is provided on the inner bottom surface of the waste gas treatment chamber 109, the inner bottom surface of the converging sewage trough 1010 is in a circular structure, and the top of the converging sewage trough 1010 is in a rectangular structure; a group of sewage pipes connected to the bottom surface of the waste gas treatment box 1 is installed relative to the inner bottom surface of the converging sewage trough 1010, and a sewage valve 106 is installed on the sewage pipe; an inner top surface of the waste gas treatment chamber 109 is provided with an embedded groove a101 on the left side and the right side. 2. The embedded groove a1012 is a triangular groove structure, and the right side surface of the inner end of the embedded groove a1012 is set at an angle of 60 degrees with the inner end top surface of the exhaust gas treatment chamber 109; an embedded groove b1013 is opened on the inner end top surface of the two embedded grooves a1012, and the right side surface of the inner end of the embedded groove b1013 is set parallel to the right side surface of the inner end of the embedded groove a1012; an induction groove 1015 is opened on the right side surface of the inner end of the two embedded grooves b1013, and a group of monitoring components 1016 for proximity switches are fixedly installed inside the two induction grooves 1015, and the induction end of the monitoring component 1016 is facing the open end of the induction groove 1015; A rotating shaft 1017 is fixedly installed inside the two embedded grooves b1013 adjacent to the upper right angle. A baffle 2 is rotatably installed in the two embedded grooves b1013. The top of the baffle 2 adopts a semicircular structure, and an axial hole is opened at its axial center, and the axial hole is rotatably connected to the rotating shaft 1017; a matching sensing block 201 that can cooperate with the monitoring component 1016 is commonly embedded in the left and right end faces of the baffle 2; the left end face of the baffle 2 is fixedly connected to the left side face of the inner end of the embedded groove b1013 by two reset springs 202; when the reset spring 202 is in the natural state, the right end face of the baffle 2 is fixed to the inner end of the embedded groove b1013 The right sides are in contact with each other, and the matching sensing block 201 corresponds to the position of the sensing slot 1015, and the matching sensing block 201 is within the sensing range of the monitoring component 1016; a conveying cavity 1011 is provided inside the exhaust gas treatment box 1 adjacent to the right side of the two embedded slots a1012; a secondary pipe 108 connected to the front end surface of the exhaust gas treatment box 1 is fixedly installed relative to the two conveying chambers 1011; a main pipe 107 is provided on the front side of the exhaust gas treatment box 1, and two secondary pipes 108 are installed and connected to the main pipe 107, and the main pipe 107 is installed and connected to the high-pressure water pump 1019 through a hose.

[0031] In the embodiment of the present invention, a row of atomizing nozzles 1014 connected to the adjacent delivery chambers 1011 are fixedly installed on the right side surfaces of the inner ends of the two embedded grooves a1012; when the return spring 202 is in the natural state, the baffle 2 completely covers and blocks the nozzle end of the atomizing nozzle 1014; when the atomizing nozzle 1014 sprays water mist, under the impact of the water mist, the baffle 2 rotates to the left along the rotating shaft 1017, and it will no longer block the atomizing nozzle 1014, and at this time the return spring 202 is compressed, and the sensor block 201 is separated from the monitoring component 10 16; a supporting frame 105 is fixedly installed on the outer end surface of the exhaust gas treatment box 1, and a control box 102 is fixedly installed on the front end surface of the exhaust gas treatment box 1; the monitoring component 1016 and the high-pressure water pump 1019 are both electrically connected to the control box 102; an audible and visual alarm 103 electrically connected to the top surface of the control box 102 is fixedly installed; when the monitoring component 1016 senses the matching sensing block 201, the monitoring component 1016 feeds back a signal to the control box 102, and the control box 102 controls the audible and visual alarm 103 to start.

[0032] In the embodiment of the present invention, a round-square pipe 101 connected to the exhaust gas treatment chamber 109 is fixedly installed on the left and right end surfaces of the exhaust gas treatment box 1; the round-square pipe 101 located on the left side is connected to the exhaust gas delivery pipeline; the round-square pipe 101 located on the right side is fixedly installed with a group of solenoid valves 104, and the solenoid valves 104 are electrically connected to the control box 102; when the monitoring component 1016 senses the matching sensing block 201 and feeds back a signal to the control box 102, the control box 102 also controls the solenoid valve 104 to close; the control box 102 is also provided with a delay module 1018 electrically connected thereto, and the delay value of the delay module 1018 is three seconds; when the high-pressure water pump 1019 and the delay module 1018 are started by the control box 102, when the delay value of the delay module 1018 is reached, the delay module 1018 feeds back a signal to the control box 102, and the control box 102 controls the monitoring component 1016 to start.

[0033] The working principle of this embodiment:

[0034] When in use, the control box 102 is used to control the high-pressure water pump 1019 and the delay module 1018 to start. The high-pressure water pump 1019 draws water through the pipeline, and inputs it into the two delivery chambers 1011 through the hose, the main pipeline 107 and the auxiliary pipeline 108, and sprays it out through the atomizing nozzle 1014 connected to the delivery chamber 1011;

[0035] When the atomizing nozzle 1014 sprays water mist, the baffle 2 that originally blocked the nozzle end of the atomizing nozzle 1014 is opened under the impact of the water mist. At this time, the baffle 2 rotates to the left along the rotating shaft 1017 and no longer blocks the atomizing nozzle 1014. At this time, the return spring 202 is compressed, and the matching induction block 201 also leaves the induction range of the monitoring component 1016.

[0036] When the delay value of the delay module 1018 is reached, the delay module 1018 feeds back a signal to the control box 102, and the control box 102 controls the monitoring component 1016 to start. By delaying the start of the monitoring component 1016, it is ensured that when it starts, the matching induction block 201 has left the sensing range of the monitoring component 1016, and no false alarm occurs.

[0037] When the high-pressure water pump 1019 used for water source delivery fails, causing the atomizing nozzle 1014 to be unable to spray water mist, without the impact of water mist, the return spring 202 in the compressed state quickly returns to its original position, thereby pushing the baffle 2 to rotate and return to the right side surface of the inner end of the embedded groove b1013. At this time, the matching sensor block 201 corresponds to the position of the sensor groove 1015, and the matching sensor block 201 is within the sensing range of the monitoring component 1016. When the monitoring component 1016 senses the matching sensor block 201 and feeds back a signal to the control box 1 02, the control box 102 controls the sound and light alarm 103 to start, and at the same time controls the electromagnetic valve 104 to close, and the sound and light alarm of the sound and light alarm 103 is used to warn the staff at the first time when the present invention cannot spray water mist, so that the staff can stop the machine for maintenance in time to ensure the purification of the high-temperature exhaust gas generated in the rubber production process, and by closing the electromagnetic valve 104, it is also convenient to close the channel for high-temperature exhaust gas discharge when the present invention cannot spray water mist, so as to avoid the discharge of unpurified high-temperature exhaust gas, so as to avoid environmental pollution;

[0038] When the present invention purifies the high-temperature exhaust gas, the high-temperature exhaust gas generated in the rubber production process is input into the exhaust gas treatment chamber 109 of the exhaust gas treatment box 1 through the exhaust gas delivery pipeline and the round-square pipe 101 located on the left side, and the high-temperature exhaust gas input into the exhaust gas treatment chamber 109 will contact the interception water mist wall composed of water mist sprayed by multiple groups of atomizing nozzles 1014. When the high-temperature exhaust gas contacts it, the rubber particles that may be contained in the high-temperature exhaust gas are adsorbed by the water mist, so that they fall into the lower part of the exhaust gas treatment chamber 109 together with the water mist, and at the same time, the high-temperature exhaust gas is cooled by the water mist of natural temperature. The present invention implements secondary interception and purification of the high-temperature exhaust gas through the interception water mist wall composed of two water mists, so as to intercept and filter the rubber particles that may be contained in the high-temperature exhaust gas to the maximum extent, and at the same time, the high-temperature exhaust gas is greatly cooled, so that the exhaust gas subsequently discharged through the round-square pipe 101 on the right side meets the emission standards and will not cause environmental pollution.

[0039] When the high-temperature exhaust gas is treated, it is necessary to discharge the sewage stored in the exhaust gas treatment chamber 109. Since a converging sewage trough 1010 with a rectangular top and a circular bottom is provided on the bottom inner surface of the exhaust gas treatment chamber 109, when the staff opens the sewage valve 106 to discharge the sewage through the sewage pipe connected to the converging sewage trough 1010, the sewage in the exhaust gas treatment chamber 109 will be guided to the bottom area of ​​the converging sewage trough 1010 through the design of the converging sewage trough 1010 structure, thereby facilitating the rapid discharge of all sewage in the exhaust gas treatment chamber 109 to ensure that there is no residue.

Claims

1. A high-temperature waste gas treatment device for rubber production, characterized in that: include: An exhaust gas treatment box (1) is provided with an exhaust gas treatment chamber (109) inside the exhaust gas treatment box (1), and an embedded groove a (1012) is provided on the left side and the right side of the inner end top surface of the exhaust gas treatment chamber (109), the embedded groove a (1012) is in a triangular groove structure, and the inner right side surface of the embedded groove a (1012) is arranged at an angle of 60 degrees with the inner end top surface of the exhaust gas treatment chamber (109); an embedded groove b (1013) is provided on the inner end top surfaces of the two embedded grooves a (1012), and the inner right side surface of the embedded groove b (1013) is arranged parallel to the inner right side surface of the embedded groove a (1012); an induction groove (101 5), a group of monitoring components (1016) for proximity switches are fixedly installed inside the two sensing grooves (1015), and the sensing end of the monitoring component (1016) is facing the open end of the sensing groove (1015); a rotating shaft (1017) is fixedly installed inside the two embedded grooves b (1013) adjacent to the upper right angle; a baffle (2) is rotatably installed in the two embedded grooves b (1013), the top of the baffle (2) adopts a semicircular structure, and an axial hole is opened at the axial center, and the axial hole is rotatably connected to the rotating shaft (1017); a matching sensing block (201) that can cooperate with the monitoring component (1016) for sensing is commonly embedded and installed on the left and right end surfaces of the baffle (2).

2. A rubber production high-temperature waste gas treatment device according to claim 1, characterized in that: The left end surface of the baffle (2) is fixedly connected to the left side surface of the inner end of the embedded groove b (1013) via two return springs (202); when the return springs (202) are in a natural state, the right end surface of the baffle (2) is in contact with the right side surface of the inner end of the embedded groove b (1013), and at this time, the position of the matching sensing block (201) corresponds to that of the sensing groove (1015), and the matching sensing block (201) is within the sensing range of the monitoring component (1016).

3. A rubber production high-temperature waste gas treatment device according to claim 2, characterized in that: A conveying cavity (1011) is provided inside the exhaust gas treatment box (1) adjacent to the right side of the two embedded grooves a (1012); a secondary pipe (108) connected to the two conveying cavities (1011) is fixedly installed on the front end surface of the exhaust gas treatment box (1); a main pipe (107) is provided on the front side of the exhaust gas treatment box (1), and the two secondary pipes (108) are connected to the main pipe (107); the main pipe (107) is connected to the high-pressure water pump (1019) through a hose.

4. A rubber production high-temperature waste gas treatment device according to claim 3, characterized in that: A row of atomizing nozzles (1014) connected to the adjacent conveying chambers (1011) are fixedly mounted on the right side surfaces of the inner ends of the two embedded grooves a (1012); when the reset spring (202) is in a natural state, the baffle (2) completely covers and blocks the nozzle end of the atomizing nozzle (1014); when the atomizing nozzle (1014) sprays water mist, under the impact of the water mist, the baffle (2) rotates to the left along the rotating shaft (1017), and it will no longer block the atomizing nozzle (1014), and at this time the reset spring (202) is compressed, and the sensor block (201) is separated from the sensing range of the monitoring component (1016).

5. A rubber production high-temperature waste gas treatment device according to claim 4, characterized in that: A supporting frame (105) is fixedly mounted on the outer end surface of the exhaust gas treatment box (1), and a control box (102) is fixedly mounted on the front end surface of the exhaust gas treatment box (1); the monitoring component (1016) and the high-pressure water pump (1019) are both electrically connected to the control box (102); an audible and visual alarm (103) electrically connected to the control box (102) is fixedly mounted on the top end surface of the control box (102); when the monitoring component (1016) senses the mating sensing block (201), the monitoring component (1016) feeds back a signal to the control box (102), and the control box (102) controls the audible and visual alarm (103) to start.

6. A rubber production high-temperature waste gas treatment device according to claim 5, characterized in that: The left and right end surfaces of the waste gas treatment box (1) are both fixedly mounted with a round-square pipe (101) connected to the waste gas treatment chamber (109); the round-square pipe (101) located on the left side is connected to the waste gas delivery pipeline; the round-square pipe (101) located on the right side is fixedly mounted with a group of solenoid valves (104), and the solenoid valves (104) are electrically connected to the control box (102); when the monitoring component (1016) senses the matching sensing block (201) and feeds back a signal to the control box (102), the control box (102) also controls the solenoid valve (104) to close.

7. A rubber production high-temperature waste gas treatment device according to claim 6, characterized in that: The inner bottom surface of the waste gas treatment chamber (109) is provided with a converging sewage trough (1010), the inner bottom surface of the converging sewage trough (1010) is in a circular structure, and the top of the converging sewage trough (1010) is in a rectangular structure; a group of sewage pipes connected to the inner bottom surface of the converging sewage trough (1010) are installed on the bottom surface of the waste gas treatment box (1) relative to the inner bottom surface of the converging sewage trough (1010), and a sewage valve (106) is installed on the sewage pipe.

8. The high-temperature waste gas treatment device for rubber production according to claim 7, characterized in that: The control box (102) is also provided with a delay module (1018) electrically connected thereto, and the delay value of the delay module (1018) is three seconds; when the high-pressure water pump (1019) and the delay module (1018) are started by the control box (102), when the delay value of the delay module (1018) is reached, the delay module (1018) feeds back a signal to the control box (102), and the control box (102) controls the monitoring component (1016) to start.

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