Urban underground pipeline gas monitoring, disposal and utilization system based on artificial intelligence management

Abstract

The invention discloses an artificial intelligence-based underground pipeline biogas monitoring, disposal and utilization system, which relates to the technical field of underground pipeline gas monitoring systems, and mainly comprises a biogas collection unit, a detection control unit, an on-site biogas utilization unit, an artificial intelligence control management center and a collection and storage unit, the biogas collection unit preprocesses a pipeline through a gas treatment device, the accuracy of detection data is ensured, the service life of equipment is prolonged, the gas treatment device comprises a gas dedusting and dehumidifying mechanism, the collected biogas is dedusted and dehumidified through the gas dedusting and dehumidifying mechanism, a first reciprocating lead screw can be driven by a first motor, and a second reciprocating lead screw can be driven by a second motor; and meanwhile, an internal automatic dust removal mechanism is arranged to prevent the filter screens from being blocked, and through the system, it can be ensured that detection data is accurate, and the service life of a detection control unit is prolonged.

Description

Technical Field

[0001] The present invention relates to the technical field of underground pipeline gas monitoring systems, and in particular to an urban underground pipeline gas monitoring, disposal and utilization system based on artificial intelligence management. Background Art

[0002] With the acceleration of urbanization, the safety and functionality of underground pipeline systems, as an important part of urban infrastructure, are receiving increasing attention. Excessive accumulation of biogas (mainly composed of methane and carbon dioxide) generated in underground pipelines may not only cause explosions, but also cause environmental pollution and energy waste. Therefore, efficient monitoring, collection, and utilization of biogas in underground pipelines are of great significance. In some utilization systems in the existing technology, the biogas inside the pipeline is collected, analyzed, and then stored and utilized. However, the existing technology generally sends the collected gas directly to the detection and analysis equipment for analysis. Because biogas often contains a large amount of impurities such as dust and moisture, directly entering the detection equipment will cause the sensor accuracy to decrease, the equipment to corrode or become clogged, affecting the accuracy of the monitoring data and increasing maintenance costs. Summary of the Invention

[0003] In view of the above-mentioned deficiencies in the prior art, the purpose of the present invention is to provide an urban underground pipeline gas monitoring, disposal and utilization system that ensures the accuracy of detection data, extends the life of the detection control unit, and is easy to maintain.

[0004] The technical solution adopted by the present invention to achieve the above-mentioned purpose is: an urban underground pipeline gas monitoring, disposal and utilization system based on artificial intelligence management, including a biogas collection unit, a detection control unit, an on-site biogas utilization unit, an artificial intelligence control and management center, and a collection and storage unit; The biogas collection unit is used to collect biogas inside the underground pipeline. The biogas collection unit cooperates with the detection control unit, and the detection control unit can detect the collected biogas; The on-site biogas utilization unit cooperates with the detection control unit, and the detection control unit can transport the biogas that meets the detection requirements to the on-site biogas utilization unit for use; The artificial intelligence control and management center cooperates with the detection control unit, and the artificial intelligence control and management center can collect multiple groups of data transmitted by the detection control unit, analyze them, and realize remote control; Furthermore, the biogas collection unit includes a gas collection pipe and a gas processing device, wherein the gas collection pipe is fixedly connected to the inside of the underground pipeline and is connected to the gas processing device pipeline; The gas processing device includes a mechanism box and a gas dust removal and dehumidification mechanism, an air pump and an internal dust removal mechanism arranged in the mechanism box. The mechanism box is equipped with the gas dust removal and dehumidification mechanism on the air inlet pipe and the air outlet pipe. The air inlet pipe is connected to the gas collection pipe by a pipeline, the air inlet of the air pump is connected to the air outlet pipe by a pipeline, and the air outlet of the air pump is connected to the air inlet of the detection control unit by a pipeline. The internal dust removal mechanism cooperates with the gas dust removal and dehumidification mechanism so that the internal dust removal mechanism can perform internal dust removal on the gas dust removal and dehumidification mechanism.

[0005] In the above technical solution, the specific structure of the mechanism box is that the mechanism box includes a gas processing chamber and a gas pressurizing chamber, the gas dust removal and dehumidification mechanism is arranged in the gas processing chamber, the air inlet pipe is located at one end of the gas processing chamber, and the air outlet pipe is located at the other end of the gas processing chamber; The air pump is fixedly connected in the gas pressurization chamber; The internal dust removal mechanism is located in the gas processing chamber.

[0006] In the above technical solution, the gas dust removal and dehumidification mechanism adopts the following structure: The gas dust removal and dehumidification mechanism includes a dust removal component, a dehumidification component, a lifting module and a first motor. The lifting module is provided in the gas processing chamber, and the lifting module includes a first reciprocating screw, a lifting platform, a sliding frame and a mounting frame. A sliding column is fixedly connected in the gas processing chamber, and the lifting platform is slidably connected to the sliding column. The first reciprocating screw is threadedly connected to the lifting platform. The first motor is fixedly connected in the gas boosting chamber, and the first motor and the first reciprocating screw are dynamically connected through a first linkage assembly. The sliding racks are fixedly connected to both sides of the lifting platform in the gas processing chamber, each group of the sliding racks is slidably connected to the mounting racks, and multiple groups of the mounting racks are fixedly connected to the lifting platform. The dust removal component is fixedly connected to the mounting rack between the lifting platform and the air inlet pipe, and the dehumidification component is fixedly connected to the mounting rack between the lifting platform and the air outlet pipe. The mechanism box is provided with a movement opening corresponding to each group of the mounting brackets, and the top end of the mounting bracket seals the movement opening.

[0007] Furthermore, the dust removal component adopts a dust removal filter net, and the dehumidification component adopts a moisture adsorption net.

[0008] In the above technical solution, the air pump adopts an unpowered pump body, and the first motor and the unpowered pump body are connected to each other through a second linkage assembly; In addition, the first linkage assembly includes a first one-way transmission member, and the second linkage assembly includes a second one-way transmission member. Under the action of the first one-way transmission member and the second one-way transmission member, when the first motor drives the first reciprocating screw to rotate, the unpowered pump body does not work, and when the first motor drives the unpowered pump body to work, the first reciprocating screw does not rotate.

[0009] In the above technical solution, the internal dust removal mechanism adopts the following structure: The internal dust removal mechanism includes a second motor, a second reciprocating screw, a traction platform, and a cleaning roller. A guide column is fixedly connected to the dust suction end of the dust removal component in the gas processing chamber. The traction platform is slidably connected to the guide column. The second reciprocating screw is threadedly connected to the traction platform. The second motor is fixedly connected to the mechanism box, and the second motor is dynamically connected to the second reciprocating screw. The cleaning roller is rotatably connected to the traction platform, and the cleaning roller contacts the dust removal component. A gear is fixedly connected to the roller shaft at one end of the cleaning roller, and a rack is fixedly connected to the mounting frame to match the gear, and the gear is meshed with the rack. The mechanism box is provided with a dust collecting port corresponding to the dust removal component, the mechanism box is fixedly connected to a dust collecting box corresponding to the dust collecting port, the dust collecting box is provided with a dust inlet corresponding to the dust collecting port, and an automatic cleaning component is provided in the dust collecting box; Furthermore, the automatic cleaning component includes a third reciprocating screw, a moving platform, a dust pushing platform and a closing platform. A dust discharge port is provided on one side of the dust collecting box, the closing platform is enclosed in the dust discharge port, the dust pushing platform is provided on one side of the dust inlet in the dust collecting box, and the dust pushing platform and the closing platform are fixedly connected by a connecting frame. A limiting column is fixedly connected in the dust box, the limiting column is slidably connected to the moving platform, the moving platform is threadedly connected to the third reciprocating screw, the third reciprocating screw is dynamically connected to the first linkage assembly, and when the first motor drives the first reciprocating screw to rotate, the third reciprocating screw is synchronously driven to rotate; The moving platform is fixedly connected to the dust pushing platform.

[0010] In the above technical solution, the power output end of the first motor is fixedly connected to the main shaft; The specific structure of the first linkage component is: The first linkage assembly also includes a first shaft, a second shaft, a first synchronous transmission member, a worm and a worm wheel, the end of the first reciprocating screw is fixedly connected to the first shaft, the first shaft penetrates into the gas boost chamber, the first shaft is fixedly connected to the worm wheel on the area of ​​the first shaft located in the gas boost chamber, the worm is rotatably connected in the gas boost chamber, the worm is meshed with the worm wheel, one end of the worm is fixedly connected to the second shaft, the second shaft is provided with the first one-way transmission member, the first one-way transmission member adopts a first ratchet member, the main shaft and the second shaft are powered by the first synchronous transmission member, and the first synchronous transmission member is located on the power input end side of the first one-way transmission member; Furthermore, the structure of the second linkage component is: The second linkage assembly further includes a second synchronous transmission member and a third shaft. The power input end of the unpowered pump body is fixedly connected to the third shaft. The third shaft is provided with a second one-way transmission member. The second one-way transmission member adopts a second ratchet member. The main shaft and the third shaft are connected to each other through the second synchronous transmission member. The second synchronous transmission member is located on the power input end side of the second one-way transmission member. Furthermore, one end of the third reciprocating screw is fixedly connected to a fourth shaft, and the worm and the fourth shaft are dynamically connected via a third synchronous transmission member.

[0011] Beneficial effects of the present invention: 1. Biogas from underground pipelines can be pumped out by an air pump. The pumped biogas can enter the mechanism box, where it is dusted and dehumidified by the gas dust removal and dehumidification mechanism. The treated gas is then sent to the detection and control unit for analysis. The above structure ensures that the gas entering the detection and control unit is clean and dry, reducing the interference of impurities and humidity on the test results, making the gas data more realistically reflect the biogas composition, improving the accuracy of analysis, and preventing dust and moisture from entering the detection and control unit, reducing the risk of corrosion or blockage, reducing maintenance frequency, and extending the service life of the detection and control unit. 2. An internal dust removal mechanism is also provided in conjunction with the gas dust removal and dehumidification mechanism. The internal dust removal mechanism can regularly remove dust from the dust removal components in the gas dust removal and dehumidification mechanism, thereby avoiding pore blockage and maintaining smooth airflow. The automated cleaning reduces the frequency of manual disassembly, cleaning, or replacement of dust removal components, thereby reducing maintenance time and labor costs. 3. The gas dust removal and dehumidification mechanism includes a lifting module. The lifting module can be driven by a first motor to lift the dust removal component and the dehumidification component from the mechanism box to the outside, thereby facilitating the replacement and cleaning of the dust removal component and the dehumidification component, thereby improving the maintenance convenience of the device. 4. The first motor can provide the required power for the lifting module, air pump and automatic cleaning components on demand, reducing the number of power sources required for the gas processing device. A large number of mechanical structures are used to achieve control, which makes the device have a low failure rate and a long service life. BRIEF DESCRIPTION OF THE DRAWINGS

[0012] Figure 1 It is a schematic diagram of the structure of the present invention; Figure 2 Schematic diagram of the structure of the gas processing device in the present invention; Figure 3 This is a schematic diagram of the structure of the gas processing device during maintenance in the present invention; Figure 4 Schematic diagram of the internal structure of the mechanism box in the present invention; Figure 5 It is a structural diagram of another state of the mechanism inward in the present invention; Figure 6 Schematic diagram of the structure of the first motor power transmission in the present invention; Figure 7 for Figure 6 Schematic diagram of the detailed structure of part a; Figure 8 This is a schematic structural diagram of the first motor power transmission in another perspective of the present invention; Figure 9 This is a schematic structural diagram of another state of the first motor power transmission in the present invention.

[0013] In the figure: 100 biogas collection unit, 101 gas collection pipe, 102 gas processing device, 103 mechanism box, 1031 gas processing chamber, 1032 gas boosting chamber, 1033 air inlet pipe, 1034 air outlet pipe, 104 gas dust removal and dehumidification mechanism, 1041 dust removal component, 1042 dehumidification component, 1043 lifting module, 1044 first motor, 10441 main shaft, 1045 first reciprocating screw, 1046 lifting platform, 1047 sliding frame, 1048 mounting frame, 1049 movement port, 105 air pump, 106 internal dust removal mechanism, 1061 second motor, 1062 second reciprocating screw, 1063 traction platform, 106 4 cleaning roller, 1065 gear, 1066 rack, 1067 dust collection port, 1068 dust collection box, 107 first linkage assembly, 1071 first one-way transmission member, 1072 first shaft, 1073 second shaft, 1074 first synchronous transmission member, 1075 worm, 1076 worm wheel, 108 second linkage assembly, 1081 second one-way transmission member, 1082 second synchronous transmission member, 1083 third shaft, 109 automatic cleaning component, 1091 third reciprocating screw, 1092 moving platform, 1093 dust pushing platform, 1094 closing platform, 1095 dust exhaust port, 1096 limiting column, 1097 fourth shaft, 1098 third synchronous transmission member; 200 detection control unit; 300 on-site biogas utilization units; 400 Artificial Intelligence Control and Management Center; 500 collection storage units. DETAILED DESCRIPTION

[0014] The following will clearly and completely describe the technical solutions in the embodiments of the present invention in conjunction with the accompanying drawings. Obviously, the described embodiments are only part of the embodiments of the present invention, not 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 efforts are within the scope of protection of the present invention.

[0015] Example 1 See also Figure 1-Figure 7 , an urban underground pipeline gas monitoring, disposal and utilization system based on artificial intelligence management, first of all, the existing utilization system includes a biogas collection unit 100, a detection control unit 200, an on-site biogas utilization unit 300, an artificial intelligence control and management center 400 and a collection and storage unit 500, wherein the biogas collection unit 100 is used to collect biogas inside the underground pipeline, the biogas collection unit 100 cooperates with the detection control unit 200, and the detection control unit 200 can detect the collected gasification, and further, the on-site biogas utilization unit 300 cooperates with the detection control unit 200, and the detection control unit 200 can transport the biogas that meets the detection requirements to the on-site biogas utilization unit 300 for use, and further, the artificial intelligence control and management center 400 cooperates with the detection control unit 200, and the artificial intelligence control and management center 400 can collect data transmitted from multiple groups of detection control units 200, and analyze them to achieve remote control; The above system is prior art and therefore will not be described in detail here; Secondly, the above-mentioned biogas collection unit 100 includes a gas collection pipe 101 and a gas processing device 102, wherein the gas collection pipe 101 is fixedly connected to the inside of the underground pipeline, and the gas collection pipe 101 is connected to the gas processing device 102 by pipeline, and the gas processing device 102 is further connected to the detection control unit 200 by pipeline; Specifically, the gas processing device includes a mechanism box 103 and a gas dust removal and dehumidification mechanism 104, an air pump 105, and an internal dust removal mechanism 106 arranged in the mechanism box 103. Here, the mechanism box 103 includes a gas processing chamber 1031 and a gas pressurizing chamber 1032. The gas dust removal and dehumidification mechanism 104 is arranged in the gas processing chamber 1031, and the air pump 105 is fixedly connected to the gas pressurizing chamber 1032. The internal dust removal mechanism 106 is located in the gas processing chamber 1031; The mechanism box 103 is equipped with a gas dust removal and dehumidification mechanism 104, which is provided with an air inlet pipe 1033 and an air outlet pipe 1034, that is, the air inlet pipe 1033 is located at one end of the gas processing chamber 1031, and the air outlet pipe 1034 is located at the other end of the gas processing chamber 1031. The air inlet pipe 1033 is connected to the gas collection pipe 101 through a pipeline, and the air inlet of the air pump 105 is connected to the air outlet pipe 1034 through a pipeline. The air outlet of the air pump 105 is connected to the air inlet of the detection control unit 200 through a pipeline. Negative pressure can be achieved through the air pump 105, so that the biogas inside the underground pipeline The gas enters the gas processing chamber 1031 through the gas collection pipe 101, and then passes through the dust removal and dehumidification mechanism for dust removal and dehumidification. The gas is then sent to the detection control unit 200 for gas analysis. This ensures that the gas entering the detection control unit 200 is clean and dry, reduces the interference of impurities and humidity on the detection results, makes the gas data more realistically reflect the biogas composition, improves the analysis accuracy, and prevents dust and moisture from entering the detection control unit 200, reducing the risk of corrosion or clogging, reducing the maintenance frequency, and extending the service life of the detection control unit 200. Furthermore, in this embodiment, the gas dust removal and dehumidification mechanism 104 includes a dust removal component 1041, a dehumidification component 1042, a lifting module 1043 and a first motor 1044. The lifting module 1043 is provided in the gas processing chamber 1031. The lifting module 1043 includes a first reciprocating screw 1045, a lifting platform 1046, a sliding frame 1047 and a mounting frame 1048. That is, a sliding column is fixedly connected in the gas processing chamber 1031, and the lifting platform 1046 is slidably connected to the sliding column. The first reciprocating screw 1045 is threadedly connected to the lifting platform 1046. The gas pressurizing chamber 1032 is fixedly connected to the first motor 1044. The first motor 1044 is power-connected to the first reciprocating screw 1045. When the first motor 1044 drives the first reciprocating screw 1045 to rotate, the lifting platform 1046 can be lifted and lowered on the sliding column. In addition, sliding racks 1047 are fixedly connected to both sides of the lifting platform 1046 in the gas processing chamber 1031, and each set of sliding racks 1047 is slidably connected to a mounting rack 1048. Multiple sets of mounting racks 1048 are fixedly connected to the lifting platform 1046. The mounting rack 1048 between the lifting platform 1046 and the air inlet pipe 1033 is fixedly connected to the dust removal component 1041. The mounting rack 1048 between the lifting platform 1046 and the air outlet pipe 1034 is fixedly connected to the dust removal component 1041. A dehumidifying component 1042 is connected, and a movement port 1049 is provided on the mechanism box 103 corresponding to each group of mounting frames 1048. The movement port 1049 is sealed at the top of the mounting frame 1048. When the lifting platform 1046 rises, the mounting frame 1048 and the dust removal component 1041 and the dehumidifying component 1042 thereon can be driven to rise, and finally pass through the movement port 1049 to the outside world, so that the dust removal component 1041 and the dehumidifying component 1042 can be cleaned, repaired, and replaced; Furthermore, the dust removal component 1041 is a dust removal filter, and the dehumidification component 1042 is a moisture adsorption net. The moisture adsorption net is a component filled with moisture-absorbing material between two sets of net frames. Furthermore, the internal dust removal mechanism 106 cooperates with the gas dust removal and dehumidification mechanism 104 so that the internal dust removal mechanism 106 can perform internal dust removal on the dust removal component 1041 in the gas dust removal and dehumidification mechanism 104 to avoid pore blockage and maintain smooth airflow. The automated cleaning reduces the frequency of manual disassembly, cleaning, or replacement of the dust removal component 1041, thereby reducing maintenance time and labor costs. Specifically, the internal dust removal mechanism 106 includes a second motor 1061, a second reciprocating screw 1062, a traction table 1063, and a cleaning roller 1064. That is, a guide column is fixedly connected to the dust suction end of the dust removal component 1041 in the gas processing chamber 1031, and the traction table 1063 is slidably connected to the guide column. The second reciprocating screw 1062 is threadedly connected to the traction table 1063. The second motor 1061 is fixedly connected to the mechanism box 103. The second motor 1061 is connected to the second reciprocating screw 1062 for power. The second reciprocating screw 1062 can be driven to rotate by the second motor 1061, so that the traction table 1063 can perform a linear motion on the guide column. The cleaning roller 1064 is connected to the traction platform 1063 in a rotational manner. The cleaning roller 1064 contacts the dust removal component 1041, and a gear 1065 is fixedly connected to the roller shaft at one end of the cleaning roller 1064. The mounting frame 1048 is fixedly connected to a rack 1066 in cooperation with the gear 1065. The gear 1065 is meshed with the rack 1066. When the traction platform 1063 moves linearly, the cleaning roller 1064 can move linearly, and the gear 1065 and the rack 1066 cooperate to make the cleaning roller 1064 rotate, so that the cleaning roller 1064 can clean the dust attached to the surface of the dust removal component 1041, and the cleaning effect is excellent. Of course, a dust collecting port 1067 is provided on the mechanism box 103 corresponding to the dust removal component 1041, and a dust collecting box 1068 is fixedly connected to the dust collecting port 1067 on the mechanism box 103, and a dust inlet is provided on the dust collecting box 1068 corresponding to the dust collecting port 1067, so that the dust cleaned by the cleaning roller 1064 can enter the dust collecting box 1068.

[0016] Example 2 See also Figure 2-Figure 9 , an urban underground pipeline gas monitoring, disposal and utilization system based on artificial intelligence management, based on Example 1, the air pump 105 in this embodiment can adopt an unpowered pump body, that is, the air pump 105 does not have a driving motor, and the first motor 1044 is connected to the unpowered pump body through the second linkage assembly 108 to achieve power connection, so that the first motor 1044 provides the required power for the air pump 105; When the above structure is adopted, the first motor 1044 and the first reciprocating screw 1045 are connected to each other through the first linkage assembly 107; Specifically, the power output end of the first motor 1044 is fixedly connected to the main shaft 10441; The first linkage assembly 107 includes a first one-way transmission member 1071, a first shaft 1072, a second shaft 1073, a first synchronous transmission member 1074, a worm 1075 and a worm wheel 1076, that is, the end of the first reciprocating screw 1045 is fixedly connected to the first shaft 1072, the first shaft 1072 penetrates into the gas boost chamber 1032, and the first shaft 1072 is fixedly connected to the worm wheel 1076 on the area inside the gas boost chamber 1032. A worm 1075 is connected, meshing with a worm wheel 1076. One end of the worm 1075 is fixedly connected to the second shaft 7073. The second shaft 7073 is provided with a first one-way transmission member 1071. Here, the first one-way transmission member 1071 is a first ratchet member. The main shaft 10441 and the second shaft 7073 are connected to each other through a first synchronous transmission member 1074. The first synchronous transmission member 1074 is located on the power input end side of the first one-way transmission member 1071. Furthermore, the second linkage assembly 108 includes a second one-way transmission member 1081, a second synchronous transmission member 1082 and a third shaft 1083. That is, the power input end of the unpowered pump body is fixedly connected to the third shaft 1083, and the third shaft 1083 is provided with a second one-way transmission member 1081. The second one-way transmission member 1081 adopts a second ratchet member. The main shaft 10441 and the third shaft 1083 are connected to each other through the second synchronous transmission member 1082. The second synchronous transmission member 1082 is located on the power input end side of the second one-way transmission member 1081. The first ratchet member and the second ratchet member are both prior art, and therefore, will not be described in detail here. It is only necessary that they can achieve a one-way transmission effect after being installed. The first synchronous transmission member 1074 and the second synchronous transmission member 1082 may be a combination of a pulley and a belt, a combination of a sprocket and a chain, or any other components having a transmission effect. When the above structure is adopted, under the action of the first one-way transmission member 1071 and the second one-way transmission member 1081, when the first motor 1044 drives the first reciprocating screw 1045 to rotate, the unpowered pump body does not work, and when the first motor 1044 drives the unpowered pump body to work, the first reciprocating screw 1045 does not rotate.

[0017] The present embodiment is further optimized to say that an automatic cleaning component 109 is provided in the dust box 1068, and the automatic cleaning component 109 includes a third reciprocating screw 1091, a moving platform 1092, a dust pushing platform 1093 and a closing platform 1094, that is, a dust outlet 1095 is provided on one side of the dust box 1068, and a closing platform 1094 is closed in the dust outlet 1095, a dust pushing platform 1093 is provided on one side of the dust inlet of the dust box 1068, and the dust pushing platform 1093 and the closing platform 1094 are fixedly connected by a connecting frame, and a limiting column 1096 is fixedly connected in the dust box 1068, and the limiting column 1096 is slidably connected to the moving platform 1092, and the moving platform 1092 is threadedly connected to the third reciprocating screw 1091, and the moving platform 1092 and the dust pushing platform 1093 are connected to the dust pushing platform 1094. 93 is fixedly connected, one end of the third reciprocating screw 1091 is fixedly connected to the fourth shaft 1097, and the worm 1075 and the fourth shaft 1097 are powered by a third synchronous transmission member 1098. Here, the third synchronous transmission member 1098 is also selected from a combination of a pulley and a belt or a combination of a sprocket and a chain or any other components with a transmission effect. When the first motor 1044 drives the worm 1075 to rotate, it can synchronously drive the third reciprocating screw 1091 to rotate, so that the moving platform 1092 performs reciprocating linear motion on the limiting column 1096, and the moving platform 1092 then drives the dust pushing platform 1093 to move linearly. When the dust pushing platform 1093 moves linearly toward the dust exhaust port 1095, the closing platform 1094 opens the dust exhaust port 1095, so that dust can be pushed out to achieve cleaning; In this embodiment, a set of first motors 1044 can provide the required power for the lifting module 1043, the air pump 105 and the automatic cleaning component 109 on demand, thereby reducing the number of power sources required for the gas processing device 102 and using a large number of mechanical structures to achieve control, so that the device has a low failure rate and a long service life.

[0018] 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 embodied in other specific forms without departing from the spirit or essential characteristics of the invention. Therefore, the embodiments should be considered in all respects as illustrative and non-restrictive, and the scope of the invention is defined by the appended claims, not the foregoing description, and all variations within the meaning and range of equivalents of the claims are intended to be included therein. Any reference sign in a claim should not be construed as limiting the claim to which it relates.

[0019] In addition, it should be understood that although this specification is described in terms of implementation methods, not every implementation method contains only one independent technical solution. This narrative method 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 can also be appropriately combined to form other implementation methods that can be understood by those skilled in the art.

Claims

1. An urban underground pipeline gas monitoring, disposal and utilization system based on artificial intelligence management, comprising a biogas collection unit (100), a detection control unit (200), an on-site biogas utilization unit (300), an artificial intelligence control and management center (400) and a collection and storage unit (500), wherein the biogas collection unit (100) is used to collect biogas inside the underground pipeline, the biogas collection unit (100) cooperates with the detection control unit (200), and the detection control unit (200) can detect the collected gas, the on-site biogas utilization unit (300) cooperates with the detection control unit (200), and the detection control unit (200) can transport the biogas that meets the detection requirements to the on-site biogas utilization unit (300) for use, the artificial intelligence control and management center (400) cooperates with the detection control unit (200), and the artificial intelligence control and management center (400) can collect multiple groups of data transmitted by the detection control unit (200), analyze the data, and realize remote control, characterized in that: The biogas collection unit (100) comprises a gas collection pipe (101) and a gas processing device (102); the gas collection pipe (101) is fixedly connected to the inside of an underground pipeline, and the gas collection pipe (101) is connected to the gas processing device (102) via a pipeline; The gas processing device (102) includes a mechanism box (103) and a gas dust removal and dehumidification mechanism (104), an air pump (105) and an internal dust removal mechanism (106) arranged in the mechanism box (103). The mechanism box (103) is provided with an air inlet pipe (1033) and an air outlet pipe (1034) in cooperation with the gas dust removal and dehumidification mechanism (104). The air inlet pipe (1033) is connected to the gas collection pipe (101) through a pipeline. The air inlet of the air pump (105) is connected to the air outlet pipe (1034) through a pipeline. The air outlet of the air pump (105) is connected to the air inlet of the detection control unit (200) through a pipeline. The internal dust removal mechanism (106) cooperates with the gas dust removal and dehumidification mechanism (104) so ​​that the internal dust removal mechanism (106) can perform internal dust removal on the gas dust removal and dehumidification mechanism (104).

2. The urban underground pipeline gas monitoring, disposal and utilization system based on artificial intelligence management according to claim 1 is characterized by: The mechanism box (103) comprises a gas processing chamber (1031) and a gas pressurizing chamber (1032); the gas dust removal and dehumidification mechanism (104) is arranged in the gas processing chamber (1031); the air inlet pipe (1033) is located at one end of the gas processing chamber (1031); and the air outlet pipe (1034) is located at the other end of the gas processing chamber (1031); The air pump (105) is fixedly connected in the gas pressurizing chamber (1032); The internal dust removal mechanism (106) is located in the gas processing chamber (1031).

3. The urban underground pipeline gas monitoring, disposal and utilization system based on artificial intelligence management according to claim 2 is characterized by: The gas dust removal and dehumidification mechanism (104) includes a dust removal component (1041), a dehumidification component (1042), a lifting module (1043) and a first motor (1044); the lifting module (1043) is provided in the gas processing chamber (1031); the lifting module (1043) includes a first reciprocating screw (1045), a lifting platform (1046), a sliding frame (1047) and a mounting frame (1048); a sliding column is fixedly connected in the gas processing chamber (1031); the lifting platform (1046) is slidably connected to the sliding column; the first reciprocating screw (1045) is threadedly connected to the lifting platform (1046); the first motor (1044) is fixedly connected in the gas boosting chamber (1032); the first motor (1044) and the first reciprocating screw (1045) are connected in power via a first linkage assembly (107); The sliding frames (1047) are fixedly connected to both sides of the lifting platform (1046) in the gas processing chamber (1031), and each group of the sliding frames (1047) is slidably connected to the mounting frames (1048). Multiple groups of the mounting frames (1048) are fixedly connected to the lifting platform (1046). The dust removal component (1041) is fixedly connected to the mounting frame (1048) between the lifting platform (1046) and the air inlet pipe (1033), and the dehumidification component (1042) is fixedly connected to the mounting frame (1048) between the lifting platform (1046) and the air outlet pipe (1034). The mechanism box (103) is provided with a movement opening (1049) corresponding to each group of the mounting frames (1048), and the top end of the mounting frames (1048) seals the movement opening (1049).

4. The urban underground pipeline gas monitoring, disposal and utilization system based on artificial intelligence management according to claim 3 is characterized by: The dust removal component (1041) uses a dust removal filter, and the dehumidification component (1042) uses a moisture adsorption net.

5. The urban underground pipeline gas monitoring, disposal and utilization system based on artificial intelligence management according to claim 4 is characterized by: The air pump (105) adopts an unpowered pump body, and the first motor (1044) and the unpowered pump body are connected in power via a second linkage assembly (108); The first linkage assembly (107) includes a first one-way transmission member (1071), and the second linkage assembly (108) includes a second one-way transmission member (1081). Under the action of the first one-way transmission member (1071) and the second one-way transmission member (1081), when the first motor (1044) drives the first reciprocating screw (1045) to rotate, the unpowered pump body does not work; when the first motor (1044) drives the unpowered pump body to work, the first reciprocating screw (1045) does not rotate.

6. The urban underground pipeline gas monitoring, disposal and utilization system based on artificial intelligence management according to claim 5 is characterized by: The internal dust removal mechanism (106) comprises a second motor (1061), a second reciprocating screw (1062), a traction platform (1063), and a cleaning roller (1064); a guide column is fixedly connected to the dust suction end of the dust removal component (1041) in the gas processing chamber (1031); the traction platform (1063) is slidably connected to the guide column; the second reciprocating screw (1062) is threadedly connected to the traction platform (1063); the second motor (1061) is fixedly connected to the mechanism box (103); and the second motor (1061) and the second reciprocating screw (1062) are connected in a power manner; The cleaning roller (1064) is rotatably connected to the traction platform (1063), the cleaning roller (1064) contacts the dust removal component (1041), a gear (1065) is fixedly connected to the roller shaft at one end of the cleaning roller (1064), a rack (1066) is fixedly connected to the mounting frame (1048) in coordination with the gear (1065), and the gear (1065) is meshedly connected to the rack (1066); The mechanism box (103) is provided with a dust collecting port (1067) corresponding to the dust removing component (1041); a dust collecting box (1068) is fixedly connected to the mechanism box (103) corresponding to the dust collecting port (1067); a dust inlet is provided on the dust collecting box (1068) corresponding to the dust collecting port (1067); and an automatic cleaning component (109) is provided in the dust collecting box (1068).

7. The urban underground pipeline gas monitoring, disposal and utilization system based on artificial intelligence management according to claim 6 is characterized by: The automatic cleaning component (109) includes a third reciprocating screw (1091), a moving platform (1092), a dust pushing platform (1093) and a closing platform (1094); a dust discharge port (1095) is provided on one side of the dust collecting box (1068); the closing platform (1094) is enclosed in the dust discharge port (1095); the dust pushing platform (1093) is provided on one side of the dust inlet in the dust collecting box (1068); the dust pushing platform (1093) and the closing platform (1094) are fixedly connected via a connecting frame; A limiting column (1096) is fixedly connected inside the dust collecting box (1068), the limiting column (1096) is slidably connected to the moving platform (1092), the moving platform (1092) is threadedly connected to the third reciprocating screw (1091), the third reciprocating screw (1091) is dynamically connected to the first linkage assembly (107), and when the first motor (1044) drives the first reciprocating screw (1045) to rotate, the third reciprocating screw (1091) is synchronously driven to rotate; The moving platform (1092) is fixedly connected to the dust pushing platform (1093).

8. The urban underground pipeline gas monitoring, disposal and utilization system based on artificial intelligence management according to claim 7 is characterized by: The power output end of the first motor (1044) is fixedly connected to a main shaft (10441); The first linkage assembly (107) further comprises a first shaft (1072), a second shaft (7073), a first synchronous transmission member (1074), a worm (1075) and a worm wheel (1076); the end of the first reciprocating screw (1045) is fixedly connected to the first shaft (1072); the first shaft (1072) penetrates into the gas boost chamber (1032); the first shaft (1072) is fixedly connected to the worm wheel (1076) on the area within the gas boost chamber (1032); the worm (1075) is rotatably connected to the worm wheel (1076) within the gas boost chamber (1032). 075), the worm (1075) is meshedly connected with the worm wheel (1076), one end of the worm (1075) is fixedly connected to the second shaft (7073), the second shaft (7073) is provided with the first one-way transmission member (1071), the first one-way transmission member (1071) adopts a first ratchet member, the main shaft (10441) and the second shaft (7073) are connected in power through the first synchronous transmission member (1074), and the first synchronous transmission member (1074) is located on the power input end side of the first one-way transmission member (1071).

9. The urban underground pipeline gas monitoring, disposal and utilization system based on artificial intelligence management according to claim 8 is characterized by: The second linkage assembly (108) further includes a second synchronous transmission member (1082) and a third shaft (1083). The power input end of the unpowered pump body is fixedly connected to the third shaft (1083). The third shaft (1083) is provided with a second one-way transmission member (1081). The second one-way transmission member (1081) adopts a second ratchet member. The main shaft (10441) and the third shaft (1083) are connected to each other through the second synchronous transmission member (1082). The second synchronous transmission member (1082) is located on the power input end side of the second one-way transmission member (1081).

10. The urban underground pipeline gas monitoring, disposal and utilization system based on artificial intelligence management according to claim 9 is characterized by: One end of the third reciprocating screw (1091) is fixedly connected to a fourth shaft (1097), and a power connection is achieved between the worm (1075) and the fourth shaft (1097) via a third synchronous transmission member (1098).

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