Automatic wireless roadway fog explosion dust remover

Abstract

The utility model relates to the field of mist explosion dust removers, in particular to an automatic wireless roadway mist explosion dust remover which comprises a control assembly and an infrared sensor assembly, the control assembly comprises a base, a mist spraying assembly is arranged at the top of one end of the base, and an air pump and a water pump are fixedly installed at the top of the other end of the base; a control panel is fixedly mounted at the tops of the air pump and the water pump, an air delivery pipe is arranged at the output end of the air pump, the other end of the air delivery pipe is communicated with the spraying assembly, an infusion pipe is arranged at the output end of the water pump, the other end of the infusion pipe is communicated with the spraying assembly, and a wireless communication module is arranged at one end of the top of the control panel. The infrared sensor assembly comprises a windward infrared sensor and a downwind infrared sensor, remote transmission modules are arranged at the top ends of the windward infrared sensor and the downwind infrared sensor, the remote transmission modules are in remote communication connection with the wireless communication module, and the effect of automatically pausing spraying when pedestrians pass by is achieved.

Description

Technical Field

[0001] The present application relates to the field of mist explosion dust collectors, and in particular to an automatic wireless tunnel mist explosion dust collector. Background Art

[0002] The tunnel fog explosion dust collector, also known as the tunnel long-range fog explosion dust collector, is a high-efficiency dust removal equipment designed for mine tunnels. It is mainly used to control and reduce dust pollution generated during mining. It uses high pressure to atomize water into extremely fine water droplets to form a fog curtain to capture and settle suspended dust particles in the air to achieve the purpose of air purification. This type of equipment is particularly suitable for mining environments where space is limited and mobile operations are required.

[0003] Existing mist explosion dust collectors usually require manual operation to open and close the control device, and manual supervision is required when it is turned on. Otherwise, the mist explosion dust collector will not automatically pause when someone passes by, which is inconvenient to use. Utility Model Content

[0004] In order to solve the problems raised in the background technology, the present application provides an automatic wireless tunnel mist explosion dust collector.

[0005] The above technical objectives of this application are achieved through the following technical solutions:

[0006] An automatic wireless tunnel fog explosion dust collector comprises a control component and an infrared sensor component, the control component comprises a base, a spray component is provided on the top of one end of the base, and an air pump and a water pump are fixedly installed on the top of the other end of the base, a control panel is fixedly installed on the top of the air pump and the water pump, an air supply pipe is provided at the output end of the air pump, and the other end of the air supply pipe is connected to the spray component, an infusion pipe is provided at the output end of the water pump, and the other end of the infusion pipe is connected to the spray component, a wireless communication module is provided at one end of the top of the control panel, the infrared sensor component comprises an upwind infrared sensor and a downwind infrared sensor, and a remote transmission module is provided on the top of the upwind infrared sensor and the downwind infrared sensor, and the remote transmission module is remotely communicated with the wireless communication module.

[0007] By adopting the above scheme, a spray assembly is provided on the top of one end of the base, and an air pump and a water pump are fixedly installed on the top of the other end of the base, so that the air pump and the water pump can pressurize water and air, thereby facilitating the spray assembly to spray water mist for dust removal. A control panel is fixedly installed on the top of the air pump and the water pump, so that the control panel can be used to control the operation of the air pump and the water pump, thereby controlling the device to perform spray dust removal. The other end of the air transmission pipe is connected to the spray assembly, so that the air pump can transmit the pressurized air to the spray assembly for atomization dust removal. The other end of the liquid infusion pipe is connected to the spray assembly, so that the water pump can transmit the pressurized water to the spray assembly for atomization dust removal. The infrared light is transmitted to the spray assembly for spray dust removal. A wireless communication module is provided at one end of the top of the control panel, which is convenient for users to use communication equipment to remotely connect to the device and to remotely control the device. The remote transmission module is connected to the wireless communication module for remote communication, which makes it convenient to fix the upwind infrared sensor on the upwind side of the alley and fix the downwind infrared sensor on the downwind side of the alley, so that the infrared sensor assembly monitors both ends of the alley where the device is set. When the infrared sensor assembly detects pedestrians passing by, it sends a signal to the control panel to suspend the spray dust removal of the spray assembly.

[0008] Furthermore, an air inlet is provided on one side of the air pump, a filter is provided on the inner side of the air inlet, and a water inlet interface is provided on one side of the water pump.

[0009] By adopting the above scheme, a filter is provided on the inner side of the air inlet, and a water inlet interface is provided on one side of the water pump, so that external air can enter the air pump through the filter. The water inlet interface is connected to an external water pipe, so that the external water source can be used to increase the water source for the spray dust removal of the device.

[0010] Furthermore, the spray assembly includes a rotating plate, and the bottom of the rotating plate is fixedly connected to the base.

[0011] By adopting the above solution, the bottom of the rotating plate is fixedly connected to the base, so that the spray assembly can be fixedly installed on the base.

[0012] Furthermore, the top of the rotating plate is rotatably connected to an adjusting seat, and the top of the adjusting seat is hinged with a shell.

[0013] By adopting the above solution, the top of the rotating plate is rotatably connected with the adjusting seat, and the top of the adjusting seat is hinged with a shell, so that the direction and angle of the atomizing nozzle can be adjusted conveniently.

[0014] Furthermore, three atomizing nozzles are provided at one end of the shell, and a gas supply interface and a liquid supply interface are provided at the other end of the shell.

[0015] By adopting the above scheme, three atomizing nozzles are provided at one end of the shell, and a gas supply interface and a liquid supply interface are provided at the other end of the shell, so that air and water can enter the spray assembly and be atomized and then sprayed out from the atomizing nozzle.

[0016] Furthermore, the gas supply interface is connected to the gas supply pipe, and the liquid infusion interface is connected to the liquid infusion pipe.

[0017] Furthermore, one end of the infusion interface is connected to a primary atomization chamber, and one end of the primary atomization chamber is connected to a gas-liquid mixing chamber.

[0018] By adopting the above scheme, one end of the infusion interface is connected to the primary atomization chamber, and one end of the primary atomization chamber is connected to the gas-liquid mixing chamber, so that water begins to disperse into larger droplets through sudden decompression, impact and rotation force inside the primary atomization chamber. The larger droplets enter the gas-liquid mixing chamber, and the introduction of pressurized gas promotes secondary breakage of the droplets to form finer droplets.

[0019] Furthermore, one side of the primary atomization chamber is connected to three secondary atomization chambers, and one end of the secondary atomization chamber is connected to an atomization nozzle.

[0020] By adopting the above scheme, three secondary atomization chambers are connected through one side of the primary atomization chamber, and one end of the secondary atomization chamber is connected to the atomization nozzle, so that small droplets are further mixed with pressurized air and refined inside the secondary atomization chamber, and are sprayed from the atomization nozzle after being fully atomized, so that the water mist has strong bundling properties, the mist beam is maintained for a long time, the atomization is more complete, the mist particles travel farther, and the water mist is suspended and drifting at the end, the mist surface coverage is wide, and the spatial mist particle density is high, thereby achieving a good dust removal effect.

[0021] Furthermore, one end of the gas transmission interface is connected to a flow splitter, and an output end of the flow splitter is connected to the gas-liquid mixing chamber and the secondary atomization chamber.

[0022] By adopting the above scheme, a splitter is connected through one end of the gas transmission interface, and the output end of the splitter is connected with the gas-liquid mixing chamber and the secondary atomization chamber, so as to provide high-pressure airflow for atomization of the gas-liquid mixing chamber and the secondary atomization chamber.

[0023] In summary, this application has the following technical effects:

[0024] A spray assembly is provided on the top of one end of the base, and an air pump and a water pump are fixedly installed on the top of the other end of the base, so that the air pump and the water pump can pressurize water and air, so that the spray assembly can spray water mist for dust removal. A control panel is fixedly installed on the top of the air pump and the water pump, so that the control panel can be used to control the operation of the air pump and the water pump, so as to control the device to perform spray dust removal. The other end of the air transmission pipe is connected to the spray assembly, so that the air pump can pressurize the air and transmit it to the spray assembly for atomization dust removal. The other end of the infusion pipe is connected to the spray assembly, so that the water pump can pressurize the water and transmit it to the spray assembly for spray dust removal. A wireless communication module is provided on the top of the control panel, so that the user can use the communication equipment to remotely connect to the device, so as to remotely control the device. The remote transmission module is connected to the wireless communication module for remote communication, so that the upwind infrared sensor can be fixedly installed at the upwind port of the lane, and the downwind infrared sensor can be fixedly installed at the downwind port of the lane, so that the infrared sensor assembly can monitor both ends of the lane where the device is set. When the infrared sensor assembly detects that a pedestrian is passing by, it sends a signal to the control panel, so that the control panel suspends the spray dust removal of the spray assembly. BRIEF DESCRIPTION OF THE DRAWINGS

[0025] Figure 1 This is a three-dimensional structural diagram of an automatic wireless tunnel mist explosion dust collector of the present application;

[0026] Figure 2 It is a three-dimensional structural diagram of the control component of this application;

[0027] Figure 3 It is a three-dimensional structural diagram of the infrared sensor assembly of the present application;

[0028] Figure 4 It is a three-dimensional structural diagram of the spray assembly of the present application;

[0029] Figure 5 It is the internal structure diagram of the spray assembly of this application.

[0030] In the figure, 101, control component; 10101, base; 10102, air pump; 10103, water pump; 10104, control panel; 10105, wireless communication module; 10106, air pipe; 10107, infusion pipe; 10108, air inlet; 10109, filter; 10110, water inlet interface; 102, infrared sensor component; 10201, upwind infrared sensor; 10102, infrared sensor assembly; 10103, infrared sensor assembly; 10104, infrared sensor assembly; 10105, wireless communication module; 10106, air pipe; 10107, liquid pipe; 10108, air inlet; 10109, filter; 10110, water inlet interface; 10101, infrared sensor assembly; 10102, infrared sensor assembly; 202, downwind infrared sensor; 10203, remote transmission module; 103, spray assembly; 10301, rotating plate; 10302, adjustment seat; 10303, housing; 10304, atomizing nozzle; 10305, gas transmission interface; 10306, liquid transmission interface; 10307, ​​diverter; 10308, primary atomizing chamber; 10309, gas-liquid mixing chamber; 10310, secondary atomizing chamber. DETAILED DESCRIPTION

[0031] The present application is further described in detail below with reference to the accompanying drawings.

[0032] Embodiment 1

[0033] Reference Figure 1-5 , including a control component 101 and an infrared sensor component 102, the control component 101 includes a base 10101, a spray component 103 is provided on the top of one end of the base 10101, and an air pump 10102 and a water pump 10103 are fixedly installed on the top of the other end of the base 10101, the spray component 103 is provided on the top of one end of the base 10101, and the air pump 10102 and the water pump 10103 are fixedly installed on the top of the other end of the base 10101, so that the air pump 10102 and the water pump 10103 can pressurize water and air, thereby facilitating the spray component 103 to spray water mist for dust removal, and the air pump 10102 and the water pump 10103 are fixedly installed on the top The control panel 10104 is fixedly installed on the top of the air pump 10102 and the water pump 10103, so that the control panel 10104 can be used to control the operation of the air pump 10102 and the water pump 10103, so as to control the device to perform spray dust removal. The output end of the air pump 10102 is provided with an air delivery pipe 10106, and the other end of the air delivery pipe 10106 is connected to the spray assembly 103. The other end of the air delivery pipe 10106 is connected to the spray assembly 103, so that the air pump 10102 can pressurize and transmit the air to the spray assembly 103 for atomization dust removal. The output end of the water pump 10103 is provided with a liquid infusion pipe 10107, and the liquid infusion pipe 101 07 is connected to the spray assembly 103 through the other end of the infusion tube 10107, so that the water pump 10103 can pressurize the water and transmit it to the spray assembly 103 for spray dust removal. A wireless communication module 10105 is provided at one end of the top of the control panel 10104. A wireless communication module 10105 is provided at one end of the top of the control panel 10104, so that the user can use the communication equipment to remotely connect with the device, and the device can be remotely controlled. The infrared sensor assembly 102 includes an upwind infrared sensor 10201 and a downwind infrared sensor 10202, and the upwind infrared sensor 10201 and the downwind infrared sensor 102 02. A remote transmission module 10203 is provided at the top of each lane. The remote transmission module 10203 is remotely connected to the wireless communication module 10105 for remote communication. Through the remote transmission module 10203 and the wireless communication module 10105 for remote communication, it is convenient to fix the upwind infrared sensor 10201 at the upwind port of the lane, and fix the downwind infrared sensor 10202 at the downwind port of the lane, so that the infrared sensor component 102 monitors both ends of the lane where the device is set. When the infrared sensor component 102 detects that a pedestrian passes by, it sends a signal to the control panel 10104, so that the control panel 10104 suspends the spray dust removal of the spray component 103.

[0034] Embodiment 2

[0035] refer to Figure 1-4 An air inlet 10108 is provided on one side of the air pump 10102, a filter screen 10109 is provided inside the air inlet 10108, a water inlet interface 10110 is provided on one side of the water pump 10103, and a filter screen 10109 is provided inside the air inlet 10108. A water inlet interface 10110 is provided on one side of the water pump 10103, so that external air can enter the air pump 10102 through the filter screen 10109, and the water inlet interface 10110 is connected to an external water pipe, so that an external water source can provide a water source for the spray dust removal of the device. The spray assembly 103 includes a rotating plate 10301, and the bottom of the rotating plate 10301 is fixedly connected to the base 10101, so that the spray assembly 103 can be fixedly installed on the base 10101, and the top of the rotating plate 10301 is rotatably connected with an adjustment seat 1030 2. The top of the adjusting seat 10302 is hinged with a shell 10303, and the adjusting seat 10302 is rotatably connected to the top of the rotating plate 10301. The top of the adjusting seat 10302 is hinged with the shell 10303, so as to facilitate the adjustment of the direction and angle of the atomizing nozzle 10304. Three atomizing nozzles 10304 are arranged at one end of the shell 10303, and a gas supply interface 10305 and a liquid infusion interface 10306 are arranged at the other end of the shell 10303. Three atomizing nozzles 10304 are arranged at one end of the shell 10303, and a gas supply interface 10305 and a liquid infusion interface 10306 are arranged at the other end of the shell 10303, so as to facilitate air and water to enter the spray assembly 103 and be atomized and then sprayed out from the atomizing nozzle 10304. The gas supply interface 10305 is connected with the gas supply pipe 10106, and the liquid infusion interface 10306 is connected with the liquid infusion pipe 10107.

[0036] Embodiment 3

[0037] refer to Figure 1-5One end of the infusion interface 10306 is connected to a primary atomization chamber 10308, and one end of the primary atomization chamber 10308 is connected to a gas-liquid mixing chamber 10309. One end of the infusion interface 10306 is connected to the primary atomization chamber 10308, and one end of the primary atomization chamber 10308 is connected to the gas-liquid mixing chamber 10309, so that water begins to disperse into larger droplets through sudden decompression, impact and rotation force inside the primary atomization chamber 10308. The larger droplets enter the gas-liquid mixing chamber 10309, and the introduction of pressurized gas promotes secondary breakage of the droplets to form smaller droplets. One side of the primary atomization chamber 10308 is connected to three secondary atomization chambers 10310, and one end of the secondary atomization chamber 10310 is connected to the atomizing nozzle 10304. One side of the primary atomization chamber 10308 is connected to three secondary atomization chambers 10310, and the secondary atomization chamber 1 One end of 0310 is connected with the atomizing nozzle 10304, so that the small droplets are further mixed with the pressurized air in the secondary atomizing chamber 10310 and refined, and are sprayed out from the atomizing nozzle 10304 after being fully atomized, so that the water mist has strong clustering, the mist beam is maintained for a long time, the atomization is more complete, the mist particles travel farther, and the water mist is suspended and drifting at the end. The fog surface coverage is wide and the spatial mist particle density is high. One end of the gas transmission interface 10305 is connected with the diverter 10307, ​​and the output end of the diverter 10307 is connected with the gas-liquid mixing chamber 10309 and the secondary atomizing chamber 10310. One end of the gas transmission interface 10305 is connected with the diverter 10307, ​​and the output end of the diverter 10307 is connected with the gas-liquid mixing chamber 10309 and the secondary atomizing chamber 10310, so as to provide high-pressure airflow for the atomization of the gas-liquid mixing chamber 10309 and the secondary atomizing chamber 10310.

[0038] Specifically, a filter screen 10109 is provided on the inner side of the air inlet 10108, and a water inlet interface 10110 is provided on one side of the water pump 10103, so that the external air can enter the air pump 10102 through the filter screen 10109. The water inlet interface 10110 is connected to an external water pipe, so that the external water source can provide water for the spray dust removal of the device. The other end of the air pipe 10106 is connected to the spray assembly 103, so that the air pump 10102 can pressurize the air and transmit it to the spray assembly 103 for atomization dust removal. The other end of the infusion pipe 10107 is connected to the spray assembly 103, so that the water pump 10103 can pressurize the water and transmit it to the spray assembly 103 for spray dust removal. A wireless communication module 1 is provided at one end of the top of the control panel 10104. 0105, it is convenient for users to use communication equipment to remotely connect with the device, and it is convenient to remotely control the device. Through the remote transmission module 10203 and the wireless communication module 10105 remote communication connection, it is convenient to fix the upwind infrared sensor 10201 at the upwind outlet of the lane, and fix the downwind infrared sensor 10202 at the downwind outlet of the lane, so that the infrared sensor component 102 monitors both ends of the lane where the device is set. When the infrared sensor component 102 detects that a pedestrian passes by, it sends a signal to the control panel 10104, so that the control panel 10104 pauses the spray dust removal of the spray component 103, and the top of the rotating plate 10301 is connected to the adjustment seat 10302, and the top hinge of the adjustment seat 10302 The shell 10303 is connected to the spray assembly 10303, so that the direction and angle of the atomizing nozzle 10304 can be adjusted. Three atomizing nozzles 10304 are arranged at one end of the shell 10303, and a gas supply interface 10305 and a liquid infusion interface 10306 are arranged at the other end of the shell 10303, so that air and water can enter the spray assembly 103 and be sprayed out from the atomizing nozzle 10304 after being atomized. A primary atomizing chamber 10308 is connected at one end of the liquid infusion interface 10306, and a gas-liquid mixing chamber 10309 is connected at one end of the primary atomizing chamber 10308, so that water in the primary atomizing chamber 10308 begins to disperse into larger droplets through sudden decompression, impact and rotational force. The larger droplets enter the gas-liquid mixing chamber 10309 and are guided by the pressurized gas. The primary atomizing chamber 10308 is connected to three secondary atomizing chambers 10310 at one side, and one end of the secondary atomizing chamber 10310 is connected to the atomizing nozzle 10304, so that the small droplets are further mixed with the pressurized air in the secondary atomizing chamber 10310 and are sprayed from the atomizing nozzle 10304 after being fully atomized, so that the water mist has strong clustering, the mist beam is maintained for a long time, the atomization is more complete, the mist particles travel farther, and the water mist is suspended and drifted at the end, the mist surface coverage is wide, and the spatial mist particle density is high. A splitter 10307 is connected to one end of the gas transmission interface 10305, and the output end of the splitter 10307 is connected to the gas-liquid mixing chamber 10309 and the secondary atomizing chamber 10310.It is convenient to provide high-pressure airflow for atomization of the gas-liquid mixing chamber 10309 and the secondary atomization chamber 10310.

[0039] This specific embodiment is merely an explanation of the present application and is not a limitation of the present application. After reading this specification, those skilled in the art may make modifications to the present embodiment without any creative contribution as needed, but such modifications are protected by the patent law as long as they are within the scope of the claims of the present application.

Claims

1. An automatic wireless tunnel mist explosion dust collector, characterized by: The invention comprises a control component (101) and an infrared sensor component (102), wherein the control component (101) comprises a base (10101), a spray component (103) is provided on the top of one end of the base (10101), and an air pump (10102) and a water pump (10103) are fixedly installed on the top of the other end of the base (10101), a control panel (10104) is fixedly installed on the top of the air pump (10102) and the water pump (10103), an air delivery pipe (10106) is provided on the output end of the air pump (10102), the other end of the air delivery pipe (10106) is connected to the spray component (103), and the water pump (10103) is connected to the output end of the air pump (10102). An infusion tube (10107) is provided at the output end (10103), and the other end of the infusion tube (10107) is connected to the spray assembly (103). A wireless communication module (10105) is provided at one end of the top of the control panel (10104). The infrared sensor assembly (102) includes an upwind infrared sensor (10201) and a downwind infrared sensor (10202), and a remote transmission module (10203) is provided at the top of each of the upwind infrared sensor (10201) and the downwind infrared sensor (10202). The remote transmission module (10203) is remotely connected to the wireless communication module (10105).

2. The automatic wireless tunnel mist explosion dust collector according to claim 1 is characterized in that: An air inlet (10108) is provided on one side of the air pump (10102), a filter screen (10109) is provided on the inner side of the air inlet (10108), and a water inlet interface (10110) is provided on one side of the water pump (10103).

3. The automatic wireless tunnel mist explosion dust collector according to claim 1 is characterized in that: The spray assembly (103) comprises a rotating plate (10301), and the bottom of the rotating plate (10301) is fixedly connected to the base (10101).

4. The automatic wireless tunnel mist explosion dust collector according to claim 3 is characterized in that: The top of the rotating plate (10301) is rotatably connected to an adjustment seat (10302), and the top of the adjustment seat (10302) is hingedly connected to a housing (10303).

5. The automatic wireless tunnel mist explosion dust collector according to claim 4 is characterized in that: One end of the shell (10303) is provided with three atomizing nozzles (10304), and the other end of the shell (10303) is provided with a gas supply interface (10305) and a liquid supply interface (10306).

6. The automatic wireless tunnel mist explosion dust collector according to claim 5 is characterized in that: The gas supply interface (10305) is in communication with the gas supply tube (10106), and the liquid infusion interface (10306) is in communication with the liquid infusion tube (10107).

7. The automatic wireless tunnel mist explosion dust collector according to claim 6 is characterized in that: One end of the infusion interface (10306) is connected to a primary atomization chamber (10308), and one end of the primary atomization chamber (10308) is connected to a gas-liquid mixing chamber (10309).

8. The automatic wireless tunnel mist explosion dust collector according to claim 7 is characterized in that: One side of the primary atomization chamber (10308) is connected to three secondary atomization chambers (10310), and one end of the secondary atomization chamber (10310) is connected to the atomization nozzle (10304).

9. The automatic wireless tunnel mist explosion dust collector according to claim 8, characterized in that: One end of the gas transmission interface (10305) is connected to a flow splitter (10307), and an output end of the flow splitter (10307) is connected to a gas-liquid mixing chamber (10309) and a secondary atomization chamber (10310).

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