Water cooling device for high-temperature gas

Abstract

The utility model discloses a water cooling device for high-temperature gas. The water cooling device comprises a box body shell, a condensation pipe, an air cooling circulation mechanism and a control box. According to the water cooling device for the high-temperature gas, the main gas inlet pipe and the main gas outlet pipe are connected to the gas collecting device in series, and the gas sequentially passes through the main gas inlet pipe, the gas inlet box, the box body gas outlet pipe, the condensation pipe, the detection box and the main gas outlet pipe and is condensed, cooled and dehumidified in the condensation pipe; compared with a traditional liquid reagent bottle drainage method, manual operation is not needed, reagents do not need to be consumed, and the timeliness of earthquake gas detection is helped to be improved; the air cooling circulation mechanism is used for cooling the condensation pipe, the condensation effect of the condensation pipe is ensured, and condensation and dehumidification of gas passing through the condensation pipe are achieved; and the controller uploads temperature data detected by the temperature sensor to a remote control center in real time through the wireless communication module.

Description

Technical Field

[0001] The utility model relates to a water cooling device, in particular to a water cooling device for high-temperature gas. Background Art

[0002] Hot spring water mainly comes from the mixture of atmospheric precipitation and deep hot water. The deep circulation characteristics of hot spring water enable it to sensitively reflect the structural information of the deep crust. Since hot spring water carries a large number of highly volatile components in the deep earth fluid, the earth's exhaust (referred to as ground gas) effect is continuous, and the migration of ground gas to matter is also non-stop. Therefore, ground gas can work without being affected by time and stratum thickness as it escapes from hot springs, and is generally less affected by human activities on the surface. Therefore, observing the gas in hot spring water can effectively observe the information of the deep crust, and then serve as an effective means of earthquake precursor observation. However, ground gas and high-temperature hot spring gas are mixed and escaped, which contains a large amount of water vapor that needs to be discharged, but the traditional earthquake precursor hot spring gas analysis is to collect gas by liquid reagent bottle drainage method and then transport it to the laboratory for detection, which requires manual operation, which is extremely inconvenient and time-consuming, making the timeliness of earthquake gas detection worse. Therefore, a water cooling device for high-temperature gas is proposed. Utility Model Content

[0003] Purpose of the utility model: to provide a water cooling device for high-temperature gas, which can timely condense and dehumidify the high-temperature gas.

[0004] Technical solution: The water cooling device for high-temperature gas provided by the utility model comprises a box shell, a condenser pipe, an air cooling circulation mechanism and a control box;

[0005] A controller, a memory and a wireless communication module are arranged in the control box; the memory and the wireless communication module are electrically connected to the controller; the condenser is detachably installed in the box shell; an air intake box is installed in the box shell; a total air intake pipe extending out of the box shell is arranged on the air intake box; a box air outlet pipe connected to the air inlet of the condenser is arranged on the air intake box; a detection box is connected to the air outlet pipe of the condenser; a temperature sensor electrically connected to the controller is installed on the detection box; a total air outlet pipe extending out of the box shell is arranged on the detection box; an air cooling circulation mechanism is installed on the box shell, which is used to cool the condenser and is driven and controlled by the controller.

[0006] Furthermore, a box door for closing the front opening of the box shell is installed on the box shell; and an observation glass window is installed in the middle of the box door.

[0007] Further, the air-cooling circulation mechanism includes an air-cooling unit, a cooling water tank, and a circulation pump; the cooling water tank and the circulation pump are both installed inside the cabinet shell, and the circulation pump is electrically connected to the controller through a pump driving circuit; the water outlet of the cooling water tank is connected to the water inlet of the circulation pump, the water outlet of the circulation pump is connected to the water inlet of the condensation pipe, and the water outlet of the condensation pipe is connected to the water inlet of the cooling water tank through a water delivery hose, a water outlet hose, and a return water hose respectively; the air-cooling unit is installed on the cabinet shell and is used to cool the cooling water tank by air-cooling.

[0008] Further, a refrigeration mechanism is also included; the refrigeration mechanism includes a thermoelectric cooler, a heat conduction block, and a heat conduction plate; the heat conduction plate is installed on the inner wall of the cabinet shell; a plurality of heat dissipation plates extending out of the cabinet shell are arranged on the heat conduction plate; the thermoelectric cooler is installed on the heat conduction plate and is controlled by the controller; the heat conduction block is installed inside the cabinet shell; the thermoelectric cooler is connected to the heat conduction block through a heat conduction silicone pad; a cooling notch close to the condensation pipe is arranged on the heat conduction block.

[0009] Further, a liquid level sensor electrically connected to the controller is installed on the air inlet box; a water outlet pipe extending out of the cabinet shell is communicatively arranged on the lower side of the air inlet box; an electromagnetic water valve electrically connected to the controller is connected in series on the water outlet pipe.

[0010] Compared with the prior art, the beneficial effects of the present utility model are as follows: the water-cooling device is connected in series to the gas collection device through the total air inlet pipe and the total air outlet pipe, and the gas sequentially passes through the total air inlet pipe, the air inlet box, the cabinet air outlet pipe, the condensation pipe, the detection box, and the total air outlet pipe, and is cooled, condensed, and dehumidified in the condensation pipe, so as to realize the condensation and dehumidification of the high-temperature gas collected by the gas collection device. Compared with the traditional liquid reagent bottle drainage method, it does not require manual operation and does not consume reagents, so as to help improve the timeliness of earthquake gas detection; the air-cooling circulation mechanism is used to cool the condensation pipe to ensure the condensation effect of the condensation pipe and realize the condensation and dehumidification of the gas passing through the condensation pipe; the wireless communication module is used for wireless communication with the remote control center, and the controller uploads the temperature data detected by the temperature sensor to the remote control center in real time through the wireless communication module; the snap-on installation method of the condensation pipe is convenient for maintenance and replacement. BRIEF DESCRIPTION OF THE DRAWINGS

[0011] Figure 1 is a schematic structural diagram of the present utility model;

[0012] Figure 2 is a front view of the present utility model;

[0013] Figure 3 is an installation schematic diagram of the refrigeration device of the present utility model;

[0014] Figure 4 is a schematic circuit diagram of the present utility model;

[0015] In the figure: 1. Box body shell; 2. Box door; 3. Observation glass window; 4. Handle; 5. Support feet; 6. Control box; 7. Cooling fan; 8. Cooling air duct; 9. Cooling water tank; 10. Return water hose; 11. Condensing pipe; 12. Water delivery hose; 13. Circulation pump; 14. Air intake box; 15. Outlet pipe; 16. Total intake pipe; 17. Electromagnetic water valve; 18. Liquid level sensor; 19. Buckle plate; 20. Flexible cushion; 21. Buckle notch; 22. Mounting plate; 23. Heat dissipation plate; 24. Semiconductor refrigerator; 25. Thermal conductive silica gel pad; 26. Heat conductive block; 27. Cooling notch; 28. Detection box; 29. Temperature sensor; 30. Total outlet pipe; 31. Water outlet hose; 32. Heat dissipation plate. Specific embodiments

[0016] The technical solution of the present utility model will be described in detail below with reference to the accompanying drawings, but the protection scope of the present utility model is not limited to the described embodiments.

[0017] In the present utility model, unless otherwise clearly defined and limited, terms such as "installation", "connection", "connection", "fixation" and other terms should be understood in a broad sense. For example, it can be a fixed connection, a detachable connection, or integrated; it can be directly connected, or indirectly connected through an intermediate medium. It can be the internal communication of two components or the interaction relationship between two components. For those of ordinary skill in the art, the specific meanings of the above terms in the present utility model can be understood according to specific circumstances.

[0018] In the description of the present utility model, it should be understood that the orientation or positional relationship indicated by terms such as "left", "right", "front", "rear", "up", "down", "top", "bottom", etc. are all based on the orientation or positional relationship shown in the drawings, and are only for the convenience of describing the present utility model and simplifying the description, rather than indicating or implying that the device or element referred to must have a specific orientation, be constructed and operated in a specific orientation, and therefore should not be construed as a limitation of the present utility model.

[0019] Embodiment 1:

[0020] As Figures 1-4 shown, a water-cooling device for high-temperature gas provided by the present utility model includes: a box body shell 1, a condensing pipe 11, an air-cooling circulation mechanism, and a control box 6;

[0021] The control box 6 is installed on the upper inner wall of the box body shell 1; a controller, a memory, and a wireless communication module are arranged in the control box 6; both the memory and the wireless communication module are electrically connected to the controller;

[0022] Support feet 5 are provided at the four top corners of the lower side of the box shell 1; two mounting plates 22 are installed on the right inner wall of the box shell 1; snap plates 19 are horizontally arranged on the two mounting plates 22; snap notches 21 are provided on the left edges of the two snap plates 19; the upper and lower sides of the condenser tube 11 are snapped on the two snap notches 21 respectively; flexible cushion layers 20 are provided on the inner walls of the snap notches 21; an air intake box 14 is installed on the lower inner wall of the box shell 1; the upper side of the air intake box 14 is connected to the air intake box 14. A total air inlet pipe 16 extending out of the box shell 1 is arranged in a communicating manner; a box air outlet pipe connected to the air inlet of the condenser 11 is arranged in a communicating manner on the top of the air inlet box 14; a detection box 28 is connected to the air outlet pipe of the condenser 11; a temperature sensor 29 electrically connected to the controller is installed on the detection box 28; a total air outlet pipe 30 extending out of the box shell 1 is arranged in a communicating manner on the top of the detection box 28; an air-cooling circulation mechanism is installed on the box shell 1, and is used to cool the condenser 11; the air-cooling circulation mechanism is driven and controlled by the controller.

[0023] The water cooling device is connected in series to the gas collecting device through the main air inlet pipe 16 and the main air outlet pipe 30. The gas passes through the main air inlet pipe 16, the air inlet box 14, the box air outlet pipe, the condenser 11, the detection box 28 and the main air outlet pipe 30 in turn, and is condensed, cooled and dehumidified in the condenser 11, thereby realizing the condensation and dehumidification of the high-temperature gas collected by the gas collecting device. Compared with the traditional liquid reagent bottle drainage method, no manual operation is required, and no reagent consumption is required, which helps to improve the timeliness of seismic gas detection; the condenser 11 is cooled by the air cooling circulation mechanism to ensure the condensation effect of the condenser 11, and the condensation and dehumidification of the gas passing through the condenser 11 is realized; the wireless communication module is used to communicate wirelessly with the remote control center, and the controller uploads the temperature data detected by the temperature sensor 29 to the remote control center in real time through the wireless communication module; the snap-on installation method of the condenser 11 is convenient for maintenance and replacement.

[0024] Furthermore, a door 2 is hingedly connected to the box shell 1, and the door 2 is used to close the front opening of the box shell 1; an observation window is arranged in the middle of the door 2; an observation glass window 3 is arranged on the observation window; and a handle 4 is installed on the door 2. The observation window and the observation glass window 3 are used to facilitate observation of the interior of the box shell 1.

[0025] Furthermore, the air-cooling circulation mechanism includes an air-cooling unit, a cooling water tank 9 and a circulating pump 13; the cooling water tank 9 is installed on the left inner wall of the cabinet shell 1; the air-cooling unit includes a heat dissipation fan 7 and a heat dissipation air duct 8; the circulating pump 13 is installed on the lower inner wall of the cabinet shell 1, and is electrically connected to the controller through a pump drive circuit; the water outlet at the bottom of the cooling water tank 9 and the water inlet of the circulating pump 13 are connected through a water supply hose 12; the water outlet of the circulating pump 13 is connected to the water inlet of the condenser 11 through a water outlet hose 31; the water outlet of the condenser 11 is connected to the water inlet of the cooling water tank 9 through a return hose 10; the heat dissipation fan 7 is installed on the cooling water tank 9, and is electrically connected to the controller through a fan drive circuit; a heat dissipation air outlet is provided at a corresponding position on the left side wall of the cabinet shell 1; the heat dissipation air duct 8 is connected to the air inlet of the heat dissipation fan 7, and extends through the top of the cabinet shell 1.

[0026] The coolant in the cooling water tank 9 is circulated and pumped into the condenser 11 by the circulation pump 13, and the gas entering the condenser 11 is cooled and condensed. The coolant in the cooling water tank 9 enters the circulation pump 13 through the water supply hose. The circulation pump 13 pumps the coolant into the condenser 11 through the water outlet hose 31. The coolant returns to the cooling water tank 9 through the return hose 10, thereby realizing the circulation of the coolant. The cooling fan 7 is used to cool the coolant in the cooling water tank 9.

[0027] Furthermore, it also includes a refrigeration mechanism; the refrigeration mechanism includes a semiconductor refrigerator 24, a heat-conducting block 26 and a heat-conducting plate 32; the heat-conducting plate 32 is installed on the right inner wall of the box shell 1; a plurality of heat dissipation plates 23 extending out of the box shell 1 are arranged on the heat-conducting plate 32; the semiconductor refrigerator 24 is installed on the heat-conducting plate 32 and is electrically connected to the controller, and an electric control switch electrically connected to the controller is connected in series on the power supply line of the semiconductor refrigerator; the heat-conducting block 26 is connected and fixed between the two snap plates 19; the semiconductor refrigerator 24 is connected to the heat-conducting block 26 through a heat-conducting silicone pad 25; a cooling groove 27 close to the wall of the condenser tube 11 is arranged on the left side surface of the heat-conducting block 26.

[0028] The semiconductor cooler 24 and the heat conduction block 26 are further used to cool down the coolant in the condensation pipe 11, so as to ensure the condensation effect of the condensation pipe 11; the cooling groove 27 is used to make the heat conduction block 26 close to the condensation pipe 11 but not in contact with the condensation pipe 11, preventing the condensation pipe 11 from being frozen due to the too low temperature of the heat conduction block 26; the heat conduction plate 32 and the heat dissipation plate 23 are used to dissipate heat from the semiconductor cooler 24, preventing the too high temperature of the semiconductor cooler 24 from affecting the refrigeration effect; the temperature sensor 29 is used to monitor the temperature of the gas discharged from the condensation pipe 11 and transmit the temperature data to the controller. After the air-cooled circulation mechanism starts for a period of time, if the temperature data continues to rise and exceeds the preset value, the controller controls the refrigeration mechanism to start to cool down the condensation pipe 11, improving the condensation effect of the condensation pipe 11.

[0029] Further, a liquid level sensor 18 electrically connected to the controller is installed on the air inlet box 14; a water outlet pipe 15 extending out of the box body shell 1 is communicatively arranged on the lower side of the air inlet box 14; an electromagnetic water valve 17 electrically connected to the controller is connected in series on the water outlet pipe 15. The water condensed in the condensation pipe 11 flows along the inner wall of the condensation pipe 11 into the air inlet box 14. The liquid level sensor 18 monitors the water level in the air inlet box 14 and transmits the water level data to the controller. The controller controls the electromagnetic water valve 17 according to the water level data. When the water level is higher than the preset value, the controller controls the electromagnetic water valve 17 to open to discharge the water in the air inlet box 14, and closes the electromagnetic water valve 17 after drainage.

[0030] In the water-cooling device for high-temperature gas provided by the present utility model, the controller adopts an existing single-chip microcomputer control module; the memory adopts an existing memory; the wireless communication module adopts an existing wireless communication module; the temperature sensor 29 and the liquid level sensor 18 both adopt existing digital sensors; the circulation pump 13 adopts an existing circulating water pump, and the pump driving circuit adopts a corresponding circulating water pump driving circuit module; the heat dissipation fan 7 adopts an existing fan, and the fan driving circuit adopts a corresponding fan driving circuit module; the semiconductor cooler 24 adopts an existing semiconductor cooler; the electric control switch adopts an existing electric control switch.

[0031] As described above, although the present utility model has been shown and described with reference to specific preferred embodiments, it should not be construed as a limitation to the present utility model itself. Various changes can be made in its form and details without departing from the spirit and scope of the present utility model defined by the appended claims.

Claims

1. A water cooling device for high temperature gas, characterized in that: It comprises a box shell (1), a condenser tube (11), an air cooling circulation mechanism and a control box (6); A controller, a memory and a wireless communication module are arranged in the control box (6); the memory and the wireless communication module are electrically connected to the controller; the condenser (11) is detachably mounted in the housing shell (1); an air intake box (14) is mounted in the housing shell (1); a total air intake pipe (16) extending out of the housing shell (1) is arranged on the air intake box (14); a housing air outlet pipe connected to the air inlet of the condenser (11) is arranged on the air intake box (14); a detection box (28) is connected to the air outlet pipe of the condenser (11); a temperature sensor (29) electrically connected to the controller is mounted on the detection box (28); a total air outlet pipe (30) extending out of the housing shell (1) is arranged on the detection box (28); an air cooling circulation mechanism is mounted on the housing shell (1) and is used to cool the condenser (11), and is driven and controlled by the controller.

2. The water cooling device for high temperature gas according to claim 1, characterized in that: A box door (2) for closing the front opening of the box shell (1) is installed on the box shell (1); and an observation glass window (3) is installed in the middle of the box door (2).

3. The water cooling device for high temperature gas according to claim 1, characterized in that: The air-cooling circulation mechanism comprises an air-cooling unit, a cooling water tank (9) and a circulation pump (13); the cooling water tank (9) and the circulation pump (13) are both installed in a housing shell (1), and the circulation pump (13) is electrically connected to a controller via a pump drive circuit; the water outlet of the cooling water tank (9) and the water inlet of the circulation pump (13), the water outlet of the circulation pump (13) and the water inlet of the condenser (11), and the water outlet of the condenser (11) and the water inlet of the cooling water tank (9) are respectively connected via a water supply hose (12), a water outlet hose (31) and a water return hose (10); the air-cooling unit is installed on the housing shell (1) and is used to cool the cooling water tank (9) by air.

4. The water cooling device for high temperature gas according to claim 1, characterized in that: The invention also comprises a refrigeration mechanism; the refrigeration mechanism comprises a semiconductor refrigerator (24), a heat conducting block (26) and a heat conducting plate (32); the heat conducting plate (32) is mounted on the inner wall of the housing (1); a plurality of heat dissipation plates (23) extending out of the housing (1) are arranged on the heat conducting plate (32); the semiconductor refrigerator (24) is mounted on the heat conducting plate (32) and is controlled by a controller; the heat conducting block (26) is mounted in the housing (1); the semiconductor refrigerator (24) is connected to the heat conducting block (26) via a heat conducting silicone pad (25); a cooling notch (27) close to the condenser (11) is arranged on the heat conducting block (26).

5. The water cooling device for high temperature gas according to claim 1, characterized in that: A liquid level sensor (18) electrically connected to a controller is installed on the air intake box (14); a water outlet pipe (15) extending out of the box shell (1) is arranged on the lower side of the air intake box (14); and an electromagnetic water valve (17) electrically connected to the controller is connected in series to the water outlet pipe (15).

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