An exhaust gas treatment device with purification function for glass production

Abstract

The present invention relates to the technical field of glass processing waste gas treatment, and specifically to an exhaust gas treatment device with a purification function for glass production, comprising a purification equipment main body, the purification equipment main body comprising an air intake pipe, the air intake pipe is connected to an external exhaust gas pipe, a separation component is installed above the air intake pipe, a magnetic disinfection component is installed at the bottom of the separation component, purification boxes are installed on both sides of the magnetic disinfection component, a support plate is installed in the middle of the purification box, a pressurizing component, a filtering component, and an evaporation box are installed at the bottom of the support plate, an incineration component and a heat absorption reflux component are installed above the support plate, the heat absorption reflux component is connected to the magnetic disinfection component, the input end of the pressurizing component is connected to the magnetic disinfection component, the output end of the pressurizing component is connected to the filtering component, the filtering component is connected to the evaporation box, the incineration component can incinerate gas, and the heat absorption reflux component can absorb heat, so that when the device is used, it can purify exhaust gas and disinfect wastewater, and the discharged gas can reduce dust from the outside.

Description

Technical Field

[0001] The invention relates to the technical field of glass processing waste gas treatment, in particular to an exhaust gas treatment device with a purification function for glass production. Background Art

[0002] Waste gas purification mainly refers to the work of treating industrial waste gases such as dust particles, flue gas, odorous gases, and toxic and harmful gases generated in industrial sites.

[0003] Waste gas produced by glass processing includes particulate matter, NOx, SO2 and a small amount of HCl;

[0004] However, existing waste gas purification equipment often only uses filtering to filter particulate matter and some waste gas when purifying solids and gases. The gas finally discharged to the outside will also contain a small amount of waste gas, and the internal gas and dust that cannot enter the machine will float outside the machine. Therefore, even if all the gas and particulate matter inside the machine are purified, the overall environment of the factory cannot be improved. Summary of the invention

[0005] The object of the present invention is to provide an exhaust gas treatment device with a purification function for glass production to solve the problems raised in the above-mentioned background technology.

[0006] In order to solve the above technical problems, the present invention provides the following technical solutions: an exhaust gas treatment device with a purification function for glass production, comprising a purification equipment main body, the purification equipment main body comprising an air intake pipe, the air intake pipe is connected to an external exhaust pipe, a separation component is installed above the air intake pipe, a magnetic disinfection component is installed at the bottom of the separation component, purification boxes are installed on both sides of the magnetic disinfection component, a support plate is installed in the middle of the purification box, a pressurizing component, a filtering component, and an evaporation box are installed at the bottom of the support plate, an incineration component and a heat absorption reflux component are installed above the support plate, the heat absorption reflux component is connected to the magnetic disinfection component, the input end of the pressurizing component is connected to the magnetic disinfection component, the output end of the pressurizing component is connected to the filtering component, the filtering component is connected to the evaporation box, the incineration component can incinerate gas, and the heat absorption reflux component can absorb heat.

[0007] Further, the magnetic disinfection assembly includes a V-shaped tube, the upper part of the V-shaped tube is connected to the air intake pipe, the separation assembly is installed above the air intake pipe, a fixing platform and an electromagnet are installed at the bottom of the V-shaped tube, and a magnetic ring is installed on the side of the V-shaped tube;

[0008] When the magnetic coil is energized, the strong magnetic field sterilizes and disinfects the water molecules and particles in the water through magnetization.

[0009] Furthermore, the separation assembly includes multiple groups of separation tubes, which are respectively installed on both sides of the air inlet pipe. An inverted V-shaped filter membrane is installed inside the air inlet pipe. The lower end of the inverted V-shaped filter membrane is parallel to the separation tube. The downward inclined end of the separation tube is connected to the air inlet pipe. A collecting bin is installed at the other end of the separation tube. Multiple groups of branch tubes are connected to the air inlet pipe at the bottom of the separation tube, and a filter net is installed at the connection between the branch tube and the separation tube.

[0010] Furthermore, a controller, an exhaust port and a positive plate are installed above the purification box, one end of the controller is connected to a wire, the wire is connected to the incineration component, a negative ion generator is installed at the bottom of the exhaust port, and the controller is connected to the positive plate and the negative electron generator respectively;

[0011] When the negative ion generator is powered on, the negatively charged negative ions will come into contact with the neutral dust in the air, making the neutral medium have a negative charge, and then adsorbed onto the positive plate;

[0012] When the negatively charged dust comes into contact with the positively charged plate, the positively charged plate generates an electric current;

[0013] The controller is capable of detecting the magnitude of the positive plate current.

[0014] Furthermore, a plurality of groups of conical holes are installed between the exhaust ports, the end of the conical hole with a larger diameter is the input end, and the end of the conical hole with a smaller diameter is the output end.

[0015] Furthermore, the pressurizing component includes a pressurizing tank, a cylinder is installed above the pressurizing tank, a water inlet and multiple groups of drain ports are opened at the bottom of the pressurizing tank, a piston is installed at the output end of the cylinder, the drain port is connected to the filter component, the filter component includes a filter bin, multiple groups of filter membranes are installed inside the filter bin, the filter membranes are equidistantly installed inside the filter bin, the output end of the filter bin is connected to the evaporation box through a one-way valve, a water inlet pipe is installed above the filter bin, the water inlet pipe is connected to a support plate, a conical drain hole is opened above the support plate, and the conical drain hole is connected to the water inlet pipe.

[0016] Furthermore, a plurality of groups of heating tubes are installed inside the evaporation box, and the heating tubes are installed equidistantly inside the evaporation box. An exhaust pipe is installed above the evaporation box, and an output end of the exhaust pipe cooperates with an output end of the incineration component.

[0017] Furthermore, the incineration assembly includes multiple groups of plasma flame devices, which are equidistantly installed on the inner wall of the purification box. The flame sprayed by the plasma flame device is located at the farthest point in the middle of the purification box. The plasma flame device can incinerate the gas discharged from the evaporator. The temperature of the multiple groups of plasma flame devices decreases from a group close to the support plate to a group at the top of the purification box.

[0018] Furthermore, the heat absorption reflux assembly includes multiple groups of heat absorption plates and multiple groups of water injection pipes. Multiple groups of water injection pipes are installed between two groups of heat absorption plates. The water injection pipes are installed equidistantly between the heat absorption plates, and the water injection pipes are interconnected.

[0019] Furthermore, the water injection pipe is connected to the V-shaped pipe, and a valve is connected between the water injection pipe and the V-shaped pipe.

[0020] Compared with the prior art, the beneficial effects achieved by the present invention are as follows: when the present invention is used, it has the following beneficial effects: first, when the device is used, the gas and particulate matter in the exhaust pipe can be separated by the separation component; second, the incoming gas and particulate matter can be magnetically disinfected by the magnetic disinfection component; third, the liquid can be filtered by the filtering component, and after the liquid enters the evaporation box, it can be reduced by the evaporation box; fourth, the reduced gas can be incinerated by the incineration component; fifth, the discharged gas can be given negative electrons by the negative electron generator, so that the negatively charged negative ions and the positively charged smoke and dust floating in the air are electrode-neutralized, so that the external particles are naturally deposited together; sixth, when the gas is discharged, the conical hole in the exhaust port of the device can increase the pressure of the gas discharge through the Venturi effect and reduce the temperature of the discharged gas at the same time. BRIEF DESCRIPTION OF THE DRAWINGS

[0021] In order to more clearly illustrate the embodiments of the present invention or the technical solutions in the prior art, the drawings required for use in the description of the embodiments will be briefly introduced below. Obviously, the drawings described below are some embodiments of the present invention. For ordinary technicians in this field, other drawings can be obtained based on these drawings without paying creative work.

[0022] Figure 1 It is a schematic diagram of the axonometric structure of the present invention;

[0023] Figure 2 It is a schematic diagram of the internal structure of the present invention;

[0024] Figure 3 It is a schematic diagram of the separation tube and the collection bin structure of the present invention;

[0025] Figure 4 It is a schematic diagram of the installation structure of the negative ion generator, the exhaust port and the tapered hole of the present invention;

[0026] Figure 5 It is a schematic diagram of the structure of the pressurizing assembly of the present invention;

[0027] Figure 6 It is a schematic diagram of the split structure of the heat absorption reflux component of the present invention;

[0028] Figure 7 The present invention Figure 1 A magnified schematic diagram of the structure "A" in the middle;

[0029] Figure 8 The present invention Figure 1 Enlarged schematic diagram of the "B" structure.

[0030] In the figure: 1. Purification equipment body; 11. Air inlet pipe; 111. Inverted V-shaped filter membrane; 12. Purification box; 121. Support plate; 1211. Conical drain hole; 122. Controller; 13. Exhaust port; 131. Conical hole; 14. Negative ion generator; 15. Positive plate; 2. Separation component; 21. Separation tube; 211. Branch pipe; 22. Collection bin; 3. Magnetic disinfection component; 31. V-shaped tube; 32. Fixed Table; 33, electromagnet; 34, magnetic coil; 4, pressurizing component; 41, pressurizing tank; 411, water inlet; 412, drain outlet; 42, cylinder; 421, piston; 5, filter component; 51, filter compartment; 52, water inlet pipe; 6, evaporator box; 61, heating pipe; 62, exhaust pipe; 7, incineration component; 71, plasma flame device; 8, heat absorption reflux component; 81, heat absorption plate; 82, water injection pipe; 83, valve. DETAILED DESCRIPTION

[0031] It should be noted that, in the absence of conflict, the embodiments and features in the embodiments of the present application can be combined with each other. The present invention will be described in detail below with reference to the accompanying drawings and in combination with the embodiments.

[0032] See also Figure 1-8 The present invention provides a technical solution: an exhaust gas treatment device with a purification function for glass production, comprising a purification device body 1, the purification device body 1 comprising an air intake pipe 11, the air intake pipe 11 is connected to an external exhaust pipe, a separation component 2 is installed above the air intake pipe 11, a magnetic disinfection component 3 is installed at the bottom of the separation component 2, purification boxes 12 are installed on both sides of the magnetic disinfection component 3, a support plate 121 is installed in the middle of the purification box 12, a pressurizing component 4, a filtering component 5, and an evaporation box 6 are installed at the bottom of the support plate 121, an incineration component 7 and a heat-absorbing reflux component 8 are installed above the support plate 121, the heat-absorbing reflux component 8 is connected to the magnetic disinfection component 3, the input end of the pressurizing component 4 is connected to the magnetic disinfection component 3, the output end of the pressurizing component 4 is connected to the filtering component 5, the filtering component 5 is connected to the evaporation box 6, the incineration component 7 can incinerate the gas, and the heat-absorbing reflux component 8 can absorb the heat;

[0033] When the device is in use, the waste gas generated by glass processing will be injected into the air inlet pipe 11 of the device through the external waste gas pipe, and the waste gas discharged through the waste gas pipe will contain particulate matter, NOx, SO2 and a small amount of HCl. After entering the air inlet pipe 11, the separation component 2 of the device will separate the incoming gas from the particulate matter, reducing the particulate matter entering the magnetic disinfection component 3, and the magnetic disinfection component 3 can sterilize and disinfect the gas soluble in water. The mixed liquid after simple disinfection will flow to the pressurizing component 4. At the same time, the pressurizing component 4 will suck the liquid in the magnetic disinfection component 3 when it rises, because the magnetic disinfection component 3 and the heating component are connected by a one-way valve, so when the pressurizing component 4 pressurizes the sucked liquid, the liquid will not flow into the magnetic disinfection component 3, and the pressurized liquid will quickly enter the filter component 5 under the action of pressure, and Impurities such as particles in the liquid are filtered again through the filter component 5, and the filtered liquid will enter the evaporation box 6, and the dissolved gas will be reduced through the evaporation box 6. The reduced gas will enter the incineration area of ​​the incineration component 7 together with the water molecules. Through the incineration component 7, most of the reduced gas can be directly incinerated, and part of the gas and water molecules will be liquefied and flow back to the filter chamber 51. The liquefied water molecules will be filtered again through the filter chamber 51 and then passed to the evaporation box 6. Part of the gas discharged from the machine will pass through the negative ion generator 14 of the device, so that the negatively charged negative ions and the positively charged smoke and dust floating in the air are electrode-neutralized, so that the external particles are naturally deposited together. Therefore, when the device is in use, it can not only purify the exhaust gas generated by glass processing, but also reduce external dust.

[0034] like Figure 1-2 and Figure 8 As shown, in this embodiment, specifically, the magnetic disinfection component 3 includes a V-shaped tube 31, the upper part of the V-shaped tube 31 is connected to the air inlet pipe 11, the separation component 2 is installed above the air inlet pipe 11, a fixing platform 32 and an electromagnet 33 are installed at the bottom of the V-shaped tube 31, and a magnetic ring 34 is installed on the side of the V-shaped tube 31;

[0035] When the magnetic coil 34 is powered on: the strong magnetic field sterilizes and disinfects the water molecules and particles in the water by magnetization.

[0036] Therefore, when the magnetic disinfection component 3 is in use, due to the design of the V-shaped tube 31, the water flow can be discharged only when it reaches a certain height. At the same time, due to the V-shaped characteristics, the particles and some magnetic media can stay at the bottom of the V, thereby reducing the incompatible particles and some media from entering the subsequent steps.

[0037] like Figure 1-3 and Figure 7As shown, in this embodiment, specifically, the separation component 2 includes a plurality of separation tubes 21, the separation tubes 21 are respectively installed on both sides of the air inlet pipe 11, an inverted V-shaped filter membrane 111 is installed inside the air inlet pipe 11, the lower end of the inverted V-shaped filter membrane 111 is parallel to the separation tube 21, the downwardly inclined end of the separation tube 21 is connected to the air inlet pipe 11, the other end of the separation tube 21 is installed with a collection bin 22, the bottom of the separation tube 21 is connected to the air inlet pipe 11 with a plurality of branch tubes 211, and a filter screen is installed at the connection between the branch tube 211 and the separation tube 21;

[0038] When the separation component 2 of the device is in use, gas enters through the air inlet pipe 11, and the gas and the particles in the gas first enter the interior of the separation tube 21, and the gas and the particles in contact with the inverted V-shaped filter membrane 111 will also enter the interior of the separation tube 21 under the effect of the inclination angle of the inverted V-shaped filter membrane 111;

[0039] Since the gas is continuously injected into the separation tube 21, the pressure inside the separation tube 21 increases, and part of the gas flows back into the air inlet pipe 11 through the branch pipe 211 and is transferred to the magnetic disinfection assembly 3 at the bottom of the air inlet pipe 11;

[0040] The particles entering the separation tube 21 will move to the collection bin 22 due to the inclination angle of the separation tube 21 and the propulsion of the gas. Some larger particles can be prevented from entering the branch pipe 211 due to the presence of the filter.

[0041] like Figure 1-2 As shown, in this embodiment, specifically, a controller 122, an exhaust port 13 and a positive plate are installed above the purification box 12, one end of the controller 122 is connected to a wire, and the wire is connected to the incineration component 7, and a negative ion generator 14 is installed at the bottom of the exhaust port 13, and the controller is connected to the positive plate and the negative electron generator respectively;

[0042] When the negative ion generator 14 is powered on: the negatively charged negative ions will come into contact with the neutral dust in the air, making the neutral medium have a negative charge, and then adsorbed onto the positive plate;

[0043] When the negatively charged dust comes into contact with the positively charged plate, the positively charged plate generates an electric current;

[0044] The controller 122 can detect the magnitude of the positive plate current;

[0045] Therefore, when the device is in use, part of the gas is discharged through the exhaust port 13 of the device. The gas first passes through the negative ion generator 14 and then comes into contact with the outside world. The negatively charged negative ions come into contact with the neutral dust in the air, making the neutral medium have a negative charge. When adsorbed onto the positive plate, the positive plate will generate current, and the current of the positive plate can be detected by the controller 122. When the current is large, it means that there is more dust in the outside world at this time, so the negative ion generator 14 can be controlled to increase the output power.

[0046] like Figure 4 As shown, in this embodiment, specifically, multiple groups of tapered holes 131 are installed between the exhaust ports 13, the end of the tapered hole 131 with a larger diameter is the input end, and the end of the tapered hole 131 with a smaller diameter is the output end;

[0047] Furthermore, due to a series of purification processes of the device, the temperature of the discharged gas will be higher. If the high temperature is continuously discharged, the temperature of the external working environment will increase. Through the Venturi effect, when the air enters from an area with a larger cross-section to an area with a smaller cross-section, the heat will decrease sharply and the pressure of the discharged air will also increase.

[0048] like Figure 2 and Figure 5 As shown, in this embodiment, specifically, the pressurizing component 4 includes a pressurizing tank 41, a cylinder 42 is installed above the pressurizing tank 41, a water inlet 411 and a plurality of drain ports 412 are provided at the bottom of the pressurizing tank 41, a piston 421 is installed at the output end of the cylinder 42, the drain port 412 is connected to the filter component 5, the filter component 5 includes a filter bin 51, a plurality of filter membranes are installed inside the filter bin 51, the filter membranes are equidistantly installed inside the filter bin 51, the output end of the filter bin 51 is connected to the evaporation box 6 through a one-way valve, a water inlet pipe 52 is installed above the filter bin 51, the water inlet pipe 52 is connected to the support plate 121, a conical drain hole 1211 is provided above the support plate 121, and the conical drain hole 1211 is connected to the water inlet pipe 52;

[0049] Therefore, when the device is in use, when the cylinder 42 drives the piston 421 to move upward, the liquid in the magnetic disinfection component 3 will be sucked, and when the piston 421 moves downward driven by the cylinder 42, the bottom pressure will increase, forcing the liquid to enter the filter bin 51 through the drain port 412. Because the connection ports of the various components of the device all use one-way valves to limit the flow direction of the liquid, the piston 421 will only suck the liquid in the magnetic disinfection component 3 when sucking the liquid, and when pressure is applied to discharge the liquid, the liquid can only be discharged into the filter bin 51.

[0050] like Figure 2As shown, in this embodiment, specifically, a plurality of groups of heating tubes 61 are installed inside the evaporation box 6, and the heating tubes 61 are installed equidistantly inside the evaporation box 6. An exhaust pipe 62 is installed above the evaporation box 6, and the output end of the exhaust pipe 62 cooperates with the output end of the incineration component 7;

[0051] When liquid enters the evaporation box 6, the evaporation box 6 will heat the liquid to evaporate the liquid. After the liquid evaporates, the gas and liquid originally fused in the magnetic disinfection component 3 will be restored, and the gas generated by evaporation will move upward through the exhaust pipe 62 until the evaporated gas enters the working area of ​​the incineration component 7, so that the remaining harmful gas in the gas can be incinerated by the incineration component 7.

[0052] like Figure 1-2 As shown, in this embodiment, specifically, the incineration assembly 7 includes a plurality of groups of plasma flame devices 71, which are equidistantly installed on the inner wall of the purification box 12, and the flame sprayed by the plasma flame device 71 is located at the farthest point in the middle of the purification box 12. The plasma flame device 71 can incinerate the gas discharged from the evaporator, and the temperature of the plurality of groups of plasma flame devices 71 decreases from a group close to the support plate 121 to a group at the top of the purification box 12;

[0053] When the incineration component 7 is in use, the harmful gas remaining inside the machine can be incinerated through the plasma flame device 71, and the equidistantly installed plasma flame devices 71 can incinerate the gas more comprehensively, and because the temperature sprayed by the plasma flame devices 71 of the device gradually decreases from bottom to top, when the gas first passes through the plasma flame device 71 at the bottom, the high temperature will burn the gas, and the subsequent plasma flame devices 71 can incinerate the remaining gas.

[0054] like Figure 2 and Figure 6 As shown, in this embodiment, specifically, the heat absorption reflux assembly 8 includes multiple groups of heat absorption plates 81 and multiple groups of water injection pipes 82, multiple groups of water injection pipes 82 are installed between two groups of heat absorption plates 81, and the water injection pipes 82 are equidistantly installed between the heat absorption plates 81, and the water injection pipes 82 are interconnected;

[0055] When the plasma flame device 71 burns the gas, the temperature inside the machine will rise, and the heat can be absorbed and utilized through the heat absorption reflux component 8 inside the device, so that the heat can heat the liquid. The heated liquid will be supplied to the V-shaped tube 31, so that the gas entering the V-shaped tube 31 through the intake pipe 11 can accelerate the fusion of gas and liquid when the temperature is appropriate.

[0056] like Figure 1-2As shown, in this embodiment, a specific water injection pipe 82 is connected to the V-shaped pipe 31, and a valve 83 is connected between the water injection pipe 82 and the V-shaped pipe 31;

[0057] When the temperature of the liquid in the water injection pipe 82 reaches 25° C., the valve 83 will be controlled to supply the liquid in the water injection pipe 82 to the V-shaped tube 31 , so that the gas entering the air intake pipe 11 can merge with the liquid in the V-shaped tube 31 .

[0058] Working principle of the present invention: When the equipment is in use, the waste gas generated by glass processing will be injected into the air inlet pipe 11 of the device through the external waste gas pipe, and the waste gas discharged through the waste gas pipe will contain particulate matter, NOx, SO2 and a small amount of HCl. After entering the air inlet pipe 11, the separation component 2 of the device will separate the incoming gas from the particulate matter, reducing the particulate matter entering the magnetic disinfection component 3, and the magnetic disinfection component 3 can sterilize and disinfect the gas soluble in water. The mixed liquid after simple disinfection will flow to the pressurizing component 4. At the same time, the pressurizing component 4 will suck the liquid in the magnetic disinfection component 3 when it rises, because the magnetic disinfection component 3 and the heating component are connected by a one-way valve, so that when the pressurizing component 4 pressurizes the sucked liquid, the liquid will not flow into the magnetic disinfection component 3, and the pressurized liquid will quickly enter the filtering component under the action of pressure. 5, and the impurities such as particles in the liquid are filtered again through the filter component 5. The filtered liquid will enter the evaporation box 6, and the dissolved gas will be reduced through the evaporation box 6. The reduced gas will enter the incineration area of ​​the incineration component 7 together with the water molecules. Through the incineration component 7, most of the reduced gas can be directly incinerated, and part of the gas and water molecules will be liquefied and flow back to the filter chamber 51. The liquefied water molecules will be filtered again through the filter chamber 51 and then transferred to the evaporation box 6. Part of the gas discharged from the machine will pass through the negative ion generator 14 of the device, so that the negative ions with negative charges and the positively charged smoke and dust floating in the air are electrode-neutralized, so that the external particles are naturally deposited together. Therefore, when the device is in use, it can not only purify the exhaust gas generated by glass processing, but also reduce external dust.

[0059] Although the embodiments of the present invention have been shown and described, it is to be understood that the above embodiments are illustrative and are not to be construed as limitations on the present invention. A person skilled in the art may change, modify, substitute and vary the above embodiments within the scope of the present invention without departing from the principles and purpose of the present invention.

Claims

1. An exhaust gas treatment device with purification function for glass production, comprising a purification device body (1), characterized in that: The purification device body (1) comprises an air intake pipe (11), wherein the air intake pipe (11) is connected to an external exhaust pipe, a separation component (2) is installed above the air intake pipe (11), a magnetic disinfection component (3) is installed at the bottom of the separation component (2), purification boxes (12) are installed on both sides of the magnetic disinfection component (3), a support plate (121) is installed in the middle of the purification box (12), a pressurizing component (4), a filtering component (5), and an evaporation box (6) are installed at the bottom of the support plate (121), an incineration component (7) and a heat absorbing reflux component (8) are installed above the support plate (121), the heat absorbing reflux component (8) is connected to the magnetic disinfection component (3), the input end of the pressurizing component (4) is connected to the magnetic disinfection component (3), the output end of the pressurizing component (4) is connected to the filtering component (5), the filtering component (5) is connected to the evaporation box (6), the incineration component (7) is capable of incinerating gas, and the heat absorbing reflux component (8) is capable of absorbing heat; The magnetic disinfection assembly (3) comprises a V-shaped tube (31), the upper part of the V-shaped tube (31) is connected to the air intake pipe (11), the separation assembly (2) is installed above the air intake pipe (11), a fixing platform (32) and an electromagnet (33) are installed at the bottom of the V-shaped tube (31), and a magnetic ring (34) is installed on the side of the V-shaped tube (31); When the magnetic coil (34) is energized, the strong magnetic field sterilizes and disinfects water molecules and particles in the water through magnetization. The separation assembly (2) comprises a plurality of separation tubes (21), the separation tubes (21) being respectively installed on both sides of the air intake pipe (11), an inverted V-shaped filter membrane (111) being installed inside the air intake pipe (11), the lower end of the inverted V-shaped filter membrane (111) being parallel to the separation tube (21), the downwardly inclined end of the separation tube (21) being connected to the air intake pipe (11), the other end of the separation tube (21) being installed with a collection bin (22), the bottom of the separation tube (21) being connected to the air intake pipe (11) being provided with a plurality of branch tubes (211), the connection between the branch tube (211) and the separation tube (21) being provided with a filter screen; The pressurizing component (4) comprises a pressurizing tank (41), a cylinder (42) is installed above the pressurizing tank (41), a water inlet (411) and a plurality of drainage ports (412) are provided at the bottom of the pressurizing tank (41), a piston (421) is installed at the output end of the cylinder (42), the drainage port (412) is connected to the filter component (5), the filter component (5) comprises a filter bin (51), a plurality of filter membranes are installed inside the filter bin (51), the filter membranes are installed equidistantly inside the filter bin (51), the output end of the filter bin (51) is connected to the evaporation box (6) via a one-way valve, a water inlet pipe (52) is installed above the filter bin (51), the water inlet pipe (52) is connected to the support plate (121), a conical drainage hole (1211) is provided above the support plate (121), the conical drainage hole (1211) is connected to the water inlet pipe (52); The incineration assembly (7) comprises a plurality of groups of plasma flame devices (71), the plasma flame devices (71) being equidistantly mounted on the inner wall of the purification box (12), the flame sprayed by the plasma flame devices (71) being located at the farthest point in the middle of the purification box (12), the plasma flame devices (71) being capable of incinerating the gas discharged from the evaporator, and the temperature of the plurality of groups of plasma flame devices (71) decreasing from a group close to the support plate (121) to a group at the top of the purification box (12); The heat absorption reflux assembly (8) comprises a plurality of groups of heat absorption plates (81) and a plurality of groups of water injection pipes (82); a plurality of groups of water injection pipes (82) are installed between two groups of heat absorption plates (81); the water injection pipes (82) are installed equidistantly between the heat absorption plates (81); and the water injection pipes (82) are interconnected.

2. The tail gas treatment device with purification function for glass production according to claim 1, characterized in that: A controller (122), an exhaust port (13) and a positive plate are installed above the purification box (12); one end of the controller (122) is connected to a wire, and the wire is connected to the incineration component (7); a negative ion generator (14) is installed at the bottom of the exhaust port (13); and the controller (122) is connected to the positive plate (15) and the negative ion generator (14) respectively; When the negative ion generator (14) is powered on, the negatively charged negative ions will come into contact with the neutral dust in the air, causing the neutral medium to have a negative charge, and then be adsorbed onto the positively charged plate (15); When the negatively charged dust comes into contact with the positive plate (15), the positive plate (15) generates an electric current; The controller (122) is capable of detecting the magnitude of the current of the positive plate (15).

3. The tail gas treatment device with purification function for glass production according to claim 2, characterized in that: A plurality of groups of conical holes (131) are installed between the exhaust ports (13); the end of the conical hole (131) with a larger diameter is an input end, and the end of the conical hole (131) with a smaller diameter is an output end.

4. The tail gas treatment device with purification function for glass production according to claim 3, characterized in that: A plurality of groups of heating tubes (61) are installed inside the evaporation box (6), and the heating tubes (61) are installed equidistantly inside the evaporation box (6). An exhaust pipe (62) is installed above the evaporation box (6), and an output end of the exhaust pipe (62) cooperates with an output end of the incineration component (7).

5. The tail gas treatment device with purification function for glass production according to claim 4, characterized in that: The water injection pipe (82) is connected to the V-shaped pipe (31), and a valve (83) is connected between the water injection pipe (82) and the V-shaped pipe (31).

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