TWM562292U - Ozone generation system featuring oil-removing, dust-removing and water-removing functions - Google Patents

Abstract

The utility model relates to an ozone generating system with degreasing, dust removing and water removing, which is mainly composed of an air compressor, an air filter and an ozone generator, and the structural design of the air filter makes After the gas outputted from the air compressor enters the air filter, the gas generates a plurality of different flow rates in the air filter, so that the moisture, oil, and dust particles in the gas are effectively separated. The gas which is almost free of oil-free and dust-free particles can be filtered out as a gas source for generating the ozone generator, and the ozone-generating quality of the ozone-generating system and the ozone generator life in the ozone generating system can be effectively improved. the goal of.

Description

Ozone generating system with degreasing, dedusting and water removal

The novel relates to an ozone generating system, and in particular to an ozone generating system having degreasing, dust removing and water removing.

Ozone is often used in industry and life because it is active in nature and is a powerful oxidant. It has functions such as purifying air and drinking water, sterilizing, and treating industrial waste.

Referring to Figure 1, there is shown a general industrial ozone generating system which collects and stores gas mainly by the air compressor 101, and then uses a three-point combination 102 to remove a small portion of dust, water droplets, etc. of the compressed gas. And setting the appropriate working pressure, the compressed gas is sent to the refrigerating dryer 103 for drying, so that the water vapor in the compressed gas is condensed into droplets, thereby achieving the purpose of reducing the moisture content, followed by impurities. The filter 104 performs condensed compressed gas to filter impurities, and transfers the filtered compressed gas to the gas storage cylinder 105 for storage, and then transfers the compressed gas to the adsorption air dryer 106 and the oxygen production machine (PSA) 107. Drying and purifying the compressed gas, and then passing the dried and purified compressed gas through the air precision filter 108 to filter the impurity particles, oil and gas and odor in the compressed gas to achieve the effect of purifying the gas, and then transferring to the storage tank. The storage 109 is used as a gas for ozone generation as a single-tube air-cooled ozone generator 110 or a honeycomb-type water-cooled ozone generator 111. Source, and controls the traffic flow through the flow meter 112, and 113 pairs by monitoring the ozone concentration detection and automatic compensation module. However, the industrial ozone generating system still has the following defects that need immediate improvement in actual use:

Since the service life of the single-tube air-cooled ozone generator 110 or the honeycomb water-cooled ozone generator 111 and the ozone quality generated are related to the gas source, that is, when entering the single-tube air-cooled ozone generator The purer and no impurity of the gas of the 110 or the honeycomb type water-cooled ozone generator 111, the longer the service life of the machine, the better the quality of the generated ozone, and therefore, the ozone generating system by the three-point combination 102, the refrigerating dryer 103, the filter 104, the adsorption air dryer 106, the air precision filter 108, etc. purify the gas, but in actual use, the gas purification effect is still slightly insufficient, so how to emit an ozone generating system capable of Purifying the gas entering the single-tube air-cooled ozone generator or the honeycomb-type water-cooled ozone generator will be the motivation for the new development.

The purpose of the present invention is to provide an ozone generating system having degreasing, dust removing and water removing, improving the ozone generating quality of the ozone generating system and the life of the ozone generator in the ozone generating system.

The reason is that, in order to achieve the foregoing object, an ozone generating system for degreasing, dust removing and water removal according to the present invention comprises:

An air compressor having a gas supply port for supplying a compressed gas;

An air filter comprising a filter body, a filter group, and a sleeve; wherein the filter body has an accommodating space, an air inlet finally connecting the air supply port and communicating with the accommodating space, and An air outlet connected to the accommodating space; the filter group is disposed in the accommodating space and is formed by a plurality of filter units connected in series, each filter unit comprises a connecting plate member and a first plate member And a second plate member, wherein the connecting plate member has a connecting plate portion and a connecting pipe portion protruding from the upper surface of the connecting plate portion, the connecting pipe portion having a guiding pipe extending through the connecting plate portion And a connecting ring portion protruding from the lower surface of the connecting plate portion; the first plate member has a first plate portion, a protruding surface of the first plate portion and a fixing portion of the connecting ring portion a ring portion, an extension pipe portion penetrating through the first plate portion and passing through the connection pipe portion of the other filter unit, and a plurality of pipe portions protruding from the lower plate surface of the first plate portion, each of the pipe portions having a a pipe penetrating the first plate portion, and a plurality of pipes disposed in each of the pipe portions and dividing the pipe into a first groove segment and a blocking portion of the second slot segment, and each of the blocking portions has a first through hole that communicates the first slot portion with the second slot portion; the second plate member is fixed to the upper plate surface of the first plate portion And having a sleeve hole disposed in the extension tube portion and a plurality of column portions enclosing the first groove segments, and each of the column portions has a second perforation communicating with the first groove segment; a connecting pipe portion of the connecting disc member of the last filter unit in the filtering group is connected to an air outlet of the filtering body; the sleeve is fastened to the connecting piece of the last connecting unit of the filtering unit a ring portion, and an outer diameter of the sleeve is smaller than a diameter of a connecting plate portion of a connecting disc member of the last one of the filtering units;

An ozone generator having a gas supply interface that is ultimately connected to an air outlet of the air filter.

Preferably, the second perforations of the second plate of each of the filtering units are staggered with the first perforations of the first plate.

Preferably, in the first filter unit of the filter group, the extension tube portion of the first plate member is sealed by a plug.

Preferably, the plug member has a plug portion disposed on the extension tube portion, a shielding portion covering each of the tube portions of the first plate member, and a guide recessed by the shielding portion groove.

Preferably, wherein the number of the air filters is four in series with each other, and the ozone generating system further comprises sequentially connecting the air supply port of the air compressor with the filter body of the first air filter. a three-point combination between the air inlets, a refrigerating dryer, a filter, an air reservoir, an adsorption air dryer, an oxygen generator, an air precision filter, and a storage bucket; the fourth of the air filter A flow meter is disposed between the air outlet of the filter body and the air supply interface of the ozone generator.

Preferably, wherein the number of the air filters is two, and the ozone generating system further comprises an air inlet connected to the air supply port of the air compressor and the first filter body of the air filter. a three-point combination between the first activated carbon disposed between the gas outlet of the filter body of the first air filter and the gas inlet of the filter body of the second air filter a unit, a refrigerating dryer, a second activated carbon unit, and a filter, a gas cylinder, and an adsorption type that are sequentially connected between an air outlet of the second air filter and a gas supply interface of the ozone generator Air dryers, oxygen generators, air precision filters, storage tanks, and flow meters.

Preferably, the filter body further has a discharge port located at a lowest position, and the filter group is located between the air inlet and the discharge port of the filter body.

Therefore, the present invention mainly consists of an air compressor, an air filter, and an ozone generator. The air filter is designed such that the gas output from the air compressor enters the air filter. The gas generates a plurality of different flow rates in the air filter, so that the moisture, oil, and dust particles in the gas are effectively separated, thereby achieving the effect of gas filtration, and then filtering out almost anhydrous and oil-free. And the gas of the dust particles, the gas finally flowing into the ozone generator, providing the ozone generator to generate a gas source to effectively improve the ozone generating quality of the ozone generating system and the ozone generator in the ozone generating system life.

In addition, the outer diameter of the sleeve of the air filter is smaller than the ring diameter design of the connecting disc portion of the last disc unit of the filter unit, thereby shortening the connection disc of the last filter unit. The connecting plate portion is spaced apart from the inner cylinder wall surface of the filtering body. Therefore, when the gas enters the accommodating space through the air inlet of the filtering body, the gas passes through the upper filtering space of the large space through several times smaller gaps. Flowing to the lower filtration space, the gas effectively increases the flow rate when flowing through the gap, and amplifies the slow flow when flowing through the several times of the lower filtration space, so that the moisture, oil, and dust particles in the gas The separation can be effectively separated, and the separated moisture, oil, and dust particles adhere to the inner wall surface of the filter body and flow down to achieve the effect of gas filtration.

Referring to FIG. 2 to FIG. 8 , an ozone generating system with degreasing, dust removing and water removal according to the first embodiment of the present invention is mainly composed of an air compressor 201 , an air filter 202 , and a The ozone generator 203 is composed of:

The air compressor 201 has a gas supply port 2011 for supplying a compressed gas; the air compressor is a machine for compressing air to increase the pressure of the gas.

The air filter 202 includes a filter body 300, a filter group 400, a sleeve 500, and a plug 600; wherein:

The filter body 300 has an accommodating space 301, an air inlet 302 that is connected to the air supply port 2011 and communicates with the accommodating space 301, and an air outlet 303 that communicates with the accommodating space 301. The filter body 300 is formed by a filter cylinder 304 and a filter cartridge cover 305, and a discharge port 306 is disposed at a lower portion of the filter cylinder 304. The air inlet 302 is disposed on the filter cartridge cover. On the side of the 305, the air outlet 303 is disposed above the filter cartridge cover 305.

The filter group 400 is disposed in the accommodating space 301 and is assembled in series by three filter units 10A, 10B, and 10C, and the filter group 400 is located at the air inlet 302 of the filter body 300 and discharged. Each of the filter units 10A, 10B, and 10C includes a connecting plate member 20, a first plate member 30, and a second plate member 40. Referring to FIG. 3, the present embodiment The filter unit 10C combined with the filter cartridge cover 305 is the last filter unit 10C, and is sequentially the second filter unit 10B and the first filter unit 10A, and the following is the last filter unit 10C for explanation. ,among them:

The connecting plate member 20 has a connecting plate portion 21 and a connecting pipe portion 22 protruding from the upper surface of the connecting plate portion 21. The connecting pipe portion 22 has a guiding duct 221 extending through the connecting plate portion 21, and A connecting ring portion 23 protruding from the lower surface of the connecting plate portion 21.

The first plate member 30 has a first plate portion 31 , a ring portion 32 protruding from the upper surface of the first plate portion 31 and fixed to the connecting ring portion 23 , and a first plate portion 31 extending through the first plate portion 31 . And an extension pipe portion 33 through which the connection pipe portion 22B of the other filter unit 10B is disposed, and a plurality of pipe portions 34 protruding from the lower plate surface of the first plate portion 31, each of the pipe portions 34 having a penetrating portion a pipe 35 of a plate portion 31, and a plurality of blocking portions 36 which are disposed in each of the pipe portions 34 and divide the pipe 35 into a first groove segment 351 and a second groove segment 352, and each of the blocking portions 36 has a The first slot segment 351 is in communication with the second slot segment 352.

The second plate member 40 is fixed to the upper plate surface of the first plate portion 31 and has a sleeve hole 41 disposed in the extension pipe portion 33 and a plurality of the first groove segments 351. a column portion 42 and each of the column portions 42 has a second through hole 421 communicating with the first groove portion 351; the second plate member 40 further has a ring portion 32 fixed to the ring portion 32 of the first plate member 30. a circumferential portion 43 of the surface, and the ring end surface 431 of the surrounding portion 43 is airtight with the lower surface of the connecting plate portion 21 of the connecting plate member 20; in this embodiment, the second through hole 421 of the second plate member 40 and the first portion The first through holes 361 of the plate member 31 are staggered.

The connecting pipe portion 22 of the connecting plate member 20 of the last filter unit 10C of the filtering group 400 is connected to the air outlet 303 of the filter body 300, and the last connecting plate member of the filtering unit 10C is connected. The ring diameter 211 of the land portion 21 of the 20 is larger than the ring diameters 211A, 211B of the land portions 21A, 21B of the lands 20A, 20B of the first filter unit 10A and the second filter unit 10B.

The sleeve 500 is sleeved on the connecting ring portion 23 of the connecting plate member 20 of the last filter unit 10C, and the outer diameter 501 of the sleeve 500 is smaller than the connecting plate member 20 of the last one of the filtering units 10C. Connecting the ring diameter 211 of the disk portion 21 such that the distance between the sleeve 500 and the filter cylinder 304 is greater than the distance between the land portion 21 of the connecting plate member 20 of the last filter unit 10C and the filter cartridge 304 In the present embodiment, the sleeve 500 is sleeved to shield the first filter unit 10A and the second filter unit 10B.

The plug 600 has a plug portion 601 disposed on the extension tube portion 33A of the first filter unit 10A, a shield portion 602 covering the tube portion 34A of the first plate member 30A, and a cover portion 602 The shielding groove 602 is recessed by the guiding groove 603.

The ozone generator 203 has a gas supply interface 2031 that connects to the air outlet 303 of the air filter 202.

The above description is the structure and configuration description of each main component of the first embodiment of the present invention. As for the efficacy of the actuation mode of the present embodiment, the following description will be made.

When the air compressor 201 outputs the compressed air to the inside of the air filter 202 via the air supply port 2011, the filtering path of the gas inside the air filter 202 is roughly divided into an upper layer filtering process and a lower layer filtering process. And the filtering process of each of the filtering units 10A, 10B, and 10C, as shown in FIG. 5 and FIG. among them:

The upper layer filtering treatment: since the ring diameter 211 of the connecting disc portion 21 of the connecting disc member 20 of the last filter unit 10C of the present invention is larger than the outer diameter 501 of the sleeve 500, the last filter is shortened. The connecting plate portion 21 of the connecting plate member 20 of the clean unit 10C is spaced from the inner cylinder wall surface of the filter cylinder 304 by a gap S. Therefore, when the gas enters the accommodating space 301 via the air inlet 302 of the filter body 300, the The gas flows from the upper layer filtering space of the large space to the lower layer filtering space via the multiple smaller gap S, and the upper layer filtering space and the lower layer filtering space are the connecting plate portion of the connecting disk member 20 of the last one of the filtering unit 10C. 21 is distinguished by the boundary. At this time, the gas effectively increases the flow velocity when flowing through the gap S, and amplifies the slow flow when flowing through the several times of the lower filtration space, so that the moisture, oil, and dust in the gas are made. The particles are effectively separated, and the separated moisture, oil, and dust particles adhere to the inner wall surface of the filter body 304 and flow down to achieve gas filtration.

The lower layer filtering treatment: when the gas passes through the gap S and flows through the lower layer filtering space and before entering the filtering unit, part of the moisture, oil, and dust particles in the gas are separated again and adhered to the filter cylinder. The inner cylinder wall surface of 304 and the inner and outer tube wall surfaces of the sleeve 500.

The filtering unit is configured to filter: when the gas flows through the respective filtering units 10A, 10B, and 10C through the lower layer filtering treatment, the gas passes through the second groove segment 352 of the first plate member 30, and the number of times of the plurality of paths a through hole 361, a first groove segment 352, a plurality of second diameter holes 421, and a large multiple space of the space between the connecting plate member 20 and the second plate member 40 are enlarged and tempered, and the gas is continuously During the flow of a plate member 30 and the second plate member 40, the gas flow rate is different from the second groove segment 352, the first through hole 361, the first groove segment 351, and the second through hole 421. The water, oil, and dust particles are effectively separated to achieve gas filtration, and the gas is almost free of oil-free and dust-free particles.

Accordingly, the present invention provides an ozone generating system having degreasing, dedusting and water removal, wherein in the field of ozone generating systems, the gas output from the air compressor 201 is specifically entered by the structural design of the air filter 202. After the air filter 202, the gas generates a plurality of different flow rates in the air filter 202, so that the moisture, oil, and dust particles in the gas are effectively separated, and the water is filtered out almost without water. The gas of oil-free and dust-free particles serves as a gas source for generating the ozone generator 203, and can effectively achieve the purpose of improving the ozone-generating quality of the ozone-generating system and the life of the ozone generator in the ozone generating system.

It is worth noting that the present invention provides an ozone generating system with degreasing, dedusting and water removal, wherein the air filter 202 is designed to filter out almost anhydrous oil-free and dust-free gas. Shown, is a test report from the German IUTA on the actual application of this application, and the model product of DO900S, and the compressed air separator approved according to ISO 12500-3:2009 and ISO 12500-4:2009 standards. Each of the photographs in the second attachment is a partial exploded view and a partial enlarged view of the DO900S test product, and the photograph is the same as that of Figs. 3 to 6 of the present invention, and also has the last connecting portion of the connecting disc member 20 of the filter unit 10C. The ring diameter 211 of 21 is larger than the outer diameter 501 of the sleeve 500, and the gap between the land portion 21 of the connecting disc member 20 of the last filter unit 10C and the inner cylinder wall surface of the filter body 300 is shortened. Structural features of S. It can be clearly seen from the test report in Annex I that the water removal rate has an efficiency of up to 99.9999%, and the dust particles have a maximum of 99.81% when the size is between 1.15 (μm) and 1.78 (μm). The removal rate is as high as 100% when the dust particle size is between 1.78 (μm) and 2.74 (μm).

It is worth mentioning that, as can be easily seen from the above description, the structural design of the novel does not require the use of any substance, such as cloth, paper, porous porcelain or a layer of charcoal sand to make the filter material to contain impurities in the gas. Separate.

Referring to FIG. 9, a second embodiment of the present invention provides an ozone generating system with degreasing, dust removing and water removal, which is also composed of an air compressor 201, an air filter 202, and an ozone generator 203. Since its configuration and function are the same as those of the first embodiment, it will not be described again. The difference between the second embodiment lies in:

The ozone generator 203 is a single-tube air-cooled ozone generator 203 or a honeycomb-type water-cooled ozone generator 203A. The number of the air filters 202 is four in series with each other, and the ozone generating system further includes sequentially connecting the air supply port provided in the air compressor 201 and the filter body 300 of the first air filter 202. a three-point combination 204 between the air inlets 302, a refrigerating dryer 205, an impurity filter 206, an air reservoir 207, an adsorption air dryer 208, an oxygen generator 209, an air precision filter 210, and a storage tank 211; A flow meter 212 is disposed between the air outlet 303 of the filter body 300 of the air filter 202 and the air supply interface 2031 of the ozone generator 203. The flow meter 212 is further provided by the combination. The generator 203 generates a degree of purification of the desired gas source, which does achieve the purpose of improving the quality of ozone generated by the ozone generating system and the life of the ozone generator in the ozone generating system.

Referring to FIG. 10, a third embodiment of the present invention provides an ozone generating system with degreasing, dust removing and water removal, which is also composed of an air compressor 201, an air filter 202, and an ozone generator 203. Since its configuration and function are the same as those of the first embodiment, it will not be described again. The difference in the third embodiment lies in:

The ozone generator 203 is a single-tube air-cooled ozone generator 203 or a honeycomb-type water-cooled ozone generator 203A. The number of the air filters 202 is two, and the ozone generating system further includes an air inlet 302 that communicates with the air supply port of the air compressor 201 and the first filter body 300 of the air filter 202. The three-point combination 204 is in communication with the air outlet 303 of the filter body 300 of the first air filter 202 and the air inlet 302 of the filter body 300 of the second air filter 202. The first activated carbon unit 213, the refrigerating dryer 205, the second activated carbon unit 214, and the gas source 303 disposed in the second air filter 202 and the gas source of the ozone generator 203 are sequentially connected. The impurity filter 206, the air reservoir 207, the adsorption air dryer 208, the oxygen generator 209, the air precision filter 210, the storage tank 211, and the flow meter 212 between the supply interfaces 2031 can be further combined by the above combination Increasing the degree of purification into the ozone generator 203 to generate the desired gas source does achieve the purpose of improving the quality of ozone generated by the ozone generating system and the life of the ozone generator in the ozone generating system.

In view of the above, the above embodiments and drawings are only preferred embodiments of the present invention, and should not be limited to the scope of the present invention, the equivalent changes and modifications according to the scope of the novel application should be It is within the scope of this new patent.

[知知]
101‧‧‧Air compressor
102‧‧‧ three-point combination
103‧‧‧Freezer dryer
104‧‧‧ impurity filter
105‧‧‧ gas storage cylinder
106‧‧‧Adsorption air dryer
107‧‧‧Oxygen machine
108‧‧‧Air precision filter
109‧‧‧ barrel storage
110‧‧‧Single-tube air-cooled ozone generator
111‧‧‧Hive-type water-cooled ozone generator
112‧‧‧ Flowmeter
113‧‧‧Monitoring module
[This new type]
201‧‧‧Air compressor
2011‧‧‧ gas supply port
202‧‧‧Air filter
203, 203A‧‧Ozone generator
2031‧‧‧Air supply interface
204‧‧‧Three-point combination
205‧‧‧Freezer dryer
206‧‧‧ impurity filter
207‧‧‧ air reservoir
208‧‧‧Adsorption air dryer
209‧‧‧Oxygen machine
210‧‧‧Air precision filter
211‧‧‧ storage bucket
212‧‧‧ Flowmeter
213‧‧‧First activated carbon unit
214‧‧‧Second activated carbon unit
300‧‧‧Filter body
301‧‧‧ accommodating space
302‧‧‧air inlet
303‧‧‧ air outlet
304‧‧‧Filter cartridge
305‧‧‧Filter cartridge cover
306‧‧‧Drainage
400‧‧‧Filter group
10A, 10B, 10C‧‧‧ filter unit
20, 20A, 20B‧‧‧ connected disk
21‧‧‧Connected disk
211, 211A, 211B‧‧‧ ring diameter
22, 22B‧‧‧Connected pipe department
221‧‧‧ Guided pipeline
23‧‧‧Connecting ring
30‧‧‧First board
31‧‧‧First Board
32‧‧‧ Ring Department
33‧‧‧Extension tube
34‧‧‧ Department of Management
35‧‧‧ Pipes
351‧‧‧first slot
352‧‧‧Second trough section
36‧‧‧Barrier
361‧‧‧First perforation
40‧‧‧Second board
41‧‧‧Set holes
42‧‧‧ Column
421‧‧‧Second perforation
43‧‧‧ Surrounding
431‧‧‧ ring end face
500‧‧‧ casing
501‧‧‧Outer diameter
600‧‧‧ plugs
601‧‧・塞塞
602‧‧‧Shielding
603‧‧‧ guiding slot
S‧‧‧ gap

Figure 1 is a schematic illustration of a conventional ozone generating system. Figure 2 is a block diagram of the system of the first embodiment of the present invention. Figure 3 is an exploded perspective view of the first embodiment of the present invention showing the exploded state of the air filter. Fig. 4 is a sectional view showing the combination of the first embodiment of the present invention, showing the sectional state of the air filter. Figure 5 is a combined cross-sectional view of the first embodiment of the present invention showing another cross-sectional view of the air filter. Fig. 6 is a partial enlarged view of Fig. 5; Figure 7 is a perspective partial cross-sectional view showing the first embodiment of the present invention, showing a partial cross-sectional state of the filter group. Fig. 8 is an exploded perspective view showing the first embodiment of the present invention, showing the exploded state of the filter group. Figure 9 is a schematic view of the system of the second embodiment of the present invention. Figure 10 is a schematic view of the system of the third embodiment of the present invention.

Attachment: Annex I: German IUTA test report of the actual application of this application, and the model product of DO900S. Annex 2: Partial exploded view and partial enlarged view of the DO900S test product, indicating that the photo is the same as FIG. 3 to FIG. 6 of the present invention.

Claims (7)

An ozone generating system for degreasing, dedusting and removing water comprises: an air compressor having a gas supply port for supplying a compressed gas; an air filter comprising a filter body, a filter group, and a casing The filter body has an accommodating space, an air inlet that is connected to the air supply port and communicates with the accommodating space, and an air outlet that communicates with the accommodating space; the filter group is disposed in the accommodating space The space is divided into a plurality of filter units, each of the filter units includes a connecting plate member, a first plate member, and a second plate member, wherein the connecting plate member has a connecting plate portion a connecting pipe portion protruding from the upper surface of the connecting plate portion, the connecting pipe portion having a guiding pipe extending through the connecting plate portion and a connecting ring portion protruding from the lower surface of the connecting plate portion; The plate member has a first plate portion, a ring portion protruding from the upper plate portion of the first plate portion and fixed to the connecting ring portion, a penetrating through the first plate portion and providing another filtering unit An extension pipe portion through which the connecting pipe portion is disposed, and a plurality of protruding pipe portions protruding from the lower plate surface of the first plate portion a pipe portion, each of the pipe portions having a pipe extending through the first plate portion, and a plurality of blocks disposed in each of the pipe portions and dividing the pipe into a first groove segment and a second groove segment, and each of the pipes The first plate has a first through hole communicating with the second groove portion; the second plate member is fixed on the upper plate surface of the first plate portion, and has a set of the tube disposed on the extending portion a hole, and a plurality of column portions of each of the first groove segments, and each of the column portions has a second perforation communicating with the first groove segment; and the last filter unit in the filtering group The connecting pipe portion of the connecting plate member is connected to the air outlet of the filter body; the sleeve is sleeved on the connecting ring portion of the connecting plate member of the last filter unit, and the outer diameter of the sleeve is smaller than The ring diameter of the connecting plate portion of the last disk unit of the filter unit; and an ozone generator having a gas supply interface for finally connecting the air outlet of the air filter. The ozone de-oiling system for removing oil, dust and water according to claim 1, wherein the second perforations of the second plate of each of the filtering units are staggered with the first perforations of the first plate. The ozone de-oiling system for degreasing, dedusting and dewatering according to claim 1, wherein the first filter unit of the filter group is provided with a plug portion of the first plate member. Seal. An ozone generating system for degreasing, dedusting and water removal according to claim 3, wherein the plug has a plug portion provided in the extension pipe portion, and a cover covering the pipe portion of the first plate member a blocking portion and a guiding groove recessed by the shielding portion. An ozone generating system for degreasing, dedusting and water removal according to claim 1, wherein the number of the air filters is four in series with each other, and the ozone generating system further comprises sequentially connecting the air compressors. Three-point combination between the air supply port and the air inlet of the first filter body of the air filter, a refrigerating dryer, an impurity filter, an air reservoir, an adsorption air dryer, an oxygen generator, and an air precision a filter and a storage tank; a flow meter is connected between the air outlet of the filter body of the fourth air filter and the air supply interface of the ozone generator. An ozone generating system for degreasing, dedusting and water removal according to claim 1, wherein the number of the air filters is two, and the ozone generating system further comprises a gas supply port connected to the air compressor. a three-point combination between the air inlets of the filter body of the first air filter, a sequential communication between the air outlet of the filter body of the first air filter and the second air filter a first activated carbon unit between the air inlets of the filter body, a refrigerating dryer, a second activated carbon unit, and sequentially connected to an air outlet of the second air filter and the ozone generator Impurity filter, air reservoir, adsorption air dryer, oxygen generator, air precision filter, storage tank, and flow meter between gas supply interfaces. The ozone de-oiling system for removing oil, dust and water according to claim 1, wherein the filter body further has a discharge port at a lowest position, and the filter group is located at an air inlet and a discharge port of the filter body. between.