Novel ozone generator

Abstract

The utility model provides a novel ozone generator which comprises a plurality of discharge unit groups, a first gas cavity and a second gas cavity, gas circulation ports are arranged on the first gas cavity and the second gas cavity, each discharge unit group comprises a plurality of tubular discharge units, and discharge gaps are arranged in the tubular discharge units. Each discharge unit group also comprises a cooling cylinder, and the cooling cylinder is arranged outside the discharge unit group in a sleeving manner; the cooling system further comprises a first cooling liquid tank and a second cooling liquid tank, a first cooling liquid inlet and outlet is formed in the first cooling liquid tank, and a second cooling liquid inlet and outlet is formed in the second cooling liquid tank. The two end parts of the cooling cylinder are respectively communicated with the two cooling liquid tanks; the first air cavity is arranged on the outer side of the first cooling liquid tank, the second air cavity is arranged on the outer side of the second cooling liquid tank, the two cooling liquid tanks and the two air cavities are separated and sealed by two partition plates, and two end parts of the discharge unit extend to the corresponding first air cavity and the second air cavity.

Description

TECHNICAL FIELD

[0001] The utility model belongs to the field of disinfection equipment, especially relates to a novel ozone generator. BACKGROUND

[0002] The existing large ozone generator usually contains one or several discharge units connected in sequence with air inlet cavity, cooling chamber and air outlet cavity, the air inlet cavity and the cooling chamber, the cooling chamber and the air outlet cavity are separated and sealed by the partition, the two ends of the discharge unit extend into the air inlet cavity and the air outlet cavity, the cooling liquid in the cooling chamber is circulated and stored for cooling the discharge unit, in general, all the discharge units in the ozone generator are in the cooling chamber and cooled by the cooling water in the cooling chamber, when the ozone generator contains a large number of discharge units, the large number of discharge units are densely arranged in the cooling chamber, which can cause uneven flow of the cooling water around the discharge units, resulting in poor heat dissipation effect, especially the heat dissipation effect of the discharge units in the central position is poor, which can cause low ozone concentration in the generated gas, especially when the large ozone generator contains a large number of discharge units, the problems of uneven cooling water and low heat dissipation efficiency are particularly prominent, therefore, an ozone generator with uniform water distribution and high heat dissipation efficiency is needed to meet the actual needs.

[0003] The utility model aims at providing an ozone generator which can overcome the above technical problems and improve the heat dissipation effect and the ozone concentration in the generated gas. SUMMARY

[0004] The utility model discloses a novel ozone generator which has the advantages of high heat dissipation efficiency and high ozone concentration in the generated gas.

[0005] To achieve the above object, the utility model adopts the technical scheme of

[0006] The utility model provides a novel ozone generator, contain a plurality of discharge unit group, first gas cavity and second gas cavity, first gas cavity and second gas cavity are provided with gas flow passageway, every discharge unit group contains a plurality of tubular discharge unit, the tubular discharge unit has discharge gap in, it is characterized in being that: every discharge unit group still contains a cooling cylinder 1, the cooling cylinder is sleeved in the outside of discharge unit group, still contains first cooling liquid tank and second cooling liquid tank, first cooling liquid tank is provided with cooling liquid first inlet and outlet, and second cooling liquid tank is provided with cooling liquid second inlet and outlet, the both ends of cooling cylinder are communicated with first cooling liquid tank and second cooling liquid tank respectively, first gas cavity is located the outside of first cooling liquid tank, and second gas cavity is located the outside of second cooling liquid tank, first cooling liquid tank and first gas cavity are sealed by first partition, second cooling liquid tank and second gas cavity are sealed by second partition, the both ends of discharge unit respectively pass through the both ends of cooling cylinder, first cooling liquid tank, second cooling liquid tank, first partition and second partition and extend to corresponding first gas cavity and second gas cavity, and the discharge gap of discharge unit is communicated with first gas cavity and second gas cavity.

[0007] In order to better technical effect, the technical scheme of the ozone generator of the utility model can still be specifically the following technical features:

[0008] 1. The first end portion 11 of the cooling cylinder is provided with a cooling liquid first flow passageway in communication with the first cooling liquid tank, and the second end portion of the cooling cylinder is provided with a cooling liquid second flow passageway in communication with the second cooling liquid tank.

[0009] 2. The first end portion 11 of the cooling cylinder is located in the first cooling liquid tank, and the second end portion of the cooling cylinder is located in the second cooling liquid tank.

[0010] 3. The cooling liquid first flow passageway is arranged on the side surface of the first end portion of the cooling cylinder or the end surface of the first end portion of the cooling cylinder, and the cooling liquid second flow passageway is arranged on the side surface of the second end portion of the cooling cylinder or the end surface of the second end portion of the cooling cylinder.

[0011] 4. The first end portion of the cooling cylinder is close to the first partition, and the second end portion of the cooling cylinder is close to the second partition.

[0012] 5. The first partition is provided with a discharge unit first mounting hole, and the second partition is provided with a discharge unit second mounting hole; the two ends of the discharge unit pass through the discharge unit first mounting hole and the discharge unit second mounting hole respectively, and the outer wall of the discharge unit is sealed between the discharge unit first mounting hole and the discharge unit second mounting hole.

[0013] 6. The first partition is provided with a first mounting hole of a discharge unit group, the second partition is provided with a second mounting hole of a discharge unit group, the two ends of each discharge unit group are respectively provided with a first discharge unit fixing disc and a second discharge unit fixing disc, the two ends of the discharge unit respectively pass through the first discharge unit fixing disc and the second discharge unit fixing disc, the outer wall of the discharge unit is sealed between the first discharge unit fixing disc and the second discharge unit fixing disc, the first discharge unit fixing disc is mounted at the first mounting hole of the discharge unit group, and the first discharge unit fixing disc is sealed with the first mounting hole of the discharge unit group; the second discharge unit fixing disc is mounted at the second mounting hole of the discharge unit group, and the second discharge unit fixing disc is sealed with the second mounting hole of the discharge unit group.

[0014] 7. The first partition is provided with a first mounting hole of a discharge unit group, the second partition is provided with a second mounting hole of a discharge unit group, the two ends of each discharge unit group are respectively provided with a first discharge unit fixing disc and a second discharge unit fixing disc, the two ends of the discharge unit respectively pass through the first discharge unit fixing disc and the second discharge unit fixing disc, the outer wall of the discharge unit is sealed between the first discharge unit fixing disc and the second discharge unit fixing disc, the first discharge unit fixing disc and the second discharge unit fixing disc are respectively mounted at the two ends of the cooling cylinder, and the first discharge unit fixing disc and the second discharge unit fixing disc are sealed with the cooling cylinder.

[0015] 8. Further comprising an outer cylinder, the two ends of the outer cylinder are respectively sealed and connected with the first cooling liquid tank and the second cooling liquid tank, and the cooling cylinder is located in the outer cylinder.

[0016] 9. The outer cylinder is provided with a fluid first inlet and outlet and a fluid second inlet and outlet.

[0017] The ozone generator using the technical scheme has the following advantages:

[0018] 1. By arranging the cooling cylinder and the cooling liquid tank, the two ends of each cooling cylinder are connected with the cooling liquid tank, each cooling cylinder forms a cooling cavity to cool the discharge unit inside, the heat dissipation effect of the discharge unit in each cooling cylinder is basically the same, and the problem of poor heat dissipation effect caused by uneven water distribution in a large cooling chamber is avoided.

[0019] 2. The cooling liquid independently dissipates heat in each small cooling cylinder, the flow rate of the cooling liquid can be adjusted to quickly dissipate heat of the discharge unit, improve the heat dissipation effect of the equipment, and significantly improve the ozone concentration in the output gas.

[0020] 3. The discharge unit adopts a modular structure, each discharge unit group corresponds to a cooling cylinder, facilitating large-scale production and installation, improving production efficiency and reducing production cost.

[0021] 4. The oxygen cavity and the ozone chamber respectively comprise a plurality of sub-chambers, each of which is in communication with one or a plurality of discharge unit groups of the cooling cylinder, each sub-chamber can be independently powered and supplied with gas, the ozone output of the ozone generator can be adjusted by controlling the operation of each discharge unit group, while simplifying the power supply structure, reducing the total voltage requirement of the power supply, and reducing equipment investment and operating cost. BRIEF DESCRIPTION OF DRAWINGS

[0022] As Figure 1 shown is a cross-sectional view of an existing ozone generator

[0023] Figure 2 is a front view of the first embodiment of the novel ozone generator according to the technical scheme of the present application

[0024] Figure 3 is Figure 2 A-A view of the ozone generator

[0025] Figure 4 is a second embodiment of the novel ozone generator according to the technical scheme of the present application

[0026] Figure 5 is a third embodiment of the novel ozone generator according to the technical scheme of the present application

[0027] Figure 1 In the figure, 100 is an ozone generator, 101 is a cooling chamber, 51 is a discharge unit, and 6 is a supporting leg.

[0028] Figures 2-4 In the figure, 100 is an ozone generator, 1 is a cooling cylinder, 11 is a first end of the cooling cylinder, 12 is a second end of the cooling cylinder, 21 is a first cooling liquid tank, 211 is a first cooling liquid inlet and outlet, 22 is a second cooling liquid tank, 221 is a second cooling liquid inlet and outlet, 31 is a first gas cavity, 311 is a first gas flow port, 32 is a second gas cavity, 321 is a second gas flow port, 41 is a first partition, 411 is a first mounting hole of the discharge unit group, 42 is a second partition, 421 is a second mounting hole of the discharge unit group, 5 is a discharge unit group, 51 is a discharge unit, 52 is a first fixing disc of the discharge unit, 53 is a second fixing disc of the discharge unit, 7 is an outer cylinder body, 71 is a first fluid inlet and outlet of the outer cylinder body, and 72 is a second fluid inlet and outlet of the outer cylinder body

[0029] As Figure 1As shown in the cross-sectional view of the existing ozone generator 100, containing a cooling chamber 101 and several discharge units 51 passing through the cooling chamber, all the discharge units 51 are concentrated in one cooling chamber, cooled by the cooling liquid in the same cooling chamber 101, and the cooling liquid in the cooling chamber 101 is cooled by the cooling liquid in the cooling chamber 101. Figure 1 It can be seen that when the ozone generator contains a large number of discharge units 51, the heat dissipation effect of the discharge units closer to the center position is poorer, resulting in low ozone discharge efficiency, high operating cost, and low ozone concentration in the output gas. DETAILED DESCRIPTION

[0030] In order to better understand the technical scheme of the present application, the following will be described in conjunction with the accompanying drawings Figures 2-5 The three embodiments of the technical scheme of the present application are further described. Obviously, the described embodiments are part of the embodiments of the present application, rather than all the embodiments. Based on the embodiments in the present application, all other embodiments obtained by those skilled in the art without creative labor fall within the scope of protection of the present application.

[0031] Embodiment one

[0032] As shown in the cross-sectional view of the existing ozone generator 100, containing a cooling chamber 101 and several discharge units 51 passing through the cooling chamber, all the discharge units 51 are concentrated in one cooling chamber, cooled by the cooling liquid in the same cooling chamber 101, and the cooling liquid in the cooling chamber 101 is cooled by the cooling liquid in the cooling chamber 101. Figures 2-3 As shown in the cross-sectional view of the existing ozone generator 100, containing a cooling chamber 101 and several discharge units 51 passing through the cooling chamber, all the discharge units 51 are concentrated in one cooling chamber, cooled by the cooling liquid in the same cooling chamber 101, and the cooling liquid in the cooling chamber 101 is cooled by the cooling liquid in the cooling chamber 101.

[0033] As shown in the cross-sectional view of the existing ozone generator 100, containing a cooling chamber 101 and several discharge units 51 passing through the cooling chamber, all the discharge units 51 are concentrated in one cooling chamber, cooled by the cooling liquid in the same cooling chamber 101, and the cooling liquid in the cooling chamber 101 is cooled by the cooling liquid in the cooling chamber 101. Figures 2-3 As shown in the cross-sectional view of the existing ozone generator 100, containing a cooling chamber 101 and several discharge units 51 passing through the cooling chamber, all the discharge units 51 are concentrated in one cooling chamber, cooled by the cooling liquid in the same cooling chamber 101, and the cooling liquid in the cooling chamber 101 is cooled by the cooling liquid in the cooling chamber 101.

[0034] The two ends of the discharge unit 51 respectively pass through the two ends of the cooling cylinder 1, the first cooling liquid tank, the second cooling liquid tank 22, the first partition plate 41 and the second partition plate 42 and extend to the corresponding first air cavity 31 and second air cavity 32, and the discharge gap of the discharge unit communicates with the corresponding first air cavity 31 and second air cavity 32.

[0035] Specifically, in the present embodiment, the first partition plate 41 is provided with a discharge unit group first mounting hole 411, and the second partition plate 42 is provided with a discharge unit group second mounting hole 421, and the number of the discharge unit group first mounting hole 411 and the discharge unit group second mounting hole 421 is equal to the number of the cooling cylinder 1 and one-to-one correspondence. The two ends of each discharge unit group 5 are respectively provided with a discharge unit first fixing disc 52 and a discharge unit second fixing disc 53, the two ends of the discharge unit respectively pass through the discharge unit first fixing disc 52 and the discharge unit second fixing disc 53, and the outer wall of the discharge unit 51 is sealed between the discharge unit first fixing disc 52 and the discharge unit second fixing disc 53, the discharge unit first fixing disc 52 is installed at the discharge unit group first mounting hole 411, and the discharge unit first fixing disc 52 is sealed between the discharge unit first fixing disc 52 and the discharge unit group first mounting hole 411, the discharge unit second fixing disc 53 is installed at the discharge unit group second mounting hole 421, and the discharge unit second fixing disc 53 is sealed between the discharge unit second fixing disc 53 and the discharge unit group second mounting hole 421. A discharge unit mounting hole is provided on each discharge unit fixing disc, and the two ends of the discharge unit 51 respectively pass through the discharge unit mounting hole on the discharge unit first fixing disc 52 and the discharge unit second fixing disc 53 and extend to the corresponding first air cavity 31 and second air cavity 32, and the discharge gap of the discharge unit communicates with the corresponding first air cavity and second air cavity.

[0036] In the present embodiment, the discharge unit first fixing disc 52 and the discharge unit second fixing disc 53 are respectively inlaid in the discharge unit group first mounting hole 411 and the discharge unit group second mounting hole 421, and the outer periphery of the discharge unit first fixing disc 52 and the discharge unit second fixing disc 53 is sealed between the corresponding discharge unit group hole mounting hole.

[0037] As shown in Figure 3 The two ends 11, 12 of the cooling cylinder 1 respectively communicate with the first cooling liquid tank and the second cooling liquid tank and are sealed at the connection. In the present embodiment, the two ends of the cooling cylinder 1 and the first cooling liquid tank and the second cooling liquid tank can be fixedly and sealingly connected by welding. In actual application, the connection of the cooling cylinder 1 and the first cooling liquid tank and the second cooling liquid tank can be adhesive connection or other fastening connection or detachable sealing connection.

[0038] The first end 11 of the cooling cylinder is provided with a cooling cylinder first flow-through port 111 in communication with the first cooling liquid tank 21, and the second end of the cooling cylinder is provided with a cooling cylinder second flow-through port 121 in communication with the second cooling liquid tank 22.

[0039] In the embodiment, the two end faces of the cooling cylinder 1 are open, serving as the cooling liquid first flow-through port 111 and the cooling liquid second flow-through port 121 in communication with the corresponding cooling tank. The cooling liquid first inlet and outlet, the first cooling liquid tank, the cooling cylinder, the second cooling liquid tank, and the cooling liquid second inlet and outlet constitute a cooling liquid flow channel.

[0040] In actual application, the two ends 11 and 12 of the cooling cylinder 1 can also extend into the two cooling liquid tanks 21 and 22 and be close to the first partition plate 41 and the second partition plate 42 respectively, and the cooling cylinder first flow-through port and the cooling cylinder second flow-through port are respectively in the first cooling liquid tank and the second cooling liquid tank. The two end faces of the cooling cylinder are open, serving as the cooling liquid first flow-through port 111 and the cooling liquid second flow-through port 121 in communication with the corresponding cooling tank. Alternatively, a plurality of through holes are formed on the side faces of the two ends of the cooling cylinder 1, serving as the cooling cylinder first flow-through port 111 and the cooling cylinder second flow-through port 121. Alternatively, the side faces and the end faces of the two ends of the cooling cylinder are provided with flow-through ports. The technical means of forming through holes on the side faces of the two ends of the cylinder body to serve as fluid flow-through ports is a known technology, which will not be described and illustrated in detail herein.

[0041] Alternatively, further, the two ends 11 and 12 of the cooling cylinder 1 extend into the first cooling liquid tank and the second cooling liquid tank and continue to extend into the discharge unit group second mounting hole 421 arranged on the first mounting hole 411 and the second partition plate 42 of the discharge unit group respectively, the outer wall of the cooling cylinder is sealed with the discharge unit group first mounting hole and the discharge unit group second mounting hole, the two ends of each discharge unit group are respectively provided with a discharge unit first fixing disc and a discharge unit second fixing disc, the two ends of the discharge unit respectively pass through the discharge unit first fixing disc and the discharge unit second fixing disc, the outer wall of the discharge unit is sealed with the discharge unit first fixing disc and the discharge unit second fixing disc, and the discharge unit first fixing disc and the discharge unit second fixing disc are arranged at the two ends of the cooling cylinder, and the discharge unit first fixing disc and the discharge unit second fixing disc are sealed with the cooling cylinder.

[0042] A plurality of through holes are formed on the side faces of the two ends of the cooling cylinder 1, serving as the cooling cylinder first flow-through port 111 and the cooling cylinder second flow-through port 121, and the cooling cylinder first flow-through port 111 and the cooling cylinder second flow-through port 121 are respectively in the first cooling liquid tank 21 and the second cooling liquid tank 22. The technical means of forming through holes on the side faces of the two ends of the cylinder body to serve as fluid flow-through ports is a known technology, which will not be described and illustrated in detail herein.

[0043] In the embodiment, the cooling cylinder and the cooling liquid tank are arranged, two ends of each cooling cylinder are connected with the cooling liquid tank, each cooling cylinder forms a cooling cavity to cool the internal discharge unit, the discharge units in each cooling cylinder have basically the same heat dissipation effect, and the problem that the discharge units close to the center position have poor heat dissipation effect due to uneven water distribution caused by dense arrangement of a large number of discharge units in the large cooling chamber is avoided.

[0044] In addition, in the utility model, the cooling liquid circulates in each small cooling cylinder, each discharge unit group is independently cooled, the cooling liquid flow rate can be adjusted to quickly cool the discharge units in each discharge group, the heat dissipation effect of the discharge units is improved, and the ozone concentration in the output gas is significantly improved.

[0045] Embodiment two

[0046] As shown in Figure 4 It is a second embodiment of a novel ozone generator according to the technical scheme of the utility model.

[0047] The second embodiment of the novel ozone generator according to the technical scheme of the utility model is briefly described below. Figure 4 The second embodiment of the novel ozone generator according to the technical scheme of the utility model is briefly described below.

[0048] As shown in Figure 4 The ozone generator 100 according to the technical scheme of the utility model comprises a plurality of discharge unit groups 5, a first gas cavity 31 and a second gas cavity 32, a first gas flow port 311 and a second gas flow port 321 are arranged on the first gas cavity 31 and the second gas cavity 32 respectively, each discharge unit group 5 comprises a plurality of tubular discharge units 51, the tubular discharge units have discharge gaps (not shown in the figure), each discharge unit group further comprises a cooling cylinder 1, and all the cooling cylinders 1 are parallel to each other; the cooling cylinder 1 is sleeved outside the discharge unit group 5; a first cooling liquid tank 21 and a second cooling liquid tank 22 are further comprised, a cooling liquid first inlet and outlet 211 is arranged on the first cooling liquid tank, and a cooling liquid second inlet and outlet 221 is arranged on the second cooling liquid tank; two ends of the cooling cylinder 1 are communicated with the two cooling liquid tanks respectively and are sealed at the connecting positions;

[0049] The first cooling liquid tank 21 and the first gas cavity 31 are sealed and separated by a first partition plate 41, the second cooling liquid tank 22 and the second gas cavity 32 are sealed and separated by a second partition plate 42, two ends of the discharge unit 51 pass through two ends of the cooling cylinder 1, the first cooling liquid tank and the second cooling liquid tank 22 and extend to the corresponding first gas cavity 31 and second gas cavity 32, and the discharge gap of the discharge unit is communicated with the corresponding first gas cavity 31 and second gas cavity 32.

[0050] Specifically, as shown in Figure 4As shown, different from the first embodiment is that: the first partition plate 41 is provided with discharge unit first mounting hole 412, the second partition plate 42 is provided with discharge unit second mounting hole 422, the discharge unit first mounting hole 412 and discharge unit second mounting hole 422 are equal in number and one-to-one correspondence. The two ends of the discharge unit 51 respectively pass through the discharge unit first mounting hole 412 and the discharge unit second mounting hole 422 and extend to the corresponding first air cavity 31 and the second air cavity 32, and the outer wall of the discharge unit 51 is sealed between the discharge unit first mounting hole 412 and the discharge unit second mounting hole 422.

[0051] In this embodiment, the two end faces of the cooling cylinder 1 are open as the cooling liquid first flow port 111 and the cooling liquid second flow port 121, and are in communication with the corresponding cooling boxes.

[0052] This embodiment mainly illustrates that the first partition plate 41 is provided with discharge unit first mounting hole 412, the second partition plate 42 is provided with discharge unit second mounting hole 422, and the two ends of the discharge unit 51 respectively pass through the discharge unit first mounting hole 412 and the discharge unit second mounting hole 422 and extend to the corresponding first air cavity 31 and the second air cavity 32. The other unstated parts, refer to the first embodiment of the utility model.

[0053] Third embodiment:

[0054] As Figure 5 The third embodiment of the novel ozone generator according to the technical scheme of the utility model is shown in the schematic diagram

[0055] The following will be combined with the Figure 5 The third embodiment of the novel ozone generator according to the technical scheme of the utility model is briefly described.

[0056] Different from the second embodiment, in this embodiment, the ozone generator 100 further comprises an outer cylinder 7, the two ends of the outer cylinder 7 are respectively connected with the outside of the first cooling liquid tank 21 and the second cooling liquid tank 22, and the cooling cylinder 1 is located in the outer cylinder 7.

[0057] The two end faces of the cooling cylinder are open as the cooling liquid first flow port 111 and the cooling liquid second flow port 121, and are in communication with the corresponding cooling boxes;

[0058] Further, in actual application, the two ends of the cooling cylinder 1 can be respectively arranged on the first cooling liquid tank and the second cooling liquid tank, the first end 11 of the cooling cylinder is as close as possible to the first partition plate 41, and the second end 12 of the cooling cylinder is as close as possible to the second partition plate 42; in this embodiment,

[0059] Further, the fluid first inlet and outlet 71 and the fluid second inlet and outlet 72 can be arranged on the outer cylinder 7 to input or output the cooling liquid, cool the outer wall of the cooling cylinder 1, and enhance the cooling effect.

[0060] The novel ozone generator has good heat dissipation effect, can contain a large number of discharge units, and improves the ozone yield and output concentration of a single ozone generator.

[0061] The embodiment mainly illustrates that the ozone generator 100 further comprises an outer cylinder 7, two ends of the outer cylinder 7 are respectively externally and sealingly connected with the first cooling liquid tank 21 and the second cooling liquid tank 22, and the cooling cylinder 1 is located in the outer cylinder 7. Other unstated parts refer to the second embodiment of the utility model.

[0062] In the above three embodiments, all the discharge unit groups are provided with unified air inlet cavities and air outlet cavities. In actual application, all the discharge unit groups can be divided into several subgroups and provided with multiple corresponding air inlet cavities and air outlet cavities for supplying oxygen and outputting ozone-containing gas respectively; or multiple air inlet cavities can be provided for supplying oxygen, and then a unified air outlet cavity is arranged to collect ozone, or a same air inlet cavity is provided for supplying oxygen, and then multiple air outlet cavities are arranged to collect ozone respectively; correspondingly, all the discharge unit groups are supplied with power uniformly or in groups, so as to adjust the ozone yield of the equipment.

Claims

1. A novel ozone generator, comprising several discharge unit groups, a first gas chamber and a second gas chamber, wherein gas flow ports are provided on the first gas chamber and the second gas chamber, and each discharge unit group (5) comprises several tubular discharge units (51), wherein the tubular discharge units have discharge gaps, characterized in that: Each discharge unit group also includes a cooling cylinder (1), which is sleeved on the outside of the discharge unit group (5); it also includes a first coolant tank (21) and a second coolant tank (22), with a first coolant inlet / outlet (211) on the first coolant tank and a second coolant inlet / outlet (221) on the second coolant tank; the two ends of the cooling cylinder (1) are respectively connected to the first coolant tank (21) and the second coolant tank (22); the first air chamber (31) is located outside the first coolant tank (21), and the second air chamber is located outside the second coolant tank (22), the first coolant tank (21) and the first air chamber (31) are separated and sealed by a first partition (41), the... The second coolant tank (22) and the second air chamber are separated and sealed by the second partition (42). The two ends of the discharge unit (51) pass through the two ends of the cooling cylinder, the first coolant tank, the second coolant tank (22), the first partition (41) and the second partition (42) respectively, and extend to the corresponding first air chamber (31) and second air chamber (32). The discharge gap of the discharge unit is connected to the first air chamber (31) and the second air chamber (32). The first end (11) of the cooling cylinder is provided with a first coolant flow port (111) connected to the first coolant tank (21), and the second end (12) of the cooling cylinder is provided with a second coolant flow port (121) connected to the second coolant tank (22).

2. The novel ozone generator as described in claim 1, characterized in that: The first end (11) of the cooling cylinder is located in the first coolant tank (21), and the second end (12) of the cooling cylinder is located in the second coolant tank (22).

3. The novel ozone generator as described in claim 1, characterized in that: The first coolant inlet (111) is located on the side of the first end of the cooling cylinder or on the end face of the first end of the cooling cylinder (11), and the second coolant inlet (121) is located on the side of the second end of the cooling cylinder or on the end face of the second end of the cooling cylinder (12).

4. The novel ozone generator as described in claim 2, characterized in that: The first end (11) of the cooling cylinder is close to the first partition (41), and the second end (12) of the cooling cylinder is close to the second partition (42).

5. The novel ozone generator as described in claim 1, characterized in that: The first partition (41) is provided with a first mounting hole for the discharge unit, and the second partition (42) is provided with a second mounting hole for the discharge unit. The two ends of the discharge unit (51) pass through the first mounting hole and the second mounting hole respectively, and the outer wall of the discharge unit is sealed with the first mounting hole and the second mounting hole.

6. The novel ozone generator as described in claim 1, characterized in that: The first partition (41) is provided with a first mounting hole (411) for the discharge unit group, and the second partition (42) is provided with a second mounting hole (421) for the discharge unit group. Each discharge unit group has a first fixing plate (52) and a second fixing plate (53) for the discharge unit at its two ends respectively. The two ends of the discharge unit pass through the first fixing plate (52) and the second fixing plate (53) for the discharge unit respectively. The outer wall of the discharge unit is sealed with the first fixing plate and the second fixing plate. The first fixing plate (52) for the discharge unit is installed at the first mounting hole of the discharge unit group and is sealed with the first mounting hole of the discharge unit group. The second fixing plate (53) for the discharge unit is installed at the second mounting hole of the discharge unit group and is sealed with the second mounting hole of the discharge unit group.

7. The novel ozone generator as described in claim 1, characterized in that: The first partition (41) is provided with a first mounting hole (411) for the discharge unit group, and the second partition (42) is provided with a second mounting hole (421) for the discharge unit group. The two ends of the cooling cylinder (1) are respectively inserted into the first mounting hole (411) and the second mounting hole (421) for the discharge unit group. The outer wall of the cooling cylinder is sealed with the first mounting hole (411) and the second mounting hole (421) for the discharge unit group. Each discharge unit group (5) is provided with a first fixing plate for the discharge unit at each of its two ends. 52) and the second fixing plate of the discharge unit (53), the two ends of the discharge unit pass through the first fixing plate of the discharge unit (52) and the second fixing plate of the discharge unit (53) respectively, the outer wall of the discharge unit is sealed between the first fixing plate of the discharge unit (52) and the second fixing plate of the discharge unit (53), the first fixing plate of the discharge unit (52) and the second fixing plate of the discharge unit (53) are respectively installed at both ends of the cooling cylinder (1), and the first fixing plate of the discharge unit (52) and the second fixing plate of the discharge unit (53) are sealed between the cooling cylinder.

8. The novel ozone generator as described in any one of claims 1-7, characterized in that: It also includes an outer cylinder (7), the two ends of which are respectively sealed to the first coolant tank (21) and the second coolant tank (22), and the cooling cylinder (1) is located inside the outer cylinder (7).

9. The novel ozone generator as described in claim 8, characterized in that: The outer cylinder (7) is provided with a first fluid inlet / outlet (71) and a second fluid inlet / outlet (72).

Images