Plate type ozone generator
By using a modular design and water-cooled plate ozone generator, the problems of complex structure and inconvenient maintenance of existing ozone generators have been solved, achieving simple assembly, stable production and high ozone output.
Patent Information
- Application Number
- CN202422554777.4
- Authority / Receiving Office
- CN · China
- Patent Type
- Utility models(China)
- Current Assignee / Owner
- Filing Date
- 2024-10-22
- Publication Date
- 2025-12-19
- Estimated Expiration
- 2034-10-22
AI Technical Summary
Existing ozone generators have complex structures and numerous pipes, leading to high manufacturing costs. The imprecise spacing between the electrode plates results in unstable ozone production. Modular ozone generators are also complex in structure and inconvenient to maintain, requiring users to have multiple devices to meet different ozone volume requirements.
The modular plate ozone generator includes a high-voltage module, a middle module, and a gas/water nozzle module. Each module has longitudinal and transverse water-cooling channels. The modules are connected by a sealed connection to achieve pipe-free connection between water cooling and gas channels. The design of the high-voltage electrode plate and dielectric plate increases the corona electric field area. The electrical connection is simple, and multiple modules can be combined by connecting conductive rods.
An ozone generator with a simple structure, easy assembly and maintenance has been developed. The water cooling system is simple and efficient, the ozone output is doubled, the electrical connection is convenient, and the modules can be stacked to meet different needs, reducing the difficulty of production and maintenance.
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Figure CN223688112U_ABST
Abstract
Description
TECHNICAL FIELD
[0001] The utility model relates to an ozone generator, in particular to a plate type ozone generator. BACKGROUND
[0002] Ozone generators are used in water treatment, air purification, food processing and preservation, pharmaceutical industry, fine chemical industry, semiconductor industry and many other industries, and are applied in more and more industries and have a growing market demand due to their environmental protection and high efficiency. At present, most high-end ozone generators are provided with water cooling devices, and the structure is complex and the manufacturing cost is high due to the multiple pipe joints and pipelines; the traditional tubular ozone generator has an imprecise electrode spacing, and the generated ozone is unstable; and the traditional combined ozone generator has multiple leads and pipelines, and the structure is complex, which is inconvenient for production assembly and maintenance. Some users need generators that can generate different amounts of ozone, and often need to invest in several devices, which has a high investment cost. SUMMARY
[0003] The utility model discloses a plate type ozone generator.
[0004] The utility model discloses the technical scheme is: a plate type ozone generator, comprising:
[0005] The high-voltage end module is internally provided with longitudinal and transverse water cooling channels, the lower part of the connecting surface of the water cooling channels is provided with water inlet hole one and water outlet hole one that are in communication with the water cooling channels; the connecting surface of the high-voltage end module is provided with dielectric sheet recess one for placing dielectric sheet one and high-voltage electrode sheet one, the bottom surface of the dielectric sheet recess one is provided with low-voltage electrode plane one, the periphery of the low-voltage electrode plane one is provided with annular groove one for guiding air, the outer side of the annular groove one is provided with sealing ring groove one for installing sealing ring, the outer side of the sealing ring groove one is provided with a group of screw rod through holes one that are connected with other modules; the center of the high-voltage end module is provided with center hole one for connecting conductive screw rod seat;
[0006] The middle module is arranged in front of the high-voltage end module and can be stacked in multiple pieces. The rear of the middle module is sealingly connected to the front of the next module. The interior of the middle module is provided with longitudinal and transverse water cooling channels. The lower part of the connecting surface of the middle module is provided with water inlet hole two and water outlet hole two which are in communication with the water cooling channels and pass through the front and rear. The rear of the water inlet hole two and the water outlet hole two is in position correspondence with and sealingly communicates with the water inlet hole one and the water outlet hole one of the high-voltage end module. The rear of the middle module is provided with low-voltage electrode surface two which is in position correspondence with and parallel to the low-voltage electrode surface one. The periphery of the low-voltage electrode surface two is provided with annular groove two which is in position correspondence with annular groove one. The other surface is provided with dielectric sheet recess two for placing dielectric sheet two and high-voltage electrode sheet two. The bottom surface of the dielectric sheet recess two is provided with low-voltage electrode plane three. The periphery of the dielectric sheet recess two is provided with annular groove three for air guiding. The annular groove three is provided with air guiding hole one which is in communication with the annular groove two. The outer side of the annular groove three is provided with sealing ring groove two for mounting sealing ring two. The outer side of the sealing ring groove two is provided with screw through hole two which is in position correspondence with and connected to other modules. The center of the middle module is provided with center hole two for connecting the extension of the conductive rod sheath.
[0007] The gas and water nozzle end module is arranged in front of the middle module and sealingly connected to the middle module. The interior of the gas and water nozzle end module is provided with longitudinal and transverse water cooling channels. The lower part of the rear connecting surface of the gas and water nozzle end module is provided with water inlet hole three and water outlet hole three which are in communication with the water cooling channels. The rear of the water inlet hole three and the water outlet hole three is in position correspondence with and sealingly communicates with the water inlet hole and the water outlet of the front of the middle module. The other end of the water inlet hole three and the water outlet hole three is connected to the water inlet nozzle and the water outlet nozzle on the outer side panel. The rear of the gas and water nozzle end module is provided with low-voltage electrode surface four which is in position correspondence with and parallel to the low-voltage electrode surface three. The periphery of the low-voltage electrode surface four is provided with annular groove four which is in position correspondence with the annular groove three. The annular groove four is provided with air guiding hole two which is in communication with the outer side. The air guiding hole two is connected to the air inlet nozzle of the outer surface. The outer side of the annular groove four is provided with screw through hole three which is in position correspondence with and connected to other modules. The middle of the gas and water nozzle end module is provided with center hole three for air guiding. The front side of the center hole three is connected to the ozone gas outlet nozzle.
[0008] The high-voltage electrode assembly is arranged in the center hole one of the high-voltage end module, the center hole two of the middle module and the dielectric sheet recess, and comprises a high-voltage electrode sheet, a dielectric sheet, a high-voltage conductive screw, a conductive screw seat, a high-voltage sheath seat, a connecting conductive rod, a connecting conductive rod sheath and a fixing nut one and a fixing nut two; the conductive screw seat is provided with a screw through hole four on the axis, and a sealing ring step is arranged on the outer side wall and sealed with the center hole one; the high-voltage sheath seat is arranged behind the conductive screw seat and is provided with a screw through hole five on the axis; the high-voltage conductive screw is arranged in the screw through hole of the conductive screw seat and the high-voltage sheath seat; the connecting conductive rod sheath is provided with a connecting conductive rod through hole on the axis, and is provided with a gas passing hole on the outer side; the connecting conductive rod is arranged in the connecting conductive rod through hole; each high-voltage electrode sheet is provided with a dielectric sheet on each side and clamps the high-voltage electrode sheet; the conductive screw seat is arranged in the center hole one of the high-voltage end module, and the front end is electrically connected with the high-voltage electrode sheet one in the dielectric sheet recess one; the front end of the conductive screw passes through the high-voltage electrode sheet one; the connecting conductive rod screw hole is threadedly connected with the conductive screw and clamps the high-voltage electrode sheet one; the connecting conductive rod passes through the connecting conductive rod in the center hole two of the middle module and is electrically connected with the high-voltage electrode sheet two arranged in the dielectric sheet recess two and fixes the high-voltage electrode sheet two with the nut.
[0009] As a further optional solution of the plate-type ozone generator, the dielectric sheet is one of a ceramic sheet, a quartz glass sheet and an enamel sheet.
[0010] As a further optional solution of the plate-type ozone generator, the dielectric sheet is a circular sheet with a uniform thickness, and the outer diameter of the circular sheet is smaller than the outer diameter of the outer side of the annular groove for gas guiding and the inner diameter is larger than the outer diameter of the front side of the conductive screw seat.
[0011] As a further optional solution of the plate-type ozone generator, the dielectric sheet is a T-shaped enamel sheet, the large surface of the T-shaped enamel sheet is a circular sheet, one side of the middle part of the circular sheet is provided with a cylinder which is integrated with the circular sheet and perpendicular to the circular sheet, the circular sheet is arranged in the dielectric sheet recess, and the cylinder is arranged in the center hole of the two adjacent modules and clamps the high-voltage electrode sheet.
[0012] As a further optional solution of the plate-type ozone generator, the high-voltage electrode sheet is one of a stainless steel mesh sheet, a stainless steel hole sheet, a titanium alloy mesh sheet and a titanium alloy mesh hole sheet, and the high-voltage electrode sheet is a circular sheet with an outer diameter smaller than the outer diameter of the dielectric sheet and an inner diameter equal to the diameter of the high-voltage conductive screw.
[0013] As a further optional solution of the plate-type ozone generator, the materials of the conductive screw seat, the high-voltage sheath seat and the connecting conductive screw seat are one of polytetrafluoroethylene and ceramic.
[0014] As a further optional scheme of the plate type ozone generator, the longitudinal and transverse water passage structures in the high pressure end module, the middle module and the gas and water nozzle end module are the same, the water inlet and the water outlet of each module are arranged on the connecting surface of the module and correspond in position, a sealing ring is arranged at the interface, the modules are sealed and communicated with each other, and the end of the processing hole in the side wall of the water passage is provided with a plug.
[0015] As a further optional scheme of the plate type ozone generator, the high pressure end module is provided with an annular step protruding towards the shaft center on the hole wall of the first central hole, and the annular step corresponds in position with the sealing ring step on the conductive screw rod seat and is sealingly connected.
[0016] As a further optional scheme of the plate type ozone generator, the gas guide hole is provided with 2-10 holes and is uniformly distributed along the axis of the annular groove.
[0017] As a further optional scheme of the plate type ozone generator, the distance between the two low voltage electrode surfaces corresponding to each other in the high pressure end module, the middle module and the gas and water nozzle end module is equal to the sum of the thicknesses of the two dielectric sheets arranged therebetween and the high voltage electrode sheet added in the middle.
[0018] The plate type ozone generator has the following beneficial effects:
[0019] 1. The module structure is used, and the ozone generator can be used only by assembling, and the middle module can be stacked and combined to realize ozone generators of different specifications and yields, the structure is simple, the combination is convenient, and the production and maintenance are facilitated. The basic module of the utility model is three kinds: high pressure end module, middle module and gas and water nozzle end module, the module structure is the same, the interface of the modules is butt-jointed and corresponds in position, the gas guide and water cooling pipelines can be communicated with each other without pipelines. The middle module and the matched parts are completely the same, so that the stacking is very simple, since the distance between the low voltage electrode surfaces of the modules is fixed and parallel, only the high voltage electrode plate and the dielectric sheet are placed in the set installation position, the high voltage electrode sheet is screwed, no debugging is needed, and the equipment can work normally after installation, the purpose that the professional engineers are not needed to maintain the equipment is realized, and the problem that the after-sales maintenance is inconvenient is solved.
[0020] 2. The water cooling structure is simple, and the water cooling system without water pipe connection in the main body is realized.
[0021] 3. The airway for generating ozone is simple, and the main body is free of pipeline connection between modules. The high-voltage corona electric field for generating ozone is formed in the dielectric sheet recess, and the dielectric sheet recess is communicated with the center hole of the module, so that the ozone is gathered to the center hole of the module and output from the air outlet of the front end module.
[0022] 4. The high-voltage electrode sheet and the low-voltage electrode surface for generating high-voltage corona electric field are flat surfaces, and the front and rear surfaces of one high-voltage electrode sheet correspond to two low-voltage electrode surfaces, so that the two sides of one high-voltage electrode sheet generate corona electric field, greatly increasing the area of the electric field and doubling the amount of ozone generated by a single surface.
[0023] 5. The electrical connection is simple, and no matter how many modules are combined, the high-voltage current input into the main body has only one connection terminal, and each module combined only needs to be connected by one extension conductive rod, and since the extension conductive rod sheath is designed to make the electrical connection and the ozone delivery channel the same center hole of the module, the center is the high-voltage circuit channel, and the remaining space of the center hole is the ozone channel, so that one hole has multiple uses. BRIEF DESCRIPTION OF DRAWINGS
[0024] Figure 1 It is a perspective view of one embodiment of the utility model.
[0025] Figure 2 It is a perspective view of one embodiment of the utility model. Figure 1 It is a perspective view of one embodiment of the utility model.
[0026] Figure 3 It is a perspective view of one embodiment of the utility model. Figure 2 It is a perspective view of one embodiment of the utility model.
[0027] Figure 4 It is a perspective view of one embodiment of the utility model. Figure 3 It is a perspective view of one embodiment of the utility model.
[0028] Figure 5 It is a perspective view of one embodiment of the utility model. Figure 2 It is a perspective view of one embodiment of the utility model.
[0029] Figure 6 It is a perspective view of one embodiment of the utility model. Figure 5 It is a perspective view of one embodiment of the utility model.
[0030] Figure 7 It is a perspective view of one embodiment of the utility model.
[0031] Figure 8 It is a perspective view of one embodiment of the utility model. Figure 5 It is a perspective view of one embodiment of the utility model.
[0032] Figure 9 It is a perspective view of one embodiment of the utility model. Figure 8 It is a perspective view of one embodiment of the utility model.
[0033] Figure 10 It is a perspective view of one embodiment of the utility model.Figure 6 Enlarged view of C of Fig. 1.
[0034] Figure 11 Fig. 1 is a schematic view of a high voltage bushing. Figure 10 Schematic view of Fig. 1 with the high voltage electrode piece and the dielectric piece removed.
[0035] Figure 12 Fig. 2 is a schematic view of a high voltage bushing. Figure 6 Enlarged view of D of Fig. 2.
[0036] Figure 13 Fig. 3 is a schematic view of a high voltage bushing. Figure 12 Schematic view of Fig. 3 with the high voltage electrode piece and the dielectric piece removed.
[0037] Figure 14 Fig. 4 is a schematic view of a high voltage bushing. Figure 6 Enlarged view of E of Fig. 4.
[0038] Figure 15 Fig. 5 is a schematic view of a high voltage bushing.
[0039] Figure 16 Fig. 6 is a schematic view of a high voltage bushing. Figure 15 Schematic view of Fig. 6 with the components exploded.
[0040] Figure 17 Fig. 7 is a schematic view of a high voltage bushing. Figure 16 Schematic view of Fig. 7 with the high voltage electrode piece and the dielectric piece further exploded.
[0041] Figure 18 Fig. 8 is a schematic view of a high voltage bushing. Figure 16 Schematic view of Fig. 8 with the high voltage shield seat.
[0042] Figure 19 Fig. 9 is a schematic view of a high voltage bushing. Figure 16 Schematic view of Fig. 9 with the high voltage extension rod shield.
[0043] Figure 20 Fig. 10 is a schematic view of a dielectric piece.
[0044] In the figure: 1, high voltage end module; 11, water inlet hole one; 12, water outlet hole one; 14, sealing ring groove one; 141, high voltage end module sealing ring; 15, annular groove one; 16, dielectric sheet recess one; 161, low voltage electrode plane one; 17, screw through hole one; 18, center hole one; 19, longitudinal and transverse water cooling channels; 191, upper transverse hole; 192, lower left transverse hole; 193, lower right transverse hole; 194, longitudinal hole; 110, annular step; 2, middle module; 21, water inlet hole two; 22, water outlet hole two; 23, annular groove three; 24, dielectric sheet recess two; 241, low voltage electrode plane three; 25, gas guide hole one; 26, screw through hole two; 27, center hole two; 28, sealing ring groove two; 281, middle module sealing ring; 29, low voltage electrode surface two; 210, annular groove two; 3, gas and water nozzle end module; 31, water inlet hole three; 311, water inlet nozzle; 32, water outlet hole three; 321, water outlet nozzle; 33, gas guide hole two; 34, center hole three; 341, ozone gas outlet nozzle; 35, screw through hole three; 351, gas inlet nozzle; 36, annular groove four; 37, low voltage electrode surface four; 4, module fixing screw; 5, plug; 6, high voltage electrode assembly; 61, fixing nut one; 62, high voltage conductive screw; 63, high voltage sheath seat; 631, screw through hole five; 64, conductive screw seat; 641, screw through hole four; 642, sealing ring step; 64, conductive screw seat; 642, sealing ring step; 65, dielectric sheet; 651, dielectric sheet one; 6511, dielectric sheet middle hole; 652, dielectric sheet two; 653, dielectric sheet three; 6531, circular sheet; 6532, cylindrical; 66, high voltage electrode sheet; 661, high voltage electrode sheet one; 662, high voltage electrode sheet two; 661, high voltage electrode sheet one; 6611, electrode sheet middle hole; 662, high voltage electrode sheet two; 67, continuation conductive rod sheath; 671, continuation conductive rod through hole; 672, gas through hole; 68, continuation conductive rod; 681, continuation conductive rod screw; 682, continuation conductive rod screw hole; 69, fixing nut two. DETAILED DESCRIPTION
[0045] The technical solutions in the embodiments of the present application will be clearly and completely described below. Obviously, the described embodiments are only 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 work fall within the scope of the present application.
[0046] In the description of the utility model, it is understood that the terms "upper", "lower", "front", "rear", "vertical", "horizontal", "inner", "outer" and the like indicate the orientation or positional relationship shown in the drawings, and are only for the convenience of describing the utility model and simplifying the description, and do not indicate or imply that the devices or elements referred to must have a particular orientation, be constructed and operated in a particular orientation, and therefore cannot be understood as limiting the utility model.
[0047] In the utility model, unless otherwise expressly specified and limited, the terms "mounting", "connection", "connection", "fixing" and the like should be understood broadly, for example, can be fixedly connected, or can be detachably connected, or can be integrated; can be directly connected, or can be indirectly connected through an intermediate medium, can be the communication or interaction relationship between two elements. For ordinary skilled persons in the art, the specific meaning of the above terms in the utility model can be understood according to the specific circumstances.
[0048] It should be noted that, in the description, for the sake of simple language, the water outlet hole and the water outlet hole one and the water outlet hole two, the water outlet hole three in the utility model are in the logical relationship of species, that is, the water outlet hole includes: the water outlet hole one, the water outlet hole two and the water outlet hole three, and the dielectric sheet recess includes: the dielectric sheet recess one and the dielectric sheet recess two; The low-voltage electrode plane includes: low-voltage electrode plane one and low-voltage electrode plane two, low-voltage electrode plane three and low-voltage electrode plane four; The center hole includes: the center hole one, the center hole two and the center hole three, the dielectric sheet includes the dielectric sheet one, the dielectric sheet two; The high-voltage electrode sheet includes: the high-voltage electrode sheet one and the high-voltage electrode sheet two. The annular groove includes annular groove one, annular groove two, annular groove three and annular groove four.
[0049] The following will be further described with reference to the drawings:
[0050] Reference Figures 1 to 4 , wherein Figure 1 is the perspective view of one embodiment of the utility model, including: high-voltage end module 1, middle module 2, gas and water nozzle module 3, internally provided with high-voltage electrode assembly 6, externally provided with water inlet nozzle 311 and water outlet nozzle 321 for water circulation and gas inlet nozzle 351 and ozone gas outlet nozzle 341 for oxygen or air input, a group of fixed screw rods 4 pass through the screw through holes on each mold to fix the molds. In the description, in order to make the schematic diagram more simple and clear, the exploded view of the utility model is shown in the figure, and the high-voltage electrode assembly 6 is fixed on the high-voltage end module 1 through a group of fixed screw rods 4, and the high-voltage electrode assembly 6 is fixed on the high-voltage end module 1 through a group of fixed screw rods 4. Figure 3The internal high-voltage electrode assembly 6 is omitted. This embodiment includes three different modules: a high-voltage end module 1, a middle module 2, and an air / water nozzle module 3, and a set of high-voltage electrode assembly 6. A high-voltage current input connection terminal, namely the high-voltage conductive screw 62 in the high-voltage electrode assembly, is located in the central hole 18 at the rear of the high-voltage end module. The high-voltage current input wire is electrically connected to the rear end of the high-voltage conductive screw. The connection uses a terminal block and is then fixed with a fixing nut 61. The fixing nut not only fixes the terminal block but also the high-voltage sheath 63 and other connected high-voltage electrode assemblies, preventing the entire high-voltage electrode assembly from shaking. The high-voltage current is input to the high-voltage electrode plates through the high-voltage conductive screw and the connecting conductive rod. The low-voltage end is the low-voltage electrode plane of each module, so the low-voltage end lead only needs to be connected to any point in one of the modules to form a circuit, enabling the equipment to operate normally. During operation, a high-voltage corona electric field is generated between the high-voltage electrode plate and the low-voltage electrode surface. Oxygen enters from the air inlet 351 and then passes through the gap between the high-voltage electrode plate and the low-voltage electrode surface, i.e., the corona electric field space, causing the oxygen molecules passing through the electric field to undergo an electrochemical reaction, thereby producing ozone. The ozone is produced from the ozone outlet 341 through the central hole 2 of the middle module and the central hole 34 of the air-water nozzle module.
[0051] During operation, the ozone generator continuously generates heat. To ensure stable operation, each module needs to be cooled. This invention employs water cooling. Traditional water cooling systems involve numerous water-cooling pipes, resulting in a complex structure. This invention uses a waterless design between modules, cooling through internal water channels, simplifying the structure, significantly reducing size, and ensuring stable performance. It can operate normally simply by connecting the modules and matching components, reducing the difficulty of production, installation, and maintenance. Specifically, the front air / water nozzle module panel is equipped with a water inlet 311, a water outlet 321, an air inlet 351, and an ozone outlet 341 for water cooling. The longitudinal and transverse water channels of each module have identical structures, with interfaces located on the module's connection surface. The modules are sealed and interconnected, with sealing rings at the connections. Plugs 5 are installed at the machined holes on the side walls of the water channels. The middle modules can be stacked and combined as needed. Regardless of the number of combinations, no other pipes enter the internal structure except for the water supply pipe and the circulating water outlet pipe. Each module has a set of screw holes corresponding to its position, which are connected by matching module fixing screws 4 for secure fixing and easy installation, disassembly, and maintenance. The combination of the three modules in this utility model is the most basic combination, such as... Figure 1 and Figure 6 As shown, by simply stacking the middle module and supporting components in front of it, ozone generators producing different amounts of ozone can be formed. For example... Figure 7 The diagram shows two central modules stacked together, forming the ozone generator of the second embodiment, which consists of four modules. Similarly, several or even a dozen modules can be stacked and expanded to meet different needs.
[0052] Referring to Figures 3 to 14 , the high-voltage end module 1 is internally provided with longitudinal and transverse water cooling channels 19, as shown in Figure 9 . The connecting surface of the water cooling channels is provided with water inlet holes 11 and water outlet holes 12, as shown in Figure 3 ; the connecting surface of the high-voltage end module is provided with dielectric sheet recesses 16 for placing dielectric sheet 651 and high-voltage electrode sheet 661, the bottom surface of the dielectric sheet recesses 16 is provided with low-voltage electrode plane 161, the periphery of the low-voltage electrode plane 161 is provided with annular grooves 15 for guiding gas, the outer side of the annular grooves 15 is provided with sealing ring grooves 14 for installing sealing rings 14, as shown in Figure 10 and 11 ; the outer side of the sealing ring grooves 14 is provided with a group of screw through holes 17 for connecting with other modules, the middle part of the high-voltage end module is provided with a central hole 18 for connecting the conductive screw seat 64, as shown in Figure 3 . The "connecting surface" in the utility model refers to the surface of the abutting of two adjacent modules. Figure 10 and Figure 12 The arrow direction in the figure shows the direction of oxygen inflow; Figure 14 The arrow direction in the figure shows the direction of ozone outflow.
[0053] Referring to Figure 3 , Figure 4 , Figures 10 to 14 , the middle module 2 is arranged in front of the high-voltage end module 1 and can be stacked in multiple blocks, the rear surface of the middle module is sealed and connected with the front surface of the next module by the high-voltage end module sealing ring 141 in the sealing ring groove 14, the internal part of the middle module is provided with longitudinal and transverse water cooling channels, the water inlet holes 21 and the water outlet holes 22 of one surface of the water cooling channels correspond in position to the high-voltage end module water inlet holes 11 and the water outlet holes 12 and are sealed by the sealing ring; the water inlet holes 21 and the water outlet holes 22 of the other surface of the water cooling channels correspond in position to the gas-water nozzle module water inlet holes 31 and the water outlet holes 32 and are sealed and communicated, as shown in Figure 3 and Figure 4 ; the rear surface of the middle module is provided with a low-voltage electrode plane 29 corresponding in position to and parallel with the low-voltage electrode plane 29, the periphery of the low-voltage electrode plane 29 is provided with annular grooves 210 for guiding gas, the other surface is provided with dielectric sheet recesses 24 for placing dielectric sheet 652 and high-voltage electrode sheet 662, the bottom surface of the dielectric sheet recesses 24 is provided with low-voltage electrode plane 241, as shown in Figure 13As shown; the periphery of the dielectric sheet recess two is provided with annular groove three 23 for gas guide, annular groove three is provided with gas guide hole one 25 communicated with annular groove two, gas guide hole one is provided with 2-10 and along the axis of annular groove is distributed, so that the oxygen channel into the annular groove of each template multiple, oxygen distribution is uniform and stable work. The outer side of annular groove three is provided with sealing ring groove two 28 for installing sealing ring two, the outer side of sealing ring groove two is provided with screw through hole two 26 connected with other modules and corresponding position; the middle part of the middle module is provided with center hole two 27 for connecting the extension of the conductive rod sheath 67.
[0054] Referring to Figure 3 、 Figure 4 、 Figure 6 、 Figures 12 to 14 As shown, the gas and water nozzle module 3 is provided in the front of the middle module and is sealed and connected with the middle module sealing ring 281 of the middle module, the inside of which is provided with longitudinal and transverse water cooling channels, one side of the water cooling channels is provided with water inlet hole three 31 and water outlet hole three 32 corresponding to the water inlet hole two 21 and water outlet hole two 22 of the middle module and sealed and communicated with the sealing ring, the other side of the water cooling channels is provided with water inlet hole and water outlet hole connected with the water inlet nozzle 311 and water outlet nozzle 321 on the outer panel, the water inlet nozzle and water outlet nozzle are water pipe joints; the water inlet nozzle and water outlet nozzle are communicated with the external water circulation pipeline, constituting a water circulation cooling system. The rear of the gas and water nozzle end module is provided with low voltage electrode surface four 37 parallel to the low voltage electrode three, the periphery of the low voltage electrode surface four is provided with annular groove four 36 for gas guide, the annular groove four is provided with gas guide hole two 33 communicated with the outer side, the gas guide hole two is connected with the air inlet nozzle 351, the air inlet nozzle is a gas pipe interface, used for connecting the external oxygen supply pipeline; the outer side of the annular groove four is provided with screw through hole three 35 connected with other modules and corresponding position; the middle part of the gas and water nozzle end module is provided with center hole three 34 for gas guide, the front side of the center hole three is connected with ozone outlet nozzle 341, the outlet nozzle is a gas pipe interface, the ozone outlet nozzle is communicated with the use end through pipeline.
[0055] Referring to 8 and Figure 9The high-pressure end module 1, the middle module 2 and the gas-water nozzle module 3 of the embodiment are three square aluminum alloy blocks, and the three modules have the same external dimensions. In order to facilitate heat dissipation, each module is provided with the same longitudinal and transverse water channels. In use, the water channels are used for heat dissipation through water circulation. The water channels are formed by transverse and longitudinal drilling on the side and top of the module, and the water channel holes are drilled in the middle between the two large faces and are parallel to the large faces. The transverse holes of the embodiment include an upper transverse hole 191 and a lower left transverse hole 192 and a lower right transverse hole 193, and the longitudinal holes 194 are four vertical holes and are communicated with each transverse hole. Each hole is provided with a thread at the opening end and is sealed by a threaded plug 5. As shown by the arrow direction in the figure, the water enters the lower left transverse hole 192 from below the left water inlet hole 1, passes through the two left longitudinal holes upward, enters the upper transverse hole 191, flows into the lower right transverse hole 193 through the two right longitudinal holes downward, and then flows out through the water outlet hole 2. The water channel of the other modules is the same, and therefore the water channel diagram of the other modules is omitted. The utility model is not limited to the number of longitudinal and transverse water channels, and the number of longitudinal and transverse water channels is respectively between 2 and 20.
[0056] With reference to Figures 14 to 19, the high-voltage electrode assembly 6 is arranged in the center hole and dielectric sheet recess of the high-voltage end module and the middle module, and comprises a high-voltage electrode sheet 66, a dielectric sheet 65, a high-voltage conductive screw 62, a conductive screw seat 64, a high-voltage sheath seat 63, a connecting conductive rod 68, a connecting conductive rod sheath 67, a fixing nut 1 61 and a fixing nut 2 69; the conductive screw seat 64 is provided with a screw through hole 4 641 on the axis, and a sealing ring step 6 42 is arranged on the outer side wall and sealed with the center hole 1; the high-voltage sheath seat 63 is inserted into the rear of the conductive screw seat, and is provided with a screw through hole 5 631 on the axis; the high-voltage conductive screw is arranged in the screw through hole 4 641 and the screw through hole 5 631. The connecting conductive rod sheath 67 is provided with a connecting conductive rod through hole 6 71 on the axis, and is provided with a gas passing hole 6 72 on the outer side; the connecting conductive rod 68 is arranged in the connecting conductive rod through hole; each high-voltage electrode sheet 66 is provided with a dielectric sheet on both sides and clamps the high-voltage electrode sheet; the conductive screw seat is arranged in the middle hole 1 of the high-voltage end module, and the front end is in contact with the high-voltage electrode sheet 1 661 in the dielectric sheet recess 1 6, that is, flush. The front part of the conductive screw passes through the electrode sheet middle hole 6 611 of the high-voltage electrode sheet 1, the connecting conductive rod screw hole 6 82 is threadedly connected with the conductive screw and is tightened by the screw thread to press the high-voltage electrode sheet 1; the front end of the connecting conductive rod is provided with a screw, and the rear end is provided with a screw hole, so that multiple connecting can be realized; by increasing the connecting conductive rod, the high-voltage end can be extended in the module; when multiple middle modules are required to be combined, one connecting conductive rod is increased for each middle module to conduct the increased high-voltage electrode sheet. In the embodiment, the connecting conductive rod screw 6 81 passes through the connecting conductive rod 6 8 in the middle hole 2 of the middle module and is connected with the dielectric sheet middle hole 6 511 of the high-voltage electrode sheet 2 662 arranged in the dielectric sheet recess 2 4, and the high-voltage electrode sheet 2 is fixed by the fixing nut 2 69. When the middle modules are stacked, the fixing nut 2 69 always fixes the front side of the frontmost high-voltage electrode sheet.
[0057] In some specific embodiments, in order to facilitate the selection of materials, the dielectric sheet of the embodiment of the utility model is a circular ceramic sheet with a thickness of 0.5-1.5 mm; in order to facilitate the entry of oxygen, the outer diameter of the circular sheet is smaller than the outer diameter of the outer side of the annular groove for guiding the gas, so that the oxygen for generating ozone can flow freely in the annular groove of the template; the high-voltage electrode sheet is a circular stainless steel mesh sheet, and the mesh sheet is woven from wire, so that the vertical and horizontal staggered gaps are formed between the dielectric sheet on both sides; the outer diameter of the high-voltage electrode sheet is smaller than the outer diameter of the dielectric sheet; due to the arrangement of the annular groove of the module, the oxygen uniformly passes through the gaps between the circular stainless steel mesh and the ceramic sheet from the four sides of the annular groove, that is, through the high-voltage corona electric field to continuously generate ozone.
[0058] In some specific embodiments, in order to facilitate the positioning of the electrically conductive screw seat 64 and the high-voltage electrically conductive screw 62, an annular step 110 protruding towards the shaft center is arranged in the central hole 18 of the high-voltage end module 1, and the annular step is in position corresponding to the sealing ring step on the electrically conductive screw seat and is sealingly connected, which not only facilitates the sealing of the sealing ring, but also makes the high-voltage sheath seat not move forward and backward under the action of the fixing nut 61 on the high-voltage electrically conductive screw, so that the connection of the high-voltage electrically conductive screw and the high-voltage electrode sheet connected to the electrically conductive rod 68 is more stable.
[0059] Referring to Figure 20 For another embodiment of the dielectric sheet, the dielectric sheet is a T-shaped dielectric sheet three 653, which is a porcelain sheet, and a circular sheet 6531 is arranged on the porcelain sheet, and the upper surface is a plane. The circular sheet has the same function as the dielectric sheet, and the vertical surface is a cylindrical surface 6532. The circular sheet and the cylindrical surface are integrally formed by stamping, and the surface is processed by porcelain. The circular sheet is arranged in the dielectric sheet recess. The high-voltage electrode sheet is arranged between the two T-shaped dielectric sheet upper planes and clamped. The vertical cylindrical surface is arranged in the inner side wall of the central hole of the two adjacent modules. The advantage of the T-shaped dielectric sheet is that the cylindrical surface plays a role in radial positioning, so that the dielectric sheet cannot slide in the radial direction. The axial direction is positioned by the two adjacent low-voltage electrode surfaces. Therefore, the dielectric sheet is more stable in the equipment, and even if there is a large vibration, the dielectric sheet will not be displaced. In use, the circular sheet of this embodiment clamps the high-voltage electrode sheet 66. The T-shaped porcelain sheet is more durable because the base material is metal. The porcelain plays a role in insulation and isolation.
[0060] The dielectric sheet recess of the utility model refers to the position of placing the dielectric sheet and the high-voltage electrode sheet, that is, the position of clamping a high-voltage electrode sheet between two dielectric sheets. In this embodiment, the dielectric recess is a circular recessed module slot, and the depth is equal to the thickness of two dielectric sheets and a high-voltage electrode sheet. The dielectric sheet recess includes two types: one is that the dielectric sheet recess is arranged on one of the modules, and the depth is equal to the thickness of two dielectric sheets and a high-voltage electrode sheet. The other is that the dielectric sheet recess is arranged on the connecting surface of the two adjacent modules, and the depth is half, that is, half of the thickness of two dielectric sheets and a high-voltage electrode sheet. The dielectric sheet recess of the utility model is not limited to the embodiments of the utility model, and the dielectric sheet recess can be arranged on any one of the modules. The bottom surface of the dielectric recess in this embodiment is the low-voltage electrode plane of one side, and the low-voltage electrode plane of the other side is the connecting surface of the other module. The corresponding two low-voltage electrode planes are parallel to each other. This is formed by mechanical finishing. As long as it is normally installed, it must be parallel. Since the dielectric sheets have the same thickness, the high-voltage electrode sheet clamped between the two dielectric sheets is parallel to the two low-voltage electrode planes and will not be displaced, so the working performance is very stable.
[0061] Different combinations of the modules constitute different specifications of the ozone generator, the basic combination of the present application is the combination of three modules, as shown in Figure 1 and Figure 2 ; but it does not exclude that the high-voltage end module 1 and the gas-water nozzle module 3 can also work normally in combination, but such combination produces small amount of ozone, in order to meet different needs, different numbers of middle modules 2 should be combined and stacked between the high-voltage end module 1 and the gas-water nozzle module 3, as shown in Figure 9 , two middle modules are arranged in the middle, and two dielectric sheets, a high-voltage electrode sheet and a continuation conductive rod 68 and a continuation conductive rod sheath for electrically connecting the high-voltage electrode sheet are added in front of the middle module 2 for each increase of one middle module, one high-voltage electrode sheet is clamped between the two dielectric sheets, and so on, a few or dozens of them can be connected to meet the needs of different specifications, the combination is convenient and fast, as long as it is installed in the normal direction, even without debugging, it can also maintain stable work, which brings great convenience to after-sales service. As long as there are accessories, general engineers can assemble, maintain and even improve the gas production capacity through assembly.
[0062] The above only describes the preferred embodiments of the present application, and does not limit the present application, any modification, equivalent replacement, improvement, etc. within the spirit and principle of the present application shall be included in the protection scope of the present application.
Claims
1. A plate-type ozone generator, characterized by, It comprises: The high-voltage end module (1) is internally provided with longitudinal and transverse water cooling channels (19), the connecting surface of the water cooling channels is provided with water inlet holes (11) and water outlet holes (12) in the lower part and in communication with the water cooling channels; the dielectric sheet recess (16) for placing the dielectric sheet (651) and the high-voltage electrode sheet (661) is arranged on the connecting surface of the high-voltage end module, the bottom surface of the dielectric sheet recess (16) is provided with a low-voltage electrode plane (161), the periphery of the low-voltage electrode plane (161) is provided with an annular groove (15) for guiding air, the outer side of the annular groove (15) is provided with a sealing ring groove (14) for mounting a sealing ring, and the outer side of the sealing ring groove (14) is provided with a group of screw rod through holes (17) for connecting other modules; the center of the high-voltage end module is provided with a center hole (18) for connecting a conductive screw rod seat (64); The middle module (2) is arranged in front of the high-voltage end module (1) and can be stacked in multiple pieces, the rear surface of the middle module is sealingly connected to the front surface of the rear module, the internal part of the middle module is provided with longitudinal and transverse water cooling channels, the lower part of the connecting surface of the middle module is provided with water inlet holes (21) and water outlet holes (22) in communication with the water cooling channels, and the water inlet holes (21) and the water outlet holes (22) are through-penetrating; the rear surface of the water inlet holes (21) and the water outlet holes (22) corresponds to the positions of the water inlet holes (11) and the water outlet holes (12) of the high-voltage end module and sealingly communicates with the water inlet holes (11) and the water outlet holes (12); the rear surface of the middle module is provided with a low-voltage electrode plane (29) corresponding to the position of the low-voltage electrode plane (161) and parallel to the low-voltage electrode plane (161), the periphery of the low-voltage electrode plane (29) is provided with an annular groove (210) corresponding to the position of the annular groove (15), the other surface is provided with a dielectric sheet recess (24) for placing an insulating dielectric sheet (652) and a high-voltage electrode sheet (662), the bottom surface of the dielectric sheet recess (24) is provided with a low-voltage electrode plane (241), the periphery of the dielectric sheet recess (24) is provided with an annular groove (23) for guiding air, and the annular groove (23) is internally provided with a gas guiding hole (25) in communication with the annular groove (210); the outer side of the annular groove (23) is provided with a sealing ring groove (28) for mounting a sealing ring (2), and the outer side of the sealing ring groove (28) is provided with a screw rod through hole (26) for connecting other modules and corresponding in position; the center of the middle module is provided with a center hole (27) for connecting a conductive rod sheath (67). The gas and water nozzle end module (3) is arranged at the front of the middle module and is in sealed connection with the middle module. The inside of the gas and water nozzle end module is provided with longitudinal and transverse water cooling channels. The lower part of the rear connecting surface of the gas and water nozzle end module is provided with water inlet hole three (31) and water outlet hole three (32) which are in communication with the water cooling channels. The rear of the water inlet hole three and the water outlet hole three is in position corresponding and sealed communication with the water inlet hole two (21) and the water outlet hole two (22) at the front of the middle module. The other end of the water inlet hole three and the water outlet hole three is connected with the water inlet nozzle (311) and the water outlet nozzle (321) on the outer side panel. The rear of the gas and water nozzle end module is provided with low-voltage electrode surface four (37) which is in position corresponding and parallel with low-voltage electrode surface three. The periphery of the low-voltage electrode surface four is provided with annular groove four (36) which is in position corresponding with annular groove three. The annular groove four is provided with air guide hole two (33) which is in communication with the outer side. The air guide hole two is connected with the air inlet nozzle (351) of the outer surface. The outer side of the annular groove four is provided with screw through hole three (35) which is in position corresponding and connected with other modules. The middle part of the gas and water nozzle end module is provided with central hole three (34) which is used for guiding air. The front side of the central hole three is connected with the ozone air outlet nozzle (341). The high-voltage electrode assembly (6) is arranged in the central hole one of the high-voltage end module, the central hole two of the middle module and the dielectric sheet recess. The high-voltage electrode assembly (6) comprises high-voltage electrode sheet (66), dielectric sheet (65), high-voltage conductive screw (62), conductive screw seat (64), high-voltage sheath seat (63), extension conductive rod (68), extension conductive rod sheath (67), fixed nut one (61) and fixed nut two (69). The axis of the conductive screw seat (64) is provided with screw through hole four (641). The outer side wall is provided with sealing ring step (642) which is in sealed connection with the central hole one. The high-voltage sheath seat (63) is arranged at the rear of the conductive screw seat. The axis is provided with screw through hole five (631). The high-voltage conductive screw is arranged in the screw through hole four of the conductive screw seat and the screw through hole five of the high-voltage sheath seat. The axis of the extension conductive rod sheath (67) is provided with extension conductive rod through hole (671). The outer side is provided with air through hole (672). The extension conductive rod (68) is arranged in the extension conductive rod through hole. Each high-voltage electrode sheet is provided with a dielectric sheet on both sides and clamps the high-voltage electrode sheet. The conductive screw seat is arranged in the central hole one of the high-voltage end module (1). The front end is electrically connected with the high-voltage electrode sheet one (661) in the dielectric sheet recess one (16). The front end of the conductive screw passes through the high-voltage electrode sheet one. The extension conductive rod screw hole (682) is in threaded connection with the conductive screw and clamps the high-voltage electrode sheet one. The extension conductive rod screw (681) passes through the extension conductive rod (68) in the central hole two of the middle module and is electrically connected with the high-voltage electrode sheet two (662) arranged in the dielectric sheet recess two (24) and fixes the high-voltage electrode sheet two with the fixed nut two (69).
2. A plate-type ozone generator according to claim 1, characterized in that The dielectric sheet is one of ceramic sheet, quartz glass sheet and enamel sheet.
3. A plate-type ozone generator according to claim 1, wherein The dielectric sheet is a circular sheet with consistent thickness. The outer diameter of the circular sheet is smaller than the outer diameter of the outer side of the annular groove for guiding air and the inner diameter is larger than the outer diameter of the front side of the conductive screw seat.
4. A plate-type ozone generator according to claim 1, wherein The dielectric sheet is a T-shaped enamel sheet, the large surface of the T-shaped enamel sheet is a circular sheet, one side of the middle part of the circular sheet is provided with a cylinder which is integrated with the circular sheet and is perpendicular to the circular sheet, the circular sheet is arranged in the dielectric sheet recess, and the cylinder is arranged in the center hole of two adjacent modules and clamps the high-voltage electrode sheet.
5. A plate-type ozone generator according to claim 1, wherein The high-voltage electrode sheet is one of a stainless steel mesh sheet, a stainless steel mesh hole sheet, a titanium alloy mesh sheet and a titanium alloy mesh hole sheet, the high-voltage electrode sheet is a circular sheet, the outer diameter of the circular sheet is smaller than the outer diameter of the dielectric sheet, and the inner diameter is equal to the diameter of the high-voltage conductive screw rod (62).
6. A plate-type ozone generator according to claim 1, wherein The material of the conductive screw rod seat, the high-voltage sheath seat and the continuation conductive screw rod seat is one of polytetrafluoroethylene and ceramic.
7. A plate-type ozone generator according to claim 1, wherein The longitudinal and transverse water channel structures in the high-voltage end module (1), the middle module (2) and the gas and water nozzle end module (3) are the same, the water inlets and outlets of the modules are arranged on the connecting surfaces of the modules and are in position correspondence, sealing rings are arranged at the interfaces, the modules are in sealed communication with each other, and the end of the processing hole in the side wall of the water channel is provided with a plug.
8. A plate-type ozone generator according to claim 1, wherein The hole wall of the center hole one of the high-voltage end module (1) is provided with an annular step (110) which protrudes towards the shaft center, the annular step is in position correspondence with the sealing ring step (642) on the conductive screw rod seat and is in sealed connection.
9. A plate-type ozone generator according to claim 1, wherein The gas guide hole one (25) is provided with 2-10 holes which are uniformly distributed along the axis of the annular groove.
10. A plate-type ozone generator according to claim 1, wherein The distance between the two low-voltage electrode surfaces which are in position correspondence in the high-voltage end module, the middle module and the gas and water nozzle end module is equal to the sum of the thicknesses of the two dielectric sheets and the high-voltage electrode sheet arranged therebetween.