Modularized plate-type ozone generator

Abstract

The invention discloses a modular plate-type ozone generator, which belongs to the technical field of ozone production and comprises two symmetrically distributed cooling liquid shells, two symmetrically distributed injection heads are arranged at the tops of the cooling liquid shells, and high-voltage polar plates are arranged on the inner sides of the two cooling liquid shells. A discharge area gas guide module is arranged between the two high-voltage polar plates and comprises a mountain-shaped bottom plate and a double-T-shaped top plate, a labyrinth flow channel is formed in the discharge area, four partitions appear in the discharge area, the flowing distance of gas flow in the discharge area is increased, the opening and closing check block expands and recovers due to intermittent gas filling, and the discharge area gas guide module is arranged between the two high-voltage polar plates and comprises a mountain-shaped bottom plate and a double-T-shaped top plate. According to the ozone generator, air flow flows in the specified direction through the opening part of the middle area of the opening and closing stop block, the hollow air guide belt is intermittently inflated with air to expand and restore, the air flow is not stopped in the partition area, the air flow can be effectively kept in a specified flowing path all the time in the labyrinth flow channel, and the generation amount and the generation efficiency of ozone are improved.

Description

Technical Field

[0001] The present invention relates to the technical field of ozone production, and particularly to a modular plate-type ozone generator. Background Art

[0002] The plate-type ozone generator adopts a modular structure design and can be flexibly combined into plate-type ozone generators of different scales according to the needs of different applications. The plate-type ozone generator uses the corona discharge technology to generate ozone. The air flow flows in the discharge area formed between two high-voltage plates. The air flow flows linearly in the discharge area, so that the flow path of the air flow in the discharge area is short, and the flow time required for the flow path from the inlet to the outlet is short. As a result, the process of the air flow entering the discharge area from the inlet and then flowing out of the discharge area from the outlet is not sufficient for the air flow to effectively react in the discharge area to generate ozone. At the same time, the air flow flows freely in the discharge area, and it is impossible to effectively guide the direction of the air flow entering the discharge area from the inlet and control the flow rate and flow volume. It is easy to have stagnation and backflow of the air flow in a certain area of the discharge area, resulting in air flow blockage in the discharge area, affecting the smooth passage of the air flow, and thus affecting the ozone production amount and production efficiency. Summary of the Invention

[0003] In order to overcome the above-mentioned defects of the prior art, the present invention provides a modular plate-type ozone generator. By providing a mountain-shaped bottom plate and a double-T-shaped top plate distributed up and down to form a maze flow path in the discharge area between two high-voltage plates, four partitions appear in the discharge area, increasing the flow path of the air flow in the discharge area and increasing the ozone production amount. Two opening and closing blocks cooperate to further divide the maze flow path. By intermittently filling the opening and closing blocks with gas to expand and restore, the air flow flows along the opening part in the middle area of the opening and closing blocks in the specified direction in the maze flow path. By intermittently filling the hollow air guiding belt with gas to expand and restore, the air flow does not stagnate in the partition area, and can effectively keep the air flow in the maze flow path always in the specified flow route. At the same time, the flow rate and flow volume of the air flow can be controlled, so that the air flow in the maze flow path is not blocked, and at the same time, the path can be maximally increased to improve the ozone production amount and production efficiency, so as to solve the problems raised in the above-mentioned background art.

[0004] To achieve the above object, the present invention provides the following technical solutions:

[0005] A modular plate-type ozone generator includes two symmetrically distributed coolant shells. At the top of each coolant shell, there are two symmetrically distributed feeding heads. Inside each of the two coolant shells, there is a high-voltage electrode plate. Between the two high-voltage electrode plates, there is a discharge area gas guiding module. The discharge area gas guiding module includes a mountain-shaped bottom plate and a double-T-shaped top plate. The double-T-shaped top plate and the mountain-shaped bottom plate are fixed one above the other between the two high-voltage electrode plates. A labyrinth flow channel is formed between the mountain-shaped bottom plate and the double-T-shaped top plate. Between the top end of the double-T-shaped top plate and the mountain-shaped bottom plate, there are two air flow ports corresponding to the feeding heads. On the discharge area gas guiding module, there are two air flow processing and releasing modules corresponding to the two vertical parts of the double-T-shaped top plate. The air flow processing and releasing module includes a gas supply control part, a side air pipe, and an opening and closing block. The opening and closing block is connected to the gas supply control part through the side air pipe and is fixed at the bottom end of the vertical part of the double-T-shaped top plate and the inner side wall of the mountain-shaped bottom plate. On the double-T-shaped top plate, there is an inlet area air flow processing module. The inlet area air flow processing module includes a gas supply driving part, an upper air pipe, and a hollow air guiding belt. The number of the hollow air guiding belts is two. The two hollow air guiding belts are connected to the gas supply driving part through the upper air pipe and are fixed on both sides of the vertical part of the double-T-shaped top plate close to the left air flow port.

[0006] Further, the two coolant shells are fixed by screwing. The feeding heads are fixed by screwing at the top of the two coolant shells. The two high-voltage electrode plates are respectively snap-connected to the inner side walls of the two coolant shells.

[0007] Further, the gas supply control part is fixedly connected to the outer wall of the coolant shell in the outer position. The side air pipe is fixed at the output end of the gas supply control part. The side air pipe is snap-connected to the inner side wall of the mountain-shaped bottom plate.

[0008] Further, the output end of the side air pipe is fixedly connected with a connecting head. The opening and closing block is fixedly connected to the output end of the connecting head. The other end of the opening and closing block is fixedly connected with a docking buckle plate. The docking buckle plate is fixedly connected to the bottom end of the corresponding vertical part of the double-T-shaped top plate.

[0009] Further, two baffles are fixedly connected to the inner side wall of the mountain-shaped bottom plate. The two side air pipes are respectively located inside the two baffles.

[0010] Further, the gas supply driving part is fixedly connected to the top of the coolant shell in the outer position. The upper air pipe is fixed at the output end of the gas supply driving part. The upper air pipe is snap-connected to the inside of the double-T-shaped top plate.

[0011] Further, a positioning block is fixedly connected to the outer wall of the hollow air guide belt. The positioning block is fixedly connected to the angular region of the vertical part of the double T-shaped top plate near the left air flow port. The output end of the upper air pipe is fixedly connected to the hollow air guide belt.

[0012] Further, heat dissipation fins are fixedly connected inside the coolant housing.

[0013] Compared with the prior art, the beneficial effects of the present invention are as follows:

[0014] In the present invention, a mountain-shaped bottom plate and a double T-shaped top plate are arranged one above the other and positioned between two high-voltage plates, forming a labyrinth flow channel in the discharge area between the two high-voltage plates, so that four partitions appear in the discharge area, which can increase the flow path of the air flow in the discharge area from the air flow port in the inlet area to the air flow port in the outlet area, effectively increasing the generation amount of ozone. The cooperation of the two opening and closing blocks fixed at the bottom end of the vertical part of the double T-shaped top plate and the inner side wall of the mountain-shaped bottom plate can further separate the labyrinth flow channel. Through the operation of the air supply control part, the opening and closing blocks can be intermittently filled with gas to expand and recover, so that the air flow flows along the opening part in the middle area of the opening and closing blocks in a specified direction in the labyrinth flow channel. Through the operation of the air supply driving part, the hollow air guide belt can be intermittently filled with gas to expand and recover, so that the air flow entering from the air flow port in the inlet area keeps flowing towards the next partition area, preventing the air flow from stagnating in the partition area, effectively keeping the air flow in the labyrinth flow channel always in a specified flow route, and at the same time, the flow rate and velocity of the air flow can be controlled, so that the air flow in the labyrinth flow channel is not blocked, and at the same time, the flow path can be maximally increased, improving the generation amount and generation efficiency of ozone and the use effect of the ozone generator. BRIEF DESCRIPTION OF THE DRAWINGS

[0015] In order to more clearly illustrate the technical solutions in the embodiments, the following will briefly introduce the drawings in the embodiments.

[0016] Figure 1 is a structural schematic diagram of the present invention;

[0017] Figure 2 is a structural schematic diagram of the partial separation of the present invention;

[0018] Figure 3 is a structural schematic diagram of another perspective of the partial separation of the present invention;

[0019] Figure 4 is a structural schematic diagram of the air guide module in the discharge area of the present invention;

[0020] In the figure: 1. Coolant housing; 11. Feeding head; 12. Heat sink; 2. High-voltage plate; 3. Discharge area air guide module; 31. Mountain-shaped bottom plate; 311. Baffle; 32. Double T-shaped top plate; 33. Labyrinth flow channel; 34. Air flow port; 4. Air flow treatment and release module; 41. Air supply control component; 42. Side air pipe; 421. Connector; 43. Opening and closing block; 431. Docking buckle plate; 5. Entrance area air flow treatment module; 51. Air supply driving component; 52. Upper air pipe; 53. Hollow air guide belt; 54. Positioning block. Detailed implementation mode

[0021] The following combines the drawings in the embodiments of the present invention to clearly and completely describe the technical solutions in the embodiments of the present invention. Regarding the specific mechanical structure of the present invention, it will be clearly presented in the following detailed description of the structure in cooperation with reference to Figures 1 to 4 In the detailed description of the structure, the structural contents mentioned in the following embodiments are all with reference to the drawings of the specification.

[0022] Please refer to Figures 1~4 In the embodiments of the present invention, a modular plate-type ozone generator includes two symmetrically distributed coolant housings 1. Two symmetrically distributed feeding heads 11 are provided at the top of the coolant housing 1. High-voltage plates 2 are provided on the inner sides of the two coolant housings 1. A discharge area air guide module 3 is provided between the two high-voltage plates 2. The discharge area air guide module 3 includes a mountain-shaped bottom plate 31 and a double T-shaped top plate 32. The double T-shaped top plate 32 and the mountain-shaped bottom plate 31 are fixed between the two high-voltage plates 2, one above the other. A labyrinth flow channel 33 is formed between the mountain-shaped bottom plate 31 and the double T-shaped top plate 32. Two air flow ports 34 corresponding to the feeding heads 11 are formed between the top end of the double T-shaped top plate 32 and the mountain-shaped bottom plate 31. Two air flow treatment and release modules 4 corresponding to the two vertical parts on the double T-shaped top plate 32 are provided on the discharge area air guide module 3. The air flow treatment and release module 4 includes an air supply control component 41, a side air pipe 42, and an opening and closing block 43. The opening and closing block 43 is connected to the air supply control component 41 through the side air pipe 42 and is fixed at the bottom end of the vertical part of the double T-shaped top plate 32 and the inner side wall of the mountain-shaped bottom plate 31. An entrance area air flow treatment module 5 is provided on the double T-shaped top plate 32. The entrance area air flow treatment module 5 includes an air supply driving component 51, an upper air pipe 52, and a hollow air guide belt 53. The number of the hollow air guide belts 53 is two. The two hollow air guide belts 53 are connected to the air supply driving component 51 through the upper air pipe 52 and are fixed on both sides of the vertical part of the double T-shaped top plate 32 near the left air flow port 34.

[0023] The two coolant housings 1 are symmetrically distributed. The two coolant housings 1 are used to connect the two high-voltage plates 2 and the two feeding heads 11. The two high-voltage plates 2 are respectively clamped and connected to the inner side walls of the two coolant housings 1. The two coolant housings 1 are screwed together. The feeding head 11 is positioned at the lug area corresponding to the top of the coolant housing 1. The feeding head 11 is screwed and fixed at the lug area on the top of the coolant housing 1 to stably combine the two coolant housings 1, the high-voltage plates 2 and the feeding heads 11. A heat sink 12 is fixedly connected inside the coolant housing 1. The heat sink 12 is used for the heat dissipation operation of the ozone generator during the ozone generation process.

[0024] The discharge area air guiding module 3 is arranged between the two high-voltage plates 2. The discharge area air guiding module 3 is composed of a mountain-shaped bottom plate 31 and a double-T-shaped top plate 32. The double-T-shaped top plate 32 and the mountain-shaped bottom plate 31 are distributed one above the other between the two high-voltage plates 2. The side edges of the mountain-shaped bottom plate 31 and the double-T-shaped top plate 32 are fixedly connected to the side edges of the corresponding high-voltage plates 2 to stably position the double-T-shaped top plate 32 and the mountain-shaped bottom plate 31 between the two high-voltage plates 2. A labyrinth flow channel 33 is formed between the mountain-shaped bottom plate 31 and the double-T-shaped top plate 32. Two air flow openings 34 corresponding to the feeding heads 11 are formed between the top end of the double-T-shaped top plate 32 and the mountain-shaped bottom plate 31, so that the air flow enters the inside of the labyrinth flow channel 33 through the air flow opening 34 at the left inlet area position and is discharged out through the air flow opening 34 at the right outlet area position, effectively guiding and discharging the air flow. The labyrinth flow channel 33 makes four partitions appear in the discharge area between the two high-voltage plates 2, which can increase the flow path of the air flow in the discharge area and increase the ozone generation amount.

[0025] Two air flow processing and releasing modules 4 corresponding to the two vertical parts on the double T-shaped top plate 32 are arranged on the air guide module 3 in the discharge area. The air flow processing and releasing module 4 is composed of a gas supply control part 41, a side air pipe 42 and an opening and closing block 43. The gas supply control part 41 is fixedly connected to the outer wall of the coolant housing 1 in the outer position. The side air pipe 42 is fixed to the output end of the gas supply control part 41. The side air pipe 42 is snap-connected to the inner side wall of the mountain-shaped bottom plate 31. A connector 421 is fixedly connected to the output end of the side air pipe 42. The opening and closing block 43 is fixedly connected to the output end of the connector 421. The other end of the opening and closing block 43 is fixedly connected to a docking buckle plate 431. The docking buckle plate 431 is fixedly connected to the bottom end of the corresponding vertical part of the double T-shaped top plate 32, stably connecting the air flow processing and releasing module 4 to the air guide module 3 in the discharge area. Two baffles 311 are fixedly connected to the inner side wall of the mountain-shaped bottom plate 31. The two side air pipes 42 are respectively located inside the two baffles 311, ensuring the smooth flow of air in the labyrinth flow channel 33 and not contacting and affecting the side air pipes 42. When the gas supply control part 41 operates, it can fill gas into the corresponding opening and closing block 43 through the side air pipe 42, causing the opening and closing block 43 to expand by inflation inside the labyrinth flow channel 33. The opening and closing block 43 expands by inflation to tighten the opening part in the middle area. The opening and closing block 43 is intermittently filled with gas to expand and recover, enabling the opening part in the middle area of the opening and closing block 43 to open and close, so as to guide the flow of air, making the air flow through the opening part in the middle area of the opening and closing block 43 in the labyrinth flow channel 33 along the specified direction, playing a role in guiding and releasing the air flow along the specified direction.

[0026] An air flow processing module 5 for the inlet area is provided on the double-T-shaped top plate 32. The air flow processing module 5 for the inlet area consists of a gas supply driving part 51, an upper end air pipe 52, and a hollow air guiding belt 53. The gas supply driving part 51 is fixedly connected to the top of the coolant shell 1 at the outer position. The upper end air pipe 52 is fixed to the output end of the gas supply driving part 51. The upper end air pipe 52 is snap-connected inside the double-T-shaped top plate 32. The number of the hollow air guiding belts 53 is two. A positioning block 54 is fixedly connected to the outer wall of the hollow air guiding belt 53. The positioning block 54 is fixedly connected to the included angle area of the vertical part of the double-T-shaped top plate 32 near the left air flow port 34. The output end of the upper end air pipe 52 is fixedly connected to the hollow air guiding belt 53, so that the two hollow air guiding belts 53 are connected to the gas supply driving part 51 through the upper end air pipe 52 and are stably fixed at both sides of the vertical part of the double-T-shaped top plate 32 near the left air flow port 34, and the air flow processing module 5 for the inlet area is stably connected to the double-T-shaped top plate 32. When the gas supply driving part 51 operates, it can guide and release gas into the two hollow air guiding belts 53 through the upper end air pipe 52, so that the hollow air guiding belts 53 can be intermittently filled with gas to expand and recover. When the hollow air guiding belts 53 expand, they can guide the air flow to flow downward inside the labyrinth flow channel 33, so that the air flow entering from the air flow port 34 of the inlet area maintains the state of flowing to the next partition area, and it can ensure that the air flow does not stagnate in the partition area.

[0027] Two coolant shells 1 combine with the high-voltage electrode plates 2 and the air flow guiding module 3 for the discharge area to form a modular ozone generator. The mountain-shaped bottom plate 31 and the double-T-shaped top plate 32 that make up the air flow guiding module 3 for the discharge area are positioned one above the other between the two high-voltage electrode plates 2, and a labyrinth flow channel 33 is formed in the discharge area between the two high-voltage electrode plates 2. The labyrinth flow channel 33 forms four partitions in the discharge area, which can increase the flow path of the air flow in the discharge area from the air flow port 34 of the inlet area to the air flow port 34 of the outlet area, so as to effectively increase the generation amount of ozone. Two opening and closing blocks 43 fixed at the bottom end of the vertical part of the double-T-shaped top plate 32 and the inner side wall of the mountain-shaped bottom plate 31 cooperate to further partition the labyrinth flow channel 33. When the gas supply control part 41 operates, the opening and closing blocks 43 can be intermittently filled with gas to expand and recover, so that the air flow flows along the specified direction through the opening part in the middle area of the opening and closing blocks 43 inside the labyrinth flow channel 33. When the gas supply driving part 51 operates, the hollow air guiding belts 53 can be intermittently filled with gas to expand and recover, so that the air flow entering from the air flow port 34 of the inlet area maintains the state of flowing to the next partition area, so that the air flow does not stagnate in the partition area, and it can effectively keep the air flow in the labyrinth flow channel 33 always in the specified flow path. At the same time, the flow rate and velocity of the air flow can be controlled, so that the air flow in the labyrinth flow channel 33 is not blocked, and at the same time, the path can be increased to the maximum extent, the generation amount and generation efficiency of ozone are improved, and the use effect of the ozone generator is improved.

[0028] The working principle of the present invention is as follows: The air flow is guided by the air flow opening 34 in the inlet area into the labyrinth flow channel 33 in the discharge area between the two high-voltage plates 2. The labyrinth flow channel 33 forms four partitions in the discharge area. The two opening and closing blocks 43 cooperate to further divide the labyrinth flow channel 33. The air supply control member 41 operates to intermittently fill the opening and closing blocks 43 with gas to cause expansion and restoration, so that the air flow flows in a specified direction along the opening in the middle area of the opening and closing blocks 43 in the labyrinth flow channel 33. The air supply driving member 51 operates to intermittently fill the hollow air guiding belt 53 with gas to cause expansion and restoration, so that the air flow entering from the air flow opening 34 in the inlet area maintains the state of flowing towards the next partition area, so that the air flow does not stagnate in the partition area. The air flow flows sequentially along the four partitions, increasing the flow path of the air flow in the discharge area from the air flow opening 34 in the inlet area to the air flow opening 34 in the outlet area. The generated ozone is discharged outward through the air flow opening 34 in the outlet area to produce ozone.

[0029] The above shows and describes the basic principle, main features and advantages of the present invention. Those skilled in the art should understand that the present invention is not limited by the above embodiments. What is described in the above embodiments and the specification only illustrates the principle of the present invention. Without departing from the spirit and scope of the present invention, the present invention will have various changes and improvements, and these changes and improvements all fall within the scope of the present invention claimed. The scope of protection claimed by the present invention is defined by the appended claims and their equivalents.

Claims

1. A modular plate-type ozone generator, comprising two symmetrically distributed coolant shells (1), wherein two symmetrically distributed feeding heads (11) are arranged at the top of the coolant shells (1), and high-voltage plates (2) are arranged on the inner sides of the two coolant shells (1), characterized in that, A discharge area air guide module (3) is provided between the two high-voltage plates (2). The discharge area air guide module (3) includes a mountain-shaped bottom plate (31) and a double-T-shaped top plate (32). The double-T-shaped top plate (32) and the mountain-shaped bottom plate (31) are fixed one above the other between the two high-voltage plates (2). A labyrinth flow channel (33) is formed between the mountain-shaped bottom plate (31) and the double-T-shaped top plate (32). Two air flow openings (34) corresponding to the injection heads (11) are formed between the top end of the double-T-shaped top plate (32) and the mountain-shaped bottom plate (31). Two air flow processing and release modules (4) corresponding to the two vertical parts on the double-T-shaped top plate (32) are provided on the discharge area air guide module (3). The air flow processing and release module (4) includes a gas supply control part (41), side air pipes (42), and opening and closing blocks (43). The opening and closing blocks (43) are connected to the gas supply control part (41) through the side air pipes (42) and are fixed at the bottom end of the vertical part of the double-T-shaped top plate (32) and the inner side wall of the mountain-shaped bottom plate (31). An inlet area air flow processing module (5) is provided on the double-T-shaped top plate (32). The inlet area air flow processing module (5) includes a gas supply driving part (51), upper air pipes (52), and hollow air guide belts (53). The number of the hollow air guide belts (53) is two. The two hollow air guide belts (53) are connected to the gas supply driving part (51) through the upper air pipes (52) and are fixed on both sides of the vertical part of the double-T-shaped top plate (32) near the left air flow opening (34).

2. The modular plate type ozone generator according to claim 1, wherein The two coolant shells (1) are fixed by screwing. The injection head (11) is fixed by screwing on the top of the two coolant shells (1). The two high-voltage plates (2) are respectively snap-connected to the inner side walls of the two coolant shells (1).

3. The modular plate-type ozone generator according to claim 1, wherein, The gas supply control part (41) is fixedly connected to the outer wall of the coolant shell (1) in the outer position. The side air pipes (42) are fixed at the output end of the gas supply control part (41). The side air pipes (42) are snap-connected to the inner side wall of the mountain-shaped bottom plate (31).

4. A modular plate-type ozone generator according to claim 1, characterized in that, A connector (421) is fixedly connected to the output end of the side air pipe (42). The opening and closing block (43) is fixedly connected to the output end of the connector (421). The other end of the opening and closing block (43) is fixedly connected to a docking buckle plate (431). The docking buckle plate (431) is fixedly connected to the bottom end of the corresponding vertical part of the double-T-shaped top plate (32).

5. A modular plate-type ozone generator according to claim 1, characterized in that, Two baffles (311) are fixedly connected to the inner side wall of the mountain-shaped bottom plate (31). The two side air pipes (42) are respectively located inside the two baffles (311).

6. The modular plate-type ozone generator according to claim 1, wherein The gas supply driving part (51) is fixedly connected to the top of the coolant shell (1) in the outer position. The upper air pipes (52) are fixed at the output end of the gas supply driving part (51). The upper air pipes (52) are snap-connected to the inside of the double-T-shaped top plate (32).

7. The modular plate type ozone generator according to claim 1, characterized in that, A positioning block (54) is fixedly connected to the outer wall of the hollow air guiding belt (53), and the positioning block (54) is fixedly connected to the included angle area of the vertical part of the double T-shaped top plate (32) close to the left air flow port (34), and the output end of the upper end air pipe (52) is fixedly connected to the hollow air guiding belt (53).

8. A modular plate-type ozone generator according to claim 1, characterized in that, A heat sink (12) is fixedly connected inside the coolant housing (1).

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