Transmission conduit of ion generator

Abstract

The utility model provides an ionizer transmission conduit which comprises a breathable base, connecting ports, an ionizer, an ionizer conduit and a negative ion forming pipe, the connecting ports are arranged above the breathable base in a 3 * 3 mode, and the connecting ports are fixedly installed above the breathable base. The ion generators are respectively and fixedly arranged above each group of connecting ports; the ion conduits are fixedly installed above the ion generators respectively, and the negative ion forming pipes are fixedly installed on the surfaces of the ion conduits. Due to the arrangement of the ion guide pipe and the negative ion forming pipe, the oxygen can be quickly combined to form negative ions, and the phenomena of energy loss and scattering cannot be generated in the transmission process.

Description

Technical Field

[0001] The utility model relates to the technical field of ion transmission conduits, in particular to a transmission conduit for an ion generator. Background Art

[0002] With the acceleration of urbanization and the improvement of industrialization, air pollution has become a global environmental problem. Traditional air purification technology is often difficult to completely solve the problem of tiny particles and harmful gases in the air. Ion technology can effectively remove harmful substances such as dust, bacteria, viruses, etc. in the air by generating and releasing negative ions, improve indoor and outdoor air quality, and improve people's living comfort. In modern technology and life, attention to air quality, environmental hygiene and human health is becoming more and more important. As a new type of ion transmission device, the ion generator transmission catheter has important application prospects and technical background.

[0003] Since the existing ion transmission conduit directly emits ions into the air, it can only form negative ions with 21% of the oxygen structure in the air. The formation degree of the entire negative ion is low. Therefore, it is necessary to reasonably control the way in which oxygen enters the ion generator to ensure that the oxygen and ions in the ion generator are fully in contact and form negative ions in the ion conduit, which helps to improve the efficiency of ion generation, thereby improving the working efficiency of the ion generator;

[0004] In addition, the negative ions generated by the ion generator need to be transmitted to the target location through the transmission pipe to work. Because the ions are charged, the ions may interact with the pipe wall during the transmission process, such as collision or rebound. These interactions will affect the transmission efficiency and path of the ions in the pipe.

[0005] Therefore, it is very necessary to invent an ion generator transmission conduit. Summary of the invention

[0006] In order to solve the above technical problems, the utility model provides an ion generator transmission conduit to solve the problem that the existing transmission conduit still cannot quickly combine ions with oxygen to form negative ions, and is prone to energy loss and scattering during the transmission process. An ion generator transmission conduit includes a breathable base, a connection port, an ion generator, an ion conduit and a negative ion forming tube, wherein: the connection port is arranged in a 3×3 manner above the breathable base, and the connection port is fixedly installed above the breathable base, and the ion generator is fixedly installed above each group of connection ports; the ion conduit is fixedly installed above each group of ion generators, and the negative ion forming tube is fixedly installed on the surface of the ion conduit.

[0007] The ion guide tube includes an outer support tube, an inner transmission tube wall and an oxygen molecule intrusion hole, and the outer support tube is fixedly installed above each group of ion generators, and the inner transmission tube wall is fixedly installed inside the outer support tube; the oxygen molecule intrusion hole is opened inside the outer support tube and the inner transmission tube wall, and negative ion forming tubes are fixedly installed at the two ends of the outer support tube where no oxygen molecule intrusion hole is set.

[0008] The negative ion forming tube comprises a lower sealing plate, an upper sealing plate, a capture zone and an oxygen input port, and the lower sealing plate and the upper sealing plate are respectively installed at both ends of the outer support tube where no oxygen molecule intrusion holes are provided, and are sealed at the gap after being fixed; the capture zone is fixedly installed between the lower sealing plate and the upper sealing plate, and the oxygen input port is fixedly installed on the outside of the capture zone.

[0009] The ion conduit is composed of several tubes, which are parallel to each other. A negative ion outlet is arranged on the top of the ion conduit. The outer support tube is a stainless steel metal tube, and the inner transmission tube wall is a ceramic tube. The inner wall of the inner transmission tube wall is smooth without obvious joint marks. The outer support tube and the inner transmission tube wall fit tightly to form a complete tube, and the oxygen molecule intrusion holes are a plurality of long strip-shaped through holes which are wide outside and narrow inside. The oxygen molecule intrusion holes are arranged in only one row inside each outer support tube and inner transmission tube wall. The oxygen molecule intrusion holes have the following functions: ① Ion transmission: The ion conduit is responsible for transmitting the ions generated by the ion generator to the target position or system. Through the space inside the conduit, the ions can be transported along the designed ① Reduce energy loss: The ion guide tube design can reduce the energy loss of ions during transmission and improve the efficiency of ion transmission. Usually, a smooth inner wall surface and appropriate materials are used, such as a ceramic tube used for the inner transmission tube wall, which can reduce the collision and scattering between ions and the tube wall, thereby reducing energy loss; ③ Insulation performance: The ceramic tube used for the inner transmission tube wall has good insulation performance to prevent charge leakage or loss during ion transmission; ④ Maintain ion stability: The ion guide tube can maintain the stability of ions, prevent unnecessary interactions with the external environment during transmission, and ensure that the ions maintain their original properties and characteristics during transmission.

[0010] The lower sealing plate and the upper sealing plate inside the negative ion forming tube are both made of stainless steel metal circular plates, and circular holes are arranged inside the lower sealing plate and the upper sealing plate, and the positions and sizes of the circular holes inside the lower sealing plate and the upper sealing plate match the ion guide tube; the capture zone forms a cylindrical space with the lower sealing plate and the upper sealing plate, and the capture zone is connected to the oxygen generating device through the oxygen input port, which has the following functions: ① negative ion generation: the negative ion forming tube is one of the key components for negative ion generation. In this tube, negative ions will be immediately captured by oxygen molecules, and the introduction of oxygen promotes the generation of negative ions; ② ion capture: when ions move in the ion guide tube, air flow is generated, so that the air flow velocity inside the oxygen molecule intrusion hole is greater than the outside flow velocity, and a pressure difference will be formed, so that the oxygen inside the negative ion forming tube will enter the interior of the ion guide tube through the oxygen molecule intrusion hole, and ion capture is performed to form negative ions inside the ion guide tube; ③ oxygen supply: the oxygen input port allows oxygen or other gases to enter the forming tube to supply the gas required for negative ion generation.

[0011] Compared with the prior art, the utility model has the following beneficial effects:

[0012] 1. The setting of the ion conduit of the utility model has the following functions: ① Ion transmission: The ion conduit is responsible for transmitting the ions generated by the ion generator to the target position or system. Through the space inside the conduit, the ions can be guided to the required place along the designed channel; ② Reducing energy loss: The design of the ion conduit can reduce the energy loss of ions during the transmission process and improve the efficiency of ion transmission. Usually, a smooth inner wall surface and appropriate materials, such as a ceramic tube used for the inner transmission tube wall, can reduce the collision and scattering between ions and the tube wall, thereby reducing energy loss; ③ Insulation performance: The ceramic tube used for the inner transmission tube wall has good insulation performance to prevent charge leakage or loss during ion transmission; ④ Maintaining the stability of ions: The ion conduit can maintain the stability of ions, prevent unnecessary interactions with the external environment during transmission, and ensure that the ions maintain their original properties and characteristics during transmission.

[0013] 2. The setting of the negative ion forming tube of the utility model has the following functions: ① Negative ion generation: The negative ion forming tube is one of the key components for negative ion generation. In this tube, negative ions will be immediately captured by oxygen molecules, and the introduction of oxygen promotes the generation of negative ions; ② Ion capture: When ions move in the ion guide tube, air flow is generated, so that the air flow velocity inside the oxygen molecule intrusion hole is greater than the outside flow velocity, which will form an air pressure difference, so that the oxygen inside the negative ion forming tube will enter the interior of the ion guide tube through the oxygen molecule intrusion hole, and ion capture is performed to form negative ions inside the ion guide tube; ③ Oxygen supply: The oxygen input port allows oxygen or other gases to enter the forming tube to supply the gas required for negative ion generation. BRIEF DESCRIPTION OF THE DRAWINGS

[0014] Figure 1 It is a structural schematic diagram of the utility model.

[0015] Figure 2 It is an enlarged view of point A of the present utility model.

[0016] Figure 3 It is a structural schematic diagram of the ion guide tube of the utility model.

[0017] In the figure:

[0018] Breathable base 1, connecting port 2, ion generator 3, ion guide tube 4, outer support tube 41, inner transmission tube wall 42, oxygen molecule intrusion hole 43, negative ion forming tube 5, lower sealing plate 51, upper sealing plate 52, capture zone 53, oxygen input port 54. DETAILED DESCRIPTION

[0019] In order to enable those skilled in the art to better understand the solution of the utility model, the technical solution in the embodiment of the utility model will be described clearly and completely below. Obviously, the described embodiment is only a part of the embodiment of the utility model, not all of the embodiments. Based on the embodiment of the utility model, all other embodiments obtained by ordinary technicians in this field without creative work should fall within the scope of protection of the utility model.

[0020] As attached Figure 1 To Attachment Figure 3 shown.

[0021] The utility model provides an ion generator transmission conduit, comprising a breathable base 1, a connecting port 2, an ion generator 3, an ion conduit 4 and a negative ion forming tube 5, wherein: the connecting ports 2 are arranged above the breathable base 1 in a 3×3 manner, and the connecting ports 2 are fixedly installed above the breathable base 1, and the ion generator 3 is respectively fixedly installed above each group of connecting ports 2; the ion conduit 4 is respectively fixedly installed above each group of ion generators 3, and the negative ion forming tube 5 is fixedly installed on the surface of the ion conduit 4.

[0022] The ion guide tube 4 includes an outer support tube 41, an inner transmission tube wall 42 and an oxygen molecule intrusion hole 43, and the outer support tube 41 is fixedly installed above each group of ion generators 3, and the inner transmission tube wall 42 is fixedly installed inside the outer support tube 41; the oxygen molecule intrusion hole 43 is opened inside the outer support tube 41 and the inner transmission tube wall 42, and the negative ion forming tube 5 is fixedly installed at the two ends of the outer support tube 41 where the oxygen molecule intrusion hole 43 is not set.

[0023] The negative ion forming tube 5 includes a lower sealing plate 51, an upper sealing plate 52, a capture zone 53 and an oxygen inlet 54, and the lower sealing plate 51 and the upper sealing plate 52 are respectively installed at both ends of the outer support tube 41 where no oxygen molecule intrusion holes 43 are set, and are sealed at the gap after being fixed; the capture zone 53 is fixedly installed between the lower sealing plate 51 and the upper sealing plate 52, and the oxygen inlet 54 is fixedly installed on the outside of the capture zone 53.

[0024] The utility model provides an ion generator transmission conduit,

[0025] 1. Breathable base design1

[0026] The breathable base is the basic component of the ion generator transmission conduit and is made of corrosion-resistant and sufficiently strong materials, such as engineering plastics or metal alloys. The main function of the breathable base is to provide a supporting structure and provide a reference for the layout of the connection port 2.

[0027] 2. Connection port settings 2

[0028] The connection ports are located above the breathable base and are arranged in a 3×3 manner. This layout enables the ion generator 3 to be evenly installed on the breathable base. The fixed installation of the connection ports ensures the stability and reliability of the ion generator.

[0029] 3.Ion generator installation 3

[0030] The ion generator is the core component of the entire device. Its function is to generate ions. Each ion generator is fixedly installed above the connection port to ensure that the layout and installation position of the ion generator can achieve the best ion generation efficiency.

[0031] 4. Ion guide tube structure 4

[0032] The ion guide tube is responsible for transmitting the generated ions to the target position. It consists of an outer support tube 41, an inner transmission tube wall 42 and an oxygen molecule intrusion hole 43. The outer support tube 41 is made of stainless steel, while the inner transmission tube wall 42 is made of a smooth ceramic pipe to reduce energy loss during ion transmission. The oxygen molecule intrusion hole 43 is located inside the outer support tube and the inner transmission tube wall. The design of the long strip through hole ensures sufficient intrusion of oxygen molecules.

[0033] 5. Negative ion forming tube design 5

[0034] The negative ion forming tube is installed on the surface of the ion guide tube, and includes a lower sealing plate 51, an upper sealing plate 52, a capture zone 53 and an oxygen inlet 54. The lower sealing plate and the upper sealing plate are made of stainless steel to ensure good sealing performance. The capture zone is connected to the oxygen generating device through the oxygen inlet to provide the oxygen required for the formation of negative ions.

[0035] 6. Summary of structural characteristics

[0036] This ion generator transmission duct has the characteristics of simple structure, stability and reliability, and high ion transmission efficiency. The close combination of the outer support tube and the inner transmission tube wall ensures the smoothness of ion transmission, and the reasonable layout of the connection port ensures the uniform installation and stability of the ion generator.

[0037] 7. Application areas

[0038] The ion generator transmission duct can be widely used in air purification, medical care, environmental improvement and other fields. It provides effective technical support for improving air quality and enhancing people's quality of life.

[0039] The above are the specific implementation methods and characteristics of the ion generator transmission conduit. This device has broad application prospects in the field of ion transmission.

[0040] Utilizing the technical solution described in the utility model, or those skilled in the art designing similar technical solutions inspired by the technical solution of the utility model to achieve the above-mentioned technical effects, all fall within the protection scope of the utility model.

Claims

1. An ion generator transmission conduit, characterized in that: The invention comprises a breathable base (1), a connection port (2), an ion generator (3), an ion guide tube (4) and a negative ion forming tube (5), wherein: the connection port (2) is arranged above the breathable base (1), and the connection port (2) is fixedly mounted above the breathable base (1); the ion generator (3) is respectively fixedly mounted above each group of connection ports (2); the ion guide tube (4) is respectively fixedly mounted above each group of ion generators (3), and the negative ion forming tube (5) is fixedly mounted on the ion guide tube (4) in a manner of upper and lower packaging.

2. An ion generator transmission conduit as claimed in claim 1, characterized in that: The ion guide tube (4) comprises an outer support tube (41), an inner transmission tube wall (42) and an oxygen molecule intrusion hole (43), and the outer support tube (41) is fixedly mounted above each group of ion generators (3), and the inner transmission tube wall (42) is fixedly mounted inside the outer support tube (41); the oxygen molecule intrusion hole (43) is opened inside the outer support tube (41) and the inner transmission tube wall (42), and negative ion forming tubes (5) are fixedly mounted at both ends of the outer support tube (41) where the oxygen molecule intrusion hole (43) is not provided.

3. An ion generator transmission conduit as claimed in claim 1, characterized in that: The negative ion forming tube (5) comprises a lower sealing plate (51), an upper sealing plate (52), a capture zone (53) and an oxygen inlet (54), and the lower sealing plate (51) and the upper sealing plate (52) are respectively mounted at two ends of the outer support tube (41) where no oxygen molecule intrusion hole (43) is provided, and are sealed at the gap after being fixed; the capture zone (53) is fixedly mounted between the lower sealing plate (51) and the upper sealing plate (52), and the oxygen inlet (54) is fixedly mounted on the outside of the capture zone (53).

4. An ion generator transmission conduit as claimed in claim 2, characterized in that: The ion conduits (4) are composed of a plurality of ion conduits (4) which are parallel to each other, and a negative ion outlet is arranged at the top of the ion conduits (4); the outer support tube (41) is composed of a stainless steel metal tube, and the inner transmission tube wall (42) is composed of a ceramic tube, the inner wall of the inner transmission tube wall (42) is smooth and has no obvious joint marks; the outer support tube (41) and the inner transmission tube wall (42) are tightly fitted to form a complete tube, and the oxygen molecule intrusion holes (43) are composed of a plurality of long strip-shaped through holes which are wide outside and narrow inside.

5. An ion generator transmission conduit as claimed in claim 3, characterized in that: The lower sealing plate (51) and the upper sealing plate (52) inside the negative ion forming tube (5) are both made of stainless steel metal circular plates, and circular holes are provided inside the lower sealing plate (51) and the upper sealing plate (52), and the positions and sizes of the circular holes inside the lower sealing plate (51) and the upper sealing plate (52) match the ion guide tube (4); the capture zone (53) forms a cylindrical space with the lower sealing plate (51) and the upper sealing plate (52), and the capture zone (53) is connected to the oxygen generating device through the oxygen inlet (54).

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