Improved plasma generation system

Abstract

The present invention discloses an improved plasma generating system, comprising an outer shell and an externally connected high-frequency voltage plasma, the plasma comprising an insulating tube and a metal wire spirally wound around the insulating tube, the outer shell comprising a chamber for holding the plasma, a chamber wall provided with an airflow channel, and a filter sleeve disposed outside the chamber wall, a circulating airflow diversion device disposed at the rear end of the outer shell, the circulating airflow diversion device comprising a diversion chamber and a diversion fan mounted within the diversion chamber, the diversion fan being a two-way flow-guiding structure comprising an outer ring of diversion fan blades and a power shaft disposed within the inner portion of the diversion fan blades, the power shaft being a hollowed-out cylindrical structure, the inner cavity of the power shaft being provided with an air suction fan blade group. The improved system effectively improves the purity of air during the plasma ionization process, enhances the actual ionization effect, and self-circulates inside and outside the diversion fan, thereby improving the actual purification and sterilization efficiency.

Description

Technical Field

[0001] The present invention relates to the technical field of air purification equipment, and in particular to an improved plasma generating system. Background Art

[0002] The economic development of Chinese society has promoted the improvement of consumers' material life. Coupled with the increase in industrial production and fuel vehicles, people have begun to pay attention to air health issues.

[0003] In terms of air quality control, the most widely used device is a household air purifier.

[0004] This type of purifier is generally required to be relatively small in size and will not take up too much home space; it can be used in closed home spaces and non-open-air public venues, providing a steady supply of fresh air to people in the space.

[0005] In existing air purifiers, the mainstream functional component is a plasma generator, which ionizes the air and then sterilizes and reduces dust, thereby achieving the air purification function. However, existing plasma generators have low efficiency in plasma generation and diffusion, resulting in relatively low air purification efficiency. In addition, plasma generators consume high energy, resulting in wasteful resources. A plasma generator that can effectively improve the purification efficiency of plasma air purifiers while reducing actual power consumption is currently in high demand. Summary of the Invention

[0006] The technical problem to be solved by the present invention is to provide an improved plasma generating system, which can effectively solve the problem of overly single functional structure of existing market products, improve the product's ordinary air ionization efficiency and ionized air exchange efficiency, increase the ionized air diffusion speed, and improve the energy utilization rate of the air purifier.

[0007] The following technical solution is provided to solve this problem: an improved plasma generating system, comprising an outer shell and a plasma with an external high-frequency voltage, the plasma comprising an insulating tube and a metal wire spirally wound on the insulating tube, the outer shell comprising a accommodating cavity for placing the plasma, a accommodating cavity wall provided with an airflow channel, and a filter sleeve provided on the outside of the accommodating cavity wall, a circulating airflow guiding device is provided at the rear end of the outer shell, the circulating airflow guiding device comprises a dredging cavity and a dredging fan clamped in the dredging cavity, the dredging fan is a two-way guide structure, the dredging fan comprises an outer ring dredging fan blade group and a power shaft provided on the inner side of the dredging fan blade group, the power shaft is a cylindrical structure with a hollow middle portion, and an air suction fan blade group is provided in the inner cavity of the power shaft. The multi-layer protective structure of the filter sleeve effectively improves the purity of the air during the plasma ionization process, prevents foreign particles from entering the accommodating cavity and affecting the ionization efficiency and the working life of the plasma, and the circulating airflow diversion device greatly improves the output of the airflow and the external ionization uniform diffusion efficiency, thereby improving the actual ionization effect, diverting the self-circulation inside and outside the fan, further improving the air ionization distribution efficiency around the equipment, and improving the actual purification and sterilization efficiency.

[0008] As an improvement, the rear end of the dredging fan is provided with a motor, and the output shaft of the motor is provided with two or more transmission brackets, and the ends of the transmission brackets are connected to the power shaft. A plurality of transmission bracket structures are provided to transmit power between the motor and the dredging fan. While the power is effectively transmitted, the gaps between adjacent transmission brackets realize the airflow circulation channel between the dredging fan blade group and the suction fan blade group, thereby realizing the circulation between the outside air and the internal ionized airflow. The large-area dredging fan blade group effectively draws the outside gas into the accommodating cavity through the filter sleeve for ionization and then guides it out to the outside to provide the main power, further improving the circulation efficiency of the ionized airflow around the plasma and the ordinary air, thereby improving the overall purification effect of the equipment. The relatively small-area suction fan blade group forms an airflow circulation at both sides of the dredging fan and the dredging fan blades. The suction fan blade group mixes the small amount of airflow inhaled with the ionized air and then guides it out to the outside by the dredging fan. The mixed air after discharge has been partially diluted, and the ionized air flowing out of the outside is more quickly evenly mixed. The ionization distribution effect of the outside air is achieved in advance and quickly pre-fusion on both sides of the dredging fan, thereby improving the actual working efficiency of the equipment.

[0009] As an improvement, a guide hole is provided between the diversion cavity and the accommodating cavity, and a protective filter is provided outside the guide hole. The guide hole facilitates the outlet of the airflow, and the protective filter prevents particles that may be present in the diversion cavity from entering the accommodating cavity.

[0010] As an improvement, the drainage cavity port card is equipped with a drainage plate, which is attached to the outer end of the drainage fan. The drainage plate is provided with a drainage grille, a connecting portion is provided in the middle of the drainage plate, and a connecting frame is provided on the outer edge of the drainage plate. The drainage grille is arranged between the connecting portion and the connecting frame. The provision of the drainage grille achieves a uniform, stable and efficient airflow pattern, further effectively preventing the accumulation of high-concentration plasma air that cannot be dispersed and utilized, and improving energy conversion efficiency.

[0011] As an improvement, a spiral retaining groove is provided on the outer wall of the insulating tube, and the metal wire on the insulating tube is wound in the spiral retaining groove. This is suitable for limiting and locking, ensuring the stability of the metal wire and preventing it from slipping, thereby effectively improving the functional stability and service life of the plasma.

[0012] As an improvement, a snap-in groove is provided on the inner wall of the plasma generating chamber, a snap-in plate corresponding to the snap-in groove is provided on the guide plate, the snap-in plate is arranged perpendicular to the inner side surface of the guide plate, the snap-in groove is an L-shaped groove, and the snap-in plate is an L-shaped plate corresponding to the snap-in groove. The outer peripheral surface of the drainage fan rests on the inner wall of the plasma generating chamber, and then an L-shaped clamping groove is set on the inner wall of the ion generating chamber. During assembly, the L-shaped clamping plate is inserted into the clamping groove and then rotated to one side to realize the insertion of the plug-in plate at the bottom and the groove, respectively realizing circumferential and longitudinal limiting, ensuring that the drainage plate is stably clamped in the plasma generating chamber and just clamps the drainage fan in the plasma generating chamber. The inner wall of the plasma generating chamber and the inner wall of the clamping plate simultaneously cover and rest against the outer peripheral surface of the drainage fan, realizing circumferential comprehensive covering, the various structural parts are compactly connected, the amplitude of the working process is reduced, and it is not easy to cause collision damage to the functional components, thereby improving the working life of the equipment; when the drainage plate needs to be disassembled, it is first rotated circumferentially to one side, the plug-in plate at the lower end of the clamping plate is unscrewed and then pulled out longitudinally before it can be disassembled. It is not easy to disengage under normal non-human operation and has good connection stability.

[0013] As an improvement, the chamber wall is provided with multiple airflow channels, with at least two channels evenly spaced circumferentially and at least five channels arranged axially. The multiple airflow channels are evenly spaced circumferentially and axially to ensure stable airflow during the ionization process and continuous, efficient operation of the device.

[0014] As an improvement, the filter sleeve is constructed from at least three layers of woven cotton mesh. The innermost layer of the woven cotton mesh is provided with a velvet filter cushion on its inner side. The filter cushion is designed as a raised velvet fabric and is positioned at the end of the airflow channel. This effectively enhances the filtration strength of the airflow channel, while the multi-layered woven cotton mesh outer structure effectively isolates foreign particles. The overall weight is lightweight and the filtration efficiency is high. This targeted improvement in filtration material reduces the actual material usage and saves manufacturing costs.

[0015] The beneficial effects of this invention are: the multi-layer protective structure of the filter sleeve effectively improves the purity of the air during the plasma ionization process, prevents foreign particles from entering the accommodating cavity and affecting the ionization efficiency and the working life of the plasma, and the circulating airflow guiding device greatly improves the output of the airflow and the external ionization uniform diffusion efficiency, improves the actual ionization effect, guides the self-circulation inside and outside the fan, further improves the air ionization distribution efficiency around the equipment, and improves the actual purification and sterilization efficiency. BRIEF DESCRIPTION OF THE DRAWINGS

[0016] The present invention will be further described below with reference to the accompanying drawings:

[0017] Figure 1 This is a partial cross-sectional structural diagram of an embodiment of the present invention, in which the drainage plate is opened from the main body;

[0018] Figure 2 yes Figure 1 Schematic diagram of the structure of the middle drainage fan;

[0019] Figure 3 yes Figure 2 Schematic diagram of the partial cross-section structure of the side view of the middle drainage fan. DETAILED DESCRIPTION

[0020] like Figure 1 、 2 As shown in Figure 3, a specific embodiment of the invention is an improved plasma generating system, comprising an outer shell 1 and a plasma with an external high-frequency voltage, wherein the plasma comprises an insulating tube 2 and a metal wire 3 spirally wound on the insulating tube, the outer shell comprises a accommodating cavity 4 for placing the plasma, an accommodating cavity wall 5 provided with an airflow channel, and a filter sleeve 6 arranged on the outside of the accommodating cavity wall, a circulating airflow guiding device is provided at the rear end of the outer shell, the circulating airflow guiding device comprises a guiding cavity 7 and a guiding fan 8 clamped in the guiding cavity, the guiding fan is a two-way guide structure, the guiding fan comprises an outer ring guiding fan blade group 9 and a power shaft 10 arranged on the inner side of the guiding fan blade group, the power shaft is a cylindrical structure with a hollow middle portion, and an air suction fan group 11 is provided in the inner cavity of the power shaft.

[0021] The multi-layer protective structure of the filter sleeve effectively improves the purity of the air during the plasma ionization process, prevents foreign particles from entering the accommodating cavity and affecting the ionization efficiency and the working life of the plasma, and the circulating airflow diversion device greatly improves the output of the airflow and the external ionization uniform diffusion efficiency, thereby improving the actual ionization effect, diverting the self-circulation inside and outside the fan, further improving the air ionization distribution efficiency around the equipment, and improving the actual purification and sterilization efficiency.

[0022] In this embodiment, a motor 12 is provided at the rear end of the dredging fan, and two or more transmission brackets 14 are provided on the output shaft 13 of the motor, and the ends of the transmission brackets are connected to the power shaft.

[0023] A plurality of transmission bracket structures are set to transmit power between the motor and the diversion fan. While the power is effectively transmitted, the gaps between adjacent transmission brackets realize the airflow circulation channel between the diversion fan blade group and the suction fan blade group, thereby realizing the circulation between the outside air and the internal ionized airflow. The large-area diversion fan blade group effectively draws the outside gas into the accommodating cavity through the filter sleeve for ionization and then conducts it to the outside to provide the main power, further improving the circulation efficiency of the ionized airflow and ordinary air around the plasma, thereby improving the overall purification effect of the equipment; the relatively small-area suction fan blade group forms an airflow circulation on both sides of the diversion fan and the diversion fan blades. The suction fan blade group mixes the small amount of airflow and ionized air that are inhaled and then is conducted to the outside by the diversion fan. The mixed air after discharge has been partially diluted, and the ionized air flowing out of the outside is more quickly evenly mixed. The ionization distribution effect of the outside air is achieved by rapid pre-fusion on both sides of the diversion fan, thereby improving the actual working efficiency of the equipment.

[0024] In this embodiment, a diversion hole 15 is provided between the diversion cavity and the accommodating cavity, and a protective filter 16 is provided outside the diversion hole.

[0025] The guide holes facilitate the discharge of airflow, and the protective filter prevents particles that may exist in the diversion cavity from entering the accommodating cavity.

[0026] In this embodiment, the drainage cavity port card is provided with a drainage plate 17, and the drainage plate is attached to the outer end of the drainage fan. A drainage grille is provided on the drainage plate, a connecting portion is provided in the middle of the drainage plate, and a connecting frame is provided on the outer edge of the drainage plate. The drainage grille is provided between the connecting portion and the connecting frame.

[0027] The setting of the diversion grille can achieve better uniformity of the exported airflow pattern, stability and efficiency, further effectively avoid the accumulation of high-concentration plasma air that cannot be diffused and utilized, and have high energy conversion efficiency.

[0028] In this embodiment, a spiral limiting groove is provided on the outer side wall of the insulating tube, and the metal wire on the insulating tube is wound in the spiral limiting groove.

[0029] It is suitable for limiting and locking, ensuring the stability of the metal wire and preventing it from slipping, thereby effectively improving the functional stability and service life of the plasma.

[0030] In this embodiment, a snap-in groove is provided on the inner side wall of the plasma generating chamber, and a snap-in plate corresponding to the snap-in groove is provided on the guide plate. The snap-in plate is arranged perpendicular to the inner side surface of the guide plate, the snap-in groove is an L-shaped groove, and the snap-in plate is an L-shaped plate corresponding to the snap-in groove. The outer peripheral surface of the drainage fan rests on the inner wall of the plasma generating chamber, and then an L-shaped clamping groove is set on the inner wall of the ion generating chamber. During assembly, the L-shaped clamping plate is inserted into the clamping groove and then rotated to one side to realize the insertion of the plug-in plate at the bottom and the groove, respectively realizing circumferential and longitudinal limiting, ensuring that the drainage plate is stably clamped in the plasma generating chamber and just clamps the drainage fan in the plasma generating chamber. The inner wall of the plasma generating chamber and the inner wall of the clamping plate simultaneously cover and rest against the outer peripheral surface of the drainage fan, realizing circumferential comprehensive covering, the various structural parts are compactly connected, the amplitude of the working process is reduced, and it is not easy to cause collision damage to the functional components, thereby improving the working life of the equipment; when the drainage plate needs to be disassembled, it is first rotated circumferentially to one side, the plug-in plate at the lower end of the clamping plate is unscrewed and then pulled out longitudinally before it can be disassembled. It is not easy to disengage under normal non-human operation and has good connection stability.

[0031] In this embodiment, the chamber wall is provided with multiple airflow channels 18, with at least two airflow channels evenly spaced circumferentially and at least five airflow channels arranged axially. The multiple airflow channels are evenly spaced circumferentially and axially to ensure stable airflow during the ionization process and maintain high-efficiency operation of the device.

[0032] In this embodiment, the filter sleeve is formed by stacking at least three layers of cotton woven mesh. The inner side of the innermost cotton woven mesh layer is provided with a filter air cushion 19. The filter air cushion is a velvet woven cloth. The filter air cushion is arranged in a convex shape and is clamped at the port of the air flow channel.

[0033] It actually strengthens the filtering strength entering the air flow channel, and the outer structure of the multi-layer cotton woven mesh effectively improves the effective isolation of foreign particles. The overall weight is light and the filtering effect is efficient. It improves the filter material in a targeted manner, reduces the actual material used, and saves production costs.

[0034] In addition to the above preferred embodiments, the present invention has other implementation modes. Those skilled in the art can make various changes and modifications based on the present invention. As long as they do not depart from the spirit of the present invention, they should all fall within the scope of protection of the present invention.

Claims

1. An improved plasma generating system, comprising an outer shell (1) and a plasma connected to an external high-frequency voltage, wherein the plasma comprises an insulating tube (2) and a metal wire (3) spirally wound around the insulating tube, characterized in that: The outer shell comprises a accommodating chamber (4) for placing plasma, an accommodating chamber wall (5) provided with an air flow channel, and a filter sleeve (6) provided on the outside of the accommodating chamber wall. A circulating airflow diversion device is provided at the rear end of the outer shell. The circulating airflow diversion device comprises a diversion chamber (7) and a diversion fan (8) clamped in the diversion chamber. The diversion fan is a two-way flow guide structure. The diversion fan comprises an outer ring diversion fan blade group (9) and a power shaft (10) provided on the inner side of the diversion fan blade group. The power shaft is a hollowed-out cylindrical structure. The inner cavity of the power shaft is provided with an air suction fan blade group (11).

2. The improved plasma generating system according to claim 1, characterized in that: The rear end of the dredging fan is provided with an electric motor (12), and the output shaft (13) of the electric motor is provided with two or more transmission brackets (14), and the ends of the transmission brackets are connected to the power shaft.

3. The improved plasma generating system according to claim 1, characterized in that: A diversion hole (15) is provided between the diversion cavity and the accommodating cavity, and a protective filter screen (16) is provided outside the diversion hole.

4. An improved plasma generating system according to claim 1 or 3, characterized in that: The drainage cavity port card is provided with a drainage plate (17), the drainage plate is attached to the outer end of the drainage fan, the drainage plate is provided with a drainage grille, the middle of the drainage plate is provided with a connecting portion, the outer edge of the drainage plate is provided with a connecting frame, and the drainage grille is provided between the connecting portion and the connecting frame.

5. The improved plasma generating system according to claim 1, characterized in that: A spiral limiting groove is provided on the outer side wall of the insulating tube, and the metal wire on the insulating tube is wound in the spiral limiting groove.

6. An improved plasma generating system according to claim 4, characterized in that: A snap-in groove is provided on the inner side wall of the drainage cavity, and a snap-in plate corresponding to the snap-in groove is provided on the drainage plate. The snap-in plate is arranged perpendicular to the inner side surface of the drainage plate, the snap-in groove is an L-shaped groove, and the snap-in plate is an L-shaped plate corresponding to the snap-in groove.

7. The improved plasma generating system according to claim 1, characterized in that: The accommodating cavity wall is provided with a plurality of airflow channels (18), at least two of which are evenly arranged in the circumferential direction of the accommodating cavity wall, and at least five of which are arranged in the axial direction of the accommodating cavity wall.

8. The improved plasma generating system according to claim 1, characterized in that: The filter sleeve is formed by stacking at least three layers of cotton woven mesh, and the inner side of the innermost cotton woven mesh layer is provided with a filter air cushion (19), the filter air cushion is a velvet woven cloth, and the filter air cushion is arranged in a convex shape and is clamped at the port of the air flow channel.

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