A streamer energy device for a drawer-type purifier and method of use

Abstract

The application provides a flow light energy device of a drawer type purifier and a use method thereof. The device comprises: a flow light energy assembly, which is embeddedly installed into a slot, and a carrier net is arranged below the slot for supporting the flow light energy assembly; the flow light energy assembly comprises a plurality of electrodes which are distributed at equal intervals, and a first magnetic attraction assembly is arranged at one end of the electrode; a drawer assembly is arranged in a purifier shell, the drawer assembly can be pulled out from the purifier shell, and a second magnetic attraction assembly for magnetically attracting the first magnetic attraction assembly is slidably installed on the drawer assembly. The method comprises the following steps: the electrode is magnetically connected with the drawer assembly, is pulled out from the purifier shell, is inspected, and is re-stored in the purifier shell after the inspection. Through the pull-out design and the selective magnetic attraction connection between the electrode and the drawer assembly, each electrode can be pulled out from the purifier shell, so that the individual inspection and maintenance of all the electrodes are facilitated.

Description

Technical Field

[0001] This invention relates to a flow light energy device for a drawer-type air purifier and its usage method. Background Technology

[0002] Streamer technology is a technology that purifies air by exciting molecules in the air to produce a chemical reaction; it is widely used in the field of air purification, such as in air purifiers.

[0003] In air purifiers, the Streamer Energy device is generally installed in a fixed manner, fixing the Streamer Energy device in a designated area of ​​the purifier. For example, in the existing patent document "CN100512971C Air Purification Device", the fixed installation method requires disassembling the outer shell to inspect the electrodes in the Streamer Energy device, which makes maintenance inconvenient.

[0004] In existing technologies, to facilitate internal inspection and maintenance of equipment, internal components are often installed in drawers and pulled out for easy maintenance. However, the Streamer Energy Device consists of multiple electrodes arranged close to each other at equal intervals. The entire device is installed in a single drawer, which can cause the electrodes to block each other, making it difficult to inspect, clean, and maintain individual electrodes, thus causing inconvenience for overall use. Summary of the Invention

[0005] In order to solve the technical problem that it is not easy to individually inspect each electrode when installing a streamer energy device inside an air purifier, the present invention provides a streamer energy device for a drawer-type air purifier and its usage method.

[0006] The present invention solves the above-mentioned technical problems through the following technical solutions:

[0007] This invention provides a streamer energy device for a drawer-type air purifier, comprising a carrier frame disposed inside the purifier housing, the carrier frame having a recessed groove; further comprising: a streamer energy component, the streamer energy component being fitted into the recessed groove, and a support mesh for supporting the streamer energy component being disposed below the recessed groove; the streamer energy component comprising a plurality of equally spaced electrodes, and a first magnetic attraction component being disposed at one end of each electrode; and a drawer assembly, the drawer assembly being disposed inside the purifier housing, the drawer assembly being pullable out of the purifier housing, and a second magnetic attraction component for magnetically attracting the first magnetic attraction component being slidably mounted on the drawer assembly.

[0008] Preferably, a top bar is fixedly installed on the upper part of the electrode, and one end of the top bar has an end hole for installing the first magnetic attraction component, the first magnetic attraction component including a first cylindrical magnet.

[0009] Preferably, one end of the top bar has a guide hole that communicates with the end hole, and a guide rod is connected to the guide hole with clearance fit. One end of the guide rod is fixedly connected to one end of the first cylindrical magnet. A helical spring is provided inside the end hole and is sleeved on the first cylindrical magnet. The first cylindrical magnet is elastically connected to the top bar through the helical spring.

[0010] Preferably, a plug is fixedly installed at the end of the guide rod away from the first cylindrical magnet, the plug is connected to a conductive rod, a straight groove is formed on the wall of the guide hole, the end of the conductive rod away from the plug is slidably installed into the straight groove, and the conductive rod abuts against a conductive sheet disposed inside the straight groove; the lower end of the conductive sheet is connected to an electrode; the plug is aligned with a socket disposed on the groove wall.

[0011] Preferably, the drawer assembly includes a drawer panel and a slide rail. The slide rail is installed in a groove inside the frame and connected to the drawer panel. The drawer panel is fitted into a side groove on one side wall of the purifier housing and a handle is fixedly installed on the drawer panel.

[0012] Preferably, the second magnetic suction assembly includes a movable block and a second cylindrical magnet. A groove is provided along the length direction on the side of the drawer plate facing away from the inside of the purifier. The movable block is slidably connected to the groove. The second cylindrical magnet is rotatably mounted on the movable block. A plurality of equally spaced insertion holes are provided on the side of the drawer plate facing the purifier, and the insertion holes are aligned with one end of the first cylindrical magnet.

[0013] Preferably, the movable block has an annular groove and a recess on both sides, respectively. A first annular seat is connected to the annular groove with a clearance fit, and the first annular seat is fixedly sleeved on the second cylindrical magnet. A reset torsion spring is provided inside the recess, and the reset torsion spring is sleeved on the second cylindrical magnet. The two ends of the reset torsion spring are fixedly connected to the cylindrical surface of the second cylindrical magnet and the hole wall of the recess, respectively. An inner groove is provided inside the drawer plate, and the inner groove communicates with the slide groove. A second annular seat is fixedly sleeved on one end of the second cylindrical magnet, and the second annular seat is embedded in the inner groove.

[0014] Preferably, one end of the second cylindrical magnet abuts against one side of the inner groove wall, and a thin wall is provided between the side of the inner groove facing away from the slide groove and the inner end wall of the insertion hole.

[0015] Preferably, the drawer panel has multiple marking slots on its surface facing away from the purifier housing, and the multiple marking slots are respectively aligned with the multiple insertion holes, and the multiple marking slots are evenly distributed above the slide groove; a pointer block is fixedly installed on the movable block.

[0016] Furthermore, the present invention provides a method for using a streaming light energy device, the method comprising the following steps:

[0017] 1. The movable block slides along the slide groove to align the pointer block with the marking groove corresponding to the electrode that needs to be pulled out for inspection. After alignment, the second cylindrical magnet of the second magnetic attraction assembly is aligned with the first cylindrical magnet on the electrode.

[0018] 2. After the first cylindrical magnet is aligned with the second cylindrical magnet, the first cylindrical magnet is inserted into the socket by magnetic force. The first cylindrical magnet and the second cylindrical magnet are located on both sides of the thin wall to achieve magnetic attraction. At the same time, when the first cylindrical magnet moves, it drives the guide rod to move together, the plug and socket are separated, and the helical spring is stretched to generate a return spring force.

[0019] 3. Hold the handle and pull the drawer panel to move it to the left. The magnetically attracted electrodes will move along with it until they detach from the purifier housing.

[0020] Fourth, by rotating the second cylindrical magnet, the first cylindrical magnet rotates together with the second cylindrical magnet due to the magnetic coupling between the second cylindrical magnet and the first cylindrical magnet, thereby realizing the flipping of the electrode. During the flipping, the electrode is inspected from above. At the same time, while rotating the second cylindrical magnet, the reset torsion spring is twisted, and the reset torsion spring generates a reset elastic force.

[0021] 5. After inspection, release the second cylindrical magnet and use the spring force of the reset torsion spring to reset the electrode, restoring the electrode to the state where the top bar faces up and the bottom bar faces down;

[0022] 6. Hold the handle and push the drawer panel to move it to the right until the drawer panel is embedded in the side groove, the electrode re-enters the groove, and the bottom strip is inserted into the slide rail;

[0023] 7. By moving the movable block, the second magnetic attraction component is magnetically connected to the next electrode. After the second magnetic attraction component separates from the first cylindrical magnet on the electrode after inspection, the first cylindrical magnet loses its magnetic attraction force. The helical spring provides a reset, allowing the plug to be reinserted into the socket, thus completing the automatic electrical connection of the electrode after inspection.

[0024] Based on common knowledge in the field, the above-mentioned preferred conditions can be combined arbitrarily to obtain various preferred embodiments of the present invention.

[0025] The positive and progressive effects of this invention are as follows:

[0026] The aforementioned drawer-type air purifier's luminous energy device and its usage method employ a drawer assembly, a second magnetic component slidably mounted on the drawer assembly, and a first magnetic component on each electrode. The second magnetic component slides and adjusts its position on the drawer assembly, enabling selective magnetic connection between the electrodes and the drawer assembly. This allows each electrode to be individually pulled out of the air purifier housing, facilitating individual inspection, cleaning, and maintenance of all electrodes. This prevents them from being blocked when pulled out all at once. Furthermore, all electrodes share a single drawer assembly, allowing them to share its slide rail guide and the drawer lock structure required for closing. Attached Figure Description

[0027] Figure 1 This is a schematic diagram of the overall structure of the present invention installed inside the purifier housing.

[0028] Figure 2 This is a structural schematic diagram of the carrier and the streaming energy component of the present invention in a disassembled state.

[0029] Figure 3 For the present invention Figure 1 Enlarged structural diagram of section A in the middle.

[0030] Figure 4 For the present invention Figure 1 Enlarged structural diagram of section B in the middle.

[0031] Figure 5 This is a schematic diagram of the drawer plate installation and electrode distribution of the present invention.

[0032] Figure 6 This is a schematic cross-sectional view of the second magnetic attraction component and the first magnetic attraction component on a single electrode in the magnetic attraction state.

[0033] Figure 7 This is a schematic diagram of the cross-sectional structure at both ends of the top bar when the first cylindrical magnet of the present invention is magnetically attracted by the second magnetic attraction component.

[0034] Figure 8 This is a schematic diagram of the connection structure between the electrode and the conductive sheet of the present invention.

[0035] Figure 9 This is a schematic diagram of the structure of the right end of the electrode in the magnetic attraction state of the present invention.

[0036] Explanation of reference numerals in the attached figures

[0037] 1. Purifier housing; 101. Air outlet; 102. Side channel; 2. Carrier; 201. Carrier mesh; 2011. Slide rail; 202. Tank body; 203. Slide rail; 3. Streamer energy component; 301. Discharge electrode; 302. Counter electrode; 3021. Bottom strip; 303. Top strip; 3031. Guide rod; 3032. First cylindrical magnet; 3033. End hole; 3034. Helical spring; 3035. Guide hole; 3036. Plug; 3037, Conductive rod; 3038, Straight groove; 3039, Conductive sheet; 4, Drawer panel; 401, Slide groove; 402, Marking groove; 403, Inner groove; 404, Socket; 405, Thin wall; 5, Handle; 6, Movable block; 601, Pointer block; 602, Second cylindrical magnet; 603, First annular seat; 604, Annular groove; 605, Groove; 606, Return torsion spring; 607, Second annular seat; 7, Socket. Detailed Implementation

[0038] The present invention will be further illustrated by way of embodiments below, but the present invention is not limited to the scope of the embodiments described herein.

[0039] like Figure 1-9 As shown, a flow light energy device for a drawer-type air purifier.

[0040] like Figure 1-4 As shown, the device includes a carrier 2 disposed inside the purifier housing 1. The front, rear, and right sides of the carrier 2 are fixed to the inner wall of the purifier housing 1. A groove is formed on the carrier 2, and the left side of the groove communicates with a side groove 102 on the left side wall of the purifier housing 1. The streamer energy component 3 is fitted into the groove. The streamer energy component 3 can slide to the left and leave the groove and exit from the purifier housing 1 through the side groove 102. A carrier net 201 is disposed below the groove and is fixed to the bottom of the carrier 2. The carrier net 201 is used to support the placement of the streamer energy component 3. The streamer energy component 3 includes several equal... The electrodes are spaced apart, and the surface of the carrier mesh 201 is provided with a plurality of slides 2011, each corresponding to a plurality of electrodes. The slides 2011 and the carrier mesh 201 are integrally formed by stamping. The bottom of the electrode is fixedly connected to a bottom strip 3021, and the bottom strip 3021 is embedded in the slide 2011 between the individual electrode and its corresponding slide, providing a positioning function. After the electrode leaves the purifier housing 1 with the drawer assembly, the electrode detaches from the slide 2011 and re-enters the purifier housing 1, where it can be reconnected to the slide 2011.

[0041] like Figure 1-2As shown, the electrodes in the streaming energy component 3 are each divided into multiple discharge electrodes 301 and multiple opposing electrodes 302, and the multiple discharge electrodes 301 and multiple opposing electrodes 302 are staggered; in such a way... Figure 1 In the middle, an air outlet 101 is provided at the bottom of the purifier housing 1. The air to be purified passes through the top of the light energy component 3. When the electrode is energized, the air passes between two adjacent electrodes to achieve light energy purification, and then is discharged from the air outlet 101.

[0042] like Figure 1 , Figure 4 as well as Figure 5 As shown, the drawer assembly is disposed within the purifier housing 1. The drawer assembly includes a drawer panel 4 and a slide rail 203. The slide rail 203 is installed in a groove 202 formed inside the carrier 2, and the slide rail 203 is connected to the drawer panel 4. A handle 5 is fixedly installed on the drawer panel 4. The drawer assembly can be pulled out from the purifier housing 1, such as... Figure 5 As shown, the drawer assembly is now stored inside the purifier housing 1. In this state, the drawer plate 4 is engaged with the side groove 102 on one side wall of the purifier housing 1. When the drawer plate 4 is pulled out, by holding the handle 5 and pulling to the left, the drawer plate 4 moves to the left. During the movement, the slide rail 203 provides a sliding guide to achieve the leftward movement.

[0043] Furthermore, a first magnetic attraction component is provided at one end of the electrode; a second magnetic attraction component for magnetically attracting the first magnetic attraction component is slidably installed on the drawer assembly; by sliding the second magnetic attraction component on the drawer assembly, specifically on the drawer plate 4 of the drawer assembly, the position of the second magnetic attraction component can be changed, and it can be aligned with the first magnetic attraction component on different electrodes. After being aligned with the first magnetic attraction component on any electrode, the connection between the electrode and the drawer plate 4 is realized through the magnetic attraction between the first magnetic attraction component and the second magnetic attraction component. During the process of pulling out the drawer plate 4, the electrode can be moved together and leave the purifier housing 1. Through this design, each electrode can be individually pulled out from the inside of the purifier, which is convenient for individual inspection, maintenance and dust removal.

[0044] like Figure 6-7As shown, a top bar 303 is fixedly installed on the upper part of the electrode. One end of the top bar 303 has an end hole 3033 for installing a first magnetic attraction component. The first magnetic attraction component includes a first cylindrical magnet 3032. One end of the top bar 303 has a guide hole 3035, which communicates with the end hole 3033. A guide rod 3031 is connected to the guide hole 3035 with a clearance fit. One end of the guide rod 3031 is fixedly connected to one end of the first cylindrical magnet 3032. A helical spring 3034 is provided inside the end hole 3033 and is sleeved on the first cylindrical magnet 3032. The first cylindrical magnet 3032 is elastically connected to the top bar 303 through the helical spring 3034. The guide rod 3031 is a non-circular rod structure.

[0045] The first cylindrical magnet 3032 in the first magnetic attraction assembly is connected to the guide rod 3031, and the guide rod 3031 is connected to the guide hole 3035 with a clearance fit. The length direction of the guide hole 3035 is set parallel to the length direction of the electrode, so that when the first cylindrical magnet 3032 is magnetically attracted by the second magnetic attraction assembly, it can move along the length direction of the electrode and stretch the helical spring 3034 at the same time. After losing the magnetic attraction, it can be reset by the stretching force of the helical spring 3034.

[0046] like Figure 6-7 As shown, a plug 3036 is fixedly installed at the end of the guide rod 3031 away from the first cylindrical magnet 3032. The plug 3036 is connected to a conductive rod 3037. A straight groove 3038 is formed on the wall of the guide hole 3035. The end of the conductive rod 3037 away from the plug 3036 is slidably installed in the straight groove 3038, and the conductive rod 3037 abuts against a conductive sheet 3039 disposed inside the straight groove 3038. The lower end of the conductive sheet 3039 is connected to an electrode. The plug 3036 is aligned with the socket 7 disposed on the groove wall.

[0047] While the first cylindrical magnet 3032 is magnetically attracted, the first cylindrical magnet 3032 can drive the guide rod 3031 to slide along the guide hole 3035, thereby driving the plug 3036 to move. The plug 3036 can be pulled out of the socket 7. With the purpose of this design, after the electrode is pulled out by the drawer assembly, away from the purifier housing 1 for maintenance, it can be put back into the purifier housing 1, the plug 3036 is aligned with the socket 7, and then the magnetic attraction of the first cylindrical magnet 3032 is released. Through the elastic force of the spiral spring 3034, the plug 3036 can be driven to be reinserted into the socket 7.

[0048] The conductive rod 3037 abuts against the conductive sheet 3039. When the plug 3036 moves with the guide rod 3031, the conductive rod 3037 can slide along the straight groove 3038, always maintaining the abutment between the conductive rod 3037 and the conductive sheet 3039, ensuring the electrical connection between the plug 3036 and the electrode. When the plug 3036 is inserted into the socket 7, the electrode can be energized. The socket 7 is connected to the positive or negative terminal of the external power supply, and the two adjacent electrodes need to be connected to the positive or negative terminal respectively.

[0049] Furthermore, the second magnetic suction assembly includes a movable block 6 and a second cylindrical magnet 602. A groove 401 is provided along the length direction on the surface of the drawer plate 4 facing away from the inside of the purifier. The movable block 6 is slidably connected to the groove 401. The second cylindrical magnet 602 is rotatably mounted on the movable block 6. A plurality of equally spaced insertion holes 404 are provided on the side of the drawer plate 4 facing the purifier, and the insertion holes 404 are aligned with one end of the first cylindrical magnet 3032.

[0050] The movable block 6 slides along the slide groove 401 to adjust the position of the second cylindrical magnet 602. The second cylindrical magnet 602 is aligned with different sockets 404 to achieve magnetic attraction of different first cylindrical magnets 3032, thereby achieving magnetic connection of different electrodes. When magnetically connected, the first cylindrical magnet 3032 is inserted into the socket 404 through magnetic attraction, and the connection is achieved. After connection, moving the drawer assembly can drive the connected electrodes to move together.

[0051] Meanwhile, the second cylindrical magnet 602 is rotated. After the electrode leaves the purifier housing 1, by manually rotating the second cylindrical magnet 602, the first cylindrical magnet 3032 will be subjected to magnetic force and rotate together, so that the entire electrode can be rotated. This is used to flip the electrode after it is pulled out of the purifier housing 1, so that the electrode can be inspected from above.

[0052] like Figure 6 As shown, the movable block 6 has an annular groove 604 and a recess 605 on both sides. A first annular seat 603 is connected to the annular groove 604 with a clearance fit, and the first annular seat 603 is fixedly sleeved onto the second cylindrical magnet 602. A return torsion spring 606 is provided inside the recess 605. The return torsion spring 606 is sleeved onto the second cylindrical magnet 602, and its two ends are fixedly connected to the cylindrical surface of the second cylindrical magnet 602 and the hole wall of the recess 605, respectively. The drawer plate 4 has an inner groove 403 inside, and the inner groove 403 communicates with the slide groove 401. A second annular seat 607 is fixedly sleeved onto one end of the second cylindrical magnet 602, and the second annular seat 607 is embedded in the inner groove 403. Figure 6The first annular seat 603 and the second annular seat 607 provide a limit to ensure that the movable block 6 will not disengage from the slide groove 401. When the second cylindrical magnet 602 rotates, it will twist the reset torsion spring 606 to generate a reset force. After flipping the electrode for inspection, the second cylindrical magnet 602 is released, and the reset torsion spring 606 can provide a reset force to restore the electrode to the state where the top bar 303 faces upward and the bottom bar 3021 faces downward.

[0053] like Figure 6 As shown, one end of the second cylindrical magnet 602 abuts against the side wall of the inner groove 403, and a thin wall 405 is provided between the side of the inner groove 403 facing away from the slide groove 401 and the inner end wall of the socket 404; through the design of the thin wall 405, the magnetic attraction effect is ensured while the outside will not be connected to the purifier through the socket 404.

[0054] like Figure 1 and Figure 4 As shown, the drawer panel 4 has multiple marking slots 402 on its surface facing away from the interior of the purifier housing 1. The multiple marking slots 402 are respectively aligned with multiple insertion holes 404, and the multiple marking slots 402 are evenly distributed above the slide groove 401. A pointer block 601 is fixedly installed on the movable block 6. The pointer block 601, in conjunction with the marking slots 402, facilitates the determination of the position of the second magnetic component. After the pointer block 601 is aligned with a single marking slot 402, the second cylindrical magnet 602 will be aligned with a first cylindrical magnet 3032.

[0055] Both the reset torsion spring 606 and the coil spring 3034 are made of copper alloy.

[0056] A drawer lock is installed between the drawer panel 4 and the side wall of the purifier housing 1.

[0057] A method for using a streaming light energy device, the method comprising the following steps:

[0058] 1. The movable block 6 slides along the slide groove 401 to align the pointer block 601 with the marking groove 402 corresponding to the electrode that needs to be pulled out for inspection. After alignment, the second cylindrical magnet 602 of the second magnetic attraction assembly is aligned with the first cylindrical magnet 3032 on the electrode.

[0059] 2. After the first cylindrical magnet 3032 is aligned with the second cylindrical magnet 602, the first cylindrical magnet 3032 is inserted into the socket 404 by magnetic force. The first cylindrical magnet 3032 and the second cylindrical magnet 602 are located on both sides of the thin wall 405 respectively, realizing magnetic attraction connection. At the same time, when the first cylindrical magnet 3032 moves, it drives the guide rod 3031 to move together, the plug 3036 separates from the socket 7, and stretches the spiral spring 3034 to generate a reset elastic force.

[0060] 3. Hold handle 5 and pull drawer panel 4 to move drawer panel 4 to the left. The magnetically attracted electrodes will move together with it until they are detached from the purifier housing 1.

[0061] Fourth, by rotating the second cylindrical magnet 602, the first cylindrical magnet 3032 is rotated together with the second cylindrical magnet 602 due to the magnetic coupling between the second cylindrical magnet 602 and the first cylindrical magnet 3032, thereby realizing the flipping of the electrode. During the flipping, the electrode is inspected from above. At the same time, while rotating the second cylindrical magnet 602, the reset torsion spring 606 is twisted, and the reset torsion spring 606 generates a reset elastic force.

[0062] 5. After inspection, release the second cylindrical magnet 602 and reset the electrode by the elastic force of the reset torsion spring 606. The electrode returns to the state where the top bar 303 faces upward and the bottom bar 3021 faces downward.

[0063] 6. Hold handle 5 and push drawer plate 4 to move drawer plate 4 to the right until drawer plate 4 is embedded in side groove 102, electrode re-enters groove, and bottom strip 3021 is inserted into slide rail 2011.

[0064] 7. By moving the movable block 6, the second magnetic attraction component is magnetically connected to the next electrode. After the second magnetic attraction component separates from the first cylindrical magnet 3032 on the electrode after inspection, the first cylindrical magnet 3032 loses its magnetic attraction force. The helical spring 3034 provides a reset, allowing the plug 3036 to be reinserted into the socket 7, thus completing the automatic electrical connection of the electrode after inspection.

[0065] This invention is not limited to the embodiments described above. Any changes in shape or structure shall fall within the protection scope of this invention. The protection scope of this invention is defined by the appended claims. Those skilled in the art may make various changes or modifications to these embodiments without departing from the principles and essence of this invention, but all such changes and modifications shall fall within the protection scope of this invention.

Claims

1. A flow-energy device for a drawer-type air purifier, comprising a carrier (2) disposed inside the air purifier housing (1), wherein the carrier (2) is provided with a groove; characterized in that, Also includes: A streaming light energy component (3) is fitted into the groove, and a carrier net (201) for supporting the streaming light energy component (3) is provided below the groove; the streaming light energy component (3) includes a plurality of electrodes distributed at equal intervals, and a first magnetic attraction component is provided at one end of the electrodes; A drawer assembly is disposed inside the purifier housing (1), the drawer assembly can be pulled out from the purifier housing (1), and a second magnetic component for magnetically attracting the first magnetic component is slidably mounted on the drawer assembly; A top bar (303) is fixedly installed on the upper part of the electrode. One end of the top bar (303) is provided with an end hole (3033) for installing the first magnetic attraction component. The first magnetic attraction component includes a first cylindrical magnet (3032). The drawer assembly includes a drawer plate (4) and a slide rail (203). The slide rail (203) is installed in a groove (202) inside the frame (2), and the slide rail (203) is connected to the drawer plate (4). The drawer plate (4) is fitted into a side groove (102) on one side wall of the purifier housing (1), and a handle (5) is fixedly installed on the drawer plate (4). The second magnetic suction assembly includes a movable block (6) and a second cylindrical magnet (602). The drawer plate (4) has a groove (401) along its length on the side facing away from the purifier. The movable block (6) is slidably connected to the groove (401). The second cylindrical magnet (602) is rotatably mounted on the movable block (6). The drawer plate (4) has a plurality of equally spaced insertion holes (404) on the side facing the purifier, and the insertion holes (404) are aligned with one end of the first cylindrical magnet (3032).

2. The photovoltaic energy device of the drawer-type air purifier as described in claim 1, characterized in that: One end of the top bar (303) is provided with a guide hole (3035), which is connected to the end hole (3033). A guide rod (3031) is connected in the guide hole (3035) with a clearance fit. One end of the guide rod (3031) is fixedly connected to one end of the first cylindrical magnet (3032). A helical spring (3034) is provided inside the end hole (3033), and the helical spring (3034) is sleeved on the first cylindrical magnet (3032). The first cylindrical magnet (3032) is elastically connected to the top bar (303) through the helical spring (3034).

3. The light energy device of the drawer-type air purifier as described in claim 2, characterized in that: A plug (3036) is fixedly installed at the end of the guide rod (3031) away from the first cylindrical magnet (3032). The plug (3036) is connected to a conductive rod (3037). A straight groove (3038) is provided on the wall of the guide hole (3035). The end of the conductive rod (3037) away from the plug (3036) is slidably installed in the straight groove (3038), and the conductive rod (3037) abuts against the conductive sheet (3039) provided inside the straight groove (3038). The lower end of the conductive sheet (3039) is connected to an electrode. The plug (3036) is aligned with the socket (7) provided on the groove wall.

4. The light energy device of the drawer-type air purifier as described in claim 3, characterized in that: The movable block (6) has a circular groove (604) and a groove (605) on both sides respectively. A first circular seat (603) is connected in the circular groove (604) with a clearance fit. The first circular seat (603) is fixedly sleeved on the second cylindrical magnet (602). A reset torsion spring (606) is provided inside the groove (605). The reset torsion spring (606) is sleeved on the second cylindrical magnet (602). The two ends of the reset torsion spring (606) are fixedly connected to the cylindrical surface of the second cylindrical magnet (602) and the hole wall of the groove (605) respectively. An inner groove (403) is provided inside the drawer plate (4). The inner groove (403) is connected to the slide groove (401). A second circular seat (607) is fixedly sleeved on one end of the second cylindrical magnet (602). The second circular seat (607) is embedded in the inner groove (403).

5. The light energy device of the drawer-type air purifier as described in claim 4, characterized in that: One end of the second cylindrical magnet (602) abuts against one side of the inner groove (403), and a thin wall (405) is provided between the side of the inner groove (403) facing away from the slide groove (401) and the inner end wall of the insertion hole (404).

6. The photovoltaic energy device of the drawer-type air purifier as described in claim 5, characterized in that: The drawer plate (4) has multiple marking slots (402) on its surface facing away from the purifier housing (1). The multiple marking slots (402) are aligned with the multiple sockets (404) respectively, and the multiple marking slots (402) are evenly distributed above the slide groove (401). A pointer block (601) is fixedly installed on the movable block (6).

7. The method of using the Streamer Energy Device in the drawer-type air purifier as described in claim 6, characterized in that: The method includes the following steps:

1. The movable block (6) slides along the slide groove (401) to align the pointer block (601) with the marking groove (402) corresponding to the electrode that needs to be pulled out for inspection. After alignment, the second cylindrical magnet (602) of the second magnetic suction assembly is aligned with the first cylindrical magnet (3032) on the electrode.

2. After the first cylindrical magnet (3032) is aligned with the second cylindrical magnet (602), the first cylindrical magnet (3032) is inserted into the socket (404) by magnetic force. The first cylindrical magnet (3032) and the second cylindrical magnet (602) are located on both sides of the thin wall (405) to achieve magnetic attraction. At the same time, when the first cylindrical magnet (3032) moves, it drives the guide rod (3031) to move together, the plug (3036) separates from the socket (7), and stretches the spiral spring (3034) to generate a reset elastic force.

3. Hold the handle (5) and pull the drawer plate (4) to move the drawer plate (4) to the left. The magnetically attracted electrode moves along with it until it is detached from the purifier housing (1). Fourth, by rotating the second cylindrical magnet (602), the first cylindrical magnet (3032) is rotated together with the second cylindrical magnet (602) through the magnetic coupling between the second cylindrical magnet (602) and the first cylindrical magnet (3032), thereby realizing the flipping of the electrode. During the flipping, the electrode is inspected from above. At the same time, while rotating the second cylindrical magnet (602), the reset torsion spring (606) is twisted, and the reset torsion spring (606) generates a reset elastic force.

5. After inspection, release the second cylindrical magnet (602) and reset the electrode by the elastic force of the reset torsion spring (606). The electrode returns to the state where the top bar (303) faces up and the bottom bar (3021) faces down.

6. Hold the handle (5) and push the drawer plate (4) to move the drawer plate (4) to the right until the drawer plate (4) is embedded in the side groove (102), the electrode re-enters the groove, and the bottom strip (3021) is inserted into the slide rail (2011); 7. By moving the movable block (6), the second magnetic attraction component is magnetically connected to the next electrode. After the second magnetic attraction component separates from the first cylindrical magnet (3032) on the electrode after inspection, the first cylindrical magnet (3032) loses its magnetic attraction force. The helical spring (3034) provides a reset, allowing the plug (3036) to be reinserted into the socket (7), thus completing the automatic electrical connection of the electrode after inspection.

Images