Magnetic adsorption water purifier and vehicle

Abstract

The utility model discloses a magnetic adsorption water purifier and a vehicle, and relates to the technical field of sewage treatment. The magnetic adsorption water purifier comprises a purification reaction tank, a magnetic adsorption layer and a confluence system, the purification reaction tank is used for receiving the magnetic adsorbent and the sewage and purifying the sewage by the magnetic adsorbent so as to enable the sewage to form purified water; the magnetic adsorption layer is provided with a plurality of magnetic adsorption channel cavities which are separated from one another, and the tops of the magnetic adsorption channel cavities are communicated with the purification reaction tank; the magnetic suction channel cavity is gradually narrowed from the top of the magnetic suction channel cavity to the bottom of the magnetic suction channel cavity; a switchable magnetic part is arranged on the side wall of the magnetic attraction channel cavity, has magnetism when being electrified and is used for enabling the magnetic adsorbent to be adsorbed on the side wall of the magnetic attraction channel cavity; the confluence system is respectively communicated with the bottoms of the plurality of magnetic suction channel cavities and is provided with a confluence liquid outlet, and the confluence system is used for confluence of the purified water in the plurality of magnetic suction channel cavities to the confluence liquid outlet to flow out. According to the technical scheme, the size of the magnetic adsorption water purifier can be further reduced.

Description

Technical Field

[0001] The present application relates to the technical field of sewage treatment, and more specifically to a magnetic adsorption water purifier and a vehicle. Background Art

[0002] With the rapid development of social economy, water resources are seriously polluted. The discharge of industrial and agricultural sewage increases year by year, and a lot of sewage is discharged directly into rivers and lakes without treatment, which seriously pollutes the environment and endangers human health. At present, the industrial water purification system is realized by building wastewater treatment plants and using activated carbon adsorption method, but the construction process and activated carbon and other materials have the problem of high cost.

[0003] Low-cost, high-adsorption efficiency biosorbents have gradually entered the field of vision of domestic and foreign scholars, and a team has now completed the research and development of innovative magnetic adsorption particles. For example, the utility model patent with the authorization announcement number CN216863718U discloses an energy-saving and easy-to-clean magnetic adsorption water purifier, which mentions that the main reaction area is used to purify the waste liquid through the magnetic adsorbent, and the magnetic adsorbent is adsorbed through the magnetic recovery area below the main reaction area to facilitate the separation of the magnetic adsorbent from the purified liquid. However, the volume of this magnetic adsorption water purifier is large, which is not conducive to the miniaturization of the magnetic adsorption water purifier.

[0004] In summary, how to further reduce the volume of the magnetic adsorption water purifier is still a technical problem that needs to be urgently solved by those skilled in the art. Utility Model Content

[0005] In view of this, in order to solve the above technical problems, the present application provides a magnetic adsorption water purifier and a vehicle.

[0006] In order to solve the above technical problems, one of the technical solutions adopted in the present application provides a magnetic adsorption water purifier, which includes a purification reaction tank, a magnetic adsorption layer and a confluence system.

[0007] The purification reaction tank is used to receive magnetic adsorbent and sewage, and to provide magnetic adsorbent to purify sewage to form clean water. The magnetic adsorption layer is provided with a plurality of magnetic suction channel cavities separated from each other, and the top of the magnetic suction channel cavity is connected to the purification reaction tank. From the top of the magnetic suction channel cavity to the bottom of the magnetic suction channel cavity, the magnetic suction channel cavity gradually narrows. The side wall of the magnetic suction channel cavity is provided with a switchable magnetic part, which is magnetic when powered on, and is used to adsorb the magnetic adsorbent to the side wall of the magnetic suction channel cavity. The confluence system is respectively connected to the bottom of the plurality of magnetic suction channel cavities and is provided with a confluence outlet, which is used to converge the clean water in the plurality of magnetic suction channel cavities to flow out at the confluence outlet.

[0008] In order to solve the above-mentioned technical problems, one of the technical solutions adopted in the present application is to provide a vehicle, which includes a traveling device and a magnetic adsorption water purifier. The traveling device is used for traveling on the road, and the magnetic adsorption water purifier is arranged on the traveling device. The magnetic adsorption water purifier is the above-mentioned magnetic adsorption water purifier.

[0009] Beneficial effect: Different from the prior art, if the effective area for adsorbing the magnetic adsorbent is defined as the adsorption area, the sum of the magnetic adsorption areas of the side walls of the multiple magnetic adsorption channel cavities separated from each other distributed in the magnetic adsorption layer in the magnetic adsorption water purifier of the present application is larger than the magnetic adsorption area of ​​a single main reaction zone (such as the main reaction zone of the existing magnetic adsorption water purifier in the background technology) under the same conditions (equal floor area and equal height). In addition, as the magnetic adsorption area increases, the magnetic adsorption effect on the magnetic adsorbent increases. In other words, the present application can further reduce the volume of the magnetic adsorption water purifier while achieving the same magnetic adsorption effect on the magnetic adsorbent as the existing magnetic adsorption water purifier in the background technology. BRIEF DESCRIPTION OF THE DRAWINGS

[0010] Figure 1 It is a schematic diagram of the cutaway structure of the main view of the magnetic adsorption water purifier of the present application;

[0011] Figure 2 It is a structural schematic diagram of a bottom view of the magnetic adsorption water purifier of the present application;

[0012] Figure 3 It is a structural schematic diagram of the right view of the magnetic adsorption water purifier of the present application, wherein Figure 3 The device cover, solar panels and the housing of the device body are not shown;

[0013] Figure 4 yes Figure 3 A schematic diagram of the enlarged structure of the control panel;

[0014] Figure 5 It is a structural schematic diagram of a top view of the magnetic adsorption water purifier of the present application;

[0015] Figure 6 yes Figure 1 Dimensioning drawing.

[0016] Description of reference numerals:

[0017] Magnetic adsorption water purifier 10; purification reaction tank 100; adsorbent feed port 101; sewage inlet 102; magnetic adsorption layer 200; magnetic channel cavity 210; switchable magnetic part 220; confluence system 300; confluence pipe 310; confluence outlet valve 320; confluence outlet 301; confluence inlet 302; agitator 400; stirring motor 410; stirring paddle 420; solar panel 500; battery 600; control panel 700; control switch 710; first switch 711; second switch 712; third switch 713; display screen 720; device body 800; device cover 900; sealed cavity 901; height direction H; width direction W; length direction L; first length L1; first width W1; first height H1; second height H2; third height H3; fourth height H4. DETAILED DESCRIPTION

[0018] In order to enable those skilled in the art to better understand the technical solution of the present application, the present application is further described in detail below in conjunction with the accompanying drawings and specific implementation methods. Obviously, the described implementation methods are only part of the implementation methods of the present application, rather than all the implementation methods. Based on the implementation methods in the present application, all other implementation methods obtained by ordinary technicians in the field without making creative work are within the scope of protection of the present application.

[0019] See also Figure 1-Figure 2 The magnetic adsorption water purifier 10 of the present application includes a purification reaction tank 100, a magnetic adsorption layer 200 and a confluence system 300; the purification reaction tank 100, the magnetic adsorption layer 200 and the confluence system 300 are distributed in sequence from top to bottom.

[0020] The purification reaction tank 100 is used to receive the magnetic adsorbent and sewage, and to provide the magnetic adsorbent to purify the sewage to form clean water.

[0021] The magnetic adsorption layer 200 is provided with a plurality of magnetic adsorption channel cavities 210 separated from each other, and the top of the magnetic adsorption channel cavity 210 is connected to the purification reaction tank 100. From the top of the magnetic adsorption channel cavity 210 to the bottom of the magnetic adsorption channel cavity 210, the magnetic adsorption channel cavity 210 gradually narrows. Optionally, the magnetic adsorption channel cavity 210 may be funnel-shaped, but is not limited thereto. The side wall of the magnetic adsorption channel cavity 210 is provided with a switchable magnetic part 220, which is magnetic when powered on, and is used to adsorb the magnetic adsorbent to the side wall of the magnetic adsorption channel cavity 210. Optionally, the switchable magnetic part 220 may be an electromagnet.

[0022] The confluence system 300 is respectively connected to the bottom of the plurality of magnetic channel cavities 210 and is provided with a confluence outlet 301 for confluence of the purified water in the plurality of magnetic channel cavities 210 to flow out at the confluence outlet 301 .

[0023] In the above manner, if the effective area for adsorbing the magnetic adsorbent is defined as the adsorption area, the sum of the magnetic adsorption areas of the side walls of the multiple magnetic adsorption channel cavities 210 separated from each other distributed in the magnetic adsorption layer 200 in the magnetic adsorption water purifier of the present application is larger than the magnetic adsorption area of ​​a single main reaction area (such as the main reaction area of ​​the existing magnetic adsorption water purifier in the background technology) under the same conditions (same floor area and same height). In addition, as the magnetic adsorption area increases, the magnetic adsorption effect on the magnetic adsorbent increases. In other words, the present application can achieve the same magnetic adsorption effect on the magnetic adsorbent as the existing magnetic adsorption water purifier in the background technology, making the volume of the magnetic adsorption water purifier 10 smaller.

[0024] Specifically, the water purification process of the magnetic adsorption water purifier 10 may include steps S110 to S140.

[0025] Step S110: the purification reaction tank 100 receives the magnetic adsorbent and sewage, so that the magnetic adsorbent can purify the sewage in the purification reaction tank 100, thereby converting the sewage into clean water.

[0026] Step S120 : After the magnetic adsorbent has completed purifying the sewage, power is supplied to each switchable magnetic component 220 so that the magnetic adsorbent is adsorbed on the side wall of each magnetic channel cavity 210 .

[0027] Step S130: After the magnetic adsorbent is adsorbed on each magnetic channel cavity 210 , the confluence system 300 is controlled to converge the clean water in each magnetic channel cavity 210 to flow out at the confluence outlet 301 , wherein, as the clean water in the magnetic channel cavity 210 flows toward the confluence system 300 , the clean water of the purification reaction pool 100 is diverted to each magnetic channel cavity 210 .

[0028] Step S140: After all the purified water in the purification reaction tank 100 flows out from the confluent outlet 301 , the power supply of each switchable magnetic component 220 is cut off and the purification reaction tank 100 is controlled to receive clean water, so as to use the clean water to flush the magnetic adsorbent and make the magnetic adsorbent flow out from the confluent outlet 301 .

[0029] Furthermore, if Figure 1 and Figure 2 As shown, the confluence system 300 includes a confluence pipe 310 and a confluence outlet valve 320. The confluence pipe 310 is respectively connected to the bottom of the plurality of magnetic suction channel cavities 210 and the confluence outlet 301 is disposed at the confluence pipe 310. The confluence outlet valve 320 is disposed at the confluence outlet 301 and is used to control the opening and closing of the confluence outlet 301. In this way, the opening and closing of the confluence outlet 301 can be achieved by controlling the opening and closing of the confluence outlet valve 320.

[0030] Furthermore, if Figure 1 and Figure 2 As shown, the magnetic adsorption water purifier 10 has a height direction H, a length direction L and a width direction W which are perpendicular to each other.

[0031] The purification reaction tank 100, the magnetic adsorption layer 200 and the confluence pipe 310 are sequentially distributed from top to bottom along the height direction H of the magnetic adsorption water purifier 10. A plurality of magnetic adsorption channel cavities 210 are arranged in a row along the length direction L of the magnetic adsorption water purifier 10. In this way, it is convenient for the magnetic adsorbent in the above step S140 to flow to the confluence outlet 301 and flow out from the confluence outlet 301, thereby reducing the residual waste magnetic adsorbent in the magnetic adsorption water purifier 10.

[0032] The size of the magnetic channel cavity 210 along the length direction L of the magnetic adsorption water purifier 10 gradually decreases from the top of the magnetic channel cavity 210 to the bottom of the magnetic channel cavity 210. Switchable magnetic parts 220 are arranged on opposite sides of the magnetic channel cavity 210 along the length direction L of the magnetic adsorption water purifier 10.

[0033] Optionally, when looking down at the magnetic suction channel cavity 210 from the side of the magnetic suction channel cavity 210 close to the purification reaction tank 100, the shape of the top of the magnetic suction channel cavity 210 includes but is not limited to a polygon, such as a rectangle, a triangle, a hexagon or other polygons. The following description is based on the example of looking down at the magnetic suction channel cavity 210 from the side of the magnetic suction channel cavity 210 close to the purification reaction tank 100, and the shape of the magnetic suction channel cavity 210 is a rectangle.

[0034] Although it is mentioned in the above examples that the switchable magnetic parts 220 are provided on opposite sides of the magnetic channel cavity 210 along the length direction L of the magnetic adsorption water purifier 10, it should be understood that in other examples, the switchable magnetic parts 220 can be provided on the peripheral sides (e.g., all around or in an annular direction) of the magnetic channel cavity 210 extending around the height direction H of the magnetic adsorption water purifier 10.

[0035] For the convenience of explanation, the following description is made by taking the example that the switchable magnetic parts 220 are arranged on two opposite sides of the magnetic channel cavity 210 along the length direction L of the magnetic adsorption water purifier 10 .

[0036] Furthermore, if Figure 1 and Figure 2 As shown, the manifold 310 extends along the spacing direction between the multiple magnetic channel cavities 210 and is provided with multiple converging liquid inlets 302. The multiple converging liquid inlets 302 are dispersedly arranged corresponding to the multiple magnetic channel cavities 210. The bottom of each magnetic channel cavity 210 is connected to the manifold 310 through the corresponding converging liquid inlet 302.

[0037] In the above manner, since the manifold 310 extends along the spacing direction between the multiple magnetic channel cavities 210, it is convenient for the manifold 310 to connect to the corresponding magnetic channel cavities 210 through the multiple converging liquid inlets 302, and can reduce the space occupied by the manifold 310 in the height direction H of the magnetic adsorption water purifier 10.

[0038] Alternatively, if Figure 1 and Figure 2 As shown, a plurality of converging liquid inlets 302 and a plurality of magnetic channel cavities 210 are correspondingly distributed along the height direction H of the magnetic adsorption water purifier 10 , and each magnetic channel cavity 210 is connected to the converging pipe 310 through the corresponding converging liquid inlet 302 .

[0039] Furthermore, combined with Figure 1 See also Figures 3 to 5 The magnetic adsorption water purifier 10 includes an agitator 400 , a solar panel 500 , a battery 600 and a control panel 700 .

[0040] The agitator 400 at least partially extends into the purification reaction tank 100 to agitate the magnetic adsorbent and sewage in the purification reaction tank 100. The storage battery 600 is electrically coupled to the solar panel 500 and the control panel 700, and the control panel 700 is electrically coupled to the agitator 400, the switchable magnetic member 220 and the confluence system 300.

[0041] Through the above method, at least three beneficial effects are achieved: First, the control panel 700 allows the user to input operation instructions to control the agitator 400, the switchable magnetic part 220 and the confluence system 300, and to display the current state of the magnetic adsorption water purifier 10 to the user, which can facilitate the user to perform control operations. Second, the solar panel 500 converts light energy into electrical energy and stores it in the battery 600 for standby use, which is conducive to the outdoor use of the magnetic adsorption water purifier 10. Third, the agitator 400 stirs the magnetic adsorbent and sewage in the purification reaction tank 100 so that the magnetic adsorbent and the harmful substances in the sewage are fully contacted to purify the sewage to form clean water.

[0042] In one example, combining Figure 1 See also Figure 3 and Figure 4, a control switch 710 may be provided on the control panel 700, for example, the control switch 710 includes a first switch 711, a second switch 712 and a third switch 713, but is not limited thereto. Among them, the first switch 711 is a main switch, the second switch 712 is used to control the power on and off of the agitator 400, and the third switch 713 is used to control the power on and off of each switchable magnetic part 220. Optionally, the first switch 711, the second switch 712 and the third switch 713 have different colors for easy distinction. For example, the first switch 711 is red, the second switch 712 is blue, and the third switch 713 is black, but is not limited thereto. A display screen 720 may be provided on the control panel 700 for displaying the current state of the magnetic adsorption water purifier 10 to the user.

[0043] Furthermore, if Figure 1 As shown, the magnetic adsorption water purifier 10 includes a device body 800 and a device cover 900 .

[0044] The purification reaction pool 100, the magnetic adsorption layer 200 and the manifold 310 are arranged on the device body 800. The device cover 900 is covered on the purification reaction pool 100 to seal the purification reaction pool 100; the solar panel 500 is arranged on the top of the device cover 900. The device cover 900 can be opened or closed relative to the purification reaction pool 100.

[0045] The device cover 900 has a sealed cavity 901 formed inside, and the stirrer 400 includes a stirring motor 410 and a stirring paddle 420, wherein the stirring motor 410 is electrically coupled to the control panel 700. The stirring motor 410 and the battery 600 are disposed in the sealed cavity 901. The stirring paddle 420 is disposed in the purification reaction tank 100 and connected to the stirring motor 410.

[0046] The above method has at least two beneficial effects: first, the battery 600 and the stirring motor 410 are arranged in the sealed cavity 901 to prevent dust and water. Second, the device cover 900 can be opened or closed relative to the purification reaction tank 100 for easy maintenance.

[0047] Furthermore, combined with Figure 1 See also Figure 3 , the side wall of the purification reaction tank 100 is provided with an adsorbent feed port 101 and a sewage inlet port 102. The adsorbent feed port 101 is used for allowing the magnetic adsorbent to pass through to enter the purification reaction tank 100, and the sewage inlet port 102 is used for allowing the sewage to pass through to enter the purification reaction tank 100. Among them, the control panel 700, the adsorbent feed port 101 and the sewage inlet port 102 are located on the same side of the device body 800. In this way, it is convenient for users to inspect and repair the control panel 700, the adsorbent feed port 101 and the sewage inlet port 102.

[0048] Optionally, the diameter of the sewage inlet 102 can be matched with the sewage discharge pipe of the factory, so that the sewage discharged from the sewage discharge port of the factory can enter the purification reaction tank 100 through the sewage inlet 102. For example, the diameter of the sewage discharge port of a common factory is 8 cm, based on which the diameter of the sewage inlet 102 can be 8 cm, but is not limited thereto.

[0049] Furthermore, combined with Figure 1 See also Figure 3 , the adsorbent feed port 101 is located above the control panel 700. This is conducive to the magnetic adsorbent entering the purification reaction tank 100 through the adsorbent feed port 101 to be diffused more evenly in the purification reaction tank 100.

[0050] Furthermore, if Figure 1 As shown, the magnetic adsorption water purifier 10 includes a feeder (not shown in the figure), which is arranged outside the device body 800 and is detachably connected to the adsorbent feed port 101. The feeder is used to suck the magnetic adsorbent into the purification reaction tank 100.

[0051] This method has at least two advantages: first, the feeder can be used to quickly feed the magnetic adsorbent into the purification reaction tank 100. Second, the feeder can be replaced separately, thereby reducing the maintenance cost of the magnetic adsorption water purifier 10.

[0052] Furthermore, if Figure 1 As shown, the output end of the stirring motor 410 is detachably clamped by a clamp (not shown in the figure) to hold the stirring paddle 420. This facilitates the independent replacement of the stirring paddle 420, thereby reducing the maintenance cost of the magnetic adsorption water purifier 10.

[0053] By way of example and not limitation, Figure 1 See also Figure 6 The length of the device body 800 is a first length L1, the width of the device body 800 is a first width W1, the height of the device cover 900 is a first height H1, the height of the purification reaction pool 100 is a second height H2, the height of the magnetic adsorption layer 200 is a third height H3, and the height of the device body 800 below the bottom of the magnetic adsorption layer 200 is a fourth height H4.

[0054] Among them, the first length L1 is 4.15m, the first width W1 is 2.35m, the first height H1 is 0.30m, the second height H2 is 0.8m, the third height H3 is 0.4m, the fourth height H4 is 0.2m, and the diameter of the manifold 310 is 8cm, but it is not limited thereto. In other examples, the first length L1, the first width W1, the first height H1, the second height H2, the third height H3, the fourth height H4 and the diameter of the manifold 310 can adopt other values ​​according to specific needs.

[0055] The effect of the magnetic adsorption water purifier 10 of the present application is described below through a control experiment.

[0056] Control group 1

[0057] A first magnetic adsorption water purifier is provided. The similarities between the first magnetic adsorption water purifier and the above-mentioned magnetic adsorption water purifier 10 are not repeated. The difference between the first magnetic adsorption water purifier and the above-mentioned magnetic adsorption water purifier 10 is that the magnetic adsorption layer 200 of the first magnetic adsorption water purifier is only divided into one magnetic adsorption channel cavity 210.

[0058] The sewage was purified by using the first magnetic adsorption water purifier, and the corresponding purified water output rate was measured to be 63.46%.

[0059] Experimental Group 1

[0060] A second magnetic adsorption water purifier is provided. The second magnetic adsorption water purifier is the above-mentioned magnetic adsorption water purifier 10 , which is further defined in that the magnetic adsorption layer 200 of the second magnetic adsorption water purifier is divided into two magnetic adsorption channel cavities 210 .

[0061] The sewage was purified by the second magnetic adsorption water purifier, and the corresponding purified water output rate was measured to be 72.73%.

[0062] Experimental Group 2

[0063] A third magnetic adsorption water purifier is provided. The third magnetic adsorption water purifier is the above-mentioned magnetic adsorption water purifier 10 , which is further defined in that the magnetic adsorption layer 200 of the third magnetic adsorption water purifier is divided into four magnetic adsorption channel cavities 210 .

[0064] The sewage was purified by the third magnetic adsorption water purifier, and the corresponding purified water output rate was measured to be 76.19%.

[0065] In summary, by comparing the purified water output rates measured by experimental group one and experimental group two with the purified water output rate measured by control group one, it can be seen that dividing the magnetic adsorption layer 200 into multiple magnetic absorption channel cavities 210 and reducing the volume of a single magnetic absorption channel cavity 210 is beneficial to improving the purified water output rate of the magnetic absorption water purifier 10 and making sewage treatment more efficient.

[0066] The vehicle provided in the present application (not shown in the figure) includes a travel device and a magnetic adsorption water purifier, the magnetic adsorption water purifier is arranged on the travel device, and the travel device is used to drive the magnetic adsorption water purifier to move. The magnetic adsorption water purifier is the magnetic adsorption water purifier 10 mentioned above, and the repeated parts are not repeated here.

[0067] In the above manner, the magnetic adsorption water purifier 10 is disposed on the traveling device, and the magnetic adsorption water purifier 10 can be flexibly moved by the traveling device, thereby improving the portability of the magnetic adsorption water purifier 10.

[0068] Optionally, the traveling device includes but is not limited to a car, a truck, a train, an airplane, or a ship.

[0069] The above are only implementation methods of the present application, and are not intended to limit the patent scope of the present application. Any equivalent structure or equivalent process transformation made using the contents of the present application specification and drawings, or directly or indirectly applied in other related technical fields, are also included in the patent protection scope of the present application.

Claims

1. A magnetic adsorption water purifier, characterized in that: The magnetic adsorption water purifier comprises a purification reaction tank, a magnetic adsorption layer and a confluence system; The purification reaction tank is used to receive the magnetic adsorbent and sewage, and the magnetic adsorbent is used to purify the sewage to form clean water; The magnetic adsorption layer is provided with a plurality of magnetic adsorption channel cavities separated from each other, the top of the magnetic adsorption channel cavity is connected to the purification reaction pool; the magnetic adsorption channel cavity gradually narrows from the top to the bottom of the magnetic adsorption channel cavity; the side wall of the magnetic adsorption channel cavity is provided with a switchable magnetic part, the switchable magnetic part has magnetism when powered on, and is used to make the magnetic adsorbent adsorbed on the side wall of the magnetic adsorption channel cavity; The confluence system is respectively connected to the bottom of the plurality of magnetic channel cavities and is provided with a confluence outlet for converging the purified water in the plurality of magnetic channel cavities to flow out at the confluence outlet.

2. The magnetic adsorption water purifier according to claim 1, characterized in that: The confluence system comprises: A manifold is connected to the bottom of each of the plurality of magnetic channel cavities, and the confluence outlet is arranged on the manifold; And a confluence liquid outlet valve is arranged at the confluence liquid outlet and is used to control the opening and closing of the confluence liquid outlet.

3. The magnetic adsorption water purifier according to claim 2, characterized in that: The magnetic adsorption water purifier has a height direction, a length direction and a width direction which are perpendicular to each other; The purification reaction pool, the magnetic adsorption layer and the manifold are sequentially distributed from top to bottom along the height direction of the magnetic adsorption water purifier; a plurality of magnetic adsorption channel cavities are arranged in a row along the length direction of the magnetic adsorption water purifier; Among them, from the top of the magnetic channel cavity to the bottom of the magnetic channel cavity, the size of the magnetic channel cavity along the length direction of the magnetic adsorption water purifier gradually decreases; the switchable magnetic parts are arranged on opposite sides of the magnetic channel cavity along the length direction of the magnetic adsorption water purifier.

4. The magnetic adsorption water purifier according to claim 2, characterized in that: The confluence pipe extends along the spacing direction between the multiple magnetic attraction channel cavities and is provided with multiple confluence liquid inlets; the multiple confluence liquid inlets are dispersedly arranged corresponding to the multiple magnetic attraction channel cavities; the bottom of the magnetic attraction channel cavity is connected to the confluence pipe through the corresponding confluence liquid inlets.

5. The magnetic adsorption water purifier according to claim 2, characterized in that: The magnetic adsorption water purifier comprises: an agitator, at least partially extending into the purification reaction tank, so as to agitate the magnetic adsorbent and the sewage in the purification reaction tank; And a solar panel, a battery and a control panel, the battery is electrically coupled to the solar panel and the control panel respectively, and the control panel is electrically coupled to the stirrer, the switchable magnetic part and the confluence system respectively.

6. The magnetic adsorption water purifier according to claim 5, characterized in that: The magnetic adsorption water purifier comprises: A device body, wherein the purification reaction pool, the magnetic adsorption layer and the manifold are arranged on the device body; and a device cover, which is disposed on the purification reaction pool to seal the purification reaction pool; the solar panel is disposed on the top of the device cover; the device cover can be opened or closed relative to the purification reaction pool; A sealed cavity is formed inside the device cover, the agitator includes a stirring motor and a stirring paddle, the stirring motor is electrically coupled to the control panel; the stirring motor and the battery are arranged in the sealed cavity; the stirring paddle is arranged in the purification reaction tank and connected to the stirring motor.

7. The magnetic adsorption water purifier according to claim 6, characterized in that: The side wall of the purification reaction tank is provided with an adsorbent feed port and a sewage inlet; the adsorbent feed port is used for allowing the magnetic adsorbent to pass through to enter the purification reaction tank, and the sewage inlet is used for allowing the sewage to pass through to enter the purification reaction tank; Wherein, the control panel, the adsorbent feed port and the sewage inlet are located on the same side of the device body, and the adsorbent feed port is located above the control panel.

8. The magnetic adsorption water purifier according to claim 7, characterized in that: The magnetic adsorption water purifier comprises a feeder, which is arranged outside the device body and is detachably connected to the adsorbent feed port; the feeder is used to suck the magnetic adsorbent into the purification reaction tank.

9. The magnetic adsorption water purifier according to claim 6, characterized in that: The output end of the stirring motor detachably clamps the stirring paddle through a clamp.

10. A means of transport, characterized in that: The vehicle includes a traveling device and a magnetic adsorption water purifier, wherein the traveling device is used for traveling on a road surface, and the magnetic adsorption water purifier is arranged on the traveling device, and the magnetic adsorption water purifier is the magnetic adsorption water purifier described in any one of claims 1-9.

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