Floating components and water treatment devices

Abstract

This utility model provides a floating component and a water treatment device. The water treatment device includes a floating component and a distributor. The distributor can be rotatably mounted on the floating component relative to it and can also be rotatably removed from it relative to it. The floating component includes a first mounting structure and a first rotating structure. The distributor includes a second mounting structure and a second rotating structure. The first mounting structure and the second mounting structure can be mounted together and can be separated. The first rotating structure and the second rotating structure can rotate relative to each other.

Description

Technical Field

[0001] This application relates to the field of water purification technology, and more particularly to a floating element and a water treatment device. Background Technology

[0002] In related technologies, water treatment devices may include a floating component and a water treatment component. The floating component provides buoyancy to the water treatment component, enabling it to float on water. The buoyancy of the floating component is sufficient to cover the weight of both the floating component itself and the water treatment component. The water treatment component generally includes a housing and a water treatment substance, such as minerals, housed within the housing.

[0003] Water treatment components and floating components are generally installed using a single connection method, such as threaded connection. Utility Model Content

[0004] This application provides a floating component and a water treatment device.

[0005] In a first aspect, embodiments of this application provide a water treatment device, which includes a float and a distributor, wherein the distributor is rotatable relative to the float and can be mounted on the float and rotatable relative to the float and detached from the float. The floating component includes a first mounting structure and at least one first rotating structure; the distributor includes a second mounting structure and at least one second rotating structure. The first mounting structure and the second mounting structure can be installed together and can also be separated. Among them, the first rotating structure and the second rotating structure can rotate relative to each other; When the second rotating structure rotates relative to the first rotating structure along the first rotating direction, the distributor can be installed on the floating component. When the second rotating structure rotates relative to the first rotating structure in a second rotating direction opposite to the first rotating direction, the distributor can be detached from the floating part.

[0006] In one optional embodiment of this application, the floating component further includes at least one first positioning structure, which is used to position the second rotating structure; or The dispenser also includes at least one second positioning structure for positioning the first rotating structure.

[0007] In one optional embodiment of this application, one of the first rotating structure and the second rotating structure includes a rotating groove, and the other includes a rotating part, wherein the rotating part is capable of rotating within the rotating groove; and / or, One of the first mounting structure and the second mounting structure includes a mounting groove, and the other includes a mounting part, which can be installed in the mounting groove and rotated within the mounting groove.

[0008] In one optional embodiment of this application, the first mounting structure includes a mounting groove, and the second mounting structure includes a mounting part, which can be installed in the mounting groove and can rotate within the mounting groove; The first rotating structure includes a rotating groove, and the second rotating structure includes a rotating part, which is capable of rotating within the rotating groove. The rotating slot and the mounting slot are connected, and the rotating slot is defined around the mounting slot; The floating component also includes at least one insertion slot, all insertion slots are disposed on the side wall defining the mounting slot, and one insertion slot communicates with the mounting slot and a rotating slot. One of the rotating parts is capable of being inserted from an insertion slot into a rotating slot and rotating within the rotating slot.

[0009] In one optional embodiment of this application, The floating component also includes at least one first positioning structure, at least a portion of which is disposed within the rotating groove and is connected to define the bottom wall and side wall of the rotating groove. The first positioning structure is used to position the second rotating structure so that the distributor is mounted on the floating component. The first positioning structure defines the first part of the groove structure and the second part of the groove structure in the rotating groove. The first part of the slot structure is connected to an insertion slot; A rotating part can be inserted into a first part of the slot structure from an insertion slot, and can rotate relative to the floating member in a first direction until it passes through a first positioning structure and rotates into a second part of the slot structure, whereby the first positioning structure positions the rotating part in the second part of the slot structure.

[0010] In one optional embodiment of this application, the first positioning structure includes a first transition surface and a second transition surface. The root of the first transition surface is closer to the entrance of the rotating groove where the first positioning structure is located than the end of the first transition surface. The root of the second transition surface is closer to the entrance of the rotating groove where the first positioning structure is located than the end of the second transition surface. During the process of the rotating part rotating from the first part of the groove structure to the second part of the groove structure, the rotating part passes through the first transition surface and then fits into at least a part of the second transition surface. In the process of rotating part rotating from the second part of the groove structure to the first part of the groove structure, it first passes through the second transition surface and then passes through the first transition surface. The length of the first transition surface is greater than the length of the second transition surface; and / or, Both the first and second transition surfaces are curved surfaces.

[0011] In one optional embodiment of this application, the floating component further includes a groove provided on the sidewall defining the mounting groove; The floating component also includes multiple reinforcing ribs arranged within the groove; The float includes a top surface and a bottom surface arranged in opposite directions. The dispenser can be installed on the bottom surface of the float and can be removed from the bottom surface of the float. The first mounting structure and the first rotating structure are disposed on the bottom surface; The floating component also includes at least one first rotation mark on the bottom surface for indicating the first rotation direction, and all the first rotation marks are disposed around the first mounting structure and the first rotation structure. The buoyancy of the floating component is configured to be adaptable to distributors of various weights.

[0012] Secondly, embodiments of this application provide a floatation component for use in a water treatment device, the floatation component being configured to be adaptable to various dispensers of different weights; The floating component includes: a mounting groove, at least one insertion groove and at least one rotating groove, wherein the mounting groove is connected to the insertion groove and the rotating groove, the insertion groove and the rotating groove are arranged around the mounting groove, and the rotating groove and the insertion groove are connected. The floating component also includes at least one first positioning structure, which is disposed in the rotating groove and is connected to define the bottom wall and side wall of the rotating groove. The first positioning structure is used to position the dispenser that is inserted from the insertion groove into the rotating groove and reaches the position of the first positioning structure by rotation.

[0013] In one optional embodiment of this application, a first positioning structure defines a first part of the groove structure and a second part of the groove structure; the first part of the groove structure is connected to an insertion groove; a rotating part can be inserted into the first part of the groove structure from the insertion groove and can rotate relative to the floating member in a first direction until it passes through the first positioning structure and rotates into the second part of the groove structure, and the first positioning structure positions the rotating part in the second part of the groove structure. The first positioning structure includes a first transition surface and a second transition surface. The root of the first transition surface is closer to the entrance of the rotating groove where the first positioning structure is located than the end of the first transition surface. The root of the second transition surface is closer to the entrance of the rotating groove where the first positioning structure is located than the end of the second transition surface. During the process of rotating the rotating part from the first part of the groove structure to the second part of the groove structure, it passes through the first transition surface and then at least a part of the second transition surface comes into contact with it. In the process of rotating part rotating from the second part of the groove structure to the first part of the groove structure, it first passes through the second transition surface and then passes through the first transition surface. The length of the first transition surface is greater than the length of the second transition surface; and / or, Both the first and second transition surfaces are curved surfaces.

[0014] Thirdly, embodiments of this application provide a floatation component for use in a water treatment device, the floatation component being configured to be adaptable to various dispensers of different weights; The floating component includes a top surface and a bottom surface that are arranged in opposite directions; The floating component also includes a mounting portion and at least one rotating portion. The mounting portion is disposed on the bottom surface and extends in a direction away from the top surface. The at least one rotating portion is disposed on the outer side surface of the mounting portion and at least one rotating portion is disposed at the end of the mounting portion away from the bottom surface. The floating component also includes at least one first rotation indicator disposed on the bottom surface for indicating the first rotation direction.

[0015] Beneficial effects: The float and distributor of the water treatment device in this application embodiment can be installed together and separated. The buoyancy of the float in this application embodiment can be adapted to distributors of various weights, making it applicable to different scenarios. The installation process of both the distributor and the float in this application embodiment includes at least a plugging process and a rotation process, ensuring stable installation of both the distributor and the float. This facilitates product modularization. Attached Figure Description

[0016] To more clearly illustrate the technical solutions in the embodiments of this application, the accompanying drawings used in the description of the embodiments will be briefly introduced below. Obviously, the drawings described below are only some embodiments of this application. For those skilled in the art, other drawings can be obtained based on these drawings without creative effort.

[0017] To gain a more complete understanding of this application and its beneficial effects, the following description will be provided in conjunction with the accompanying drawings, wherein the same reference numerals in the following description denote the same parts.

[0018] Figure 1 This is a structural diagram of the water treatment device according to an embodiment of this application.

[0019] Figure 2 This is an exploded view of the water treatment device according to an embodiment of this application.

[0020] Figure 3 This is a cross-sectional view of the water treatment device according to an embodiment of this application.

[0021] Figure 4 for Figure 3 A magnified view of a portion of A shown.

[0022] Figure 5 and Figure 6 This is a structural diagram of the floating component of the water treatment device according to an embodiment of this application.

[0023] Figure 7 for Figure 6A magnified view of part B shown.

[0024] Figure 8 for Figure 7 A magnified view of part C shown.

[0025] Figure 9 and Figure 10 This is a structural diagram of the connector of the distributor in the water treatment device of this application embodiment.

[0026] Figure 11 This is an exploded view of a water treatment apparatus according to another embodiment of this application.

[0027] Figure 12 This is a cross-sectional view of a water treatment apparatus according to another embodiment of this application.

[0028] Figure 13 This is a structural diagram showing the connection of the distributor in a water treatment device according to another embodiment of this application.

[0029] 10. Water treatment device; 11. Distributor; 20. Water treatment device; 21. Distributor; 100. Floating component; 101. Top surface; 102. Bottom surface; 103. Side surface; 1031. Anti-slip structure; 104. Rotation mark; 106. Locking mark; 107. Unlocking mark; 108. First mounting structure; 109. First rotating structure; 110. Mounting groove; 111. Bottom wall; 112. Side wall; 120. Rotation groove; 121. First part of groove structure; 122. Second part of groove structure; 123. Inlet; 124. Bottom wall; 125. Side wall; 126. Restriction wall; 130. First positioning structure; 131. First transition surface; 132. Second transition surface; 133. Inclined surface; 140. Insertion groove; 150. Groove; 160. Reinforcing rib structure; 170. Partition plate; 200. Connector; 208. Second mounting structure; 209. Second rotating structure; 210. Connecting part; 220. Mounting part; 221. Groove; 230. Barrier part; 240. Buckle; 250. Rotating part; 260. Reinforcing part; 261. Groove; 300, Carrier; 301, Accommodating space; 302, Opening; 303, Through hole; 304, Slot; 310, Side wall; 320, Bottom wall; 330, Handle; 400, Floating component; 401, Top surface; 402, Bottom surface; 408, First mounting structure; 409, First rotating structure; 410, Mounting part; 420, Rotating part; 500, Connecting component; 508, Second mounting structure; 509, Second rotating structure; 510, Connecting part; 520, Mounting groove; 530, Barrier part; 570, Rotating groove; 580, Insertion groove; 600, Carrier; F1, first direction of rotation; L1, first axis. Detailed Implementation

[0030] This application provides a water treatment device and a float and a dispenser used in the water treatment device. It is understood that the float can float in a liquid, such as water. In this application embodiment, the float can be connected to and separated from the dispenser. In an optional embodiment, during the connection process, the float and the dispenser are connected sequentially through an insertion process, a rotation process, and a locking process. Similarly, during the separation process, the float and the dispenser are separated sequentially through an unlocking process, a rotation process, and a removal process. The insertion, rotation, and locking processes used in this application embodiment ensure a stable connection between the float and the dispenser.

[0031] The dispenser in this application embodiment may have one or more different weights.

[0032] The dispenser in this application embodiment can have one or more different models. Different models of dispensers can be understood as dispensers equipped with different water treatment substances. For example, the water treatment substance can filter water. In this scenario, the water treatment substance can be called a filter material or a filter media. The filter material can include minerals, such as ores.

[0033] The float and dispenser in this embodiment can be connected and separated, allowing the float to be connected and separated from dispensers of different weights or models. Therefore, the buoyancy of the float in this embodiment can be adapted to various dispensers of different weights or models. Furthermore, this embodiment facilitates product modularization.

[0034] The floating component and distributor in the application embodiment can be connected and separated, so that the distributor can be adapted to floating components with different buoyancy.

[0035] It's important to note that the buoyancy of the float can be adjusted according to requirements. For example, in scenarios requiring greater buoyancy, the float can be made larger to provide more buoyancy. Conversely, in scenarios requiring less buoyancy, the float can be made smaller to provide less buoyancy. Similarly, in scenarios involving large amounts of water, such as swimming pools, larger dispensers can be used. In scenarios involving smaller amounts of water, such as bathtubs, smaller dispensers can be used.

[0036] To more clearly illustrate the inventive concept of the embodiments of this application, the following exemplary description is provided in conjunction with the exemplary drawings.

[0037] The technical solutions of the embodiments of this application will be clearly and completely described below with reference to the accompanying drawings. Obviously, the described embodiments are only a part of the embodiments of this application, and not all of them. The following description of at least one exemplary embodiment is merely illustrative and is in no way intended to limit the application or its application or use. All other embodiments obtained by those skilled in the art based on the embodiments of this application without creative effort are within the protection scope of this application.

[0038] In this document, references to "embodiment" or "implementation" mean that a particular feature, structure, or characteristic described in connection with an embodiment or implementation may be included in at least one embodiment of this application. The appearance of this phrase in various places throughout the specification does not necessarily refer to the same embodiment, nor is it a separate or alternative embodiment mutually exclusive with other embodiments. It will be explicitly and implicitly understood by those skilled in the art that the embodiments described herein can be combined with other embodiments.

[0039] Please see Figures 1 to 10 As shown, the water treatment device 10 includes a float 100 and a distributor 11. The distributor 11 is rotatable relative to the float 100 for mounting onto the float 100 and is rotatable relative to the float 100 for detachment from the float 100.

[0040] In one optional embodiment, the installation process of both the float 100 and the distributor 11 may include at least a plugging process and a rotation process. For example, both the float 100 and the distributor 11 may be provided with plugging structures and rotation structures. The plugging structure can also be called the installation structure. For instance, the plugging structures of the float 100 and the distributor 11 can be plugged into each other, and the rotation structures of the float 100 and the distributor 11 can rotate relative to each other. In this embodiment, the installation process of the float 100 and the distributor 11 is as follows: the float 100 and the distributor 11 are first plugged into each other through the plugging structure, and then the float 100 and the distributor 11 are connected together by rotating relative to each other through the rotation structure, thus realizing the installation of the float 100 and the distributor 11. In this embodiment, the process of separating the float 100 and the distributor 11 is as follows: the float 100 and the distributor 11 are disconnected by rotating relative to each other through two rotating structures, and then the float 100 and the distributor 11 are separated from the plug-in structure, thus realizing the separation of the float 100 and the distributor 11.

[0041] For example, the floating component includes a first mounting structure 108 and at least one first rotating structure 109; the distributor 11 includes a second mounting structure 208 and at least one second rotating structure 209; wherein the first mounting structure 108 and the second mounting structure 208 can be mounted together and can be separated. It should be noted that the first mounting structure 108 can also be referred to as a first plug-in structure 108, and the second mounting structure 208 can also be referred to as a second plug-in structure 208. The fact that the first mounting structure 108 and the second mounting structure 208 can be mounted together can be understood as the first mounting structure 108 and the second mounting structure 208 being plugged into each other.

[0042] The first rotating structure 109 and the second rotating structure 209 are capable of rotating relative to each other. When the second rotating structure 209 rotates relative to the first rotating structure 109 in a first rotation direction F1, the distributor 11 can be installed onto the float 100. When the second rotating structure 209 rotates relative to the first rotating structure 109 in a direction opposite to the first rotation direction F1, the distributor 11 can be detached from the float 100.

[0043] In another optional embodiment, the installation process of both the float 100 and the dispenser 11 may further include a locking process. For example, at least one of the float 100 and the dispenser 11 is provided with a locking structure, which can also be called a positioning structure. In this embodiment, where the float 100 and the dispenser 11 are connected by relative rotation through two rotating structures, the locking structure can lock both the float 100 and the dispenser 11. Without external force, the locking structure can maintain the connection between the float 100 and the dispenser 11. In this embodiment, under the action of external force, the restriction of the locking structure on the float 100 and the dispenser 11 can be released, achieving unlocking. For example, directly rotating the float 100 and the dispenser 11 relative to each other under the action of external force can release the restriction of the locking structure on the float 100 and the dispenser 11.

[0044] In one alternative embodiment, the floating element 100 further includes at least one first positioning structure 130, which, for example, is used to position the second rotating structure 209.

[0045] In other alternative embodiments, the dispenser 11 further includes at least one second positioning structure (not shown in the drawings) for positioning the first rotating structure.

[0046] For example, one of the first mounting structure 108 and the second mounting structure 208 includes a mounting groove, and the other includes a mounting part. The mounting part can be installed in the mounting groove and can rotate within the mounting groove. For instance, the first mounting structure 108 includes a mounting groove 110, and the second mounting structure 208 includes a mounting part 220. The mounting part 220 can be installed in the mounting groove 110 and can rotate within the mounting groove 110. It should be noted that the mounting groove 110 included in the first mounting structure 108 in this embodiment can also be called a plug-in groove 110, and the mounting part 220 included in the second mounting structure 208 can also be called a plug-in part 220. The plug-in part 220 can be inserted into the plug-in groove 110 and can rotate within the plug-in groove 110.

[0047] The floating component 100 may also include a bottom wall 111 and a side wall 112 defining the mounting groove 110, the bottom wall 111 and the side wall 112 being connected, and the side wall 112 surrounding the bottom wall 111 to define the mounting groove 110.

[0048] In one alternative embodiment, the mounting portion 220 may have a columnar structure.

[0049] For example, one of the first rotating structure 109 and the second rotating structure 209 includes a rotating groove and the other includes a rotating part, the rotating part being able to rotate within the rotating groove. For instance, the first rotating structure 109 includes a rotating groove 120, and the second rotating structure 209 includes a rotating part 250, the rotating part 250 being able to rotate within the rotating groove 120.

[0050] For example, the rotating slot 120 and the mounting slot 110 are in communication, and the rotating slot 120 is defined around the mounting slot 110.

[0051] For example, at least one rotating portion 250 of the second rotating structure 209 is disposed on the peripheral outer surface of the mounting portion 220.

[0052] The floating component 100 may further include a bottom wall 124, a side wall 125, a top wall, and a limiting wall 126 defining the rotating groove 120. The side wall 125 is connected to the bottom wall 124 and the top wall, and the top wall and bottom wall 124 are arranged opposite to each other. Figure 6 and Figure 7 As shown, the top wall defining the rotating groove 120 is obscured and not shown in the drawings. The limiting wall 126 is connected to the bottom wall 124, side wall 125, and top wall. Exemplarily, the limiting wall 126 is also connected to the side wall 112. The bottom wall 124 and bottom wall 111 may or may not be flush. This embodiment of the application uses the example of the bottom wall 124 and bottom wall 111 being flush as an example for illustrative purposes. In other alternative embodiments, for example, a stepped structure may be defined between the bottom wall 124 and bottom wall 111.

[0053] In one alternative embodiment, the mounting part 220 can be first installed into the mounting groove 110 and then into the rotating groove 120. In another alternative embodiment, the floating member 100 further includes at least one insertion groove 140, all insertion grooves 140 being disposed on the sidewall 112 defining the mounting groove 110, and one insertion groove 140 communicating with both the mounting groove 110 and the rotating groove 120. A rotating part 250 is capable of being inserted from an insertion groove 140 into a rotating groove 120 and rotating within the rotating groove 120. For example, the insertion groove 140 and the inlet 123 of the rotating groove 120 are connected, and the rotating part 250 is capable of being inserted from an insertion groove 140 into the inlet 123 of the rotating groove 120 and then rotating within the rotating groove 120.

[0054] For example, at least a portion of at least one first positioning structure 130 of the float 100 is disposed within the rotating groove 120, and the first positioning structure 130 is connected to the bottom wall 124 and side wall 125 defining the rotating groove 120. The first positioning structure 130 is used to position the second rotating structure 209 so that the dispenser 11 is mounted on the float 100. It can also be understood that the first positioning structure 130 is used to position the dispenser 11, which is inserted from the insertion groove 140 into the rotating groove 120 and reaches the position of the first positioning structure 130 by rotation.

[0055] For example, the first positioning structure 130 defines a first partial groove structure 121 and a second partial groove structure 122 in the rotating groove 120; the first partial groove structure 121 is connected to an insertion groove 140. A rotating part 250 can be inserted into the inlet 123 of the rotating groove 120 from the insertion groove 140, and then can rotate relative to the float 100 in the first rotation direction F1 into the first partial groove structure 121, and can rotate relative to the float 100 in the first rotation direction F1 until it passes through the first positioning structure 130 and rotates into the second partial groove structure 122, whereby the first positioning structure 130 positions the rotating part 250 within the second partial groove structure 122.

[0056] For example, the first positioning structure 130 includes a first transition surface 131 and a second transition surface 132; wherein, during the process of the rotating part 250 rotating from the first partial groove structure 121 to the second partial groove structure 122, the rotating part 250 passes through the first transition surface 131 and then abuts against at least a portion of the second transition surface 132. Specifically, during the process of the rotating part 250 rotating from the second partial groove structure 122 to the first partial groove structure 121, it first passes through the second transition surface 132 and then through the first transition surface 131.

[0057] For example, the upper surface of the first positioning structure 130 includes at least one arcuate surface. For example, both the first transition surface 131 and the second transition surface 132 are arcuate surfaces. For example, the height of the first positioning structure 130 gradually increases until it reaches the junction of the two transition surfaces (the first transition surface 131 and the second transition surface 132), and then gradually decreases.

[0058] The bottom surface of the first positioning structure 130 is connected to the bottom wall 124 defining the rotating groove 120. One end face of the first positioning structure 130 is connected to the side wall 125 defining the rotating groove 120, and the other end face of the first positioning structure 130 is away from the side wall 125 defining the rotating groove 120. For example, the other end face of the first positioning structure 130, that is, the end face of the first positioning structure 130 away from the side wall 125 defining the rotating groove 120, is an inclined surface 133. The end face of the first positioning structure 130 connected to the side wall 125 defining the rotating groove 120 can be called the root, and the end face of the first positioning structure 130 away from the side wall 125 defining the rotating groove 120 can be called the end face.

[0059] For example, the first positioning structure 130 is inclined relative to the sidewall 125 that defines the rotating groove 120. For example, the root of the first transition surface 131 is closer to the entrance 123 of the rotating groove 120 where the first positioning structure 130 is located than the end of the first transition surface 131; the root of the second transition surface 132 is closer to the entrance 123 of the rotating groove 120 where the first positioning structure 130 is located than the end of the second transition surface 132.

[0060] For example, the length of the first transition surface 131 is greater than the length of the second transition surface 132.

[0061] In other alternative embodiments, the first positioning structure 130 may be columnar.

[0062] For example, the float 100 also includes a groove 150 provided on the sidewall 112 defining the mounting groove 110. The groove 150 and the rotating groove 120 are separated by a partition 170. During the rotation of the rotating part 250 within the rotating groove 120, the partition 170 located between the rotating groove 120 and the groove 150 can provide a deformation function. For instance, as the rotating part 250 rotates past the first positioning structure 130, it can compress the partition 170, causing the partition 170 to deform, thereby facilitating the rotation of the rotating part 250 past the first positioning structure 130. Furthermore, the deformation of the partition 170 during the compression by the rotating part 250 can produce an audible effect, indicating to the user whether the rotating part 250 has been positioned by the first positioning structure 130.

[0063] For example, the float 100 also includes a plurality of reinforcing rib structures 160 disposed within the groove 150. For example, the plurality of reinforcing rib structures 160 are arranged sequentially at intervals along the circumference of the sidewall 112.

[0064] For example, the float 100 includes a top surface 101 and a bottom surface 102 arranged opposite to each other, and the dispenser 11 can be mounted to the bottom surface 102 of the float 100 and can be detached from the bottom surface 102 of the float 100.

[0065] The first mounting structure 108 and the first rotating structure 109 are disposed on the bottom surface 102. The first mounting structure 108 and the first rotating structure 109 can be disposed on the inner side or the outer side of the bottom surface 102. This embodiment of the application provides an example where the first mounting structure 108 and the first rotating structure 109 are disposed on the inner side of the bottom surface 102.

[0066] For example, the float 100 also includes at least one rotation mark 104 disposed on the bottom surface 102 for indicating the first rotation direction F1, and all rotation marks 104 are disposed around the first mounting structure 108 and the first rotating structure 109.

[0067] For example, the floating component 100 also includes a locking mark 106 disposed on the bottom surface 102 for indicating that the first positioning structure 130 restricts the rotation part 250, and an unlocking mark 107 for indicating that the first positioning structure 130 unlocks the rotation part 250. Specifically, the locking mark 106 is disposed at the starting end of the rotation mark 104, and the unlocking mark 107 is disposed at the ending end of the rotation mark 104.

[0068] For example, the buoyancy of the float 100 is configured to accommodate a variety of dispensers 11 of different weights.

[0069] For example, the float 100 may also cover the side surface 103, which connects the top surface 101 and the bottom surface 102. For example, the side surface 103 is provided with multiple anti-slip structures 1031, which facilitate the user's operation of the float 100 with their fingers. The anti-slip structure 1031 may be an anti-slip column structure or a concave-convex structure; the embodiments of this application do not limit the anti-slip structure 1031.

[0070] For example, the top surface 101 of the floating element 100 can be an arc-shaped surface.

[0071] For example, the bottom surface 102 of the floating element 100 can be an arc-shaped surface.

[0072] For example, the curvature of the top surface 101 of the float 100 can be greater than the curvature of the bottom surface 102 of the float 100.

[0073] For example, the floating component 100 can be one of a cylindrical structure, a semi-circular structure, or a cubic structure.

[0074] For example, the float 100 and dispenser 11 in the embodiments of this application can be applied to multiple scenarios such as bathtubs, swim spas, and swimming pools.

[0075] For example, the limiting wall 126 may be inclined or not inclined.

[0076] The installation steps for both the distributor 11 and the float 100 in this embodiment of the application include: ① Alignment steps: Align the mounting part 220 of the dispenser 11 with the mounting groove 110 of the float 100, and align the rotating part 250 of the dispenser 11 with the insertion groove 140 of the float 100.

[0077] ② Insertion step: Insert the mounting part 220 of the dispenser 11 into the mounting slot 110 of the float 100, and at the same time insert the rotating part 250 of the dispenser 11 into the insertion slot 140 of the float 100 until the rotating part 250 reaches the inlet 123 position of the rotating slot 120.

[0078] ③ Rotation step: The floating part 100 and the distributor 11 are rotated relative to each other along the first rotation direction F1, while the rotating part 250 rotates in the rotating groove 120 until the first positioning structure 130 is located.

[0079] ④ Locking Step: Continuing to rotate relative to the floating component 100 and the distributor 11 along the first rotation direction F1, the rotating part 250 rotates within the rotating groove 120, passes through the first positioning structure 130, and is confined within the second groove structure 122. Thus, the partition 170 and the bottom wall 124 of the rotating groove 120 can axially restrict the rotating part 250, while the side wall 125 of the rotating groove 120, the first positioning structure 130, and the confining wall 126 can radially restrict the rotating part 250, thereby locking the rotating part 250.

[0080] The separation steps of the dispenser 11 and the float 100 in this embodiment of the application include: ① Unlocking steps: Rotate the float 100 and the distributor 11 relative to each other in the opposite direction to the first rotation direction F1 until the rotating part 250 rotates from the second part groove structure 122 into the first part groove structure 121.

[0081] ② Rotation step: Continue to rotate the float 100 and the distributor 11 relative to each other in the opposite direction to the first rotation direction F1 until the rotating part 250 rotates from the first part slot structure 121 to the position of the insertion slot 140.

[0082] ③ Pull-out step: Pull the mounting part 220 out of the mounting slot 110 and at the same time pull the rotating part 250 out of the insertion slot 140 to separate the floating part 100 and the distributor 11.

[0083] It should be noted that the relative rotation of the float 100 and the dispenser 11 in this embodiment can be understood as the float 100 and the dispenser 11 being able to rotate relative to each other around the first axis L1.

[0084] The dispenser 11 in this application embodiment can be a single integral structural component or can include multiple combined components. In an optional embodiment, the dispenser 11 includes a connector 200 and a carrier 300, wherein the connector 200 includes a mounting portion 220 and a rotating portion 250.

[0085] The connector 200 and the carrier 300 are fixedly connected, either in a fixed and non-removable manner or in a fixed and detachable manner.

[0086] For example, the connector 200 further includes a connecting portion 210 and a blocking portion 230, which are connected sequentially to each other. For example, the blocking portion 230 separates the mounting portion 220 and the connecting portion 210. For example, the diameter of the blocking portion 230 is larger than the diameter of the mounting portion 220 and larger than the diameter of the connecting portion 210.

[0087] For example, there may be two rotating parts 250, which are symmetrically arranged on the outer side of the mounting part 220. The rotating parts 250 may be protruding structures or bump structures.

[0088] For example, the rotating part 250 is disposed on the side of the mounting part 220 away from the blocking part 230.

[0089] For example, the diameter of the blocking portion 230 is larger than the diameter of the mounting groove 110. When the mounting portion 220 is inserted into the mounting groove 110, the blocking portion 230 can fit against the bottom surface 102 of the float 100.

[0090] For example, a groove 221 may be provided on the side of the mounting portion 220 away from the blocking portion 230, which can reduce weight. In other alternative embodiments, an insertion structure may be provided in the mounting groove 110, and the insertion structure in the mounting groove 110 may be inserted into the groove 221 and rotated.

[0091] For example, a reinforcing portion 260 is provided within the groove 221, and the top surface of the reinforcing portion 260 does not protrude beyond the top surface of the mounting portion 220. For example, the reinforcing portion 260 and the mounting portion 220 are coaxially arranged. For example, the reinforcing portion 260 may have a groove 261 formed therein.

[0092] For example, the carrier 300 may include a sidewall 310 and a bottom wall 320, which are connected and the sidewall 310 surrounds the bottom wall 320 to define a receiving space 301 and an opening 302. The opening 302 communicates with the receiving space 301 and is located at the end of the sidewall 310 away from the bottom wall 320. Water treatment materials can be loaded into the receiving space 301 through the opening 302. The connector 200 and the carrier 300 can then be assembled together, with a portion of the connector 200 inserted into the receiving space 301 from the opening 302 to close the opening 302. For example, the connecting portion 210 of the connector 200 can be inserted into the receiving space 301 from the opening 302 to close the opening 302. For example, the connector 200 also includes multiple snap-fits 240, and multiple slots 304 are provided on the sidewall 310 of the carrier 300, with one snap-fit ​​240 capable of engaging into one slot 304. It should be noted that the buckle 240 can be either a non-removable buckle or a detachable buckle. The connection method between the carrier 300 and the connector 200 is not limited to this; for example, they can also be connected by threaded screws, bolts, plastic heat fusion, ultrasonic welding, etc. This embodiment of the application does not limit the connection method between the carrier 300 and the connector 200. In other optional embodiments, the connector 200 and the carrier 300 are integrally formed, and the water treatment substance inside the distributor 11 can be loaded from other locations, such as having an opening at the end of the carrier 300 away from the connector 200 and being equipped with a cover structure; specific examples will not be given in this embodiment of the application.

[0093] For example, the carrier 300 also includes a plurality of through holes 303 formed on the sidewall 310. The plurality of through holes 303 are used to allow liquids such as water to enter into the receiving space 301, and the plurality of through holes 303 are also used for water located in the receiving space 301 to flow out.

[0094] For example, the carrier 300 also includes a handle 330, which is mounted on the outer surface of the base wall 320. It should be understood that the handle 330 is for a user to grip. It should also be noted that the handle 330 can also function as a hook for suspension. Furthermore, the handle 330 can also be used with other components, such as for attaching ropes.

[0095] like Figures 11-13 The float 400 of the water treatment device 20 includes a top surface 401 and a bottom surface 402 arranged opposite to each other. The float 400 is configured to accommodate dispensers 21 of various weights.

[0096] The differences between water treatment device 20 and water treatment device 11 include: the bottom surface 402 of the float 400 is provided with a protruding first mounting structure 408 and at least one first rotating structure 409. The first mounting structure 408 includes a mounting portion 410; the first rotating structure 409 includes a rotating portion 420. The mounting portion 410 is disposed on the bottom surface 402 and extends in a direction away from the top surface 401. At least one rotating portion 420 is disposed on the outer side of the mounting portion 410 and at least one rotating portion 420 is disposed at the end of the mounting portion 401 away from the bottom surface 402. The shape of the first mounting structure 408 can be referenced to the second mounting structure 208, and the shape of the first rotating structure 409 can be referenced to the second rotating structure 209; further details will not be provided here.

[0097] The differences between water treatment device 20 and water treatment device 11 also include: the distributor 21 includes a recessed second mounting structure 508 and at least one recessed second rotating structure 509. The distributor 21 also includes an insertion slot 580. The second mounting structure 508 includes a mounting slot 520; the second rotating structure 509 includes a rotating slot 570; the rotating slot 570 and the mounting slot 520 are connected, and the insertion slot 580 is connected to both the rotating slot 570 and the mounting slot 520. The insertion slot 580 can be referenced to insertion slot 140, the rotating slot 570 can be referenced to rotating slot 120, and the mounting slot 520 can be referenced to mounting slot 110; further details are omitted here.

[0098] The mounting part 410 can be inserted into the mounting slot 520, and the rotating part 420 can be inserted into the insertion slot 580. The rotating part 420 can also enter the rotating slot 570 from the insertion slot 580 and rotate within the rotating slot 570. The installation and separation processes of the distributor 21 and the float 400 can be referred to the installation and separation processes of the distributor 11 and the float 100, and will not be repeated here.

[0099] The differences between water treatment device 20 and water treatment device 11 also include: distributor 21 may also include a second positioning structure, which may be set in the rotating groove 570. The second positioning structure of distributor 21 may refer to the first positioning structure 130, and will not be described in detail here.

[0100] For example, the float 400 also includes at least one rotation mark disposed on the bottom surface 402 for indicating a first rotation direction. The first rotation direction can be referred to as first rotation direction F1, and the rotation mark can be referred to as rotation mark 104, which will not be described in detail here.

[0101] For example, the dispenser 21 may include a connector 500 and a carrier 600. The connector 500 may include a second mounting structure 508 and a second rotating structure 509. The connector 500 may also include a connecting portion 510 and a blocking portion 530. The connecting portion 510 is connected to the carrier 600. The connection method between the connector 500 and the carrier 600 can be referred to as the connection method between the connector 200 and the carrier 300, and will not be described again here. The carrier 600 can be referred to as the carrier 300, and will not be described again here. When the dispenser 21 and the float 400 are connected together, the blocking portion 530 can fit against the bottom surface 402 of the float 400.

[0102] The above provides a detailed description of the floating component, distributor, and water treatment device provided in the embodiments of this application. Specific examples have been used to illustrate the principle and implementation of this utility model. The description of the above embodiments is only for the purpose of helping to understand the method and core idea of ​​this invention. At the same time, for those skilled in the art, there will be changes in the specific implementation and application scope based on the idea of ​​this application. Therefore, the content of this specification should not be construed as a limitation of this application.

Claims

1. A water treatment device, characterized in that, It includes a float and a dispenser, the dispenser being rotatable relative to the float and being detachable relative to the float; The floating component includes a first mounting structure and at least one first rotating structure; the distributor includes a second mounting structure and at least one second rotating structure. The first mounting structure and the second mounting structure can be installed together and can also be separated. Among them, the first rotating structure and the second rotating structure can rotate relative to each other; When the second rotating structure rotates relative to the first rotating structure along the first rotating direction, the distributor can be installed on the floating component. When the second rotating structure rotates relative to the first rotating structure in a second rotating direction opposite to the first rotating direction, the distributor can be detached from the floating part.

2. The water treatment device according to claim 1, characterized in that, The floating component also includes at least one first positioning structure for positioning the second rotating structure; or The dispenser also includes at least one second positioning structure for positioning the first rotating structure.

3. The water treatment apparatus according to claim 1, characterized in that, One of the first rotating structure and the second rotating structure includes a rotating groove, and the other includes a rotating part, the rotating part being capable of rotating within the rotating groove; and / or, One of the first mounting structure and the second mounting structure includes a mounting groove, and the other includes a mounting part, which can be installed in the mounting groove and rotated within the mounting groove.

4. The water treatment apparatus according to claim 1, characterized in that, The first mounting structure includes a mounting groove, and the second mounting structure includes a mounting part, which can be installed in the mounting groove and can rotate within the mounting groove. The first rotating structure includes a rotating groove, and the second rotating structure includes a rotating part, which is capable of rotating within the rotating groove. The rotating slot and the mounting slot are connected, and the rotating slot is defined around the mounting slot; The floating component also includes at least one insertion slot, all insertion slots are disposed on the side wall defining the mounting slot, and one insertion slot communicates with the mounting slot and a rotating slot. One of the rotating parts is capable of being inserted from an insertion slot into a rotating slot and rotating within the rotating slot.

5. The water treatment apparatus according to claim 4, characterized in that, The floating component also includes at least one first positioning structure, at least a portion of which is disposed within the rotating groove and is connected to define the bottom wall and side wall of the rotating groove. The first positioning structure is used to position the second rotating structure so that the distributor is mounted on the floating component. The first positioning structure defines the first part of the groove structure and the second part of the groove structure in the rotating groove. The first part of the slot structure is connected to an insertion slot; A rotating part can be inserted into a first part of the slot structure from an insertion slot, and can rotate relative to the floating member in a first direction until it passes through a first positioning structure and rotates into a second part of the slot structure, whereby the first positioning structure positions the rotating part in the second part of the slot structure.

6. The water treatment apparatus according to claim 5, characterized in that, The first positioning structure includes a first transition surface and a second transition surface. The root of the first transition surface is closer to the entrance of the rotating groove where the first positioning structure is located than the end of the first transition surface. The root of the second transition surface is closer to the entrance of the rotating groove where the first positioning structure is located than the end of the second transition surface. During the process of the rotating part rotating from the first part of the groove structure to the second part of the groove structure, the rotating part passes through the first transition surface and then fits into at least a part of the second transition surface. In the process of rotating part rotating from the second part of the groove structure to the first part of the groove structure, it first passes through the second transition surface and then passes through the first transition surface. The length of the first transition surface is greater than the length of the second transition surface; and / or, Both the first and second transition surfaces are curved surfaces.

7. The water treatment apparatus according to claim 4, characterized in that, The floating component also includes a groove provided on the side wall that defines the mounting slot; The floating component also includes multiple reinforcing ribs arranged within the groove; The float includes a top surface and a bottom surface arranged in opposite directions. The dispenser can be installed on the bottom surface of the float and can be removed from the bottom surface of the float. The first mounting structure and the first rotating structure are disposed on the bottom surface; The floating component also includes at least one first rotation mark on the bottom surface for indicating the first rotation direction, and all the first rotation marks are disposed around the first mounting structure and the first rotation structure. The buoyancy of the floating component is configured to be adaptable to distributors of various weights.

8. A floating component used in a water treatment device, characterized in that, The float is configured to be compatible with dispensers of various weights; The floating component includes: a mounting groove, at least one insertion groove and at least one rotating groove, wherein the mounting groove is connected to the insertion groove and the rotating groove, the insertion groove and the rotating groove are arranged around the mounting groove, and the rotating groove and the insertion groove are connected. The floating component also includes at least one first positioning structure, which is disposed in the rotating groove and is connected to define the bottom wall and side wall of the rotating groove. The first positioning structure is used to position the dispenser that is inserted from the insertion groove into the rotating groove and reaches the position of the first positioning structure by rotation.

9. The floating component for a water treatment device according to claim 8, characterized in that, in, The first positioning structure defines the rotating groove into a first part of the groove structure and a second part of the groove structure; the first part of the groove structure is connected to an insertion groove; a rotating part can be inserted from the insertion groove into the first part of the groove structure and can rotate relative to the floating member in a first direction until it passes through the first positioning structure and rotates into the second part of the groove structure, and the first positioning structure positions the rotating part in the second part of the groove structure. The first positioning structure includes a first transition surface and a second transition surface. The root of the first transition surface is closer to the entrance of the rotating groove where the first positioning structure is located than the end of the first transition surface. The root of the second transition surface is closer to the entrance of the rotating groove where the first positioning structure is located than the end of the second transition surface. During the process of rotating the rotating part from the first part of the groove structure to the second part of the groove structure, it passes through the first transition surface and then at least a part of the second transition surface comes into contact with it. In the process of rotating part rotating from the second part of the groove structure to the first part of the groove structure, it first passes through the second transition surface and then passes through the first transition surface. The length of the first transition surface is greater than the length of the second transition surface; and / or, Both the first and second transition surfaces are curved surfaces.

10. A floating component used in a water treatment device, characterized in that, The float is configured to be compatible with dispensers of various weights; The floating component includes a top surface and a bottom surface that are arranged in opposite directions; The floating component also includes a mounting portion and at least one rotating portion. The mounting portion is disposed on the bottom surface and extends in a direction away from the top surface. The at least one rotating portion is disposed on the outer side surface of the mounting portion and at least one rotating portion is disposed at the end of the mounting portion away from the bottom surface. The floating component also includes at least one first rotation indicator disposed on the bottom surface for indicating the first rotation direction.

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