Switching assembly and water output device

Abstract

Disclosed in the present application are a switching assembly and a water output device. The switching assembly comprises a body, a first switching member, a press button, and a rotary button. The press button is adapted to engage with the first switching member in a first direction. The rotary button is rotatably connected to the body about an axis perpendicular to the first direction, and is provided with an abutting portion. The press button is provided with a force-receiving portion. One of the abutting portion and the force-receiving portion is provided with a hook groove, and the other of the abutting portion and the force-receiving portion is provided with a hook adapted to enter and engage with the hook groove via inclined-surface engagement. The abutting portion is adapted to generate, by means of a force inclined relative to a second direction during rotation of the rotary button, both a force for moving the press button in the second direction and a lateral clamping force, such that the press button laterally abuts against the first switching member to generate a friction force, and the friction force increases as the magnitude of the applied force increases, thereby reducing the risk of disengagement. Furthermore, since the force is always applied to the region of the press button where the hook groove engages with the hook, the force application position remains stable, thereby reducing the risk of disengagement.

Description

A switching component and a water outlet device Technical Field

[0001] This application relates to the field of water products, specifically to a switching component and a water dispensing device. Background Technology

[0002] In existing water dispensing devices, a push-button is connected to a switching element via a snap-fit ​​mechanism to drive the movement of the switching element. To achieve the linkage between the rotary button and the push-button, a contact part is usually provided on the rotary button, located below the push-button. When the rotary button is pressed, causing it to rotate, the contact part abuts against the lower surface of the push-button, thereby causing the push-button to rise. However, in existing technology, the lower surface of the push-button is flat. During rotation, the contact part ① gradually moves away from the snap-fit ​​position between the push-button and the switching element, resulting in an unstable force position on the push-button, making it prone to wobbling and causing the push-button to disengage from the switching element; ② and the contact part always applies an upward force to the push-button. When the force is large, it causes the push-button to disengage from the switching element. Overview

[0003] The following is an overview of the subject matter described in detail herein. This overview is not intended to limit the scope of the claims. Embodiments of this application provide a switching component, including...

[0004] ontology;

[0005] A first switching element is adapted to slide in connection with the body along a first direction and a second direction to change the state of the body; wherein the first direction and the second direction are opposite in direction;

[0006] The button is adapted to engage with the first switching element in a first direction, and the button and the first switching element are limited to cooperate in a first and second direction; the button is provided with a force-receiving part.

[0007] The rotary button is rotatably connected to the body about an axis perpendicular to the first direction. It has an abutting part, one of which has a hook groove, and the other has a hook body adapted to enter or exit the hook groove through an inclined surface. The abutting part is adapted to abut against the force-receiving part in a direction inclined relative to the second direction when the rotary button is rotated, so that the pressed button drives the first switching member to move in the second direction.

[0008] In this application, a switching component includes a body, a first switching element, a press button, and a rotate button.

[0009] The first switching element is adapted to slide and connect with the body along a first direction and a second direction to change the state of the body; wherein the first direction and the second direction are opposite.

[0010] The press button is adapted to engage with the first switching member along the first direction, and to limit the press button and the first switching member along the first and second directions, so that the movement of the press button along the first and second directions can drive the first switching member to move in the corresponding directions.

[0011] The rotary button is rotatably connected to the main body around an axis perpendicular to the first direction. It has an abutment portion, and the press button has a force-receiving portion. One of the abutment portion and the force-receiving portion has a hook groove, and the other has a hook body adapted to enter and engage with the hook groove via an inclined surface. When the hook body gradually approaches the hook groove (e.g., when the rotary button is pressed), the inclined surface facilitates the hook body's entry into the hook groove, achieving a better fit between the hook groove and the hook body and preventing them from falling off. When the hook body gradually moves away from the hook groove (e.g., when the press button is pressed), the inclined surface facilitates the hook body's exit from the hook groove, so as not to affect the rotation of the rotary button. The abutment portion is adapted to abut against the force-receiving portion in a direction inclined relative to the second direction when the rotary button rotates, causing the press button to drive the first switching element to move in the second direction. The force inclined relative to the second direction generates both a force that moves the press button in the second direction and a lateral clamping force, causing the press button to abut against the first switching element laterally, creating friction. The friction increases with the magnitude of the applied force, reducing the risk of detachment. Meanwhile, since the area where the button is pressed is always the area where the hook groove and the hook body cooperate, the force position is stable, thereby reducing the risk of falling off. Attached Figure Description

[0012] To more clearly illustrate the technical solutions of the embodiments of this application, the drawings used in the following description of the embodiments will be briefly introduced. Obviously, the drawings described below are some embodiments of this application. For those skilled in the art, other drawings can be obtained based on these drawings without creative effort.

[0013] Figure 1 is a perspective view of the water outlet device in Embodiment 1 of this application;

[0014] Figure 2 is an exploded view of the water outlet device in Embodiment 1 of this application;

[0015] Figure 3 is a partial perspective view of the main body in Embodiment 1 of this application;

[0016] Figure 4 is a partial perspective view of the pressed button in Embodiment 1 of this application;

[0017] Figure 5 is a perspective view of the rotary button in Embodiment 1 of this application;

[0018] Figure 6 is a top view of the water outlet device in Embodiment 1 of this application;

[0019] Figure 7 is a schematic diagram of the AA section in Figure 6 of this application;

[0020] Figure 8 is a schematic diagram of the BB cross section in Figure 7 of this application;

[0021] Figure 9 is a schematic diagram of water flowing from the first outlet in Embodiment 1 of this application;

[0022] Figure 10 is a schematic diagram of water flowing from the third outlet in Embodiment 1 of this application;

[0023] Figure 11 is a schematic diagram of the hook body initially entering the hook groove in Embodiment 1 of this application;

[0024] Figure 12 is an enlarged view of the area marked in Figure 11 of this application;

[0025] Figure 13 is a schematic diagram of the hook body entering the hook groove in Embodiment 1 of this application;

[0026] Figure 14 is an enlarged view of the area marked in Figure 13 of this application;

[0027] Figure 15 is a schematic diagram of the hook body fully entering the hook groove in Embodiment 1 of this application;

[0028] Figure 16 is an enlarged view of the area marked in Figure 15 of this application;

[0029] Figure 17 is a schematic diagram of the force applied to the hook body and the hook groove in this application;

[0030] Figure 18 is a bottom perspective view of the rotary button in Embodiment 1 of this application;

[0031] Explanation of key figure labels:

[0032] Body 1; Inlet 11; First outlet 121; Second outlet 122; Third outlet 123; First branch outlet 131; Second branch outlet 132; Third branch outlet 133; Fourth branch outlet 134; Guide post 14; Rotating post 15; First switching component 2; Buckle 21; Second switching component 3; Shaft 31; Limiting part 32; Press button 4; Slot 41; Relief slot 42; Guide hole 43; Hook slot 44; First arc surface 441; Second arc surface 442; Third arc surface 443; Rotating button 5; Rotating groove 51; Abutting part 52; Hook body 521; Limiting hole 53; First hole 531; Second hole 532; First reset component 6; Second reset component 7; First direction 8; Second direction 9; Detailed Implementation

[0033] Referring to Figures 1-17, a water outlet device includes a switching component, a first reset component 6, and a second reset component 7. In this embodiment, the water outlet device is a spray gun, shower head, faucet, etc.

[0034] The switching components include a main body 1, a first switching element 2, a second switching element 3, a press button 4, and a rotation button 5.

[0035] Referring to Figures 1 and 7, the main body 1 is provided with an inlet 11, a first outlet 121, a second outlet 122, a third outlet 123, a first branch outlet 131, a second branch outlet 132, a third branch outlet 133, and a fourth branch outlet 134. The first water outlet 131 and the second water outlet 132 are arranged along the first direction 8, and the third water outlet 133 and the fourth water outlet 134 are arranged along the first direction 8. In this embodiment, there are three water outlets. Referring to Figure 7, ① the inlet 11, the second water outlet 132, the third water outlet 133 and the second water outlet 122 are suitable to be connected in sequence; referring to Figure 9, ② the inlet 11, the first water outlet 131 and the first water outlet 121 are suitable to be connected in sequence; referring to Figure 10, ③ the inlet 11, the second water outlet 132, the fourth water outlet 134 and the third water outlet 123 are suitable to be connected in sequence; the water outlets 121, 222 and 33 have different water patterns, different water coverage areas, or different water flow rates. For example, in this embodiment, the second water outlet 122 and the third water outlet 123 are either shower water or bubble water, and the first water outlet 121 is either blade water or anti-splash bulb water. The main body 1 can be assembled from multiple parts to facilitate the formation of the above-mentioned water circuit, or to facilitate the installation of the first switching component 2, the second switching component 3, the first reset component 6, and the second reset component 7.

[0036] Referring to Figure 7, the first switching member 2 is adapted to slide and connect with the body 1 along the first direction 8 and the second direction 9 to change the state of the body 1; wherein the first direction 8 and the second direction 9 are opposite. In this embodiment, the first switching member 2 is adapted to block the first water outlet 131 and open the second water outlet 132 when moving along the second direction 9, and to open the first water outlet 131 and block the second water outlet 132 when moving along the first direction 8.

[0037] Referring to Figure 7, the second switching element 3 is adapted to slide and connect with the main body 1 along the first direction 8 and the second direction 9 to change the state of the main body 1. In this embodiment, the second switching element 3 is adapted to block the fourth water outlet 134 and open the third water outlet 133 when moving along the first direction 8, and to block the third water outlet 133 and open the fourth water outlet 134 when moving along the second direction 9. In this embodiment, the blocking process of the first switching element 2 and the second switching element 3 is achieved through the sealing element thereon, which is prior art and will not be described in detail.

[0038] Referring to Figure 7, the two ends of the first reset member 6 act on the body 1 and the first switching member 2 respectively. The first reset member 6 is adapted to apply a force to the first switching member 2 to make the first switching member 2 move along the second direction 9.

[0039] Referring to Figure 7, the two ends of the second reset member 7 act on the body 1 and the second switching member 3 respectively. The second reset member 7 is adapted to apply a force to the second switching member 3, causing the second switching member 3 to move along the first direction 8. In this embodiment, the first reset member 6 and the second reset member 7 are springs. In other embodiments, they can be rubber, magnetic components, or other parts with a reset function.

[0040] Referring to Figures 4 and 10, the pressing button 4 is adapted to engage with the first switching member 2 along the first direction 8, and to limit the engagement between the pressing button 4 and the first switching member 2 along the first direction 8 and the second direction 9. Specifically, one of the pressing button 4 and the first switching member 2 is provided with a buckle 21, and the other is provided with a groove 41 that engages with the buckle 21. At least one of the buckle 21 and the groove 41 is elastic. The buckle 21 is spherical or hemispherical, and the shape of the groove 41 is adapted to the buckle 21 to achieve the limiting engagement along the first direction 8 and the second direction 9. Of course, in other embodiments, it can also be other shapes, such as hooks. Specifically, in this embodiment, the pressing button 4 is provided with a groove 41, which opens along the first direction 8 and is hemispherical, with the spherical surface facing the second direction 9. The pressing button 4 is also provided with a relief groove 42 that penetrates the groove wall of the groove 41 along a direction perpendicular to the first direction 8. The relief groove 42 also opens along the first direction 8 and is adapted to make the groove wall of the groove 41 easily deformable. The first switching component 2 is provided with a buckle 21, which is also hemispherical, with the spherical surface facing the first direction 8. The pressing button 4 is also provided with a force-receiving part, which is located on the lower surface of the pressing button 4. To facilitate installation and positioning, or to prevent the buckle 21 and the slot 41 from rotating, a slot can be provided at the bottom of the slot 41, and the top of the buckle 21 is provided with a post that inserts into the slot.

[0041] Referring to Figure 7, the press button 4 is also adapted to be slidably connected to the body 1 along the first direction 8 and the second direction 9. Specifically, one of the press button 4 and the body 1 is provided with a guide post 14, and the other is provided with a guide groove or guide hole 43 that is slidably connected to the guide post 14 along the first direction 8 and the second direction 9. In this embodiment, the sliding connection between the press button 4 and the body 1 should ensure that the guide post 14 remains within the guide groove or guide hole 43 during normal use, even when the first switching member 2 is sliding. In this embodiment, the press button 4 is provided with guide holes 43, and the number of guide holes 43 can be multiple, while the body 1 is provided with guide posts 14.

[0042] Referring to Figures 3, 5, and 8, the rotary button 5 and the body 1 are rotatably connected around an axis perpendicular to the first direction 8. In this embodiment, the rotary button 5 is provided with a rotary groove 51, and the body 1 is provided with a rotary column 15. The rotary groove 51 is adapted to deform to open, so that the rotary column 15 extends into the rotary groove 51. The rotary groove 51 is adapted to close back to lock the rotary column 15, thereby realizing the rotary connection between the rotary button 5 and the body 1. In this embodiment, the rotary button 5 has a seesaw structure, and both ends are suitable for pressing.

[0043] Referring to Figure 17, the rotary button 5 has an abutment portion 52 near the pressing button 4, located on the upper surface of the rotary button 5. One of the abutment portion 52 and the force-receiving portion has a hook groove 44, and the other has a hook body 521 adapted to enter and engage with the hook groove 44 via an inclined surface. The inclined surface engagement facilitates the hook body 521 entering the hook groove 44 for a tighter fit, preventing it from easily falling off, or facilitates the hook body 521 exiting the hook groove 44 without affecting the rotation of the rotary button 5. The inclined surface engagement can be achieved using an inclined surface or a curved surface; in this embodiment, a curved surface is used. In this embodiment, the abutment portion 52 has a hook body 521, and the force-receiving portion has a hook groove 44. Referring to Figure 12, the hook groove 44 is provided with a first arc surface 441, a second arc surface 442, and a third arc surface 443 connected in sequence. The first arc surface 441 protrudes towards the hook body 521, while the second arc surface 442 and the third arc surface 443 are recessed away from the hook body 521. The first arc surface 441 contacts the hook body 521 first. In this embodiment, the hook body 521 is provided with a fourth arc surface, a fifth arc surface, and a sixth arc surface, which are parallel to the first arc surface 441, the second arc surface 442, and the third arc surface 443, respectively.

[0044] The abutting part 52 is adapted to abut against the force-receiving part in a direction inclined relative to the second direction 9 when the rotating button 5 is rotated, so that the pressing button 4 drives the first switching member 2 to move along the second direction 9. As shown in Figure 17, when the two abut against each other, an engagement F is generated. F1 is tangent to the movement trajectory line of the abutting part 52, and F2 is perpendicular to F1. The engagement F acts on the pressing button 4, which can form a component force that causes the pressing button 4 to move along the second direction 9, and form a lateral clamping force perpendicular to the second direction 9, so that the pressing button 4 abuts against the slot 41 of the first switching member 2 and the guide post 14 of the body 1 along the side to form a frictional force, thereby preventing it from falling off.

[0045] Referring to Figures 8 and 18, the end of the rotary button 5 near the pressing button 4 is engaged with the second switching member 3 along the first direction 8 and the second direction 9. Specifically, in this embodiment, the rotary button 5 is provided with a limiting hole 53, which is T-shaped and includes a first hole 531 and a second hole 532. The second hole 532 is located on the first direction 8 of the first hole 531. The size of the first hole 531 is larger than the size of the second hole 532. Both the first hole 531 and the second hole 532 have lateral openings. The second switching member 3 includes a shaft 31 and a limiting part 32 that protrudes radially outward along the shaft 31. The limiting part 32 and The shaft 31 is adapted to enter the first hole 531 and the second hole 532 through the lateral openings of the first hole 531 and the second hole 532, respectively. The size of the limiting part 32 is larger than the size of the shaft 31. The limiting part 32 is adapted to be located in the first hole 531 and to be limited and engaged with the hole wall of the first hole 531 along the first direction 8 and the second direction 9. The shaft 31 is adapted to extend out of the second hole 532 and be partially located in the body 1 to realize the switching function. This method can make the switching smooth and prevent jamming when the second switching member 3 slides and engages with the body 1 along the first direction 8 and the second direction 9, and the rotating button 5 rotates relative to the body 1.

[0046] During installation, referring to Figure 7, first install the first switching component 2, the second switching component 3, the first reset component 6, and the second reset component 7 onto the main body 1. Then install the rotating button 5, so that the shaft 31 and the limiting part 32 of the second switching component 3 enter through the side openings of the first hole 531 and the second hole 532, and then let the rotating groove 51 of the rotating button 5 be fastened onto the rotating column 15 of the main body 1. Then install the pressing button 4. Align the guide hole 43 of the pressing button 4 with the guide post 14 of the main body 1. When the pressing button 4 moves towards the first switching member 2 along the first direction 8, the groove wall of the slot 41 abuts against the buckle 21. Through the inclined surface cooperation, the groove wall of the slot 41 is opened and the buckle 21 enters the slot 41 until the buckle 21 abuts against the bottom of the slot 41, so that the pressing button 4 and the first switching member 2 are limited to a position along the first direction 8. At the same time, the groove wall of the slot 41 is restored and the groove wall of the slot 41 is located on the buckle 21 along the second direction 9. Overall, the pressing button 4 and the first switching member 2 are limited to a position along the second direction 9. After installation, the guide hole 43 is sleeved on the guide post 14 to complete the installation.

[0047] Initially, referring to Figure 7, ① without the action of water, the first switching component 2 is positioned with the second water outlet 132 open and the first water outlet 131 blocked under the action of the first reset component 6. The second switching component 3 is positioned with the third water outlet 133 open and the fourth water outlet 134 open under the action of the second reset component 7. When water is flowing, the inlet 11, the second water outlet 132, the third water outlet 133 and the second outlet 122 are suitable for sequential connection.

[0048] Referring to Figure 9, ② Press the button 4. Pressing the button 4 will cause the first switching element 2 to move along the first direction 8 until the first switching element 2 is located at the position where the first water outlet 131 is open and the second water outlet 132 is blocked. At this time, the inlet 11, the first water outlet 131 and the first outlet 121 are suitable to be connected in sequence.

[0049] Referring to Figure 10, ③ based on ②, press and rotate button 5 away from the end of the abutment 52, so that the rotating button 5 drives the second switching member 3 to move along the second direction 9 until the second switching member 3 blocks the third water outlet 133 and opens the fourth water outlet 134. Referring to Figures 12-17, during the process of pressing and rotating button 5 away from the end of the abutment 52, the abutment 52 moves in the second direction 9. The hook 521 on the abutment 52 gradually enters the hook groove 44 through the inclined surface cooperation, and applies a force to the pressing button 4 that is inclined relative to the second direction 9. The pressing button 4 drives the first switching member 2 to move in the second direction 9 until the first switching member 2 is located at the position of opening the second water outlet 132 and blocking the first water outlet 131. At this time, the inlet 11, the second water outlet 132, the fourth water outlet 134, and the third outlet 123 are suitable for sequential connection. Because the resultant force F generated by the contact part 52 on the pressed button 4 is inclined relative to the second direction 9, and the guide hole 43 of the pressed button 4 is in sliding fit with the guide post 14 of the body 1, and the pressed button 4 can only move along the first direction 8 and the second direction 9, the component force of the resultant force F will form an angled clamping force, so that the pressed button 4 abuts against the slot 41 of the first switching member 2 and the guide post 14 of the body 1 in the lateral direction to form a frictional force, thereby preventing the pressed button 4 from disengaging from the first switching member 2 due to excessive force or unstable force position when switching upwards, thus playing an anti-dislodgement role.

[0050] ④ Based on ③, if button 4 is pressed, when button 4 moves along the first direction 8, a force along the first direction 8 will also be applied to the abutment part 52 on the rotating part, thereby causing the second switching part 3 to move until the first switching part 2 is in the position of opening the first water outlet 131 and blocking the second water outlet 132, and the second switching part 3 is in the position of opening the third water outlet 133 and blocking the fourth water outlet 134. At this time, the inlet 11, the first water outlet 131 and the first outlet 121 are suitable for sequential connection. Of course, the movement of the second switching part 3 can also be achieved by independently pressing one end of the rotating button 5 with the abutment part 52.

[0051] In the above, when water flows through, the force exerted by the water on the first switching element 2 or the second switching element 3 is greater than the force exerted by the first reset element 6 and the second reset element 7, so the corresponding switching element will not be reset when water flows through.

[0052] Compared with the prior art, this embodiment has the following beneficial effects:

[0053] In one exemplary embodiment, a switching component includes a body 1, a first switching element 2, a press button 4, and a rotation button 5.

[0054] The first switching element 2 is adapted to slide and connect with the body 1 along the first direction 8 and the second direction 9 to change the state of the body 1; wherein the first direction 8 and the second direction 9 are opposite in direction;

[0055] The button 4 is adapted to engage with the first switching member 2 along the first direction 8, and to limit the engagement between the button 4 and the first switching member 2 along the first direction 8 and the second direction 9, so that the movement of the button 4 along the first direction 8 and the second direction 9 can drive the first switching member 2 to move in the corresponding direction.

[0056] Rotary button 5 is rotatably connected to body 1 around an axis perpendicular to the first direction 8. It has an abutment part 52, and pressing button 4 has a force-receiving part. One of the abutment part 52 and the force-receiving part has a hook groove 44, and the other has a hook body 521 adapted to enter the hook groove 44 through the inclined surface and cooperate with the hook groove 44. When the hook body 521 gradually approaches the hook groove 44 (such as when pressing rotary button 5), the inclined surface facilitates the hook body 521 to enter the hook groove 44, so as to achieve a better cooperation between the hook groove 44 and the hook body 521 and prevent them from falling off. When the hook body 521 gradually moves away from the hook groove 44 (such as when pressing pressing button 4), the inclined surface facilitates the hook body 521 to exit the hook groove 44, so as not to affect the rotation of rotary button 5. The abutting part 52 is adapted to abut against the force-bearing part in a direction inclined relative to the second direction 9 when the rotating button 5 is rotated, so that the pressing button 4 drives the first switching member 2 to move in the second direction 9. The force inclined relative to the second direction 9 can generate both a force that moves the pressing button 4 in the second direction 9 and a lateral clamping force, so that the pressing button 4 abuts against the first switching member 2 laterally to form friction, thereby reducing the risk of falling off. At the same time, since the area where the pressing button 4 is subjected to force is always the area where the hook groove 44 and the hook body 521 cooperate, the force-bearing position is stable, thereby reducing the risk of falling off.

[0057] In one exemplary embodiment, one of the pressing button 4 and the first switching component 2 is provided with a buckle 21, and the other is provided with a slot 41 that engages with the buckle 21. At least one of the buckle 21 and the slot 41 is elastic to achieve the engagement of the two.

[0058] In one exemplary embodiment, the buckle 21 is spherical or hemispherical, and the shape of the slot 41 is adapted to the buckle 21. The spherical and hemispherical buckles 21 and slots 41 are easy to fasten, have uniform force, and have a long service life.

[0059] In one exemplary embodiment, the pressing button 4 is also adapted to slide with the body 1 along the first direction 8 and the second direction 9, so that the pressing button 4 can only move relative to the body 1 along the first direction 8 and the second direction 9, thereby achieving motion guidance and preventing the pressing button 4 from rotating when it is abutted by the abutting part 52 when the pressing button 4 and the first switching member 2 are rotatably fastened together.

[0060] In one exemplary embodiment, a guide post 14 is provided between the button 4 and the body 1, and the other is provided with a guide groove or guide hole 43 that is slidably connected to the guide post 14 along the first direction 8 and the second direction 9. Thus, under the action of lateral clamping force, the guide post 14 also abuts against the guide groove or guide hole 43 to form a frictional force, thereby preventing the button 4 from falling off.

[0061] In one exemplary embodiment, a second switching element 3 is further included. The second switching element 3 is slidably connected to the body 1 along the first direction 8 and the second direction 9 to change the state of the body 1 and enrich the functions of the body 1. The rotation button 5 is limited to the second switching element 3 along the first direction 8 and the second direction 9, so that the second switching element 3 can be driven to move along the first direction 8 and the second direction 9 when rotated.

[0062] In one exemplary embodiment, a water outlet device includes the aforementioned switching component. The main body 1 is provided with an inlet 11, a first outlet 121, and a first branch outlet 131 connecting the inlet 11 and the first outlet 121. The first switching component 2 is adapted to block the first branch outlet 131 when moving along the second direction 9 and open the first branch outlet 131 when moving along the first direction 8, thereby realizing the movement of the first switching component 2 to realize the water outlet and water stop at the first outlet 121, or flow rate regulation, etc.

[0063] In one exemplary embodiment, the main body 1 is further provided with a second water outlet 122 and a second water branch 132 connecting the second water outlet 122 and the water inlet 11. The first switching member 2 is adapted to block the second water branch 132 when moving along the first direction 8 and open the second water branch 132 when moving along the second direction 9, so as to increase the water outlet function and make it more convenient to use.

[0064] In one exemplary embodiment, a first reset member 6 is also included. The first reset member 6 is adapted to apply a force to the first switching member 2 to move the first switching member 2 along the second direction 9, so that when the water is stopped, it is reset to the state of blocking the first water outlet 131 and opening the second water outlet 132, so as to automatically switch to the normal position when the water is stopped.

[0065] In one exemplary embodiment, a second switching element 3 is further included. The main body 1 is provided with a third water outlet 133, a fourth water outlet 134, and a third water outlet 123. The second switching element 3 is slidably connected to the main body 1 along a first direction 8 and a second direction 9, and is adapted to block the fourth water outlet 134 and open the third water outlet 133 when moving along the first direction 8, and to block the third water outlet 133 and open the fourth water outlet 134 when moving along the second direction 9. The inlet 11, the second water outlet 132, the third water outlet 133, and the second water outlet 122 are adapted to be connected in sequence. The inlet 11, the first water outlet 131, and the first water outlet 121 are adapted to be connected in sequence. The inlet 11, the second water outlet 132, the fourth water outlet 134, and the third water outlet 123 are adapted to be connected in sequence to increase the water output function and make it more convenient to use.

[0066] The rotating button 5 is limited to the second switching element 3 along the first direction 8 and the second direction 9, so that the second switching element 3 can move along the first direction 8 and the second direction 9 when rotated.

[0067] In one exemplary embodiment, a second reset member 7 is further included. The second reset member 7 is adapted to apply a force to the second switching member 3 to move the second switching member 3 along the first direction 8, so that when the water is stopped, it is reset to the state of blocking the fourth water outlet 134 and opening the third water outlet 133, so as to automatically switch to the normal position when the water is stopped.

[0068] In one exemplary embodiment, the hook groove 44 is provided with a first arc surface 441, a second arc surface 442, and a third arc surface 443 connected in sequence. The first arc surface 441 protrudes towards the hook body 521, while the second arc surface 442 and the third arc surface 443 are recessed away from the hook body 521. The hook body 521 is provided with a fourth arc surface, a fifth arc surface, and a sixth arc surface that are parallel to the first arc surface 441, the second arc surface 442, and the third arc surface 443, respectively. This facilitates the hook body 521 being guided into the hook groove 44, increases the contact area between the hook body 521 and the hook groove 44, and ensures that the combined force between the hook body 521 and the groove 44 is always at an angle relative to the force of the up-and-down movement of the button 4, so that the movement process is always in a clamping state, improving the biting and anti-disengagement effects.

Claims

1. A switching assembly, characterized by: include Ontology(1); A first switching element (2) is adapted to slide with the body (1) along a first direction (8) and a second direction (9) to change the state of the body (1); wherein the first direction (8) and the second direction (9) are opposite in direction; The button (4) is adapted to engage with the first switching member (2) along the first direction (8), and the button (4) and the first switching member (2) are limited to each other along the first direction (8) and the second direction (9); the button (4) is provided with a force-receiving part; Rotate button (5), which is rotatably connected to the body (1) about an axis perpendicular to the first direction (8). It is provided with abutting part (52). One of the abutting part (52) and the force-receiving part is provided with a hook groove (44), and the other is provided with a hook body (521) adapted to enter or exit the hook groove (44) by means of inclined surface. The abutting part (52) is adapted to abut against the force-receiving part in a direction inclined relative to the second direction (9) when the rotating button (5) is rotated, so that the pressing button (4) drives the first switching member (2) to move along the second direction (9).

2. A switching assembly as claimed in claim 1, characterized in that: One of the press button (4) and the first switching component (2) is provided with a buckle (21), and the other is provided with a slot (41) that engages with the buckle (21). At least one of the buckle (21) and the slot (41) is elastic.

3. A switching assembly as claimed in claim 2, wherein: The buckle (21) is spherical or hemispherical, and the shape of the slot (41) is adapted to the buckle (21).

4. A switching assembly as claimed in claim 1, characterized in that: The press button (4) is also adapted to slide with the body (1) along the first direction (8) and the second direction (9).

5. A switching assembly as claimed in claim 4, wherein: One of the press button (4) and the body (1) is provided with a guide post (14), and the other is provided with a guide groove or guide hole (43) that is slidably connected to the guide post (14) along the first direction (8) and the second direction (9).

6. A switching assembly according to any one of claims 1-5, characterized in that: It also includes a second switching component (3), which is slidably connected to the body (1) along the first direction (8) and the second direction (9) to change the state of the body (1); the rotating button (5) is limited to the second switching component (3) along the first direction (8) and the second direction (9).

7. A switching assembly as claimed in claim 1, wherein: The hook groove (44) is provided with a first arc surface (441), a second arc surface (442) and a third arc surface (443) connected in sequence. The first arc surface (441) protrudes towards the hook body (521), and the second arc surface (442) and the third arc surface (443) are recessed away from the hook body (521). The hook body (521) is provided with a fourth arc surface, a fifth arc surface and a sixth arc surface that are parallel to the first arc surface (441), the second arc surface (442) and the third arc surface (443) respectively.

8. A water outlet device characterized by: Including the switching component as described in any one of claims 1-7, the body (1) is provided with an inlet (11), a first outlet (121) and a first branch outlet (131) connecting the inlet (11) and the first outlet (121), and the first switching component (2) is adapted to block the first branch outlet (131) when moving in the second direction (9) and open the first branch outlet (131) when moving in the first direction (8).

9. A water outlet device as claimed in claim 8, characterised in that: The main body (1) is also provided with a second outlet (122) and a second branch outlet (132) connecting the second outlet (122) and the inlet (11). The first switching member (2) is adapted to block the second branch outlet (132) when moving along the first direction (8) and open the second branch outlet (132) when moving along the second direction (9).

10. A water outlet device as claimed in claim 9, characterised in that: It also includes a first reset member (6), which is adapted to apply a force to the first switching member (2) to move the first switching member (2) in a second direction (9).

11. A water outlet device as claimed in claim 9, characterized in that: It also includes a second switching component (3), and the main body (1) is provided with a third water outlet (133), a fourth water outlet (134) and a third water outlet (123). The second switching component (3) is slidably connected to the body (1) along the first direction (8) and the second direction (9), and is adapted to block the fourth water outlet (134) and open the third water outlet (133) when moving along the first direction (8), and to block the third water outlet (133) and open the fourth water outlet (134) when moving along the second direction (9); the inlet (11), the second water outlet (132), the third water outlet (133) and the second outlet (122) are adapted to be connected in sequence; the inlet (11), the first water outlet (131) and the first outlet (121) are adapted to be connected in sequence; the inlet (11), the second water outlet (132), the fourth water outlet (134) and the third outlet (123) are adapted to be connected in sequence; The rotary button (5) and the second switching component (3) are limited and engaged along the first direction (8) and the second direction (9).

12. A water outlet device as claimed in claim 11, characterised in that: It also includes a second reset member (7), which is adapted to apply a force to the second switching member (3) to move the second switching member (3) in a first direction (8).

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