Shower head with multiple functions

Abstract

The utility model discloses a shower head with multiple functions, which relates to the field of bathroom accessories and comprises a shower head main body, a spray head assembly and at least two functional box structures, the spray head assembly is arranged in the left end of the shower head main body, the shower head main body is provided with a containing cavity with an opening in the bottom, and the at least two functional box structures are different in function. The containing cavity is matched with the functional box structures, each functional box structure is detachably installed in the containing cavity, and the functional box structures are communicated with the shower head body and the spray head assembly. According to the shower head, the functions of the shower head are more diversified, the functional box structures with different functions can be placed in the containing cavity of the shower head body, each functional box structure is detachably installed in the containing cavity, and a user can replace the functional box structures according to the use requirements of the user.

Description

Technical Field

[0001] This utility model relates to the field of bathroom fixtures, specifically to a shower head with multiple functions. Background Technology

[0002] A shower head (also known as a shower spray head) is a common shower device in the bathroom, mainly used to disperse water into fine droplets or jets of water to provide a comfortable bathing experience. It delivers water to the spray head through a water pipe, and then creates different water flow patterns through internally designed holes or outlets to meet the user's needs for cleaning, relaxation, or massage.

[0003] Existing showerheads, once their functions are fixed, cannot be modified. For example, patent CN218132612U discloses a push-button water-stopping showerhead, which includes a showerhead body, a nozzle assembly on the spray nozzle of the showerhead body, a handle assembly on the handle end of the showerhead body, and a one-sided button device on the handle end of the showerhead body. The opening and closing of the one-sided button device is used to turn on the water flow of the showerhead body. Another example is patent CN216296713U, which discloses a water flow switching structure for a showerhead, including: a body assembly with a water inlet channel; a faceplate assembly with a water outlet connected to the water inlet channel, the faceplate assembly being rotatably connected to the body assembly; and a diverter that cooperates with the water outlet to control the water flow pattern from the water outlet. When the faceplate assembly rotates relative to the body assembly, the diverter rotates relative to the water outlet, thereby switching the water flow pattern from the water outlet. As can be seen from the aforementioned patents, existing showerheads have relatively limited functions (such as only stopping water flow and switching water spray), and once the function is fixed, it cannot be changed. Therefore, existing showerheads have the problem of failing to meet the diverse usage needs of users. Utility Model Content

[0004] This utility model provides a shower head with multiple functions, the main purpose of which is to overcome the problem of the single function of existing shower heads.

[0005] To solve the above-mentioned technical problems, the present invention adopts the following technical solution:

[0006] A multi-functional shower head includes a shower head body, a nozzle assembly, and at least two functional box structures. The nozzle assembly is located inside the left end of the shower head body. The shower head body has a receiving cavity with an open bottom. The at least two functional box structures have different functions. The receiving cavity is adapted to the functional box structures. Each functional box structure is detachably installed in the receiving cavity. The functional box structures are connected to the shower head body and the nozzle assembly.

[0007] Furthermore, the functional box structure comprises three parts: a button-operated water-stopping box structure, a temperature display box structure, and an electronic flow box structure. Each of these three structures is detachably located within the receiving cavity. Water flowing through the showerhead body passes through the button-operated water-stopping box structure and then flows to the spray head assembly. The button-operated water-stopping box structure controls the connection and disconnection between the water in the showerhead body and the spray head assembly. Water flowing through the showerhead body passes through the temperature display box structure and then flows to the spray head assembly. The temperature display box structure displays the temperature of the water in the showerhead body. Water flowing through the showerhead body passes through the electronic flow box structure and then flows to the spray head assembly. The electronic flow box structure generates a microcurrent in the water flowing through the showerhead body.

[0008] Furthermore, the top of the shower head body is provided with a pressing hole communicating with the receiving cavity, and the top of the functional box structure is provided with a pressing part, which is located inside the pressing hole.

[0009] Furthermore, the inner wall of the receiving cavity is provided with two symmetrical elastic sheets, each of which has a round protrusion. The outer side of the functional box structure is provided with two symmetrical circular grooves, each circular groove corresponding to a round protrusion, and the round protrusion is engaged in the corresponding circular groove.

[0010] Furthermore, the shower head body has a hollow structure, and the shower head body is provided with a filter rod, a connecting water channel and a panel water channel. The filter rod, the connecting water channel and the panel water channel are connected in sequence along the water inlet to water outlet direction. The receiving cavity is located in the connecting water channel, and the panel water channel is connected to the spray head assembly.

[0011] Furthermore, the button-type water-stop box structure includes a button, a button spindle, a button pivot, a button bracket, a button skeleton, a water-stop oil seal, a return spring, a water-stop box channel, and a water-stop box. The button is snapped into the bottom of the button skeleton. The water-stop box channel has an installation cavity with an open bottom. The side wall of the installation cavity has a first water inlet communicating with the shower head body and the spray head assembly. The upper part of the button skeleton is located inside the installation cavity. The water-stop oil seal is located on the upper part of the button skeleton. The return spring is located between the top surface of the button skeleton and the inner top surface of the installation cavity. The button spindle is located inside the button skeleton. The button pivot is located inside the button bracket. The top of the spindle is sleeved with the bottom of the button shaft, and the button shaft can be rotated and fixed once for each rotation of the button spindle. The button bracket is sleeved inside the button frame and fastened to the water channel of the water-stop box. The button bracket is used to limit the button frame. The button spindle, button shaft, button bracket, button frame, water-stop oil seal, return spring and water channel of the water-stop box are located inside the water-stop box. The bottom of the button extends out of the bottom surface of the water-stop box. The right end of the water channel of the water-stop box is connected to the docking water channel. The left side of the water-stop box is provided with a water-stop box side cover for fixing the water channel of the water-stop box. The water-stop box side cover is provided with a second water inlet connected to the left end of the water channel of the water-stop box.

[0012] Furthermore, the temperature display box structure includes a temperature display box body, a temperature display screen, a first hydroelectric generator, a first impeller, a first inclined water body, and a water temperature sensor. The temperature display box body is horizontally continuous, and the bottom of the temperature display box body has a first placement cavity for installing the temperature display screen, which is located in the first placement cavity. The first impeller is connected to the output shaft of the first hydroelectric generator, which is located inside the temperature display box body. The first inclined water body is connected to the right end of the temperature display box body and communicates with the right end of the docking water channel and the interior of the temperature display box body. The left end of the temperature display box body is connected to a temperature display box side cover, which communicates with the interior of the temperature display box body and the left end of the docking water channel. The water temperature sensor is located inside the temperature display box body. The temperature display screen has a first main board, and the first hydroelectric generator and the water temperature sensor are both connected to the first main board via wires.

[0013] Furthermore, the electronic flow box structure includes an electronic flow box body, an electronic flow display screen, a second hydroelectric generator, a second impeller, a second inclined water body, a shell return conductive head, and a water guiding return conductive head. The electronic flow box body is horizontally continuous, and a second placement cavity for mounting the electronic flow display screen is provided at the bottom of the electronic flow box body. The electronic flow display screen is located in the second placement cavity. The second impeller is connected to the output shaft of the second hydroelectric generator, which is located inside the electronic flow box body. The second inclined water body is connected to the right end of the electronic flow box body and docks with it. The right end of the water channel is connected to the interior of the electronic flow box body. The left end of the electronic flow box body is connected to the electronic flow box side cover. The electronic flow box side cover is connected to the interior of the electronic flow box body and the left end of the connecting water channel. The housing return conductive head and the water guide return conductive head are both located inside the electronic flow box body. The electronic flow display screen has a second main board. The shower head body is provided with an elastic guide pin. One end of the housing return conductive head is connected to the second main board through a wire. The other end of the housing return conductive head is in contact with the elastic guide pin. The water guide return conductive head is connected to the second main board through a wire.

[0014] Furthermore, the shower head body includes an upper housing, a lower housing, a tail sleeve, and a tail tooth. The tail tooth is threaded to the right end of the upper housing, the tail sleeve is fitted around the outer periphery of the tail tooth, the tail tooth is connected to the filter rod, the lower housing is connected to the left end of the upper housing, the filter rod, the connecting water channel, and the panel water channel are all located inside the upper housing, and the spray head assembly is located inside the lower housing.

[0015] Furthermore, the nozzle assembly includes a small panel, a large panel, a fixed plate, a water distribution plate, an oil seal, a peephole, and a base. The small panel is threaded into the center of the large panel. The large panel, fixed plate, water distribution plate, and base are arranged from bottom to top. The fixed plate connects the large panel and the water distribution plate. The oil seal is located at the top of the water distribution plate. The base has a peephole, and the peephole is located within the peephole. The panel water channel is located above the base and is sleeved with the base. The panel water channel communicates with the peephole. A hexagonal nut is installed inside the top. A screw passes through the water distribution plate, base, and panel water channel. The top of the screw is threaded to the hexagonal nut. The large panel, fixed plate, and water distribution plate are rotatably mounted after being connected. The water distribution plate has three diversion holes. The small panel has finer shower water holes. The large panel has shower water holes and microbubble water holes. The finer shower water holes, shower water holes, and microbubble water holes are arranged from the inside to the outside. The three diversion holes are respectively connected to the finer shower water holes, shower water holes, and microbubble water holes.

[0016] As can be seen from the above description of the present invention, compared with the prior art, the present invention has the following advantages: the present invention makes the function of the shower head more diversified. The receiving cavity of the shower head body can hold functional box structures with different functions. Each functional box structure is detachably installed in the receiving cavity, and the user can replace the functional box structure according to their own usage needs. Attached Figure Description

[0017] Figure 1 This is a structural diagram of Embodiment 1 of the present utility model.

[0018] Figure 2 This is an exploded view of the structure of Embodiment 1 of this utility model.

[0019] Figure 3 This is an exploded view of the key-operated water-stop box structure according to Embodiment 1 of this utility model.

[0020] Figure 4 This is an exploded view of the structure of Embodiment 1 of this utility model from another angle.

[0021] Figure 5 This is a cross-sectional view of Embodiment 1 of the present utility model.

[0022] Figure 6 This is a schematic diagram of water flow in Embodiment 1 of this utility model.

[0023] Figure 7 This is a structural diagram of Embodiment 2 of the present invention.

[0024] Figure 8 This is an exploded view of the structure of Embodiment 2 of this utility model.

[0025] Figure 9 This is an exploded view of the temperature display box structure in Embodiment 2 of this utility model.

[0026] Figure 10 This is a cross-sectional view of Embodiment 2 of the present invention.

[0027] Figure 11 This is a schematic diagram of water flow in Embodiment 2 of this utility model.

[0028] Figure 12 This is a structural diagram of Embodiment 3 of the present invention.

[0029] Figure 13 This is an exploded view of the structure of Embodiment 3 of this utility model.

[0030] Figure 14 This is an exploded view of the electronic flow box structure of Embodiment 3 of this utility model.

[0031] Figure 15 This is a cross-sectional view of Embodiment 3 of this utility model.

[0032] Figure 16 This is a schematic diagram of water flow in Embodiment 3 of this utility model. Detailed Implementation

[0033] In the description of this utility model, it should be understood that the terms "center", "longitudinal", "lateral", "length", "width", "thickness", "upper", "lower", "front", "rear", "left", "right", "vertical", "horizontal", "top", "bottom", "inner", "outer", "clockwise", "counterclockwise", etc., indicating the orientation or positional relationship are based on the orientation or positional relationship shown in the accompanying drawings, and are only for the convenience of describing this utility model and simplifying the description, and are not intended to indicate or imply that the device or element referred to must have a specific orientation, or be constructed and operated in a specific orientation, and therefore should not be construed as a limitation of this utility model.

[0034] Furthermore, the terms "first," "second," and "third" are used for descriptive purposes only and should not be construed as indicating or implying relative importance or implicitly specifying the number of technical features indicated. Thus, a feature defined as "first," "second," or "third" may explicitly or implicitly include one or more of that feature. In the description of this utility model, "a plurality of" means two or more, unless otherwise explicitly specified.

[0035] In this utility model, unless otherwise explicitly specified and limited, the terms "installation," "connection," "joining," and "fixing," etc., should be interpreted broadly. For example, they can refer to a fixed connection, a detachable connection, or an integral part; they can refer to a mechanical connection or an electrical connection; they can refer to a direct connection or an indirect connection through an intermediate medium; they can refer to the internal communication of two components or the interaction between two components. Those skilled in the art can understand the specific meaning of the above terms in this utility model according to the specific circumstances. Example 1

[0036] Reference Figure 1 A multi-functional shower head includes a shower head body 1, a nozzle assembly 2, and at least two functional box structures. The nozzle assembly 2 is located inside the left end of the shower head body 1. The shower head body 1 has a receiving cavity 3 with an open bottom. The at least two functional box structures have different functions. The receiving cavity 3 is adapted to the functional box structures. Each functional box structure is detachably installed in the receiving cavity 3. The functional box structures are connected to the shower head body 1 and the nozzle assembly 2.

[0037] Reference Figure 1In this embodiment, the functional box structure is a button-operated water-stopping box structure 4. The water flow in the shower body 1 flows to the nozzle assembly 2 after passing through the button-operated water-stopping box structure 4. The button-operated water-stopping box structure 4 controls the connection and disconnection between the water in the shower body 1 and the nozzle assembly 2.

[0038] Reference Figure 1 and Figure 2 The shower head body 1 has a pressing hole 11 at its top that communicates with the receiving cavity 3. The functional box structure has a pressing part at its top. Specifically, the pressing part is a first pressing part 41, located inside the pressing hole 11. The inner wall of the receiving cavity 3 has two symmetrical elastic pieces 31, each with a round protrusion 32. The outer side of the functional box structure has two symmetrical circular grooves. Specifically, the outer side of the button-operated water-stopping box structure 4 has two symmetrical circular grooves, which are first circular grooves 401. Each first circular groove 401 corresponds to a round protrusion 32, which is engaged within the corresponding first circular groove 401.

[0039] Reference Figure 1 and Figure 2 When the button water-stop box structure 4 is installed, it is inserted into the receiving cavity 3, so that the round protrusions 32 of the two elastic pieces 31 are respectively locked in the corresponding first circular grooves 401; when the button water-stop box structure 4 is to be removed, the first pressing part 41 is pressed with a finger to separate the round protrusions 32 of the two elastic pieces 31 from the corresponding first circular grooves 401, thereby pushing out the button water-stop box structure 4.

[0040] Reference Figure 1 , Figure 2 , Figure 5 and Figure 6 The shower head body 1 has a hollow structure. Inside the shower head body 1 are a filter rod 5, a connecting water channel 6, and a panel water channel 7. The filter rod 5, connecting water channel 6, and panel water channel 7 are connected sequentially from right to left along the water inlet to outlet direction. The receiving cavity 3 is located within the connecting water channel 6. The panel water channel 7 is connected to the spray head assembly 2. The shower head body 1 includes an upper housing 12, a lower housing 13, a tailstock sleeve 14, and a tailstock 15. The tailstock 15 is threaded to the right end of the upper housing 12. The tailstock sleeve 14 is fitted around the outer periphery of the tailstock 15, and the tailstock 15 is connected to the filter rod 5. The lower housing 13 is connected to the bottom left end of the upper housing 12. The filter rod 5, connecting water channel 6, and panel water channel 7 are all located within the upper housing 12, and the spray head assembly 2 is located within the lower housing 13.

[0041] Reference Figures 1 to 6The button-type water-stop box structure 4 includes a button 42, a button spindle 43, a button pivot 44, a button bracket 45, a button frame 46, a water-stop oil seal 47, a return spring 48, a water-stop box channel 49, and a water-stop box 40. The button 42 is snapped into the bottom of the button frame 46. The water-stop box channel 49 has an installation cavity 491 with an open bottom. The side wall of the installation cavity 491 has a first water inlet (not shown in the figure due to view limitations) that communicates with the shower head body 1 and the spray head assembly 2. The upper part of the button frame 46 is located inside the installation cavity 491. The water-stop oil seal 47 is located on the upper part of the button frame 46. The return spring 48 is located between the top surface of the button frame 46 and the inner top surface of the installation cavity 491. The button spindle 43 is located inside the button frame 46, and the button pivot 44 is located inside the button bracket 45. The top of the button spindle 43 is sleeved with the bottom of the button rotating shaft 44, and the button rotating shaft 44 can be rotated and fixed once for each rotation of the button spindle 43. The button bracket 45 is sleeved in the button frame 46 and fastened to the water-stop box channel 49. The button bracket 45 is used to limit the button frame 46. The button spindle 43, button rotating shaft 44, button bracket 45, button frame 46, water-stop oil seal 47, return spring 48 and water-stop box channel 49 are located in the water-stop box 40. The bottom of the button 42 extends out of the bottom surface of the water-stop box 40. The right end of the water-stop box channel 49 is connected to the docking channel 6. The left side of the water-stop box 40 is provided with a water-stop box side cover 402 for fixing the water-stop box channel 49. The water-stop box side cover 402 is provided with a second water inlet 403 connected to the left end of the water-stop box channel 49.

[0042] Reference Figure 2 , Figure 3 and Figure 5Specifically, the bottom of the button frame 46 is provided with two symmetrical sets of hooks 461, and the button 42 is provided with two symmetrical hanging platforms 421. Each set of hooks 461 corresponds to one hanging platform 421, and each set of hooks 461 hooks onto the bottom of the corresponding hanging platform 421. The outer peripheral surface of the button bracket 45 is provided with two symmetrical hooks 451, and the outer peripheral surface of the button frame 46 is provided with two symmetrical cuts 462. Each hook 451 corresponds to one cut 462 and is located within the corresponding cut 462. The outer side of the water-stop box channel 49 is provided with two symmetrical latches 491, and each hook 451 corresponds to one latch 491 and is latched within the corresponding latch 491. The inner circumferential surface of the button bracket 45 is provided with multiple sliding grooves 452. The top of the multiple sliding grooves 452 is formed with multiple first fully hollow oblique teeth 453 and multiple semi-hollow oblique teeth 454. Each semi-hollow oblique tooth 454 is located between two adjacent fully hollow oblique teeth 453. The outer circumferential surface of the button spindle 43 is provided with multiple first protrusions 431. The top surfaces of two adjacent first protrusions 431 form oblique slots 432. The outer circumference of the button pivot 44 is provided with multiple second protrusions 441. The bottom of each of the multiple second protrusions 441 is formed with oblique teeth 442. Each first protrusion 431 corresponds to one sliding groove 452. The upper part of each first protrusion 431 is located in the corresponding sliding groove 452. Each second protrusion 441 corresponds to one sliding groove 452. Each second protrusion 441 is located in the corresponding sliding groove 452. The oblique teeth 442 can cooperate with the oblique slots 432, the fully hollow oblique teeth 453 and the multiple semi-hollow oblique teeth 454.

[0043] Reference Figure 2 , Figure 3 and Figure 5 The installation process of the button water-stop box structure 4 is as follows: The reset spring 48 is installed into the water-stop box channel 49; the water-stop oil seal 47 is fitted into the corresponding position of the button frame 46; then the button rotating shaft 44 is fitted into the button frame 46 to form a semi-finished button frame; then the semi-finished button frame is installed into the water-stop box channel 49; then the two hooks 451 of the button bracket 45 are respectively engaged in the two slots 491 of the water-stop box channel 49 to complete the fixing and limiting of the button frame 45, forming a semi-finished water-stop box channel; then the semi-finished water-stop box channel is installed into the water-stop box body 40; then the right side of the water-stop box side cover 402 is installed into the water-stop box body and presses down on the semi-finished button frame to complete the entire fixing; then the button spindle 43 and the button rotating shaft 44 are assembled; finally, the two hanging platforms 421 inside the button 42 are respectively engaged into the two hooks 461 of the button frame 46 to complete the fixing of the button 42.

[0044] Reference Figure 1 , Figure 2 , Figure 3 , Figure 5 and Figure 6The button-operated water-stop box structure 4 can independently achieve the opening and closing of the water supply. Figure 6 The diagram shows the open state of the button-operated water-stop box structure 4. When button 42 is pressed, the button frame 46, which is fastened to button 42, moves upward together. The button spindle 43 and button pivot 44, which are installed inside the button frame 46, also move upward. The two hooks 451 of the button bracket 45 pass through the button frame 46 and are fastened to the water channel 49 of the water-stop box to limit the button frame 46. As the button frame 46 moves upward, the return spring 48 is compressed, and the helical teeth 442 on the button pivot 44 inside the button frame 46 will engage with the semi-open helical teeth 454 on the button bracket 45 to complete the locking. At this time, the water-stop oil seal 47 on the button frame 46 will adhere to the inner wall of the water channel 49 of the water-stop box and block the first water inlet, thus completing the water channel sealing and completing the shower water-stopping function. When button 42 is pressed again and released, button shaft 44 rotates, and the helical tooth 442 on button shaft 44 disengages from the semi-empty helical tooth 454 and enters the slide groove 452 from the fully empty helical tooth 453. At this time, button frame 46 will descend, causing the water-stop oil seal 47 to open the first water inlet, thereby completing the water flow of the shower head.

[0045] Reference Figure 1 , Figure 2 , Figure 4 , Figure 5 and Figure 6The nozzle assembly 2 includes a small panel 21, a large panel 22, a fixing plate 23, a water distribution plate 24, an oil seal 25, a cat's eye 26, and a base 27. The small panel 21 is threaded into the middle of the large panel 22. The large panel 22, the fixing plate 23, the water distribution plate 24, and the base 27 are arranged from bottom to top. The fixing plate 23 is connected between the large panel 22 and the water distribution plate 24. The oil seal 25 is sleeved on the top of the water distribution plate 24. The base 27 is provided with a cat's eye hole 271. The cat's eye 26 is provided in the cat's eye hole 271. The bottom of the cat's eye 26 is provided with a water distribution hole 261. The panel water channel 7 is located above the base 27 and is sleeved with the base 27. The panel water channel 7 communicates with the cat's eye 26. A hexagonal nut 71 is provided in the top of the panel water channel 7. A screw 28 passes through the water distribution plate 24, the base 27, and the panel water channel 7. The top of the screw 28 is threadedly connected to the hexagonal nut 71. The large panel 22, the fixed plate 23, and the water distribution plate 24 are sequentially welded and fixed by ultrasonic welding. The large panel 22, the fixed plate 23, and the water distribution plate 24 are rotatably arranged after being connected. The water distribution plate 24 is provided with three diversion holes 241. The small panel 21 is provided with refined shower water holes 211. The large panel 22 is provided with shower water holes 221 and microbubble water holes 222. The refined shower water holes 211, shower water holes 221, and microbubble water holes 222 are arranged from the inside to the outside. The three diversion holes 241 are respectively connected to the refined shower water holes 211, shower water holes 221, and microbubble water holes 222.

[0046] Reference Figure 1 , Figure 2 , Figure 4 and Figure 5 The bottom surface of the large panel 22 is provided with a handle 223. After the large panel 22, the fixed plate 23 and the water distribution plate 24 are connected, they can rotate within the lower housing 13. This rotation method is existing technology and will not be described in detail here. When in use, the large panel 22, the fixed plate 23 and the water distribution plate 24 are rotated by driving the handle 223 with the hand. When the large panel 22, the fixed plate 23 and the water distribution plate 24 rotate, the water distribution hole 261 can be connected to different diversion holes 241, thereby realizing the switching of the shower spray. Example 2

[0047] Reference Figure 7 The specific implementation method of this embodiment is basically the same as that of embodiment one, except that: the functional box structure is a temperature display box structure 8, the water in the shower body 1 flows to the nozzle assembly 2 after passing through the temperature display box structure 8, and the temperature display box structure 8 is used to display the temperature of the water in the shower body 1.

[0048] Reference Figures 7 to 9The shower head body 1 has a pressing hole 11 at its top that communicates with the receiving cavity 3. The functional box structure has a pressing part at its top. Specifically, the temperature display box structure 8 has the pressing part at its top, which is a second pressing part 80 located inside the pressing hole 11. The inner wall of the receiving cavity 3 has two symmetrical elastic sheets 31, each with a round protrusion 32. The outer side of the functional box structure has two symmetrical circular grooves. Specifically, the outer side of the temperature display box structure 8 has two symmetrical circular grooves, which are second circular grooves 811. Each second circular groove 811 corresponds to a round protrusion 32, and the round protrusion 32 is engaged within the corresponding second circular groove 811.

[0049] Reference Figures 7 to 9 When the temperature display box structure 8 is installed, it is inserted into the receiving cavity 3, so that the round protrusions 32 of the two elastic pieces 31 are respectively locked in the corresponding second circular grooves 811; when the temperature display box structure 8 is to be removed, the second pressing part 80 is pressed with a finger to separate the round protrusions 32 of the two elastic pieces 31 from the corresponding second circular grooves 811, thereby pushing out the temperature display box structure 8.

[0050] Reference Figures 7 to 11 The temperature display box structure 8 includes a temperature display box body 81, a temperature display screen 82, a first hydroelectric generator 83, a first impeller 84, a first inclined water body 85, and a water temperature sensor head 86. The temperature display box body 81 extends through the left and right sides. The bottom of the temperature display box body 81 has a first placement cavity 812 for mounting a temperature display screen 82, which is located within the first placement cavity 812. The first impeller 84 is connected to the output shaft of the first hydroelectric generator 83, which is located inside the temperature display box body 81. The first inclined water body 85 is connected to the right end of the temperature display box body 81 and communicates with the right end of the connecting water channel 6 and the interior of the temperature display box body 81. The left end of the temperature display box body 81 is connected to a temperature display box side cover 87, which communicates with the interior of the temperature display box body 81 and the left end of the connecting water channel 6. The water temperature sensor 86 is located inside the temperature display box body 81. The temperature display screen 82 has a first main board. The first hydroelectric generator 83 and the water temperature sensor 86 are both connected to the first main board via wires. The bottom of the temperature display box body 81 is a transparent portion, allowing viewing of the water temperature displayed on the temperature display screen 82.

[0051] Reference Figures 8 to 10The installation process of the temperature display box structure 8 is as follows: The first hydroelectric generator 83 is installed into the temperature display box body 41, and then epoxy resin is poured in to complete the fixation and sealing. Then, the positive and negative conductive wires on the first hydroelectric generator 83 are connected to the first main board on the temperature display screen 82. Then, the water temperature sensor 86 is installed into the water channel of the temperature display box body 81, and the conductive wire on the water temperature sensor 86 is connected to the first main board on the temperature display screen 82. Then, the temperature display screen 82 is installed into the temperature display box body 81, and epoxy resin is poured in to complete the fixation and sealing. Then, the side cover 87 of the temperature display box is installed into the left end of the temperature display box body 81. Next, the first impeller 84 is installed into the output shaft of the first hydroelectric generator 83. Finally, the first inclined water body 85 is installed into the right end of the temperature display box body 41.

[0052] Reference Figures 8 to 11 When the water flows through the first inclined water body 85, it causes the water flow to form a circular motion. The circular water flow drives the first impeller 84 on the first hydroelectric generator 83 to rotate, converting kinetic energy into electrical energy. The first hydroelectric generator 83 is connected to the temperature display screen 82. The water temperature sensor 86, which is fixed in the main body 41 of the temperature display box, contacts the water to detect the temperature, and finally realizes the temperature display screen 82 to display the temperature. Example 3

[0053] Reference Figure 12 The specific implementation method of this embodiment is basically the same as that of embodiment one, except that: the functional box structure is an electronic flow box structure 9, the water flow in the shower body 1 flows to the nozzle assembly 2 after passing through the electronic flow box structure 9, and the electronic flow box structure 9 generates a micro current for the water flowing through the shower body 1.

[0054] Reference Figures 12 to 14 The shower head body 1 has a pressing hole 11 at its top that communicates with the receiving cavity 3. The functional box structure has a pressing part at its top. Specifically, the electronic flow box structure 9 has the pressing part at its top, which is a third pressing part 90 located inside the pressing hole 11. The inner wall of the receiving cavity 3 has two symmetrical elastic pieces 31, each with a round protrusion 32. The outer side of the functional box structure has two symmetrical circular grooves. Specifically, the outer side of the electronic flow box structure 9 has two symmetrical circular grooves, which are third circular grooves 911. Each third circular groove 911 corresponds to a round protrusion 32, and the round protrusion 32 is engaged within the corresponding third circular groove 911.

[0055] Reference Figures 12 to 14When the electronic flow box structure 9 is installed, it is inserted into the receiving cavity 3, so that the round protrusions 32 of the two elastic pieces 31 are respectively locked in the corresponding third circular grooves 911; when the electronic flow box structure 9 is to be removed, the third pressing part 90 is pressed with a finger to separate the round protrusions 32 of the two elastic pieces 31 from the corresponding third circular grooves 911, thereby pushing out the electronic flow box structure 9.

[0056] Reference Figures 12 to 15 The electronic flow box structure 9 includes an electronic flow box body 91, an electronic flow display screen 92, a second hydroelectric generator 93, a second impeller 94, a second inclined water body 95, a housing return conductive head 96, and a water guiding return conductive head 97. The electronic flow box body 91 extends horizontally. A second placement cavity 912 for mounting the electronic flow display screen 92 is provided at the bottom of the electronic flow box body 91. The electronic flow display screen 92 is located within the second placement cavity 912. The second impeller 94 is connected to the output shaft of the second hydroelectric generator 93, which is located within the electronic flow box body 91. The second inclined water body 95 is connected to the right end of the electronic flow box body 1 and communicates with the right end of the connecting waterway 6 and the interior of the electronic flow box body 1. An electronic flow box side cover 98 is connected to the left end of the electronic flow box body 1. The shower head 98 is connected to the interior of the electronic flow box body 1 and the left end of the connecting water channel 6. The housing return conductive head 96 and the water guide return conductive head 97 are both located inside the electronic flow box body 1. The electronic flow display screen 92 has a second main board. The shower head body 1 has an elastic guide pin 16, specifically located inside the upper housing 12. One end of the housing return conductive head 96 is connected to the second main board via a wire, and the other end of the housing return conductive head 96 contacts the elastic guide pin 16. The water guide return conductive head 97 is connected to the second main board via a wire. The surface of the upper housing 12 is a conductive electroplated surface. The bottom of the electronic flow box body 91 is a transparent portion, allowing viewing of whether the electronic flow display screen 92 is lit.

[0057] Reference Figures 12 to 15The installation process of the electronic flow box structure 9 is as follows: The second hydroelectric generator 93 is installed into the electronic flow box body 91, and then epoxy resin is poured in to complete the fixing and sealing. Then, the positive and negative conductive wires on the second hydroelectric generator 93 are connected to the second main board on the electronic flow display screen 92. The housing return conductive head 96 is fixed inside the electronic flow box body 41. One end of the housing return conductive head 96 is connected to the electronic flow display screen main board via a conductive wire, and the other end of the housing return conductive head 96 is connected to the elastic guide pin 16. Then, the water return conductive head 97 is installed into the electronic flow box body 41. The water return conductive head 97 is connected to the second main board of the electronic flow display screen 92 through a conductive wire. Then, the electronic flow display screen is installed into the electronic flow box body, and epoxy resin is poured in to complete the fixation and sealing. Then, the side cover 98 of the electronic flow box is installed into the electronic flow box body 41. Next, the second impeller 94 is installed on the output shaft of the second hydroelectric generator 93 inside the electronic flow box body 41. Finally, the second inclined water body 95 is installed into the electronic flow box body 41.

[0058] Reference Figures 12 to 16 When the water flows through the second inclined water body 95, it forms a circular motion. The circular water flow drives the second impeller 94 on the second hydroelectric generator 93 to rotate, converting kinetic energy into electrical energy. The second hydroelectric generator 93 is connected to the electronic flow display screen 92. One end of the shell conductive circuit head 96 is connected to the electronic flow display screen 92, and the other end of the shell conductive circuit head 96 is in contact with the conductive spring pin 16 fixed in the upper shell 12. One end of the water guiding return conductive head 97 is connected to the electronic flow display screen 92, and the other end of the water guiding return conductive head 97 is inserted into the electronic flow box body 41 and in contact with water. When the upper shell 12 is held by hand (the electroplated surface can conduct electricity), a circuit is formed, and the electronic flow display screen 92 will light up, indicating that the electronic flow has been generated in the water. At this time, the electronic flow generated by the water flowing into each water splash function of the large panel 22 and the small panel 21 and hitting the skin can play a good hydrotherapy role for the human body, relieving fatigue and improving the skin.

[0059] The above are merely specific embodiments of this utility model, but the design concept of this utility model is not limited thereto. Any non-substantial modifications made to this utility model using this concept shall be considered as an infringement of the protection scope of this utility model.

Claims

1. A shower head with multiple functions, characterized in that: The shower head assembly includes a shower body, a nozzle assembly, and at least two functional box structures. The nozzle assembly is located inside the left end of the shower body. The shower body has a receiving cavity with an open bottom. The at least two functional box structures have different functions. The receiving cavity is adapted to the functional box structure. Each functional box structure is detachably installed in the receiving cavity. The functional box structure is connected to the shower body and the nozzle assembly.

2. A shower head with multiple functions as described in claim 1, characterized in that: The functional box structure comprises three parts: a button-operated water-stopping box structure, a temperature display box structure, and an electronic flow box structure. Each of these three structures is detachably located within the receiving cavity. Water flowing through the showerhead body passes through the button-operated water-stopping box structure and then flows to the spray head assembly. The button-operated water-stopping box structure controls the connection and disconnection between the water in the showerhead body and the spray head assembly. Water flowing through the showerhead body passes through the temperature display box structure and then flows to the spray head assembly. The temperature display box structure displays the temperature of the water in the showerhead body. Water flowing through the showerhead body passes through the electronic flow box structure and then flows to the spray head assembly. The electronic flow box structure generates a microcurrent in the water flowing through the showerhead body.

3. A shower head with multiple functions as described in claim 1, characterized in that: The top of the shower head body is provided with a pressing hole that communicates with the receiving cavity, and the top of the functional box structure is provided with a pressing part, which is located inside the pressing hole.

4. A shower head with multiple functions as described in claim 1, characterized in that: The inner wall of the receiving cavity is provided with two symmetrical elastic sheets, each of which has a round protrusion. The outer side of the functional box structure is provided with two symmetrical circular grooves, each circular groove corresponding to a round protrusion, and the round protrusion is engaged in the corresponding circular groove.

5. A shower head with multiple functions as described in claim 2, characterized in that: The shower head body has a hollow structure. Inside the shower head body, there is a filter rod, a connecting water channel, and a panel water channel. The filter rod, the connecting water channel, and the panel water channel are connected in sequence along the water inlet to water outlet direction. The receiving cavity is located in the connecting water channel, and the panel water channel is connected to the spray head assembly.

6. A shower head with multiple functions as described in claim 5, characterized in that: The button-type water-stop box structure includes a button, a button spindle, a button pivot, a button bracket, a button skeleton, a water-stop oil seal, a return spring, a water-stop box channel, and a water-stop box. The button is snapped into the bottom of the button skeleton. The water-stop box channel has an installation cavity with an open bottom. The side wall of the installation cavity has a first water inlet communicating with the shower head body and the spray head assembly. The upper part of the button skeleton is located inside the installation cavity. The water-stop oil seal is located on the upper part of the button skeleton. The return spring is located between the top surface of the button skeleton and the inner top surface of the installation cavity. The button spindle is located inside the button skeleton. The button pivot is located inside the button bracket. The top is sleeved with the bottom of the button shaft, and the button shaft can be fixed once for each rotation of the button spindle. The button bracket is sleeved inside the button frame and fastened to the water channel of the water-stop box. The button bracket is used to limit the button frame. The button spindle, button shaft, button bracket, button frame, water-stop oil seal, return spring and water channel of the water-stop box are located inside the water-stop box. The bottom of the button extends out of the bottom surface of the water-stop box. The right end of the water channel of the water-stop box is connected to the docking water channel. The left side of the water-stop box is provided with a water-stop box side cover for fixing the water channel of the water-stop box. The water-stop box side cover is provided with a second water inlet connected to the left end of the water channel of the water-stop box.

7. A shower head with multiple functions as described in claim 5, characterized in that: The temperature display box structure includes a temperature display box body, a temperature display screen, a first hydroelectric generator, a first impeller, a first inclined water body, and a water temperature sensor. The temperature display box body is horizontally continuous. The bottom of the temperature display box body has a first placement cavity for mounting the temperature display screen, which is located in the first placement cavity. The first impeller is connected to the output shaft of the first hydroelectric generator, which is located inside the temperature display box body. The first inclined water body is connected to the right end of the temperature display box body and communicates with the right end of the connecting water channel and the interior of the temperature display box body. The left end of the temperature display box body is connected to a side cover, which communicates with the interior of the temperature display box body and the left end of the connecting water channel. The water temperature sensor is located inside the temperature display box body. The temperature display screen has a first main board. The first hydroelectric generator and the water temperature sensor are both connected to the first main board via wires.

8. A shower head with multiple functions as described in claim 5, characterized in that: The electronic flow box structure includes an electronic flow box body, an electronic flow display screen, a second hydraulic generator, a second impeller, a second inclined water body, a shell return conductive head, and a water guiding return conductive head. The electronic flow box body is horizontally continuous. A second placement cavity for mounting the electronic flow display screen is provided at the bottom of the electronic flow box body. The electronic flow display screen is located within the second placement cavity. The second impeller is connected to the output shaft of the second hydraulic generator, which is located inside the electronic flow box body. The second inclined water body is connected to the right end of the electronic flow box body and is connected to the docking waterway. The right end is connected to the interior of the electronic flow box body. The left end of the electronic flow box body is connected to the side cover of the electronic flow box. The side cover of the electronic flow box body is connected to the interior of the electronic flow box body and the left end of the connecting water channel. The housing return conductive head and the water guide return conductive head are both located inside the electronic flow box body. The electronic flow display screen has a second main board. The shower head body is provided with an elastic guide pin. One end of the housing return conductive head is connected to the second main board through a wire. The other end of the housing return conductive head is in contact with the elastic guide pin. The water guide return conductive head is connected to the second main board through a wire.

9. A shower head with multiple functions as described in claim 5, characterized in that: The shower head body includes an upper housing, a lower housing, a tail sleeve, and a tail tooth. The tail tooth is threaded to the right end of the upper housing. The tail sleeve is fitted around the outer periphery of the tail tooth. The tail tooth is connected to the filter rod. The lower housing is connected to the left end of the upper housing. The filter rod, the connecting water channel, and the panel water channel are all located inside the upper housing. The spray head assembly is located inside the lower housing.

10. A shower head with multiple functions as described in claim 9, characterized in that: The nozzle assembly includes a small panel, a large panel, a fixed plate, a water distribution plate, an oil seal, a peephole, and a base. The small panel is threaded into the middle of the large panel. The large panel, fixed plate, water distribution plate, and base are arranged from bottom to top. The fixed plate connects the large panel and the water distribution plate. The oil seal is located on the top of the water distribution plate. The base has a peephole, and the peephole is located inside the peephole. The panel water channel is located above the base and is sleeved with the base. The panel water channel communicates with the peephole. The top of the panel water channel is inside... A hexagonal nut is provided, and a screw passes through the water distribution plate, base, and panel water channel. The top of the screw is threadedly connected to the hexagonal nut. The large panel, fixed plate, and water distribution plate are rotatably mounted after being connected. The water distribution plate has three diversion holes. The small panel has a finer shower head hole, and the large panel has a shower head hole and a microbubble water hole. The finer shower head hole, shower head hole, and microbubble water hole are arranged from the inside to the outside. The three diversion holes are respectively connected to the finer shower head hole, shower head hole, and microbubble water hole.

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