Depilator

Abstract

The utility model relates to a hair removing device, the hair removing device includes handle, a plurality of cleaning components, carrier and locking assembly, handle includes hand -held part and head, and handle inside is equipped with the accommodation cavity, carrier is installed in the head of handle, and carrier has the reference axis along its length direction extension, and a plurality of cleaning components are located on the carrier and are along the circumferential distribution of reference axis, locking assembly is installed in the accommodation cavity of handle, is used for with carrier cooperation, makes carrier be in locking state or release state, wherein, in locking state, carrier keeps fixed relative to handle to make any cleaning component be in the working position for removing hair, in release state, carrier can shift to another cleaning component and be in the working position.

Description

Technical Field

[0001] This utility model relates to the field of daily necessities technology, and in particular to hair removal devices. Background Technology

[0002] Existing lint removers are typically designed for a single fabric type and come with only one type or one brush head. They cannot quickly switch brush heads based on fabric type or brush head wear, often requiring users to carry multiple lint removers, which is cumbersome and inconvenient, resulting in a poor user experience. Utility Model Content

[0003] In view of this, the present invention provides a hair removal device to solve the problems of existing hair removal devices.

[0004] To achieve one, some, or all of the above objectives, or other objectives, this utility model proposes:

[0005] Hair removal devices, including:

[0006] A handle, comprising a hand grip and a head, wherein the handle has an internal receiving cavity;

[0007] Multiple cleaning components;

[0008] A carrier is mounted on the head of the handle, the carrier having a reference axis extending along its length, and the plurality of cleaning components are disposed on the carrier and distributed circumferentially along the reference axis;

[0009] A locking component is installed in the receiving cavity of the handle and is used to cooperate with the carrier to put the carrier into a locked state or a released state.

[0010] In the locked state, the carrier remains fixed relative to the handle so that either of the cleaning components is in a working position for hair removal; in the released state, the carrier can be switched to the working position of the other cleaning component.

[0011] Implementing the embodiments of this utility model will have the following beneficial effects:

[0012] By adopting the aforementioned hair remover, multiple cleaning components are circumferentially distributed on the carrier, allowing users to quickly switch working modes simply by rotating or replacing the carrier, significantly improving ease of use and efficiency. Furthermore, the increased number of identical brush-like cleaning components means that if a single component wears out or its performance deteriorates, it can be directly switched to another component for continued use, eliminating the need to replace the entire machine or purchase a new hair remover. This reduces maintenance costs and material waste, improving product durability and economy. In summary, this hair remover, by incorporating multiple cleaning components on the carrier and using a locking mechanism to keep the carrier locked or released, allows users to select different cleaning components based on actual usage, thereby improving the user experience and comfort during cleaning operations. Attached Figure Description

[0013] To more clearly illustrate the technical solutions in the embodiments of this utility model or the prior art, the drawings used in the description of the embodiments or the prior art will be briefly introduced below. Obviously, the drawings described below are only some embodiments of this utility model. For those skilled in the art, other drawings can be obtained based on these drawings without creative effort.

[0014] Figure 1 This is a schematic diagram of the overall structure of the hair removal device in some embodiments;

[0015] Figure 2 This is a frontal projection view of the hair removal device in some embodiments;

[0016] Figure 3 Exploded view of the overall structure of the hair removal device in some embodiments;

[0017] Figure 4 Schematic diagram of the internal structure of the hair removal device in some embodiments Figure 1 The diagram shows a first elastic reset member connecting two movable parts;

[0018] Figure 5 Schematic diagram of the internal structure of the hair removal device in some embodiments Figure 2 The diagram shows a first elastic reset member connecting two movable parts;

[0019] Figure 6 Schematic diagram of the structure of the carrier and cleaning component in some embodiments Figure 1 The diagram shows the spacing between the connecting shaft and the limiting groove;

[0020] Figure 7 This is an exploded schematic diagram of the carrier and cleaning components in some embodiments;

[0021] Figure 8 This is a schematic diagram of the internal structure of a hair removal device in some embodiments that does not have an operation button, showing a first elastic reset member connecting two moving parts;

[0022] Figure 9 Schematic diagram of the structure of the carrier and cleaning component in some embodiments Figure 2 The diagram shows that the connecting shaft and the limiting groove are spaced apart, and the limiting groove has a guide surface;

[0023] Figure 10 Schematic diagram of the internal structure of the hair removal device in some embodiments Figure 3 The second resilient reset element is shown connecting the operation button and the handle;

[0024] Figure 11 A perspective sectional view of the overall structure of the hair remover in some embodiments, showing the locking part including the insert rod;

[0025] Figure 12 Schematic diagram of the internal structure of the hair removal device in some embodiments Figure 4 The diagram shows a second elastic reset member connecting the movable part and the handle, and the second elastic reset member is a compression spring.

[0026] Figure 13 Schematic diagram of the internal structure of the hair removal device in some embodiments Figure 4 The diagram shows a second elastic reset member connecting the movable part and the handle, and the second elastic reset member is a spring sheet;

[0027] Figure 14 Schematic diagram of partial structural separation of the hair removal device in some embodiments Figure 1 The diagram shows a limiting groove radially penetrating a rotating shaft, and a locking part including a locking block;

[0028] Figure 15 Schematic diagram of the internal structure of the hair removal device in some embodiments Figure 5 The diagram shows the elastic arm integrally formed with two connectors.

[0029] Figure 16 Schematic diagram of partial structural separation of the hair removal device in some embodiments Figure 2 The diagram shows that the connecting part includes a connecting hole and a limiting groove, with the limiting groove radially penetrating the bearing body, and the locking part includes a connecting rod and a locking block;

[0030] Figure 17 This is a partial structural separation diagram of a hair removal device in some embodiments, showing that the carrier includes a first mounting part and the locking assembly includes a locking member;

[0031] Figure 18This is a schematic diagram of the internal structure of a hair remover in some embodiments, showing a locking element and a third resilient reset element assembled at the head of the handle;

[0032] Figure 19 This is a schematic diagram of the internal structure of a hair remover in some embodiments, showing a locking member and a fourth resilient reset member assembled at the head of the handle;

[0033] Figure 20 This is a partial structural separation diagram of a hair removal device in some embodiments, showing that the first mounting part includes a mating hole and the locking assembly includes a locking member;

[0034] Figure 21 This is a schematic diagram of the internal structure of a hair remover in some embodiments, showing a ratchet portion and a pawl portion;

[0035] Figure 22 This is a perspective sectional view of a partial structure of a hair remover in some embodiments, showing the ratchet portion and the pawl portion;

[0036] Figure 23 This is a partial structural separation diagram of a hair removal device in some embodiments, showing a first friction surface and a second friction surface;

[0037] in:

[0038] 1-Handle; 10-Receiving cavity; 100-Guide groove; 11-Bottom shell; 12-Top shell; 13-Handheld part; 130-Anti-slip texture; 14-Head; 15-Mounting hole;

[0039] 2-Cleaning components; 21-Metal brush rake; 22-Plastic brush rake; 23-Rubber brush rake; 24-Flexible brush cloth;

[0040] 3-Bearing component; 30-Bearing body; 300-Bearing surface; 301-End face; 302-Mounting groove; 3020-Positioning protrusion; 31-Connecting part; 310-Connecting shaft; 311-Limiting groove; 3110-Limiting end; 3111-Guide surface; 312-Connecting hole; 32-Cover plate; 33-First mounting part; 330-Mating hole; 34-First mating part; 340-Ratchet part; 340a-Inclined surface; 340b-Stop surface; 341-First friction surface;

[0041] 4-Locking assembly; 40-Connector; 400-Connecting body; 401-Locking part; 4010-Locking protrusion; 4011-Locking block; 4012-Connecting rod; 4013-Insertion rod; 402-Moving part; 4020-Force-bearing surface; 4021-Oval hole; 41-Operating button; 42-First elastic reset member; 43-Second elastic reset member; 44-Elastic arm; 45-Locking member; 450-Locking body; 451-Operating part; 452-Second mating part; 453-Assembly part; 454-Pawl part; 455-Second friction surface; 46-Third elastic reset member; 47-Fourth elastic reset member;

[0042] S - Reference axis; P1 - Reference plane; P2 - Working plane; β - Angle between the reference plane and the working plane. Detailed Implementation

[0043] Unless otherwise defined, all technical and scientific terms used herein have the same meaning as commonly understood by one of ordinary skill in the art to which this invention pertains; the terminology used herein in the specification is for the purpose of describing particular embodiments only and is not intended to be limiting of the invention; the terms "comprising" and "having," and any variations thereof, in the specification, claims, and accompanying drawings of this invention are intended to cover non-exclusive inclusion. The terms "first," "second," etc., in the specification, claims, or accompanying drawings of this invention are used to distinguish different objects, not to describe a particular order.

[0044] In this document, the term "embodiment" means that a particular feature, structure, or characteristic described in connection with an embodiment may be included in at least one embodiment of the present invention. The appearance of this phrase in various places throughout the specification does not necessarily refer to the same embodiment, nor is it a separate or alternative embodiment mutually exclusive with other embodiments. It will be explicitly and implicitly understood by those skilled in the art that the embodiments described herein can be combined with other embodiments.

[0045] To enable those skilled in the art to better understand the present invention, the technical solutions in the embodiments of the present invention will be clearly and completely described below with reference to the accompanying drawings.

[0046] See appendix Figure 1 - Appendix Figure 16This utility model provides a hair removal device, which includes a handle 1, multiple cleaning components 2, a carrier 3, and a locking assembly 4. The handle 1 includes a handheld part 13 and a head 14, and a receiving cavity 10 is provided inside the handle 1. The carrier 3 is installed on the head 14 of the handle 1 and has a reference axis S extending along its length direction. Multiple cleaning components 2 are disposed on the carrier 3 and distributed circumferentially along the reference axis S. The locking assembly 4 is installed in the receiving cavity 10 of the handle 1 and is used to cooperate with the carrier 3 so that the carrier 3 is in a locked state or a released state. In the locked state, the carrier 3 is fixed relative to the handle 1 so that any one of the cleaning components 2 is in a working position for hair removal. In the released state, the carrier 3 can be switched to another cleaning component 2 in a working position.

[0047] Specifically, the handle 1 includes a top shell 12 and a bottom shell 11, which are fastened together along the Z-axis direction as shown in the figure. They are assembled and fixed by screws and snap-fits, forming a through-hole receiving cavity 10 inside to accommodate the locking assembly 4. The head 14 of the handle 1 is preferably U-shaped with its opening facing forward, providing mounting space and movement clearance for the carrier 3. The handgrip 13 is elongated (as shown in the figure). Figure 1 and Figure 2 Extending along the Y-axis (as shown), it can be ergonomically designed with rounded corners or an elliptical cross-section for comfortable grip and balanced operation. The outer surface of the handgrip 13 also features anti-slip textures 130 to enhance the grip feel. The support member 3 is mounted on the head 14 of the handle 1, and its overall shape is elongated, with a reference axis S extending along its length (as shown). Figure 1 (Extending in the X-axis direction as shown). Multiple cleaning components 2 are circumferentially distributed along the reference axis S of the carrier 3 and protrude from the surface of the carrier 3. The multiple cleaning components 2 are made of different materials, and may include different types of structures such as metal brush rake 21, rubber brush rake 23, plastic brush rake 22, and flexible brush cloth 24. Each cleaning component 2 can be used independently to remove lint, loose hair or fine dust from the surface of a specific material fabric. The carrier 3 can be connected to the head 14 via a rotatable connection structure, or it can be installed on the head 14 of the handle 1 via a detachable connection. The locking component 4, through its cooperation with the carrier 3, allows the carrier 3 to be in a locked or released state. When the carrier 3 is in the locked state, it is held in place by the locking component 4 and locked to the handle 1. At this time, one cleaning component 2 is in the working position for hair removal. The locking component 4 can release the locking engagement on the carrier 3, allowing the carrier 3 to be in a released state that allows it to move relative to or be removed from the handle 1. At this time, the user can selectively replace the other cleaning component 2 on the carrier 3 to be in the working position to accommodate the cleaning operations of different fabric materials. Figure 2As shown, the cleaning component 2, in its working position, is located approximately on the side of the bottom shell 11 away from the top shell 12, and protrudes from the outer surface of the support member 3 in a direction away from the top shell 12, so as to be used for hair removal operation.

[0048] Through the above structural design, the lint remover of this embodiment integrates multiple types of cleaning components 2 in a single main body, enabling flexible selection of the most suitable lint removal method for different fabrics (such as clothing, sofas, blankets, carpets, etc.). Compared with the existing technology where users can only replace the entire machine or purchase different types of lint removers separately, this solution, by circumferentially distributing multiple cleaning components 2 on the carrier 3, allows users to quickly switch working modes simply by rotating or replacing the carrier 3, significantly improving ease of use and efficiency. Furthermore, when multiple cleaning components 2 are of the same type of brush rake structure, the increased number allows for direct switching to another cleaning component 2 for continued use when a single cleaning component 2 wears out or its performance deteriorates, without the need to replace the entire machine or purchase a new lint remover. This reduces maintenance costs and material waste, improving product durability and economy. In summary, this lint remover, by setting multiple cleaning components 2 on the carrier 3 and using a locking component 4 to keep the carrier 3 in a locked or released state, allows users to select different cleaning components 2 in different working positions according to actual usage, thereby improving the user experience and comfort during cleaning operations.

[0049] In some embodiments, the carrier 3 is rotatably mounted on the head 14 of the handle 1, and the carrier 3 is rotatable about its reference axis S; the locking assembly 4 is used to restrict the rotation of the carrier 3 in the locked state and to allow the carrier 3 to rotate about the reference axis S in the released state. The reference axis S of the carrier 3 is perpendicular to the length extension direction of the handle portion 13.

[0050] Specifically, the two ends of the carrier 3 are rotatably connected to the head 14 of the handle 1, for example, by setting a pin, a hole, or a sleeve fit structure, so that the carrier 3 can rotate around its reference axis S in the length direction. The range of rotation of the carrier 3 in a single rotation can be set to several equally divided angles according to the number of multiple cleaning parts 2, such as 90°, 120°, or 180°, to ensure that each cleaning part 2 can rotate to the working position in sequence. In the locked state, the locking component 4 and the carrier 3 can be locked together by snap-fit, fastening, threaded connection, etc., so that the carrier 3 is fixed when it rotates to the corresponding cleaning part 2 in the working position, ensuring that the contact angle between the cleaning part 2 and the fabric surface is stable, thereby obtaining a uniform and smooth lint removal effect. In the released state, the user can unlock the locking component 4 and the carrier 3 by sliding or pressing, allowing the carrier 3 to rotate freely around the reference axis S. After selecting the corresponding cleaning component 2 and rotating it to the working position in front, the user can then lock the locking component 4 and the carrier 3. Through the switching control mode of "locking-unlocking-relocking", high reliability and clear feedback of the operation are achieved, avoiding the problem of the carrier 3 being suspended or unstable in the middle position.

[0051] In addition, the reference axis S of the bearing member 3 can be set to be parallel to the length direction of the handheld part 13 (e.g., ...). Figure 1 The Y-axis direction shown is kept vertically arranged so that the carrier 3 and the handheld part 13 are roughly T-shaped. On the one hand, this allows the user's wrist to be naturally perpendicular to the cleaning direction when holding the hand, and a large area of ​​hair removal can be completed by swinging the arm slightly. On the other hand, the vertical arrangement allows the rotation direction of the carrier 3 to be orthogonal to the use direction, which makes it easy to directly rotate and switch the cleaning part 2 after cleaning without having to make a big adjustment to the holding posture. This reduces hand fatigue and improves the flexibility of operation.

[0052] Reference Figure 2 In some embodiments, the connection between the head 14 of the handle 1 and the handheld part 13 together with the reference axis S forms a reference surface P1; the cleaning component 2 in the locked state together with the reference axis S forms a working surface P2; the included angle between the reference surface P1 and the working surface P2 ranges from 30° to 60°.

[0053] Specifically, when the user holds handle 1 to remove lint, the cleaning component 2 contacts the surface of the fabric being cleaned at an angle, and the entire lint remover is angled. At this time, the user's arm is roughly aligned with the cleaning direction, and the wrist is in a naturally bent position, allowing for cleaning along their own direction with a slight pulling motion. Unlike traditional "forward-pushing" lint removers, this lint remover uses a "backward-pushing" operation method (e.g., ...). Figure 2(As shown in the Y-axis direction), this design avoids fatigue and unstable scraping angles caused by reverse wrist force during the pushing process. Specifically, the angle between the reference plane P1 and the working plane P2 is set at 45°, which conforms to ergonomics and ensures that the user's arm posture is natural and the force is balanced during long-term cleaning. Furthermore, the tilted contact achieves the optimal distribution of hair removal force and fabric support force, thereby improving hair removal efficiency and comfort.

[0054] Reference Figures 1-7 In some embodiments, the carrier 3 includes a carrier body 30, connecting portions 31 at both ends of the carrier body 30, and a plurality of carrier surfaces 300 on the carrier body 30; the connecting portions 31 are rotatably connected to the head 14 of the handle 1; the plurality of carrier surfaces 300 are distributed circumferentially along the reference axis S, and a plurality of cleaning components 2 are respectively disposed on the plurality of carrier surfaces 300, and the cleaning components 2 extend along the reference axis S.

[0055] Specifically, the connecting part 31 protrudes at least partially from the end face 301 of the bearing body 30 to form a rotatable connection structure with the head 14 of the handle 1. For example, the connecting part 31 can achieve a rotatable fit through a shaft, cylindrical pin, or sleeve bearing. A portion of the connecting part 31 is inserted into the receiving cavity 10 of the head 14 to form an axial limiting and radial guiding fit, thereby ensuring the smooth rotation of the bearing 3 in the direction of the reference axis S. The number of bearing surfaces 300 corresponds to the number of cleaning components 2. The number of bearing surfaces 300 determines the shape of the bearing body 30. Therefore, the shape of the bearing body 30 can be set according to the number of cleaning components 2. For example, if four different types of cleaning components 2 are provided, the bearing body 30 can be made into a quadrangular prism. If the number of cleaning components 2 is three or two, they can also be made into triangular prisms or cylindrical structures respectively. In order to maximize the contact area between the cleaning components 2 and the fabric, the cleaning components 2 can also extend along the length direction of the bearing body 30, so that the cleaning components 2 basically cover the bearing surfaces 300 in the length direction. Multiple bearing surfaces 300 are distributed around the reference axis S, while multiple cleaning components 2 are distributed one by one along the rotation direction of the bearing body 30. This ensures that different types of cleaning components 2 can be in the same working position after rotation, guaranteeing that the contact angle between each cleaning component 2 and the fabric surface is consistent. Therefore, there is no need to readjust the holding posture or angle when switching, making the operation smoother.

[0056] Furthermore, the supporting body 30 can be made of high-strength engineering plastics or composite materials to balance structural strength and lightweight requirements; the surface of each supporting surface 300 can be designed according to the characteristics of the cleaning component 2 installed, such as providing convex strips, grooves, or arc surfaces to enhance the stability and service life of the cleaning component 2. For example, when the cleaning component 2 is a plastic brush 22, it can be integrally molded with the supporting body 30; when the cleaning component 2 is a metal brush 21, convex strips can be formed on the supporting surface 300, and the metal brush 21 can be detachably installed on the convex strips; when the cleaning component 2 is a rubber brush 23, at least one mounting groove 302 can be provided on the supporting body 30. The supporting component 3 also includes a cover plate 32, which can cover the mounting groove 302, with the side away from the mounting groove 302 forming the supporting surface 300. At least one part of the cleaning component 2 is pressed into the mounting groove 302 by the cover plate 32. Figure 7 As shown, multiple positioning protrusions 3020 are provided in the mounting groove 302, and corresponding through holes are provided on the cleaning component 2. The cleaning component 2 is fitted onto the mounting groove 302, and then covered by the cover plate 32, thereby pressing the cleaning component 2 onto the carrier body 30. This method is suitable for the case where the cleaning component 2 is a rubber brush 23. The soft rubber material itself has good friction characteristics, which improves the firmness of the cleaning component 2 in the mounting groove 302. When the cleaning component 2 is a flexible brush cloth 24, the flexible brush cloth 24 can also be laid on the carrier surface 300 of the cover plate 32. The two sides of the flexible brush cloth 24 are bent and extended into the mounting groove 302. After the cover plate 32 is closed on the mounting groove 302, the flexible brush cloth 24 is pressed and fixed together.

[0057] Reference Figures 3-6 In some embodiments, the locking component 4 includes two connectors 40, which respectively cooperate with the connecting portions 31 at both ends of the carrier 3; the connector 40 includes a connecting body 400 and a locking portion 401 provided at the end of the connecting body 400. The connecting body 400 is movably installed in the receiving cavity 10 of the handle 1, and the locking portion 401 can engage with the connecting portion 31 of the carrier 3 to fix the carrier 3 to the head 14 of the handle 1 in the locked state.

[0058] Specifically, two connectors 40 are symmetrically arranged in the receiving cavity 10 of the handle 1 along the reference axis S of the carrier 3, respectively located at the corresponding connecting portions 31 at both ends of the carrier 3. Each connector 40 includes a connecting body 400 and a locking portion 401 disposed at its end. The two connecting bodies 400 are independent of each other and can be movably installed in the receiving cavity 10 by sliding or hinge. The locking portion 401 can be a locking pin, locking block, or claw structure, which can form a plug-in or snap-fit ​​engagement with the connecting portions 31 at both ends of the carrier 3. When the carrier 3 is in the locked state, the locking portion 401 is inserted into or snapped into the groove, notch, or hole of the connecting portion 31, thereby achieving double limiting in the axial and radial directions, realizing the precise positioning and reliable fixation of the carrier 3 relative to the handle 1. When the user needs to switch cleaning component 2, they can directly operate the connector 40 (part of which extends out of the handle 1) or indirectly operate the connector 40 (e.g., by setting a button, lever, or knob) to drive the connecting body 400 to rotate or slide within the receiving cavity 10, causing the locking part 401 to disengage from the connecting part 31, thereby releasing the lock. The symmetrical arrangement of the two connectors 40 ensures that the load-bearing member 3 is evenly stressed at both ends, maintaining rotational balance while preventing uneven loading or wobbling, thus improving overall structural stability and user experience.

[0059] Reference Figure 5 and Figure 6 In some embodiments, the connecting portion 31 includes a connecting shaft 310 rotatably connected to the head 14 and a limiting groove 311 engaging with the locking portion 401; the limiting groove 311 is spaced apart from the connecting shaft 310; or, the limiting groove 311 radially penetrates the connecting shaft 310; specifically as follows Figure 6 As shown, the connecting shaft 310 is coaxially arranged with the reference axis S, and both the connecting shaft 310 and the limiting groove 311 are formed on the end face 301 of the bearing body 30, but they are spaced apart in the radial direction. At this time, the connecting shaft 310 is mainly used to form a rotatable connection with the head 14 of the handle 1 to realize the rotational installation of the bearing 3. The axial direction of the limiting groove 311 is parallel to the connecting shaft 310 and extends along the reference axis S. In this structure, the locking part 401 is preferably a locking protrusion 4010 protruding along the reference axis S at the end of the connecting body 400, and the locking protrusion 4010 can be axially inserted into the limiting groove 311. When the locking protrusion 4010 is inserted into the limiting groove 311, since the connecting member 40 itself cannot rotate in the receiving cavity 10, the rotation of the bearing 3 is restricted, thereby realizing the locking of the bearing 3. When the user needs to switch cleaning component 2, the connecting member 40 can be moved within the receiving cavity 10, causing the locking protrusion 4010 to exit the limiting groove 311. The carrier 3 can then rotate freely around the reference axis S to complete the switching of cleaning component 2. Or, as... Figure 14As shown, the limiting groove 311 extends radially through the connecting shaft 310, which is coaxial with the reference axis S and protrudes from the end face 301 of the bearing body 30 for rotatable connection with the head 14 of the handle 1. The limiting groove 311 extends radially through the connecting shaft 310. In this structure, the locking part 401 is preferably a locking block 4011 located at the end of the connecting body 400. The locking block 4011 can be inserted radially into the limiting groove 311 to form a cross-type engagement. When the locking block 4011 is inserted into the limiting groove 311, the radial movement of the connecting shaft 310 is constrained. At the same time, since the locking block 4011 and the limiting groove 311 form a perpendicular cross structure, the rotation of the bearing 3 is reliably limited, achieving a two-way anti-rotation effect.

[0060] Furthermore, the limiting groove 311 can be set to multiple according to the number of cleaning components 2, and each cleaning component 2 corresponds to one of them. When a single locking part 401 engages with the corresponding limiting groove 311, the corresponding cleaning component 2 is fixed in the working position; when the locking part 401 is released and rotated to another limiting groove 311 position, the new cleaning component 2 automatically enters the working position.

[0061] Reference Figure 11 In other embodiments, a single limiting groove 311 may be provided, and the limiting groove 311 is coaxially opened at the connecting shaft 310. The inner wall of the limiting groove 311 is provided with multiple cleaning components 2. For example, when there are four cleaning components 2, the limiting groove 311 is a square groove, and the locking part 401 is provided with a square insertion rod 4013. By inserting the locking part 401 into the square limiting groove 311, the rotation locking of the bearing member 3 is realized. By disengaging the locking part 401 from the square limiting groove 311, the rotation locking of the bearing member 3 is released.

[0062] Reference Figure 16 In other embodiments, the connecting part 31 includes a connecting hole 312 formed on the end face 301 of the bearing body 30 and a plurality of limiting grooves 311 formed on the end face 301 of the bearing body 30. The plurality of limiting grooves 311 penetrate the bearing body 30 radially. The locking part 401 includes a connecting rod 4012 and a locking block 4011 provided with a radial protrusion along the connecting rod 4012. The connecting rod 4012 is rotatably connected to the connecting hole 312, so that the bearing member 3 can rotate relative to the head 14 of the handle 1 through the connecting rod 4012. Under normal conditions, the locking block 4011 is engaged with the limiting groove 311, and the connecting rod 4012 is fully inserted into the connecting hole 312. At this time, the bearing member 3 is locked and cannot rotate. By causing the locking block 4011 to disengage axially from the limiting groove 311, the connecting rod 4012 is partially placed in the connecting hole 312, and the bearing member 3 can rotate.

[0063] Reference Figure 3 , Figure 4 and Figure 5 In some embodiments, the connecting body 400 is slidably installed in the receiving cavity 10, and the connecting member 40 further includes a movable part 402 disposed at the end of the connecting body 400 away from the locking part 401. The sliding direction of the movable part 402 is the same as the sliding direction of the locking part 401. The locking component 4 also includes an operation button 41, which is slidably installed in the receiving cavity 10 and is at least partially exposed on the outer surface of the handle 1. The operation button 41 abuts against the movable part 402. By sliding the operation button 41, the locking part 401 can be engaged or disengaged from the connecting part 31.

[0064] Specifically, the connector 40 can be an L-shaped rod structure, with a locking part 401 at one end for engaging with the connecting part 31 of the carrier 3, and a movable part 402 at the other end for cooperating with the operation button 41 to achieve drive. The connecting body 400 is slidably installed in the receiving cavity 10 of the handle 1. The connecting body 400 can slide parallel to the reference axis S or perpendicular to the reference axis S. In both sliding directions, the sliding directions of the locking part 401 and the movable part 402 are consistent. A through hole is provided on the top shell 12 of the handle 1, through which at least part of the top of the operation button 41 is exposed for direct touch by the user. Depending on the structure and sliding direction of the connector 40, the operation button 41 can be either a push-type or a press-type structure.

[0065] like Figure 4 , Figure 5 Figure 10 As shown, the two connectors 40 are independently arranged, and the connecting body 400 slides parallel to the reference axis S. Specifically, the two connectors 40 are respectively arranged on both sides of the receiving cavity 10, with their movable parts 402 spaced apart from each other and having a force-bearing surface 4020 inclined outwards, with the inclination direction facing away from the reference axis S of the bearing member 3. The end face 301 of the operation button 41 simultaneously abuts against the inclined force-bearing surfaces 4020 of the two movable parts 402; when the user pushes the operation button 41 to slide along the length direction perpendicular to the reference axis S, the two movable parts 402 move away from each other under the action of force, thereby causing their corresponding locking parts 401 to exit the limiting groove 311 along the length direction of the reference axis S, thus unlocking. Sliding the operation button 41 in the opposite direction or releasing the external force on the operation button 41, the two movable parts 402 move closer together again under the action of the elastic member or the restoring force, so that the locking parts 401 are reinserted into the limiting groove 311 along the axial direction, thereby completing the locking. This design is suitable for structures where the connecting shaft 310 and the limiting groove 311 are spaced apart, resulting in a short operating path and sensitive response.

[0066] like Figure 12As shown, the two connectors 40 are integrally formed, and the connecting body 400 slides along a direction perpendicular to the reference axis S. Specifically, the movable parts 402 of the two connectors 40 are fixedly connected to form an integrated structure, which can slide within the receiving cavity 10 along a direction perpendicular to the reference axis S. At this time, the sliding direction of the movable part 402 is the same as the sliding direction of the operation button 41. When the user pushes the operation button 41 away from the reference axis S in a direction perpendicular to the reference axis S, the movable part 402 slides synchronously and moves away from the reference axis S, thereby causing the locking part 401 to radially disengage from the limiting groove 311 on the connecting shaft 310, thus unlocking. When pushed in the opposite direction, the locking part 401 radially inserts back into the limiting groove 311, thus relocking. This solution has a compact structure, intuitive operation direction, and is suitable for radial locking type connection structures.

[0067] like Figure 13 and Figure 14 As shown, the two connectors 40 are integrally formed, and the connecting body 400 slides along a direction perpendicular to the reference axis S. Specifically, the movable parts 402 of the two connectors 40 are fixedly connected to form an integrated structure, which can slide within the receiving cavity 10 along a direction perpendicular to the reference axis S. At this time, the sliding direction of the movable part 402 is perpendicular to the sliding direction of the operation button 41. Specifically, an inclined force-bearing surface 4020 is provided at the connection of the two movable parts 402, and the inclined force-bearing surface 4020 faces the top shell 12. The bottom surface of the operation button 41 abuts against the inclined force-bearing surface 4020. When the user presses down the operation button 41, the movable part 402 slides along a direction perpendicular to the reference axis S and moves away from the reference axis S after being pressed, thereby driving the locking part 401 to exit the limiting groove 311 radially along the connecting shaft 310, thereby unlocking. When the user releases the operation button 41, the elastic force of the elastic reset member can be used to make the movable part 402 reverse reset, and the locking part 401 automatically inserts radially into the limiting groove 311 to relock.

[0068] In addition, to ensure the feel of operation and the effect of automatic reset, an elastic element can be provided between the two movable parts 402, or an elastic element can be provided at any of the movable parts 402, the locking part 401, and the operation button 41, so that after the external force is released, the locking part 401 can automatically reset in a predetermined direction and re-insert into the limit groove 311, thereby ensuring stable operation, automatic return and anti-accidental touch function.

[0069] Reference Figure 4 and Figure 5In some embodiments, the locking assembly 4 further includes a first elastic reset member 42, which is disposed in the receiving cavity 10 and connected to the movable parts 402 of the two connectors 40 respectively. The sliding operation button 41 abuts against the movable parts 402, so that the two movable parts 402 move away from each other, the locking part 401 disengages from the connecting part 31, and the first elastic reset member 42 deforms under force. The first elastic reset member 42 can drive the two movable parts 402 to move closer to each other and reset the operation button 41, and the locking part 401 engages with the connecting part 31.

[0070] Specifically, the first elastic reset member 42 is preferably a tension spring, installed in the receiving cavity 10 of the handle 1, to realize the linkage reset function between the two connecting members 40. The two ends of the tension spring are fixedly connected to the movable parts 402 of the two connecting members 40, respectively, so that their axial direction is consistent with the snap-fit ​​direction of the locking part 401. This structure, in conjunction with the aforementioned "two connecting members 40 are independently arranged," forms a symmetrical elastic linkage structure. In the assembled state, the two connecting members 40 are arranged opposite each other on both sides of the receiving cavity 10, and the movable parts 402 are arranged opposite each other. The first elastic reset member 42 is in a slightly stretched state between them, thereby maintaining the preload. In the normal state of the hair remover (i.e., the non-operational state), the elastic force of the first elastic reset member 42 drives the two movable parts 402 to move closer to each other, so that the locking parts 401 on both sides are synchronously inserted into the corresponding limiting grooves 311 along the reference axis S direction, and the bearing member 3 is reliably fixed to the head 14 of the handle 1, maintaining the locked state. When the user pushes the operation button 41, the end face 301 of the operation button 41 abuts against the inclined force-bearing surfaces 4020 of the two movable parts 402. Through mechanical force transmission, the two movable parts 402 move away from each other along their sliding directions. At this time, the first elastic reset member 42 is stretched and deformed, and the locking part 401 exits the limiting groove 311 along the reference axis S, releasing the lock. The user can rotate the carrier 3 in this state to switch the cleaning part 2. When the user releases the operation button 41, the first elastic reset member 42 retracts and resets under its own elastic restoring force, driving the two movable parts 402 to move closer to each other again, so that the locking part 401 re-inserts into the corresponding limiting groove 311 along the reference axis S, achieving automatic locking. At the same time, when the two movable parts 402 move closer to each other, their inclined force-bearing surfaces 4020 drive the operation button 41 to reset synchronously, returning to its original position. The entire process can automatically complete mechanical reset and double-sided synchronous locking, with smooth operation and accurate positioning.

[0071] Reference Figure 10 , Figure 12 and Figure 13In some embodiments, the locking assembly 4 further includes a second elastic reset member 43, which is disposed within the receiving cavity 10. The second elastic reset member 43 is connected to the inner wall of the operation button 41 and the handle 1, or the second elastic reset member 43 is connected to the inner wall of the movable part 402 and the handle 1, respectively. When the sliding operation button 41 abuts against the movable part 402, the locking part 401 can be disengaged from the connecting part 31, and the second elastic reset member 43 is deformed by force. The second elastic reset member 43 is used to drive the operation button 41 or the movable part 402 to reset, and to make the locking part 401 engage with the connecting part 31.

[0072] Specifically, the second elastic reset element 43 is a compression spring, a spring sheet, or a tension spring; such as Figure 12 As shown, when the two connectors 40 adopt an integral molding structure and the operation button 41 is a push-type button, the movable part 402 is provided with a through hole for the operation button 41 to slide. At this time, the second elastic reset member 43 can be selected as a compression spring. The compression spring is located on the outer side of the movable part 402 and connected to the inner wall of the handle 1. When the user pushes the operation button 41 away from the reference axis S along the direction perpendicular to the reference axis S, the movable part 402 slides away from the reference axis S and squeezes the compression spring, and the locking part 401 simultaneously disengages from the limiting groove 311. After the external force on the operation button 41 is released, the elastic force of the compression spring drives the movable part 402 to reset, and drives the operation button 41 to reset and the locking part 401 to re-insert into the limiting groove 311. Similarly, the second elastic reset member 43 can also be selected as follows: Figure 13 and Figure 14 The spring shown is positioned the same as a compression spring, and its principle is the same, so it will not be repeated here. The difference is... Figure 13 and Figure 14 The operation button 41 shown is a press-down type. It is sufficient to ensure that after pressing the operation button 41, the movable part 402 can slide away from the reference axis S and squeeze the spring piece to achieve the corresponding elastic reset effect. For example... Figure 10 and Figure 11 As shown, when the two connectors 40 are set independently, an inclined waist-shaped hole 4021 can be provided on the movable part 402, and a guide protrusion is provided at the bottom of the operation button 41. The guide protrusion is inserted into the corresponding waist-shaped hole 4021, and the operation button 41 slides towards the reference axis S. Under the combined action of the guide protrusion and the inclined waist-shaped hole 4021, the two movable parts 402 move away from each other, and the locking part 401 disengages from the locking part 31. In order to achieve reset, a second elastic element is provided on the side of the operation button 41 away from the reference axis S and connected to the inner wall of the handle 1. At this time, the second elastic element is preferably a tension spring, so that after the external force on the operation button 41 is released, the second elastic element drives the operation button 41 to reset, and simultaneously drives the two movable parts 402 to move closer to each other, and the corresponding locking part 401 is re-inserted into the corresponding limiting groove 311.

[0073] Reference Figure 15 and Figure 16 In some embodiments, the locking assembly 4 further includes an elastic arm 44, which is fixedly connected to the movable parts 402 of the two connectors 40 respectively, and the elastic arm 44 protrudes in a direction away from the reference axis S. The protruding direction of the elastic arm 44 is perpendicular to the sliding direction of the locking part 401. A guide groove 100 is provided in the receiving cavity 10, which extends along the sliding direction of the locking part 401. The connecting body 400 is at least partially placed in the guide groove 100. The operation button 41 abuts against the elastic arm 44. Sliding the operation button 41 can deform the elastic arm 44 and drive the two movable parts 402 away from each other, so that the locking part 401 and the connecting part 31 are disengaged. Specifically, the arc-shaped elastic arm 44 deforms when pressed by the operation button 41, thereby pushing the locking part 401 out of the limiting groove 311 of the connecting part 31. Conversely, after the external force on the operation button 41 is released, the deformed elastic arm 44 returns to its shape, causing the two moving parts 402 to move closer to each other, the locking part 401 is reinserted into the corresponding limiting groove 311, and the operation button 41 is reset.

[0074] Reference Figure 8 and Figure 9 In some embodiments, the hair remover uses a unidirectional rotating support member 3 to achieve automatic locking and unlocking of the locking component 4 onto the support member 3. Specifically, the connecting part 31 includes a connecting shaft 310 protruding from the end face 301 of the support body 30 and multiple limiting grooves 311 formed on the end face 301 of the support body 30. The connecting shaft 310 is rotatably connected to the head 14. The limiting groove 311 includes a limiting end 3110 and an inclined guide surface 3111. The guide surface 3111 connects the bottom of the limiting groove 311 and the end face 301 of the support body 30. The multiple limiting grooves 311 are circumferentially distributed around the connecting shaft 310 and are connected to multiple cleaning components. 2. One-to-one correspondence; the locking part 401 is a locking protrusion 4010, which can be inserted into the limiting groove 311 and abut against the limiting end 3110 to restrict the rotation of the bearing member 3, or slide along the guide surface 3111 into another adjacent limiting groove 311; the two movable parts 402 are also connected by a first elastic reset member 42. When the two locking protrusions 4010 exit the limiting groove 311 along the guide surface 3111, the two movable parts 402 move away from each other, and the first elastic reset member 42 is deformed by force; the first elastic reset member 42 can drive the two movable parts 402 to move closer to each other and make the locking protrusion 4010 inserted into the limiting groove 311.

[0075] Specifically, multiple limiting grooves 311 are provided corresponding to multiple cleaning components 2. When the locking protrusion 4010 abuts against the limiting end 3110, the corresponding cleaning component 2 is in the working position. The first elastic reset member 42 is a tension spring. Under normal conditions, it causes the two movable parts 402 to approach each other, and the locking protrusion 4010 is inserted into the limiting groove 311. When the cleaning component 2 is in the working position, the locking protrusion 4010 is engaged with the limiting end 311. Figure 8 When the hair remover is pulled along the Y-axis as shown, the carrier 3 has a [property] along the [axis]. Figure 8 and Figure 9 The curved arrow indicates a tendency to rotate, but because the limiting end 3110 abuts against the locking protrusion 4010, the carrier 3 cannot rotate; conversely, when the carrier 3 moves along the direction shown by the curved arrow, it can rotate. Figure 8 and Figure 9 When the arc-shaped arrow is rotated in the opposite direction, the locking protrusion 4010 slides into the guide surface 3111 and slides out of the limiting groove 311 along the guide surface 3111. During this process, the two movable parts 402 move away from each other, and the first elastic reset member 42 is deformed by force. Under the elastic force of the first elastic reset member 42, the locking protrusion 4010 is continuously driven to insert into the limiting groove 311. By continuing to rotate the carrier 3 in the direction of the arrow, the locking protrusion 4010 can be inserted into another limiting groove 311, thus completing the switching of the cleaning component 2.

[0076] Reference Figures 17-23 In some embodiments, the carrier 3 includes a carrier body 30, a plurality of carrier surfaces 300 disposed on the carrier body 30, a first mounting portion 33 and a first mating portion 34 disposed at both ends of the carrier body 30; the carrier body 30 is mounted on the head 14 of the handle 1 through the first mounting portion 33; the plurality of carrier surfaces 300 are distributed circumferentially along the reference axis S, and a plurality of cleaning components 2 are respectively disposed on the plurality of carrier surfaces 300; the locking assembly 4 includes a locking member 45, the locking member 45 is mounted on the head 14 of the handle 1, and the locking member 45 can be connected and engaged with the first mating portion 34 to make the carrier 3 be in a locked state.

[0077] Specifically, unlike the aforementioned embodiments, the handle 1 does not have a receiving cavity 10 inside, and the locking component 4 is directly installed on the head 14 of the handle 1. The locking component 4 specifically includes a locking member 45, which is movably installed on the head 14 of the handle 1 and cooperates with the first mating part 34 on the carrier body 30 to make the carrier 3 be in a locked or released state. Correspondingly, the first mounting part 33 can be connected to the head 14 of the handle 1 by a detachable connection, a rotating connection, or other connection methods. Depending on the connection method between the two, the form of the first mating part 34 and the locking member 45 will also be different.

[0078] Reference Figure 17 and Figure 18In some embodiments, the first mounting portion 33 is coaxially arranged with the reference axis S, and the first mounting portion 33 is rotatably connected to the head 14 of the handle 1; the first mating portion 34 is provided with multiple bearing surfaces 300, and the multiple first mating portions 34 are distributed circumferentially around the first mounting portion 33; the head 14 of the handle 1 is provided with a mounting hole 15, which penetrates the head 14 along the extension direction of the reference axis S; the locking assembly 4 also includes a third elastic reset member 46; the locking member 45 includes a locking body 450 and an operating portion 451 and a second mating portion 452 provided at both ends of the locking body 450, the locking body 450 is slidably installed in the mounting hole 15, the third elastic reset member 46 is provided in the mounting hole 15 and connected to the locking body 450; the second mating portion 452 can be connected to the first mating portion 34, the operating portion 451 can drive the locking body 450 to slide, and the second mating portion 452 disengages from the first mating portion 34, and the third elastic reset member 46 is used to reset the locking body 450. Specifically, the locking body 450 is a rod-shaped structure that can slide along the axial direction of the mounting hole 15. The second mating part 452 is a protrusion protruding from the end of the locking body 450. The first mating part 34 is a groove formed on the end face 301 of the bearing body 30. The axis of the first mating part 34 is spaced apart from and parallel to the axis of the first mounting part 33, so that when the first mating part 34 is restricted, the first mounting part 33 cannot rotate, thereby keeping the bearing member 3 in a locked state. Conversely, releasing the restriction of the first mating part 34 releases the bearing member 3, allowing the bearing body 30 to rotate. The three elastic reset members 46 are specifically compression springs fitted onto the locking body 450. After the locking member 45 and the third elastic reset member 46 are assembled onto the head 14 of the handle 1, the second mating part 452 is inserted into any one of the first mating parts 34 under the elastic force of the third elastic reset member 46, so that the carrier 3 is kept in the locked state, while the operating part 451 is located on the outside of the head 14. The user can pull the operating part 451 to disengage the second mating part 452 from the first mating part 34. At this time, the carrier 3 is in the released state, and the carrier body 30 can rotate to switch the corresponding cleaning part 2 to the working position.

[0079] Reference Figure 19 and Figure 20In some embodiments, the first mounting part 33 includes a mating hole 330 provided on the end face 301 of the bearing body 30, and a plurality of first mating parts 34 are provided corresponding to a plurality of bearing surfaces 300. The plurality of first mating parts 34 are spaced apart on the inner wall of the mating hole 330, and the plurality of first mating parts 34 are distributed circumferentially along the reference axis S; the head 14 of the handle 1 is provided with a mounting hole 15, and the mounting hole 15 penetrates the head 14 along the extension direction of the reference axis S; the locking assembly 4 also includes a fourth elastic reset member 47; the locking member 45 includes a locking body 450, an operating part 451 and an assembly part 453 provided at both ends of the locking body 450, and a... The locking body 450 is slidably installed in the mounting hole 15 with multiple second mating parts 452 on the assembly part 453. The fourth elastic reset member 47 is provided in the mounting hole 15 and connected to the locking body 450. The assembly part 453 can be inserted into the mating hole 330. When the assembly part 453 is inserted into the mating hole 330, the multiple second mating parts 452 are connected to the multiple first mating parts 34 one by one, so that the carrier 3 is in a locked state. The locking body 450 can be driven to slide by the operating part 451, and the assembly part 453 disengages from the mating hole 330. The fourth elastic reset member 47 is used to reset the locking body 450.

[0080] Specifically, the locking body 450 can slide axially along the mounting hole 15, and the operating part 451 extends out of the mounting hole 15. Pulling the operating part 451 causes the mounting part 453 at the other end to retract into the mounting hole 15. The first mounting part 33 is specifically a mating hole 330 recessed in the end face 301 of the bearing body 30, and is mounted on the head 14 of the handle 1 by connecting with the locking assembly 4. The mating hole 330 is specifically a polygonal hole, and multiple first mating parts 34 are multiple hole walls of the polygonal mating hole 330. The mounting part 453 is a polygonal boss protruding from the end face 301 of the locking body 450, and the second mating part 452 is multiple outer walls on the mounting part 453. The number of polygons corresponds to the number of cleaning components 2, such as cleaning components. When there are four of the two, the polygon is specifically a quadrilateral, and the fourth elastic reset member 47 is a compression spring fitted onto the locking body 450. During installation, pulling the operating part 451 causes the mounting part 453 to retract into the mounting hole 15, placing the carrier 3 inside the head 14 of the handle 1. Under the elastic force of the fourth elastic reset member 47, the mounting part 453 on the locking body 450 is inserted into the mating hole 330, and multiple second mating parts 452 and multiple first mating parts 34 are mated one-to-one, so that the carrier 3 is stably mounted on the head 14 of the handle 1. Conversely, pulling the operating part 451 can disengage the mounting part 453 from the mating hole 330, and the carrier 3 is in a released state, allowing the corresponding cleaning component 2 to be switched to the working position. In other embodiments, the fourth elastic reset member 47 can be replaced with a bolt, and the carrier 3 mounted on the head 14 of the handle 1 can be locked by means of threads.

[0081] Reference Figure 21 and Figure 22 In some embodiments, the first mounting part 33 is rotatably connected to the head 14 of the handle 1, and the first mating part 34 is provided with multiple first mating parts corresponding to multiple bearing surfaces 300. The multiple first mating parts 34 are distributed circumferentially around the first mounting part 33. The first mating part 34 is a ratchet part 340 coaxially provided on the bearing body 30. The ratchet part 340 includes an inclined surface 340a and a stop surface 340b. The locking member 45 includes a locking body 450 and a pawl part 454 provided on the locking body 450. The pawl part 454 and the ratchet part 340 cooperate with each other. When the bearing member 3 rotates in the first direction, the pawl part 454 slides through the inclined surface 340a of the ratchet part 340 to release the bearing member 3. When the bearing member 3 rotates in the opposite direction to the first direction, the pawl part 454 abuts against the stop surface 340b of the ratchet part 340 to lock the bearing member 3. Specifically, a ratchet portion 340 is recessed in the end wall of the carrier body 30, and a pawl portion 454 that cooperates with the ratchet portion 340 is provided in the head 14 of the handle 1. When the carrier 3 rotates in the first direction, the pawl portion 454 can smoothly pass through the ratchet portion 340, and the carrier 3 is in a released state, allowing the cleaning component 2 to be switched to the working position. Conversely, when the carrier 3 rotates in the opposite direction to the first direction, the pawl portion 454 engages with the ratchet portion 340, and the carrier 3 is in a locked state, allowing the cleaning component 2 to be used normally. Typically, the direction when the user pushes the hair remover with the handle 1 can be set as the first direction, and the direction when pulling the hair remover can be set as the opposite direction. Pulling the hair remover conforms to the user's usage habits. At this time, it is ensured that the carrier 3 is in a locked state, and the cleaning component 2 can complete the hair removal work normally.

[0082] Reference Figure 23 In some embodiments, the first mounting part 33 is rotatably connected to the head 14 of the handle 1, and the first mating part 34 includes a first friction surface 341; the locking member 45 is fixed to the head 14 of the handle 1, and the locking member 45 is provided with a second friction surface 455. The second friction surface 455 and the first friction surface 341 abut against each other and form a friction damping force. When the bearing member 3 is not subjected to external force, the friction damping force restricts the rotation of the bearing member 3 and keeps it in a locked state. Specifically, the first friction surface 341 is formed on the end face 301 of the bearing body 30, and the second friction surface 455 is formed on the inner side of the head 14. Under normal conditions, the first friction surface 341 and the second friction surface 455 abut against each other to form a frictional damping force, and this frictional damping force is greater than the rotational torque of the bearing 3 during use. That is, when the user pulls the hair remover normally to remove hair, the frictional damping force formed by the first friction surface 341 and the second friction surface 455 abutting against each other restricts the movement of the bearing 3. However, the user can hold the bearing body 30 with his hand and apply an external force greater than the frictional damping force to make the bearing 3 rotate, so as to switch different cleaning parts 2 to be placed in the working position.

[0083] Obviously, the embodiments described above are only some embodiments of this utility model, not all embodiments. The accompanying drawings show preferred embodiments of this utility model, but do not limit the patent scope of this utility model. This utility model can be implemented in many different forms; rather, the purpose of providing these embodiments is to provide a more thorough and comprehensive understanding of the disclosure of this utility model. Although this utility model has been described in detail with reference to the foregoing embodiments, those skilled in the art can still modify the technical solutions described in the foregoing specific embodiments, or make equivalent substitutions for some of the technical features. Any equivalent structures made using the content of this utility model specification and drawings, directly or indirectly applied to other related technical fields, are similarly within the patent protection scope of this utility model.

Claims

1. A hair removal device, characterized in that, include: The handle (1) includes a hand grip (13) and a head (14); Multiple cleaning components (2); A carrier (3) is mounted on the head (14) of the handle (1). The carrier (3) has a reference axis (S) extending along its length direction. The plurality of cleaning components (2) are disposed on the carrier (3) and distributed circumferentially along the reference axis (S). A locking component (4) is provided on the handle (1), and the locking component (4) is used to cooperate with the carrier (3) so that the carrier (3) is in a locked state or a released state; In the locked state, the carrier (3) remains fixed relative to the handle (1) so that either of the cleaning components (2) is in the working position for hair removal; in the released state, the carrier (3) can be switched to the other cleaning component (2) in the working position.

2. The hair removal device according to claim 1, characterized in that, The support member (3) is rotatably mounted on the head (14) of the handle (1), and the support member (3) is rotatable about its reference axis (S); the locking component (4) is used to restrict the rotation of the support member (3) in the locked state and allow the support member (3) to rotate about the reference axis (S) in the released state; the reference axis (S) of the support member (3) is perpendicular to the length direction of the handheld part (13).

3. The hair removal device according to claim 2, characterized in that, The support member (3) includes a support body (30), connecting portions (31) provided at both ends of the support body (30), and multiple support surfaces (300) provided on the support body (30); The connecting part (31) is rotatably connected to the head (14) of the handle (1); Multiple bearing surfaces (300) are distributed circumferentially along the reference axis (S), and multiple cleaning components (2) are respectively disposed on multiple bearing surfaces (300). The length direction of the cleaning component (2) is parallel to the reference axis (S).

4. The hair removal device according to claim 3, characterized in that, The carrier body (30) is provided with at least one mounting groove (302), and the carrier (3) further includes a cover plate (32), which can cover the mounting groove (302), and the side away from the mounting groove (302) forms the carrier surface (300), and at least one part of the cleaning component (2) is pressed into the mounting groove (302) by the cover plate (32).

5. The hair removal device according to claim 1, characterized in that, The cleaning components (2) are made of different materials; the cleaning components (2) include one or more of the following: metal brush (21), plastic brush (22), rubber brush (23) and flexible brush cloth (24).

6. The hair removal device according to claim 1, characterized in that, The connection between the head (14) and the handheld part (13) of the handle (1) together with the reference axis (S) forms a reference plane (P1); the cleaning component (2) in the locked state together with the reference axis (S) forms a working surface (P2); the included angle (β) between the reference plane (P1) and the working surface (P2) ranges from 30° to 60°.

7. The hair removal device according to claim 2, characterized in that, The handle (1) has a receiving cavity (10) inside; the carrier (3) includes a carrier body (30) and connecting parts (31) at both ends of the carrier body (30); a plurality of cleaning components (2) are disposed on the carrier body (30); the connecting parts (31) are rotatably connected to the head (14) of the handle (1). The locking component (4) includes two connectors (40), which respectively cooperate with the connecting portions (31) at both ends of the carrier (3); The connector (40) includes a connector body (400) and a locking part (401) disposed at the end of the connector body (400). The connecting body (400) is movably installed in the receiving cavity (10) of the handle (1), and the locking part (401) can be engaged with the connecting part (31) of the carrier (3) to fix the carrier (3) to the head (14) of the handle (1) in the locked state.

8. The hair removal device according to claim 7, characterized in that, The connecting body (400) is slidably installed in the receiving cavity (10). The connector (40) also includes a movable part (402) disposed at the end of the connecting body (400) away from the locking part (401). The sliding direction of the movable part (402) is the same as the sliding direction of the locking part (401). The locking assembly (4) also includes an operation button (41), which is slidably mounted in the receiving cavity (10) and is at least partially exposed on the outer surface of the handle (1); The operation button (41) abuts against the movable part (402). By sliding the operation button (41), the locking part (401) can be engaged or disengaged from the connecting part (31).

9. The hair removal device according to claim 8, characterized in that, The locking assembly (4) further includes a first elastic reset member (42), which is disposed in the receiving cavity (10) and connected to the movable parts (402) of the two connectors (40) respectively. The operation button (41) is slid to engage with the movable parts (402), so that the two movable parts (402) move away from each other, the locking part (401) is disengaged from the connector (31), and the first elastic reset member (42) is deformed by force. The first elastic reset member (42) can drive the two movable parts (402) to move closer to each other and reset the operation button (41), and the locking part (401) is engaged with the connector (31).

10. The hair removal device according to claim 1, characterized in that, The carrier (3) includes a carrier body (30), a plurality of carrier surfaces (300) provided on the carrier body (30), a first mounting part (33) and a first mating part (34) provided at both ends of the carrier body (30); the carrier body (30) is mounted on the head (14) of the handle (1) through the first mounting part (33); the plurality of carrier surfaces (300) are distributed circumferentially along the reference axis (S), and the plurality of cleaning components (2) are respectively provided on the plurality of carrier surfaces (300); The locking component (4) includes a locking member (45) which is installed on the head (14) of the handle (1) and can be connected and engaged with the first mating part (34) to lock the carrier (3).

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