Hair cutting roller brush and cleaning device with reusable drive structure

Abstract

A hair-cutting roller brush with a reusable drive structure, comprising a roller brush holder, a blade (1) and a rotating cylinder (2), the blade (1) being disposed within the rotating cylinder (2) of the roller brush, and synchronously driven by the drive structure to reciprocate and cut hair as the rotating cylinder (2) rotates. The roller brush holder has two sides, namely a first side (25) and a second side (26). The second side (26) is provided with a part or the whole of the drive structure, and the other end of the rotating cylinder (2) is provided with a socket hole that is axially socketed with the part of the drive structure (26) held on the second side (26). The axial socket mounting is for axially mounting the other end of the rotating cylinder (2) to the second side (26) by axial socket mounting, while one end of the rotating cylinder (2) is axially and axially socketed to the first side (25) with an axial socketing motion. When the rotating cylinder (2) is removed, the rotating cylinder (2) is removed in the reverse direction of the axial socketing movement while the part of the drive structure held on the second side (26) remains held on the second side (26). This contributes to reducing the cost of use. Furthermore, a cleaning device is proposed in which the hair-cutting roller brush is attached.

Description

[Technical Field]

[0001] The present disclosure relates to the technical field of cleaning roller brushes, and more particularly to a hair-cutting roller brush and cleaning device with a reusable drive structure. [Background technology]

[0002] The present applicant has made in-depth research into the field of cleaning. Through continuous research, the applicant has invented a hair-cutting roller brush. The blade of the hair roller brush is disposed on the rotary cylinder of the roller brush. As the rotary cylinder rotates, the blade moves back and forth to cut hair, and is driven synchronously by a driving mechanism to achieve the purpose of efficiently cutting hair and other debris. For detailed technical solutions, please refer to the Chinese patent with the patent publication number CN105982615B.

[0003] During the course of manufacturing, management and research, the applicant has found that although the above technical solution is relatively ingenious and reliable, currently, in order to realize the attachment and detachment of the hair-cutting roller brush, a driving structure is generally attached to the hair-cutting roller brush, so when the hair-cutting roller brush is replaced, the driving structure is also discarded, which results in high usage costs. Summary of the Invention [Problem to be solved by the invention]

[0004] The technical problem to be solved by the present invention is to overcome the drawbacks of the prior art by proposing a hair-cutting roller brush with a reusable drive structure, which contributes to reducing the cost of use, and also by proposing a cleaning device attached to the hair-cutting roller brush. [Means for solving the problem]

[0005] Compared with the prior art, the present invention proposes a hair-cutting roller brush, which includes a roller brush holder, a blade, and a rotating cylinder. The blade is disposed in the rotating cylinder of the roller brush, and is synchronously driven by a driving mechanism so that the blade reciprocates and cuts hair as the rotating cylinder rotates. The roller brush holder has two sides, i.e., a first side and a second side. Part or all of the driving mechanism is provided on the second side, and the other end of the rotating cylinder is provided with a socket hole that is axially socket-mounted with the part of the driving mechanism held on the second side. The axial socket mounting is for axially mounting the other end of the rotating cylinder to the second side through axial socket mounting, while one end of the rotating cylinder is axially mounted to the first side through an axial socketing motion. When the rotating cylinder is to be removed, the part of the driving mechanism held on the second side remains held on the second side, and the rotating cylinder is removed in the opposite direction of the axial socketing motion.

[0006] As an improvement, the drive structure comprises a gear transmission structure and a reciprocating structure, the part held on the second side of the drive structure refers to the gear transmission structure, the reciprocating structure is disposed in the rotary cylinder, the reciprocating structure can be attached and detached together with the rotary cylinder, the planetary gear transmission mechanism and the reciprocating structure are detachably connected, the gear transmission structure is for driving the reciprocating movement of the reciprocating structure, and the reciprocating structure moves reciprocally to drive the reciprocating movement of the blade.

[0007] As an improvement, an input side is provided on the second side, and the input side is connected to the rotating cylinder and / or the gear transmission structure. When the input side is connected to the rotating cylinder, the input side is for driving the rotating cylinder to rotate, and the rotating cylinder rotates to further drive and rotate the gear transmission structure, and the gear transmission structure rotates to drive the reciprocating structure to reciprocate. When the input side is connected to the gear transmission structure, the input side is for driving the gear transmission structure to rotate, and the gear transmission structure rotates to further drive and rotate the rotating cylinder, and the gear transmission structure rotates to drive the reciprocating structure to reciprocate. When the input side is connected to the gear transmission structure, the input side is for driving the gear transmission structure to rotate, and the gear transmission structure rotates to further drive and rotate the rotating cylinder, and the gear transmission structure rotates to drive the reciprocating structure to reciprocate. Gear transmission structure When both are connected to each other, the input side drives the rotary cylinder and the gear transmission structure to rotate together, and the gear transmission structure rotates to drive the reciprocating structure to reciprocate.

[0008] As an improvement, a first drive shaft is provided on the input side, a fixed part is socket-mounted on the first drive shaft, the first drive shaft is rotatable around the fixed part, and the aforementioned gear transmission structure is attached to the fixed part.

[0009] As an improvement, a rotary coupling portion is provided on the first drive shaft, and the rotary coupling portion is coupled to a gear transmission structure, and the rotary coupling portion drives and rotates the gear transmission structure, and the gear transmission structure further drives and rotates the rotary cylinder.

[0010] As an improvement, the gear transmission structure adopts a planetary gear transmission mechanism, and a fixed part is provided on the second side, the sun gear of the planetary gear transmission mechanism is fixedly connected to the fixed part, the gear ring of the planetary gear transmission mechanism is connected to the rotating cylinder, and the planet carrier of the planetary gear transmission mechanism is the transmission output to drive the reciprocating structure to move.

[0011] As an improvement, the gear ring is provided with a right end cover, which is connected to a rotary connection, which drives and rotates the gear ring by means of said right end cover, which in turn drives and rotates the rotary cylinder.

[0012] As an improvement, an axial connector is provided at one end of the gear transmission structure close to the reciprocating structure, and the gear ring and the rotating cylinder are axially detachably connected by the axial connector. After being axially connected, the axial connector is simultaneously used as a circumferential transmission connector, through which the rotating cylinder drives the gear ring to rotate together.

[0013] As an improvement, the reciprocating structure comprises a rotor having a circumferential track, the track being associated with a drive member, the drive member being connected to the blade.

[0014] As an improvement, a second drive shaft is connected to the rotating body, and the second drive shaft is socket-mounted to the rotating body so that it can move back and forth in the axial direction and is axially and circumferentially connected to the rotating body in a transmission manner, and elastic members are provided on both ends of the rotating body, and the elastic members elastically support the rotating body.

[0015] As an improvement, the track adopts a guide groove arranged on the circumferential surface of the rotating body and rotating in the axial direction, and balls are provided on both ends of the driving member, and the driving member and the guide groove are fitted together so that the balls can roll.

[0016] As an improvement, the reciprocating structure is placed in a separate compartment. [Effects of the Invention]

[0017] By adopting the above-mentioned structure, compared with the prior art, the present invention has the following advantages: by arranging part or all of the drive structure on the second side surface, the other end of the rotating cylinder is provided with a socket hole that is axially socket-mounted to the part of the drive structure that is held on the second side surface, and the axial socket mounting is for axially mounting the other end of the rotating cylinder to the second side surface through the axial socket mounting, while at the same time, one end of the rotating cylinder is axially mounted to the first side surface through an axial socketing motion. When the rotating cylinder is to be removed, the part of the drive structure that is held on the second side surface remains held on the second side surface, and the rotating cylinder is removed in the opposite direction of the axial socketing motion. Therefore, when replacing the hair roller brush, only the rotating cylinder and the structure mounted thereon need to be replaced, and the drive structure can be reused to a certain extent, which helps reduce usage costs.

[0018] Furthermore, since it is extremely difficult to create a speed difference at the same end and the structure is extremely complicated, after adopting the technical solution of the present invention, the basic structure that creates the speed difference was changed, opening up a new technological route, which is a very original innovation.

[0019] Compared with the prior art, the present invention also provides a cleaning device, which comprises a suction port, and the suction port is provided with the aforementioned hair-cutting roller brush. After adopting the above structure, the present invention has the following advantages over the prior art, that is, the cleaning device adopting the cutting brush described in the roller brush above has lower usage costs. [Brief explanation of the drawings]

[0020] [Figure 1] FIG. 2 is a three-dimensional view of the cleaning device viewed obliquely from above. [Figure 2] FIG. 2 is a three-dimensional view of the cleaning device viewed from diagonally below. [Figure 3] FIG. 2 is a three-dimensional view of the rotating cylinder removed along its axial direction. [Figure 4]This is an enlarged view. [Figure 5] FIG. 10 is a three-dimensional view of the side cover on the second side surface. [Figure 6] FIG. 2 is a three-dimensional view mainly showing a drive connection state. [Figure 7] 1 is a schematic diagram of a half cross section of a hair-cutting roller brush along its axial direction; FIG. [Figure 8] FIG. 1 is a three-dimensional view mainly showing a reciprocating structure. DETAILED DESCRIPTION OF THE INVENTION

[0021] The following description is intended to disclose the present invention so that those skilled in the art can practice the invention. The embodiments in the following description are merely examples, and those skilled in the art may envision other obvious variations. The basic principles of the present invention defined in the following description may be applied to other embodiments, modified technical solutions, improved technical solutions, equivalent technical solutions, and other technical solutions without departing from the spirit and scope of the present invention.

[0022] The present invention will now be described in further detail. It should be noted that "hair cutting" is an abbreviation, and it does not simply mean cutting hair; although cutting hair is of course the main focus, the subject of "hair cutting" also includes objects that can be cut.

[0023] The present invention provides a cleaning device, which comprises a suction port, and the suction port is provided with the aforementioned hair-cutting roller brush. In this application, the term "cleaning device" generally refers to a household or small-sized cleaning device, such as a vacuum cleaner suction head, a sweeper, a floor scrubber, etc. This is also a feature of the hair-cutting brush of the present invention, that is, the overall structural size is suitable for small-sized cleaning devices.

[0024] For example, the cleaning device shown in Figures 1 and 2 is a suction head of a vacuum cleaner. This suction head includes a roller brush holder. The roller brush holder has two sides, a first side 25 and a second side 26. To operate the hair-cutting roller brush of the present invention, a first drive wheel 22, a drive belt 23, and a second drive wheel 24 are provided on the second side 26. The first drive wheel 22 is driven by an electric motor assembly 40, and the first drive wheel 22 drives and rotates the second drive wheel 24 via the drive belt 23. The second drive wheel 24 is connected to the first drive shaft 11, and a second bearing 17 is disposed between the first drive shaft 11 and the second side 26. The second bearing 17 rotatably supports the first drive shaft 11, and the first drive shaft 11 is socketed in the fixed portion 4. The right end of the fixed part 4 is plugged into and fixed in the plug-in fixing hole 37 in the side cover 34 of the second side surface 26, while the left end of the fixed part 4 extends inward so that a gear transmission structure can be attached.

[0025] When installing the hair-cutting roller brush of the present invention, the rotating cylinder 2 is axially socket-mounted toward the gear transmission structure, and the other end of the rotating cylinder 2 is mounted to the second side surface 26 through this axial socket mounting, while one end of the rotating cylinder 2 is axially mounted to the first side surface 25 through an axial socketing motion. When removing the rotating cylinder 2, the gear transmission structure is held on the second side surface 26, and the rotating cylinder 2 is removed in the opposite direction of the axial socketing motion. After removal, the state will be as shown in Figure 3. A removal handle 39 is provided on one end of the rotating cylinder 2 for secure connection and convenient removal. A locking mechanism is provided between the removal handle 39 and the roller brush holder, which can take various forms, and in this example, a snap lock 21 is adopted, as shown in Figure 2. To remove the lock, the snap lock 21 is first released and separated from the insertion hole 38 located on the removal handle 39, after which the rotary cylinder 2 can be removed axially while part of the drive structure, i.e., the gear transmission structure in this example, remains held on the second side. Alternatively, the rotary cylinder 2 can be axially socket-mounted to the gear transmission structure, and at the same time, the rotary cylinder 2 is mounted between the first side 25 and the second side 26, after which the snap lock 21 is engaged and the deadbolt of the snap lock 21 is inserted into the insertion hole 38 to complete the locking.

[0026] The above-mentioned attachment / detachment structure is simple and reliable, and the attachment / detachment operation is convenient without the aid of tools.

[0027] As shown in Figures 2, 3, 6, and 7, the hair-cutting roller brush comprises a blade 1 and a rotating cylinder 2. The blade 1 is provided with a blade head 3. The blade 1 is disposed within the rotating cylinder 2 of the roller brush, and is synchronously driven by a drive mechanism so that as the rotating cylinder 2 rotates, the blade 1 reciprocates and cuts hair. Part or all of the drive mechanism is provided on the second side 26, and the other end of the rotating cylinder 2 is provided with a socket hole that is axially socket-mounted to the portion of the drive mechanism 26 held on the second side 26. The axial socket mounting is for axially mounting the other end of the rotating cylinder 2 to the second side 26 through the axial socket mounting, while at the same time, one end of the rotating cylinder 2 is axially mounted to the first side 25 in accordance with the axial socketing motion. When the rotating cylinder 2 is to be removed, the portion of the drive mechanism held on the second side 26 remains held on the second side 26, and the rotating cylinder 2 is removed in the opposite direction of the axial socketing motion.

[0028] The main function of the drive structure is that it converts the rotational motion of the input side into a reciprocating movement of the blade 1. Any suitable moving part may be applied to the present invention.

[0029] The drive structure includes a gear transmission structure and a reciprocating structure. In this example, the portion of the drive structure held on the second side 26 is referred to as the gear transmission structure. The reciprocating structure is located within the rotary cylinder 2 and can be detached together with the rotary cylinder 2, with the planetary gear transmission mechanism and the reciprocating structure detachably connected. The gear transmission structure is used to drive the reciprocating movement of the reciprocating structure. This promotes structural simplification, achieves the objectives of the present invention, and reduces the complexity and difficulty of setting up the drive structure. Furthermore, the above design primarily relies on the gear transmission structure to handle changes in reciprocating speed, promoting structural simplification. Furthermore, the reciprocating speed can be more accurately controlled, resulting in better hair-cutting results.

[0030] An input side is provided on the second side 26, and the input side is connected to the rotary cylinder 2 and / or the gear transmission structure. When the input side is connected to the rotary cylinder 2, the input side drives the rotary cylinder 2 to rotate, and the rotary cylinder 2 rotates to further drive and rotate the gear transmission structure, and the gear transmission structure rotates to drive the reciprocating structure to move back and forth. When the input side is connected to the gear transmission structure, the input side drives the gear transmission structure to rotate, and the gear transmission structure rotates to further drive and rotate the rotary cylinder 2, and the gear transmission structure rotates to drive the reciprocating structure to move back and forth. When the input side is connected to the gear transmission structure, the input side drives the gear transmission structure to rotate, and the gear transmission structure rotates to further drive and rotate the rotary cylinder 2, and the gear transmission structure rotates to drive the reciprocating structure to move back and forth. Gear transmission structure When both are connected to each other, the input side drives the rotary cylinder 2 and the gear transmission structure to rotate together, and the gear transmission structure rotates to drive the reciprocating structure to reciprocate. This design promotes a compact structure.

[0031] In this example, the input side is connected to the gear transmission structure, and the input side drives the gear transmission structure to rotate, the gear transmission structure further drives the rotating cylinder 2 to rotate, and the gear transmission structure drives the reciprocating structure to reciprocate. This design promotes a compact structure and reduces the size of the structure.

[0032] A first drive shaft 11 is provided on the input side, and a fixed part 4 is socket-mounted on the first drive shaft 11. The first drive shaft 11 is rotatable around the fixed part 4, and the aforementioned gear transmission structure is attached to the fixed part. This design promotes a compact structure and effectively reduces the volume of the entire structure.

[0033] The first drive shaft 11 is provided with a rotary coupling 30, which is coupled to the gear transmission structure, and the gear transmission structure drives and rotates the rotary cylinder 2. This design contributes to a compact structure and effectively reduces the overall volume of the structure.

[0034] The gear transmission structure employs a planetary gear transmission mechanism, with a fixed part 4 provided on the second side 26, a sun gear 5 of the planetary gear transmission mechanism fixedly connected to the fixed part 4, a gear ring 6 of the planetary gear transmission mechanism connected to the rotating cylinder 2, and a planet carrier 7 of the planetary gear transmission mechanism as a transmission output to drive and move the reciprocating structure. This design promotes a compact structure and effectively reduces the overall volume of the structure.

[0035] In addition, the gear ring 6 is provided with a right end cover, which is connected to the rotary connector 30, which drives and rotates the gear ring 6 via the right end cover, and the gear ring 6 further drives and rotates the rotary cylinder. This design promotes a compact structure and effectively reduces the overall volume of the structure.

[0036] As shown in Figure 7, after the hair-cutting roller brush is disposed between the first side surface 25 and the second side surface 26, the fixed part 4, the gear transmission structure, and the reciprocating structure are sequentially disposed axially from right to left along the rotating cylinder 2. In this way, it is easy to reduce the structural size in the lateral direction.

[0037] In this example, the fixed part 4 is designed as an axis, and the gear transmission structure has three planetary carriers 7 arranged in parallel, three sun gears 5, and three sets of planetary gears. As shown in Figure 7, the fixed part 4 is connected to the sun gear 5 at the right end of the gear transmission structure and outputs through the planetary carrier 7 at the left end of the gear transmission structure.

[0038] In this example, the leftmost planetary carrier 7 is connected to the output shaft, which is connected to the first coupling part 35. The first coupling part 35 is connected to the second coupling part 36, which is connected to the second drive shaft 12 of the reciprocating structure. The first coupling part 35 is axially detachably connected to the second coupling part 36, and then circumferentially operably connected. The gear transmission structure and the reciprocating structure realize the axially detachable connection via the first coupling part 35 and the second coupling part 36, and then circumferentially operably connected. This design has a simple structure, high reliability, and convenient connection.

[0039] In this example, the gear ring 6 is axially and detachably mounted in a socket on the rotary cylinder 2, and after being socket mounted, is circumferentially transmission-coupled. A left end cover 31 is fixed to the left end of the gear ring 6, and a right end cover 32 is fixed to the right end of the gear ring 6. The left end cover 31, gear ring 6, and right end cover 32 form a cavity, in which the planet gears, planet carrier 7, and sun gear 5 are disposed. This is advantageous for protecting the planet gears, planet carrier 7, and sun gear 5, and also promotes a compact structure and the formation of a modular structure, which will be described later.

[0040] In this example, both the left end cover 31 and the right end cover 32 are provided with bearings, the bearing of the right end cover 32 is connected to the fixed part 4, the bearing of the left end cover 31 is connected to the output shaft, and the insertion part of the fixed part 4 is connected to the sun gear 5, so that the rotating cylinder 2 can rotate relative to the fixed part 4, i.e., the other end of the rotating cylinder 2 can rotate relative to the second side surface 26, while at the same time the sun gear 5 is fixed and does not move. This type of design helps to make the structure more compact.

[0041] In this example, the structure in which one end of the rotating cylinder 2 rotates relative to the first side surface 25 includes a first bearing 16 arranged at one end of the rotating cylinder 2 and a rotary connecting shaft 27, the first bearing 16 is fixed to the handle 39, the rotary connecting shaft 27 is connected to the first bearing 16, the first bearing 16 rotatably supports the rotary connecting shaft 27, and the rotary connecting shaft 27 is also fixed to the rotating cylinder 2, so that the rotatable connection of one end of the rotating cylinder 2 to the first bearing 16 via the rotary connecting shaft 27 can realize a structure in which one end of the rotating cylinder 2 rotates relative to the first side surface 25.

[0042] As shown in Figures 7 and 8, the reciprocating structure includes a rotor 8 with a circumferential track 9, and a driving member 10 is coupled to the track 9, which is connected to the blade 1. This design has a simple structure and high reciprocating reliability.

[0043] The raceway 9 employs a guide groove disposed around the periphery of the rotor 8 and rotating in the axial direction, and balls 15 are provided on both ends of the driving member 10, and the driving member 10 and the guide groove are fitted with the balls 15 in a rolling manner. This design helps to restrict the lateral size and also reduces friction during movement, making reciprocating movement more convenient. Other anti-friction structures can also be used, but will not be repeated here.

[0044] In addition, a second drive shaft 12 is connected to the rotor 8. The second drive shaft 12 is socket-mounted to the rotor 8 so as to be axially reciprocating and circumferentially transmissively connected thereto. Elastic members 13 are provided at both ends of the rotor 8, respectively, to elastically support the rotor 8. This design is an important anti-jam design for the blade 1. According to the design, if the blade 1 is stuck due to an unexpected event, the rotor 8 moves along the axial direction of the second drive shaft 12, while the rotary cylinder 2 can still rotate. This protects the blade 1, the rotor 8, the gear transmission structure, and other related structures. Furthermore, the rotary cylinder 2 and other related structures can be equipped with different elastic members 13 or elastic members 13 with variable elasticity, facilitating adjustment of the cutting force of the blade 1. Furthermore, this design provides a technical means for relatively easy adjustment of the cutting force, and this simple adjustment of cutting force is of great significance.

[0045] In this example, for the sake of convenience in manufacturing and assembly, the structure of the axially reciprocating socket mounting and circumferentially transmission connection is, for example, such that an axial groove is provided in the rotor 8, and an axial protrusion is provided in the circumferential direction on the right part thereof, and the axial groove and the axial protrusion are axially socket mounted and movably fitted.

[0046] To facilitate the installation of the elastic member 13, the elastic member 13 is a compression spring, and gaskets 14 are provided on both ends of the right section, namely the left gasket 14 and the right gasket 14. Compression springs are disposed between the left gasket 14 and the left side of the rotor 8, and between the right gasket 14 and the right side of the rotor 8, respectively. This design ensures a secure connection. Furthermore, there is another use: by adjusting the position of the gasket 14, the compression degree of the compression spring can be changed, thereby changing the hair-cutting force of the blade 1. This also improves the versatility of the part, eliminating the need to prepare too many different types of compression springs.

[0047] The output shaft is inserted into the cavity via the left end cover 31, and the output shaft is connected to the planetary carrier 7.

[0048] After the above design, a relatively independent module can be obtained, which includes the output shaft, the left end cover 31, the planetary gear transmission mechanism, the right end cover 32, and the fixing part 4, that is, the above-mentioned assembly can be assembled into one module, and then the module can be connected with other structures of the hair-cutting brush, which greatly facilitates production assembly, further improves production quality, and promotes stable production quality.

[0049] In this example, the reciprocating structure is arranged in an independent compartment 20. This design contributes to protecting the reciprocating structure, and in addition, the left and right partitions of the compartment 20 can also be used as mounting positions for the third bearing 28 and the fourth bearing 29, which rotationally support the second drive shaft 12, making the structure compact and the left and right partitions also providing a certain amount of strength, making the structure of the rotary cylinder 2 more stable.

[0050] To achieve better hair curl prevention performance, a seal ring 19 is disposed between the second side surface 26 and the rotary cylinder 2. Specifically, in this example, a rotary matching sleeve 18 is provided on the second side surface 26, and the seal ring 19 is sleeved between the peripheral wall of the other end (i.e., the right end) of the rotary cylinder 2 and the rotary matching sleeve 18, and the seal ring 19 rotates together with the rotary cylinder 2. The seal ring 19 is, for example, an oil seal.

[0051] To facilitate the axially detachable connection between the gear transmission structure and the rotating cylinder 2 and the subsequent circumferentially transmission connection therebetween while effectively reducing the lateral size, an axial connector 33 is provided at one end of the gear transmission structure near the reciprocating structure, as shown in Figures 3 and 4. The gear ring 6 and the rotating cylinder 2 are axially detachably connected by the axial connector 33. After the axial connection, the axial connector 33 also serves as a circumferential transmission connector, allowing the rotating cylinder 2 to drive the gear ring 6 to rotate together. There are two axial connectors 33, which are evenly distributed circumferentially along the end of the gear transmission structure near the reciprocating structure.

[0052] In understanding the present invention, the above structure can be understood by referring to other embodiments and drawings as necessary, and will not be repeated here. It should be noted that the above is only an illustrative embodiment of the present invention, and all equivalent changes or modifications made according to the structures, features and principles described in the protection scope of the present invention patent are included in the protection scope of the present invention patent. [Explanation of symbols]

[0053] 1 blade 2 rotating cylinders 3 blade head 4 Fixed part 5 Sun Gear 6 Gear Ring 7 Planet Carrier 8 Rotating Body 9 orbit 10 Driving member 11 First drive shaft 12 Second drive shaft 13 Elastic member 14 Gasket 15 balls 16 First bearing 17 Second bearing 18 Rotating Matching Sleeve 19 Seal ring 20 compartments 21 Snap Lock 22 First driving wheel 23 Drive belt 24 Second driving wheel 25 First Aspect 26 The Second Aspect 27 Rotating connecting shaft 28 Third bearing 29 Fourth Bearing 30 Rotating connection 31 Left end cover 32 Right end cover 33 Axial Connector 34 Side cover 35 First part of the joint 36 Second part of the joint 37 Plug-in fixing hole 38 Insertion hole 39 Handle 40 Electric Motor Assembly

Claims

1. a hair-cutting roller brush with a reusable drive structure, comprising a roller brush holder, a blade, and a rotating cylinder, wherein the blade is disposed within the rotating cylinder of the roller brush, and the rotating cylinder is provided with an elongated blade slot for disposing the blade therein, and the blade is synchronously driven by the drive structure to reciprocate as the rotating cylinder rotates and cut hair; the roller brush holder has two sides, i.e., a first side and a second side, and the second side is provided with a part or all of the drive structure; the other end of the rotating cylinder is provided with a socket hole that is axially socket-mounted with a portion of the drive structure held on the second side, and the axial socket-mounting is for axially mounting the other end of the rotating cylinder to the second side by the axial socket-mounting; and at the same time, one end of the rotating cylinder is axially mounted to the first side with an axial socketing motion; and when the rotating cylinder is removed, the rotating cylinder is removed in the opposite direction of the axial socketing motion, while the portion of the drive structure held on the second side is still held on the second side; A hair-cutting roller brush with a reusable drive structure, characterized in that the drive structure comprises a gear transmission structure and a reciprocating structure, the part held on the second side of the drive structure refers to the gear transmission structure, the reciprocating structure is disposed in a rotating cylinder, the reciprocating structure can be attached and detached together with the rotating cylinder, the gear transmission structure and the reciprocating structure are detachably connected, the gear transmission structure is for driving the reciprocating movement of the reciprocating structure, and the reciprocating structure moves reciprocally and drives the reciprocating movement of the blade.

2. 2. The hair-cutting roller brush with reusable driving structure according to claim 1, wherein the second side has an input side, which is connected to the rotary cylinder and / or the gear transmission structure. When the input side is connected to the rotary cylinder, the input side drives the rotary cylinder to rotate, which rotates to further drive and rotate the gear transmission structure, and the gear transmission structure rotates to drive the reciprocating structure to move back and forth. When the input side is connected to the gear transmission structure, the input side drives the gear transmission structure to rotate, which rotates to further drive and rotate the rotary cylinder, and the gear transmission structure rotates to drive the reciprocating structure to move back and forth. When the input side is connected to both the rotary cylinder and the gear transmission structure, the input side drives the rotary cylinder and the gear transmission structure to rotate together, and the gear transmission structure rotates to drive the reciprocating structure to move back and forth.

3. 3. A hair cutting roller brush with a reusable drive structure as described in claim 2, characterized in that a first drive shaft is provided on the input side, a fixed part is socket-mounted on the first drive shaft, the first drive shaft is rotatable around the fixed part, and a gear transmission structure is attached to the fixed part.

4. The hair-cutting roller brush with a reusable driving structure according to claim 3, characterized in that the first driving shaft is provided with a rotary coupling part, which is coupled with a gear transmission structure, which drives and rotates the gear transmission structure, and the gear transmission structure further drives and rotates the rotary cylinder.

5. The hair-cutting roller brush with a reusable driving structure according to claim 2, 3 or 4, characterized in that the gear transmission structure adopts a planetary gear transmission mechanism, and a fixed part is provided on the second side, the sun gear of the planetary gear transmission mechanism is fixedly connected to the fixed part, the gear ring of the planetary gear transmission mechanism is connected to the rotating cylinder, and the planet carrier of the planetary gear transmission mechanism is used as a transmission output to drive and move the reciprocating structure.

6. The hair cutting roller brush with a reusable driving structure as described in claim 5, characterized in that the gear ring is provided with a right end cover, the right end cover is connected to a rotary coupling part, the rotary coupling part drives and rotates the gear ring by the right end cover, and the gear ring further drives and rotates the rotary cylinder.

7. The hair cutting roller brush with a reusable driving structure according to claim 5, characterized in that an axial connector is provided at one end of the gear transmission structure close to the reciprocating structure, the gear ring and the rotating cylinder are axially detachable by the axial connector, and after axial connection, the axial connector is simultaneously used as a circumferential transmission connector, through which the rotating cylinder drives the gear ring to rotate together.

8. The hair cutting roller brush with a reusable drive structure according to claim 1 or 2, characterized in that the reciprocating mechanism comprises a rotating body with a track provided in a circumferential direction, a drive member combined with the track, and the drive member connected to the blade.

9. 9. The hair cutting roller brush with a reusable drive structure according to claim 8, wherein a second drive shaft is connected to the rotor, the second drive shaft is socket-mounted to the rotor so as to be reciprocatingly movable in the axial direction and is circumferentially connected to the rotor, and elastic members are provided on both ends of the rotor, respectively, for elastically supporting the rotor.

10. The hair cutting roller brush with a reusable driving structure according to claim 9, characterized in that the track adopts a guide groove arranged on the circumferential surface of the rotating body and rotating in the axial direction, and balls are provided on both ends of the driving member, and the driving member and the guide groove are fitted together so as to be able to roll with the balls.

11. 3. The hair-cutting roller brush with a reusable drive mechanism according to claim 1 or 2, wherein the reciprocating mechanism is arranged in an independent compartment.

12. 10. A cleaning device having a suction port, the cleaning device employing a reusable hair-cutting roller brush as claimed in claim 1, characterized in that the suction port is provided with the reusable hair-cutting roller brush as the driving mechanism.

Images