Cutting device

Abstract

This utility model relates to the field of cutting tool technology, and particularly to a cutting device for pruning branches, etc. The cutting device of this utility model includes a carrier assembly, a drive assembly, and a working assembly. The carrier assembly includes a handle portion and a drive device housing portion. The drive assembly includes a drive device and a drive output shaft coaxial with the drive device. The working assembly includes a fixed blade and a movable blade fitted and movably connected to the fixed blade. The drive output shaft is driven by the movable blade, allowing the movable blade to move relative to the fixed blade to achieve cutting. The drive device is rotatably fixed within the carrier assembly. Both the drive device and the drive output shaft have portions located within a curved section, and there is an angle of inclination between the axis of the drive device and the axis of the drive output shaft greater than zero degrees and less than 180 degrees. This utility model can reduce the overall height of the cutting device and improve the ease of use of the cutting device to a certain extent.

Description

Technical Field

[0001] This utility model relates to the field of cutting tools, and in particular to a cutting device for pruning branches, etc. Background Technology

[0002] Traditional garden pruning and shrub pruning cutting devices use a motor and reducer to drive the output shaft to rotate, which in turn drives the movable blade to move relative to the fixed blade for cutting.

[0003] However, in traditional cutting devices, the motor's axis is either coaxial with or parallel to the output shaft. This results in the motor occupying a large space in the height direction, requiring the housing to be correspondingly increased in height to accommodate the motor, thus increasing the overall thickness of the cutting device. To secure the motor within the housing, a fixing structure must be installed inside the housing to connect the motor. These fixing structures prevent the space within the housing around the motor from being used to accommodate batteries or other components, further contributing to the large overall size of the cutting device. Utility Model Content

[0004] One objective of this invention is to solve or alleviate the aforementioned technical problems.

[0005] The present invention employs a cutting device comprising a carrier assembly, a drive assembly, and a working assembly. The carrier assembly includes a handle and a drive device housing. The drive assembly includes a drive device and a drive output shaft coaxial with the drive device. The working assembly includes a fixed blade and a movable blade fitted to and movably connected to the fixed blade. The drive output shaft is driven by the movable blade, enabling the movable blade to move relative to the fixed blade and thus achieve cutting. The drive output shaft is rotatably connected to the carrier assembly, and the drive device is fixed within the carrier assembly. Both the drive device and the drive output shaft have portions located within the drive device housing, and there is an angle of inclination between the axis of the drive device and the axis of the drive output shaft that is greater than zero degrees and less than 180 degrees.

[0006] The advantages of this invention are that it reduces the overall height of the cutting device and improves the ease of use of the cutting device to a certain extent.

[0007] In a further technical solution, the surfaces where the movable blade and the fixed blade are in contact are cutting planes, and there is an intersection between the axis of the drive device and the cutting plane, with the intersection located outside the drive device housing.

[0008] This technical solution allows for a reduction in the overall height of the cutting device while also eliminating the need to significantly increase the length of the handle.

[0009] A further technical solution also includes an electronic control device, which is electrically connected to an output device; a receiving space is formed between the top of the inner cavity of the drive device receiving part and the drive device, and the output device is fixed to the top of the drive device receiving part and has a portion located within the receiving space.

[0010] This technical solution allows users to easily observe the information emitted by the electronic control device while also reducing the overall height of the cutting device.

[0011] A further technical solution involves providing bevel gears on both the rotary output end and the drive output shaft, with the bevel gears meshing with each other.

[0012] A further technical solution includes an electronic control device electrically connected to the drive device, the electronic control device being electrically connected to an input device, the input device including a start input device and a lock input device; a movable start trigger device is provided on the carrier assembly, the start trigger device facing the start input device, or a movable lock trigger device is provided on the carrier assembly, the lock trigger device facing the lock input device.

[0013] This technical solution enables the miniaturization of the cutting device.

[0014] In a further technical solution, the electronic control device is electrically connected to a power source, which is located on the carrier component.

[0015] A further technical solution includes a working component carrier fixedly connected to a fixed blade and a plug-in component. The drive output shaft is fixedly connected to the plug-in component. The plug-in component is provided with plug-in transmission teeth, and the plug-in component is provided with plug-in transmission teeth. The working component carrier and the drive device receiving part are detachably connected so that the plug-in transmission teeth of the plug-in component and the plug-in transmission teeth of the plug-in component are plugged in.

[0016] This technical solution allows for easy replacement of working components of different specifications or functions as needed.

[0017] A further technical solution includes a mounting fastener and a mounting elastic element on the working component carrier. The mounting fastener includes a mounting buckle, and the drive device receiving part is provided with a latched part. The mounting elastic element is connected to the working component carrier and the mounting fastener respectively, so that the mounting buckle tends to move closer to the latched part.

[0018] This technical solution allows for easy disassembly and installation of working components.

[0019] In a further technical solution, an eccentric body is provided on the bottom end face of the inserted component, and the movable tool includes a driven end provided with an eccentric body groove, wherein the eccentric body is inserted into the eccentric body groove in a fitting manner.

[0020] This technical solution can ensure relatively stable movement of the movable tool when the eccentric body drives the movement.

[0021] A further technical solution includes a height limiting edge at the driven end and an insertion flange at the inserted component; the inserted component passes through the top cover of the working component carrier and is movably connected to the working component carrier; the height limiting edge and the top cover of the working component carrier abut against the insertion flange, or the height limiting edge and the top cover of the working component carrier are close to the insertion flange; and when viewed from above during the rotation of the inserted component, the insertion flange always has a portion that overlaps with the height limiting edge.

[0022] This technical solution enables the rotatable connection between the plugged component and the working component carrier, and also facilitates the assembly of the working component. Attached Figure Description

[0023] Figure 1 This is an exploded perspective view of the cutting device according to an embodiment of the present invention. Figure 1 Although the figure shows both the scissor-type working component 38 and the saw-blade-type working component 39, it does not mean that the scissor-type working component 38 and the saw-blade-type working component 39 are used at the same time.

[0024] Figure 2 This is an exploded perspective view of the cutting device according to an embodiment of the present invention. Figure 2 .

[0025] Figure 3 This is a perspective view of the cutting device according to an embodiment of the present invention; the right half of the outer shell 18, the handle shell 19, the locking trigger device 814 and the protective cover 223 are not shown.

[0026] Figure 4 This is a half-sectional schematic diagram of the cutting device according to an embodiment of the present invention; line 1 represents the axis of the driving device 21; line 2 represents the axis of the driving output shaft 22.

[0027] Figure 5 This is an exploded perspective view of the scissor-type working component 38 according to an embodiment of the present invention. Figure 1 .

[0028] Figure 6 This is an exploded perspective view of the scissor-type working component 38 according to an embodiment of the present invention. Figure 2 .

[0029] Figure 7 This is a cross-sectional schematic diagram of the scissor-type working component 38 of an embodiment of the present invention; the cross-section of this diagram is the top surface of the height limiting edge 324; line 3 represents the imaginary outline of the flange 361 of the inserted component.

[0030] Figure 8This is a half-section perspective view of the saw blade working component 39 of an embodiment of the present invention.

[0031] Figure 9 This is a cross-sectional schematic diagram of the saw blade working component 39 according to an embodiment of the present invention; the cross-section of this diagram is the top surface of the height limiting edge 324.

[0032] The accompanying drawings in the specification that best illustrate the technical features of this utility model are: Figure 4 .

[0033] LINE1; LINE2; LINE3; Carrier assembly 1; Handle part 11; Drive device receiving part 12; Receiving space 121; Snap-on part 125; Left half shell 17; Right half shell 18; Handle shell 19; Drive assembly 2; Drive device 21; Rotary output end 211; Speed ​​change device 212; Drive output shaft 22; Bevel gear 221; Connector 222; Protective cover 223; Eccentric body 23; Tilt angle 28; Outer distance 29; Working assembly 3; Fixed blade 31; Fixed blade tooth 311; Movable blade 32; Movable blade tooth 321; Driven end 322; Eccentric groove 323; Height limiting edge 324; Cutting plane 33; Blade connection structure 34; Working component carrier 35; Mounting buckle 351; Mounting buckle 352; Mounting elastic element 353; Inserted component 36; Inserted component flange 361; Insertion transmission gear 369; Inserted transmission gear 3691; Scissor-type working component 38; Saw blade-type working component 39; Electrical control device 8; Input device 81; Start input device 811; Start trigger device 812; Locking trigger device 814; Output device 82; Power supply 83. Detailed Implementation

[0034] The specific embodiments of this utility model will now be described with reference to the accompanying drawings.

[0035] As a specific embodiment, the cutting device of this utility model includes a carrier component 1, a driving component 2, and a working component 3.

[0036] The carrier assembly 1 includes a handle portion 11 and a drive device receiving portion 12. For example, the carrier assembly 1 includes a left half shell 17 and a right half shell 18, which surround each other, and a handle shell 19 is fitted onto the tail of the left half shell 17 and the tail of the right half shell 18.

[0037] The drive assembly 2 includes a drive device 21 and a drive output shaft 22 coaxial with the drive device 21. It is easy to understand that the drive device 21 can be a motor and the drive output shaft 22 can be the motor shaft. Alternatively, the drive device 21 can be a motor connected to a speed change device 212 such as a planetary reducer and the drive output shaft 22 can be the output shaft of the speed change device 212.

[0038] The working component 3 includes a fixed blade 31 and a movable blade 32 that is fitted to and movably connected to the fixed blade 31 (through a blade connection structure 34); the drive output shaft 22 is driven to connect with the movable blade 32, allowing the movable blade 32 to move relative to the fixed blade 31 to achieve cutting. For example... Figure 5 As shown, the blade connection structure 34 is a rotating connection structure. The drive output shaft 22 drives the movable blade teeth 321 of the movable blade 32 to rotate relative to the fixed blade teeth 311 of the fixed blade 31, thus achieving a scissor-like cutting. At this time, the working component 3 is a scissor-type working component 38, which is typically used for cutting gardens; for example, Figure 8 As shown, the blade connection structure 34 is a linear sliding connection structure. The drive output shaft 22 drives the movable blade 32's movable teeth 321 to reciprocate linearly relative to the fixed blade 31's fixed teeth 311, achieving a saw-like cutting motion. In this case, the working component 3 is a saw-blade type working component 39, which is typically used for cutting shrubs. Of course, the movement of the movable blade 32 relative to the fixed blade 31 can also be other known movements in the prior art. It should be noted that the fixed blade 31 is only fixed relative to the movable blade 32; that is, the fixed blade 31 can also move relative to the carrier component 1.

[0039] The drive output shaft 22 is rotatably connected to the carrier assembly 1, for example, through a bearing; the drive device 21 is fixed inside the carrier assembly 1.

[0040] like Figure 4 As shown, both the drive device 21 and the drive output shaft 22 have portions located within the drive device receiving portion 12. That is, the drive device 21 can be entirely located within the drive device receiving portion 12, or a portion of the drive device 21 can be located within the drive device receiving portion 12 with the remaining portion located within the handle portion 11, etc. Furthermore, there is an angle of inclination 28, which is an acute angle, a right angle, or an obtuse angle, between the axis of the drive device 21 and the axis of the drive output shaft 22. In other words, there is an angle of inclination 28 between the axis of the drive device 21 and the axis of the drive output shaft 22 that is greater than zero degrees and less than 180 degrees. It is easy to understand that the angle of inclination 28 can be non-ninety degrees. The surface where the movable blade 32 and the fixed blade 31 are in contact is the cutting plane 33. The axis of the drive device 21 and the cutting plane 33 are also not perpendicular.

[0041] The working principle is that, compared with the existing technology in which the axis of the drive device 21 is perpendicular to the cutting plane 33, the space occupied by the drive device 21 in the height direction is reduced, thereby reducing the overall height of the cutting device; and the vibration generated by the drive device 21 during operation is not just a vibration in the horizontal plane, which can improve the ease of use of the cutting device to a certain extent.

[0042] As one specific embodiment, the surface where the movable blade 32 and the fixed blade 31 are in contact is the cutting plane 33. The drive device 21 has a portion located inside the handle portion 11, and there is an intersection point between the axis of the drive device 21 and the cutting plane 33, with this intersection point located outside the drive device receiving portion 12. Figure 4 As shown, there is an outer distance 29 between the intersection of the axis of the drive device 21 and the cutting plane 33 and the drive device housing 12. The outer distance 29 is a dimension greater than zero, so that there is an intersection between the axis of the drive device 21 and the cutting plane 33, and this intersection is located outside the drive device housing 12. This embodiment can reduce the overall height of the cutting device while also achieving the goal of not having to increase the length of the handle 11 too much.

[0043] As one specific implementation, the cutting device of this utility model embodiment also includes an electronic control device 8. The electronic control device 8 is a circuit board or the like used in the prior art for electronic control. The electronic control device 8 is electrically connected to an output device 82, which is a device such as a digital tube capable of outputting information emitted by the electronic control device 8. A receiving space 121 is formed between the top end of the inner cavity of the drive device receiving part 12 and the drive device 21. The output device 82 is fixed to the top end of the drive device receiving part 12 and has a portion located within the receiving space 121. This embodiment can reduce the overall height of the cutting device while facilitating the user's observation of the information emitted by the electronic control device 8. As a preferred arrangement, the cutting plane 33 is parallel to the bottom end surface of the drive device receiving part 12, and the axis of the drive output shaft 22 is perpendicular to the bottom end surface of the drive device receiving part 12, so that there is an acute or obtuse angle between the axis of the drive output shaft 22 and the cutting plane 33.

[0044] As one specific implementation, both the rotary output end 211 and the drive output shaft 22 are provided with bevel gears 221, and the bevel gears 221 mesh with each other, so that there is an acute or obtuse angle of inclination 28 between the axis of the drive device 21 and the axis of the drive output shaft 22. Usually, the bevel gears 221 are surrounded by a protective cover 223 to improve safety.

[0045] As one specific implementation, the cutting device of this utility model embodiment further includes an electronic control device 8 electrically connected to the driving device 21. The electronic control device 8 is electrically connected to an input device 81, which includes a start input device 811 and a lock input device (not shown in the figure). The start input device 811 and the lock input device can both be microswitches, or other devices that can send electrical signals to the electronic control device 8. The carrier component 1 is provided with a movable start trigger device 812 and a movable lock trigger device 814. For example, the start trigger device 812 and the lock trigger device 814 are linearly slidably connected to the carrier component 1. For example, the lock trigger device 814 is a linearly sliding button structure. The start trigger device 812 is directly opposite the start input device 811 and can be activated to trigger the start trigger device 812. The lock trigger device 814 is directly opposite the lock input device and can be activated to trigger the lock input device. The start-up trigger device 812 is located at the bottom of the handle portion 11, and the locking trigger device 814 is located on the side of the handle portion 11 or the drive device receiving portion 12, facilitating one-handed operation. It is easy to understand that the locking trigger device 814 can be located on one side of the drive device receiving portion 12, or multiple devices can be located on both sides of the drive device receiving portion 12, facilitating operation with either the left or right hand. By pressing or other means, the starting trigger device 812 simultaneously triggers the starting input device 811, and the locking trigger device 814 triggers the locking input device. The electronic control device 8 controls the drive device 21 to start and run. During the operation of the drive device 21, the locking trigger device 814 is reset (by a spring or the like), but the starting trigger device 812 remains in contact with the starting input device 811, and the drive device 21 continues to run. During the operation of the drive device 21, if the starting trigger device 812 is reset but the locking trigger device 814 is reset, or if the locking trigger device 814 remains in contact with the locking input device (i.e., the locking trigger device 814 is released), the drive device 21 stops. In other words, when the starting trigger device 812 is released, the drive device 21 stops regardless of the state of the locking trigger device 814. Compared to the mechanical safety structures used in existing technologies, this embodiment uses a smaller input device 81, such as a microswitch, to achieve safety control. Furthermore, both the starting trigger device 812 and the locking trigger device 814 do not require complex mechanical structures, thus reducing their size and saving space, thereby enabling miniaturization of the cutting device. The locking trigger device 814 is located on the side of the drive device 21 (i.e., in side view) and is exposed from the drive device housing 12. Because the drive device 21 is angled, there is sufficient space within the drive device housing 12 to accommodate the locking trigger device 814, thus eliminating the need to occupy the handle portion 11 or increase its size.

[0046] As one specific implementation, in the cutting device of this embodiment of the present invention, the electronic control device 8 is electrically connected to a power supply 83, which is disposed within the internal space of the carrier assembly 1. The power supply 83 can be a battery, a power connector, or a power cord, or other device capable of supplying power.

[0047] As one specific implementation, the working component 3 includes a working component carrier 35 fixedly connected to the fixed blade 31 and an insertable component 36. The drive output shaft 22 is fixedly connected to the insertable component 222. The insertable component 36 is provided with an insertable transmission tooth 3691, and the insertable component 222 is provided with an insertable transmission tooth 369. It is easy to understand that there can be at least one insertable transmission tooth 3691 and an insertable transmission tooth 369, as long as they can transmit rotational power. The working component carrier 35 is detachably connected to the drive device receiving part 12 so that the insertable transmission tooth 3691 of the insertable component 36 is inserted into the insertable transmission tooth 369 of the insertable component 222. For example, both the insertion drive teeth 369 of the inserted component 36 and the insertion drive teeth 369 of the inserted component 222 are arranged vertically. After the working component carrier 35 moves vertically relative to the drive device receiving portion 12 and connects with the drive device receiving portion 12, the insertion drive teeth 369 of the inserted component 36 and the insertion drive teeth 369 of the inserted component 222 are inserted into each other. The inserted component 222 can rotate with the drive output shaft 22, thereby rotating the inserted component 36. As mentioned above, this embodiment allows for convenient replacement of different specifications or functions of the working components 3, such as the scissor-type working component 38 and the saw blade-type working component 39, as needed. It should be noted that the insertion order of the inserted component 222 and the inserted component 36 is not limited; that is, it is not limited to inserting the inserted component 222 into the inserted component 36, but the inserted component 36 can also be inserted into the inserted component 222.

[0048] As one specific implementation, the working component carrier 35 is provided with a mounting buckle 351 and a mounting elastic member 353. The mounting buckle 351 includes a mounting buckle 352, and the drive device receiving portion 12 is provided with a latched portion 125. For example, the latched portion 125 is provided on the bottom end surface of the drive device receiving portion 12. The mounting elastic member 353 is connected to the working component carrier 35 and the mounting buckle 351 respectively, so that the mounting buckle 352 tends to approach the latched portion 125, thereby making the working component carrier 35 and the drive device receiving portion 12 detachably connected. Pressing the mounting buckle 352 allows the mounting buckle 352 to be misaligned with the latched part 125, which facilitates the separation of the working component carrier 35 from the drive device receiving part 12. After the mounting buckle 352 abuts against the latched part 125, the working component carrier 35 is connected to the drive device receiving part 12. At this time, the mounting elastic element 353 can ensure the stability of the connection between the working component carrier 35 and the drive device receiving part 12. In summary, the working component 3 can be easily disassembled and installed.

[0049] As one specific implementation, the bottom end face of the inserted member 36 is provided with an eccentric body 23, and the movable blade 32 includes a driven end 322 with an eccentric body groove 323. The eccentric body 23 is inserted into the eccentric body groove 323 to drive the movable blade 32 to move. It is easy to understand that there is a point on the eccentric body 23, and the distance from this point to the rotation axis of the inserted member 36 changes with the rotation of the inserted member 36. For example, the eccentric body 23 is cylindrical, and there is a gap between the axis of the cylinder and the rotation axis of the inserted member 36. The cross-section of the eccentric body groove 323 is racetrack-shaped (the two ends of the rectangle are respectively spliced ​​with semicircles aligned with the two ends), and the eccentric body 23 is inserted into the eccentric body groove 323 in a close fit. This implementation can ensure that the eccentric body 23 drives the movable blade 32 to move relatively stably, and will not generate vibration and noise due to the eccentric body 23 hitting the inner wall of the eccentric body groove 323.

[0050] As one specific implementation, the driven end 322 is provided with a height limiting edge 324, and the inserted component 36 is provided with an inserted component flange 361; the inserted component 36 passes through the top cover (not shown in the attached drawings) of the working component carrier 35 and is movably connected to the working component carrier 35, for example, through a rotatable connection; the height limiting edge 324 and the top cover of the working component carrier 35 respectively abut against the inserted component flange 361, or the height limiting edge 324 and the top cover of the working component carrier 35 respectively approach the inserted component flange 361; and as Figure 7 As shown, during the rotation of the inserted component 36, when viewed from above, the flange 361 of the inserted component always overlaps with the height limiting edge 324. For example, the flange 361 of the inserted component is a disk shape coaxial with the inserted component 36, and the diameter of this disk shape is sufficiently large so that when viewed from above, the flange 361 of the inserted component always overlaps with the height limiting edge 324 during the rotation of the inserted component 36. In this embodiment, the rotatable connection between the inserted component 36 and the working component carrier 35 can be achieved without bearings or other components. In addition, when assembling the working component 3, it is only necessary to place the flange 361 of the inserted component on the height limiting edge 324, and then install and fix the top cover of the working component carrier 35, which facilitates the assembly of the working component 3.

[0051] The terms used in this invention, such as "first," "second," etc., do not indicate any order, quantity, or importance, but are merely for distinction.

[0052] In this invention, terms such as "a" or "an" are used to indicate not a limitation on the quantity, but rather to indicate the existence of at least one of the mentioned objects.

[0053] In this utility model, terms indicating direction or location such as top, bottom, side, longitudinal, transverse, middle, center, outside, inside, horizontal, vertical, left, right, above, and below are used to indicate relative positions rather than absolute positions.

[0054] Terms used in this invention, such as "approximately," "generally," "approximately," and "similar," are limiting terms used to indicate features that are present but allow for certain deviations. The amount of deviation allowed may vary depending on the specific context; for example, regarding dimensional deviations, the specific context may include, but is not limited to, relevant standards for dimensional tolerances.

Claims

1. A cutting device, comprising a carrier assembly (1), a drive assembly (2), and a working assembly (3); wherein, The carrier assembly (1) includes a handle (11) and a drive device housing (12); the drive assembly (2) includes a drive device (21) and a drive output shaft (22) coaxial with the drive device (21); the working assembly (3) includes a fixed blade (31) and a movable blade (32) that fits against and is movably connected to the fixed blade (31); the drive output shaft (22) is driven to connect with the movable blade (32) so that the movable blade (32) can move relative to the fixed blade (31) to achieve cutting; the drive output shaft (22) is rotatably connected to the carrier assembly (1), and the drive device (21) is fixed inside the carrier assembly (1); Its characteristic is that both the drive device (21) and the drive output shaft (22) have portions located within the drive device housing (12), and there is an inclination angle (28) between the axis of the drive device (21) and the axis of the drive output shaft (22) with an angle greater than zero degrees and less than 180 degrees.

2. The cutting device according to claim 1, characterized in that, The surface where the movable blade (32) and the fixed blade (31) fit together is the cutting plane (33). There is an acute or obtuse angle (28) between the axis of the drive device (21) and the axis of the drive output shaft (22). There is an intersection between the axis of the drive device (21) and the cutting plane (33), and the intersection is located outside the drive device housing (12).

3. The cutting device according to claim 1, characterized in that, It also includes an electronic control device (8), which is electrically connected to an output device (82); a receiving space (121) is formed between the top of the inner cavity of the drive device receiving part (12) and the drive device (21), and the output device (82) is fixed to the top of the drive device receiving part (12) and has a portion located in the receiving space (121).

4. The cutting device according to claim 1, characterized in that, Both the rotary output end (211) and the drive output shaft (22) are equipped with bevel gears (221), and the bevel gears (221) of the two mesh with each other.

5. The cutting device according to claim 1, characterized in that, It also includes an electronic control device (8) electrically connected to the drive device (21), the electronic control device (8) being electrically connected to an input device (81), the input device (81) including a start input device (811) and a lock input device; a movable start trigger device (812) is provided on the carrier assembly (1), the start trigger device (812) is facing the start input device (811), or a movable lock trigger device (814) is provided on the carrier assembly (1), the lock trigger device (814) is facing the lock input device.

6. The cutting device according to claim 3 or 5, characterized in that it is electrically controlled. The device (8) is electrically connected to a power source (83), which is located on the carrier assembly (1).

7. The cutting device according to claim 1, characterized in that, The working component (3) includes a working component carrier (35) fixedly connected to the fixed blade (31) and a plug-in component (36). The drive output shaft (22) is fixedly connected to the plug-in component (222). The plug-in component (36) is provided with a plug-in transmission tooth (3691), and the plug-in component (222) is provided with a plug-in transmission tooth (369). The working component carrier (35) is detachably connected to the drive device receiving part (12) so that the plug-in transmission tooth (3691) of the plug-in component (36) is plugged into the plug-in transmission tooth (369) of the plug-in component (222).

8. The cutting device according to claim 7, characterized in that, The working component carrier (35) is provided with a mounting buckle (351) and a mounting elastic member (353). The mounting buckle (351) includes a mounting buckle (352). The drive device receiving part (12) is provided with a latched part (125). The mounting elastic member (353) is connected to the working component carrier (35) and the mounting buckle (351) respectively, so that the mounting buckle (352) tends to approach the latched part (125).

9. The cutting device according to claim 7, characterized in that, The bottom end face of the plug-in component (36) is provided with an eccentric body (23), and the movable blade (32) includes a driven end (322) provided with an eccentric body groove (323), and the eccentric body (23) is inserted into the eccentric body groove (323) in a close fit.

10. The cutting device according to claim 9, characterized in that, The driven end (322) is provided with a height limiting edge (324), and the plugged part (36) is provided with a plugged part flange (361); the plugged part (36) passes through the top cover of the working component carrier (35) and is movably connected to the working component carrier (35); the height limiting edge (324) and the top cover of the working component carrier (35) respectively abut against the plugged part flange (361), or the height limiting edge (324) and the top cover of the working component carrier (35) respectively are close to the plugged part flange (361); and when viewed from above during the rotation of the plugged part (36), the plugged part flange (361) always has a part that overlaps with the height limiting edge (324).

Images