vibrating device

Abstract

The embodiment of the present application provides a kind of vibrating device.The vibrating device includes: base, driving piece, transmission assembly and first vibrating disc;Driving piece is installed to base, the output end of driving piece is connected with transmission assembly, first vibrating disc is slidably connected with base, and first vibrating disc is connected with transmission assembly, first vibrating disc is used to carry material, driving piece is used to drive transmission assembly movement, to make transmission assembly drive first vibrating disc reciprocating motion along first direction, can avoid after material is placed in first vibrating disc, material is deposited in first vibrating disc while stationary, the problem of affecting the use performance of material occurs, for example, after glass primer is placed in first vibrating disc, glass primer is stratified while stationary, affect the use performance of glass primer, finally affect the effect of installing windshield glass.

Description

Technical Field

[0001] This application relates to the field of vibration device technology, and specifically to a vibration device. Background Technology

[0002] Vehicles have become a common means of transportation in daily life. Typically, vehicles require the installation of glass, such as windshields and windows. However, due to the inherent characteristics of windshields, their installation cannot be done using bolts or nuts like other components. Before installing the windshield, a glass primer needs to be applied between the vehicle's paint and the sealant to enhance the adhesion between the sealant and the paint, thus ensuring a more secure installation.

[0003] In related technologies, when adding glass primer, the primer is placed in a container and left to be used. However, glass primer is a mixed substance, and if left for a long time, the substance will separate into layers, which will affect the performance of the glass primer and ultimately affect the effect of installing the windshield. Summary of the Invention

[0004] This application provides a vibration device to solve the problem in related technologies where glass primer will separate into layers after being left for a long time, thereby affecting the performance of the glass primer and ultimately the effect of installing the windshield.

[0005] To solve the above-mentioned technical problems, this application is implemented as follows:

[0006] This application provides a vibration device, which includes: a base, a driving component, a transmission assembly, and a first vibration plate;

[0007] The driving component is mounted on the base, and the output end of the driving component is connected to the transmission assembly. The first vibrating plate is slidably connected to the base and connected to the transmission assembly. The first vibrating plate is used to carry materials, and the driving component is used to drive the transmission assembly to move, so that the transmission assembly drives the first vibrating plate to reciprocate along the first direction.

[0008] Optionally, the transmission assembly includes a first transmission shaft, a second transmission shaft, a first transmission gear, a second transmission gear, a first transmission component, and a second transmission component, and the output end of the driving component is connected to a driving gear;

[0009] The first drive shaft and the second drive shaft are both rotatably connected to the base, and the first drive shaft and the second drive shaft are spaced apart. The first drive gear and the first drive component are both sleeved on the first drive shaft, and the second drive gear and the second drive component are both sleeved on the second drive shaft. The outer wall of the first drive component is provided with a first tooth pattern along the circumferential direction of the first drive component, and the first tooth pattern occupies half of the outer wall of the first drive component. The outer wall of the second drive component is provided with a second tooth pattern along the circumferential direction of the second drive component, and the second tooth pattern occupies half of the outer wall of the second drive component.

[0010] The drive gear is located between the first transmission gear and the second transmission gear, and the drive gear meshes with the first transmission gear and the second transmission gear respectively. The first vibrating plate is connected to a first vibration shaft, and the first vibration shaft is slidably connected to the base. The first side teeth and the second side teeth are respectively provided on opposite sides of the first vibration shaft. The first side teeth are distributed along the axial direction of the first vibration shaft, and the second side teeth are distributed along the axial direction of the first vibration shaft. Part of the first vibration shaft is located between the first transmission component and the second transmission component.

[0011] The driving component is used to drive the driving gear to rotate. The driving gear drives the first transmission gear and the second transmission gear to rotate. The first transmission gear drives the first transmission shaft to rotate. The second transmission gear drives the second transmission shaft to rotate. The first transmission component rotates and the second rotating component rotates, so that the first side tooth pattern meshes with the first tooth pattern and the second side tooth pattern meshes with the second tooth pattern, so that the first vibration shaft reciprocates along the first direction.

[0012] Optionally, the vibration device further includes a second vibrating plate, which is rotatably connected to the base;

[0013] The transmission assembly further includes a third transmission shaft, a fourth transmission shaft, a third transmission component, and a fourth transmission component. One end of the third transmission shaft is connected to one end of the first transmission shaft, one end of the fourth transmission shaft is connected to one end of the second transmission shaft, the third transmission component is sleeved on the third transmission shaft, and the fourth transmission component is sleeved on the fourth transmission shaft.

[0014] The third transmission member has a third tooth pattern on its outer wall along the circumferential direction, and the third tooth pattern occupies half of the outer wall of the third transmission member. The fourth transmission member has a fourth tooth pattern on its outer wall along the circumferential direction, and the fourth tooth pattern occupies half of the outer wall of the fourth transmission member.

[0015] The second vibratory plate is connected to a vibrating gear, which is located between the third transmission member and the fourth transmission member;

[0016] When the third and fourth transmission components rotate, the third and fourth toothed teeth alternately mesh with the vibrating gear, so that the vibrating gear drives the second vibrating disk to reciprocate.

[0017] Optionally, the base is provided with a through hole, and a bushing is provided in the through hole. The second vibrating plate is connected to the vibrating gear through a rotating shaft, and the rotating shaft passes through the bushing.

[0018] Optionally, the vibration device further includes a third vibrating plate, and a third transmission gear and a fourth transmission gear are provided on the base, which are positioned opposite each other, and the third transmission gear and the fourth transmission gear are rotatably connected to the base.

[0019] The base is also provided with a sliding frame, which is slidably connected to the base. The sliding frame includes a first side arm and a second side arm, which are connected to each other. Both the first side arm and the second side arm are slidably connected to the base. The first side arm has a first transmission tooth pattern and a first driving tooth pattern, and the second side arm has a second transmission tooth pattern and a second driving tooth pattern. A first connecting rod is connected to the side of the third transmission gear, and the connection point between the first connecting rod and the side of the third transmission gear is at a preset distance from the center of the side of the third transmission gear. A second connecting rod is connected to the side of the fourth transmission gear, and the connection point between the second connecting rod and the side of the fourth transmission gear is at a preset distance from the center of the side of the fourth transmission gear. Both the first connecting rod and the second connecting rod are connected to the third vibrating plate.

[0020] The first transmission tooth pattern and the second transmission tooth pattern are positioned opposite each other, and the third transmission member and the fourth transmission member are located between the first transmission tooth pattern and the second transmission tooth pattern. The first driving tooth pattern meshes with the third transmission gear, and the second driving tooth pattern meshes with the fourth transmission gear.

[0021] When the third transmission member and the fourth transmission member rotate, the third toothed teeth and the first transmission toothed teeth, and the fourth toothed teeth and the second transmission toothed teeth, alternately mesh to cause the first side arm and the second side arm to reciprocate, causing the third transmission gear and the fourth transmission gear to reciprocate, driving the first connecting rod and the second connecting rod to reciprocate along the second direction, and causing the third vibrating plate to reciprocate along the second direction.

[0022] Optionally, the base is provided with a first mounting hole and a second mounting hole that are positioned opposite each other, and the third vibratory plate is connected to a first drive rod and a second drive rod, with the first drive rod partially embedded in the first mounting hole and the second drive rod partially embedded in the second mounting hole;

[0023] The base is provided with a first sliding groove and a second sliding groove positioned opposite each other, and the extension directions of the first sliding groove and the second sliding groove are both parallel to the second direction. The first sliding groove communicates with the first mounting hole, and the second sliding groove communicates with the second mounting hole. The first connecting rod and the first driving rod are connected by a first transmission rod, and the second connecting rod and the second driving rod are connected by a second transmission rod. The first transmission rod passes through the first sliding groove, and the second transmission rod passes through the second sliding groove. The first transmission rod is movable along the direction of the first sliding groove, and the second transmission rod is movable along the direction of the second sliding groove.

[0024] Optionally, the vibration device further includes a fourth vibration plate, which is connected to a second vibration shaft and a third vibration shaft. The second vibration shaft and the third vibration shaft are spaced apart, and both the second vibration shaft and the third vibration shaft are slidably connected to the base. The third transmission member and the fourth transmission member are located between the second vibration shaft and the third vibration shaft.

[0025] The second vibration shaft is provided with a third driving tooth pattern on the side facing the third transmission member, and the third vibration shaft is provided with a fourth driving tooth pattern on the side facing the fourth transmission member. The third driving tooth pattern is distributed along the axial direction of the second vibration shaft, and the fourth driving tooth pattern is distributed along the axial direction of the third vibration shaft.

[0026] When the third transmission member and the fourth transmission member rotate, the third toothed teeth and the third driving toothed teeth, and the fourth toothed teeth and the fourth driving toothed teeth, alternately mesh to cause the second vibration shaft and the third vibration shaft to reciprocate along a third direction, and the third vibration disk to reciprocate along the third direction.

[0027] Optionally, the base is provided with a first sliding groove and a second sliding groove positioned opposite each other. The first sliding groove extends along the axial direction of the second vibration shaft, and the second sliding groove extends along the axial direction of the third vibration shaft. A first sliding stage is provided on the second vibration shaft, and the first sliding stage is embedded in the first sliding groove. A second sliding stage is provided on the third vibration shaft, and the second sliding stage is embedded in the second sliding groove.

[0028] Optionally, the vibration device further includes a fifth vibrating disc and a gear assembly;

[0029] The fifth vibratory plate is disposed on the base, and the base is provided with a sliding groove. The fifth vibratory plate is connected to a connecting shaft, which passes through the sliding groove. The sliding groove extends along the fourth direction. The connecting shaft can slide in the sliding groove. One end of the connecting shaft is connected to a transmission rack, which meshes with the vibrating gear. The extending direction of the transmission rack is parallel to the extending direction of the sliding groove.

[0030] When the vibrating gear rotates, the vibrating gear drives the transmission rack to reciprocate along the fourth direction, so that the fifth vibrating disk reciprocates along the fourth direction.

[0031] Optionally, the base is provided with a third slide groove and a fourth slide groove that are positioned opposite each other. The third slide groove extends along the axial direction of the first vibration shaft, and the fourth slide groove extends along the axial direction of the first vibration shaft. A third sliding table and a fourth sliding table are provided on opposite sides of the first vibration shaft. The third sliding table is embedded in the third slide groove, and the fourth sliding table is embedded in the fourth slide groove.

[0032] In this embodiment, since the output end of the drive component is connected to the transmission assembly, the first vibratory disk is slidably connected to the base, and the first vibratory disk is connected to the transmission assembly, the drive component can drive the transmission assembly to move. This allows the transmission assembly to transmit power to the first vibratory disk, causing it to reciprocate along its sliding direction, i.e., along the first direction. Therefore, after material is placed on the first vibratory disk, the drive component, through the transmission assembly, can drive the first vibratory disk to reciprocate, preventing the material from settling and depositing. In other words, in this embodiment, by setting up the drive component, transmission assembly, and first vibratory disk, the drive component can drive the transmission assembly to move, which in turn drives the first vibratory disk to reciprocate along the first direction. This prevents the material from settling and depositing in the first vibratory disk after it has been placed, thus avoiding problems such as material deterioration and deposition that affect the material's performance. For example, if glass primer is placed on the first vibratory disk, the primer may delaminate, affecting its performance and ultimately impacting the installation of the windshield. Attached Figure Description

[0033] Figure 1 This is a schematic diagram of one of the vibration devices provided in an embodiment of this application;

[0034] Figure 2 This is a second schematic diagram illustrating a vibration device provided in an embodiment of this application;

[0035] Figure 3 This is the third schematic diagram of a vibration device provided in an embodiment of this application;

[0036] Figure 4 This is the fourth schematic diagram of a vibration device provided in an embodiment of this application;

[0037] Figure 5 This is the fifth schematic diagram of a vibration device provided in an embodiment of this application;

[0038] Figure 6 This diagram illustrates a vibration gear connecting gear assembly provided in an embodiment of this application.

[0039] Figure label:

[0040] 10: Base; 20: Drive component; 40: First vibratory plate; 50: Second vibratory plate; 60: Third vibratory plate; 70: Sliding frame; 80: Fourth vibratory plate; 100: Gear assembly; 21: Drive gear; 31: First transmission shaft; 32: Second transmission shaft; 33: First transmission gear; 34: Second transmission gear; 35: First transmission component; 36: Second transmission component; 37: Third transmission shaft; 38: Fourth transmission shaft; 391: Third transmission component; 392: Fourth transmission component; 41: First vibrating shaft; 51: Vibrating gear; 61: 62: First drive rod; 71: First side arm; 72: Second side arm; 81: Second vibration shaft; 82: Third vibration shaft; 91: Transmission rack; 351: First tooth pattern; 361: Second tooth pattern; 411: First side tooth pattern; 412: Second side tooth pattern; 601: Third transmission gear; 602: Fourth transmission gear; 611: First transmission rod; 621: Second transmission rod; 821: Fourth drive tooth pattern; 3911: Third tooth pattern; 3921: Fourth tooth pattern; 6011: First connecting rod; 6021: Second connecting rod. Detailed Implementation

[0041] The technical solutions of the embodiments of this application will be clearly and completely described below with reference to the accompanying drawings. Obviously, the described embodiments are only some embodiments of this application, not all embodiments. Based on the embodiments of this application, all other embodiments obtained by those skilled in the art without creative effort are within the scope of protection of this application.

[0042] It should be understood that the phrase "one embodiment" or "an embodiment" throughout the specification means that a specific feature, structure, or characteristic related to the embodiment is included in at least one embodiment of this application. Therefore, "in one embodiment" or "in an embodiment" appearing throughout the specification does not necessarily refer to the same embodiment. Furthermore, these specific features, structures, or characteristics can be combined in any suitable manner in one or more embodiments.

[0043] like Figures 1 to 6 As shown, the vibration device includes: a base 10, a drive component 20, a transmission assembly, and a first vibrating plate 40.

[0044] The drive unit 20 is installed on the base 10, and the output end of the drive unit 20 is connected to the transmission assembly. The first vibrating plate 40 is slidably connected to the base 10 and is connected to the transmission assembly. The first vibrating plate 40 is used to carry materials, and the drive unit 20 is used to drive the transmission assembly to move so that the transmission assembly drives the first vibrating plate 40 to reciprocate along the first direction.

[0045] The first direction is the direction parallel to the direction in which the first vibrating plate 40 slides relative to the base 10.

[0046] In this embodiment, since the output end of the drive component 20 is connected to the transmission assembly, and the first vibratory disk 40 is slidably connected to the base 10 and connected to the transmission assembly, the drive component 20 can drive the transmission assembly to move. This allows the transmission assembly to transmit power to the first vibratory disk 40, causing it to reciprocate along its sliding direction, i.e., along the first direction. Therefore, after material is placed on the first vibratory disk 40, the drive component 20 can drive the first vibratory disk 40 to reciprocate through the transmission assembly, preventing the material from settling and depositing. In other words, in this embodiment, by setting up the drive component 20, the transmission assembly, and the first vibratory disk 40, the drive component 20 can drive the transmission assembly to move, which in turn drives the first vibratory disk 40 to reciprocate along the first direction. This prevents the material from settling and depositing in the first vibratory disk 40 after it has been placed, thus avoiding problems such as material deterioration and deposition that affect the material's performance. For example, if glass primer is placed on the first vibratory disk 40, the primer may delaminate, affecting its performance and ultimately impacting the installation of the windshield.

[0047] It should be noted that, in the embodiments of this application, the material can be a substance that is easy to deposit, such as a glass primer. The specific type of material is not limited in the embodiments of this application.

[0048] In addition, in this embodiment, the driving component 20 can be a motor. Specifically, the motor can be a servo motor or a stepper motor. The specific type of motor is not limited in this embodiment.

[0049] Additionally, in some embodiments, such as Figure 1As shown, the transmission assembly may include a first transmission shaft 31, a second transmission shaft 32, a first transmission gear 33, a second transmission gear 34, a first transmission member 35, and a second transmission member 36. The output end of the drive member 20 is connected to a drive gear 21. The first transmission shaft 31 and the second transmission shaft 32 are both rotatably connected to the base 10, and the first transmission shaft 31 and the second transmission shaft 32 are spaced apart. The first transmission gear 33 and the first transmission member 35 are both sleeved on the first transmission shaft 31, and the second transmission gear 34 and the second transmission member 36 are both sleeved on the second transmission shaft 32. The outer wall of the first transmission member 35 is provided with a first tooth pattern 351 along the circumferential direction of the first transmission member 35, and the first tooth pattern 351 occupies half of the outer wall of the first transmission member 35. The outer wall of the second transmission member 36 is provided with a second tooth pattern 361 along the circumferential direction of the second transmission member 36, and the second tooth pattern 361 occupies half of the outer wall of the second transmission member 36. The drive gear 21 is located between the first transmission gear 33 and the second transmission gear 34, and the drive gear 21 meshes with the first transmission gear 33 and the second transmission gear 34 respectively. The first vibrating disk 40 is connected to the first vibrating shaft 41, and the first vibrating shaft 41 is slidably connected to the base 10. The first side teeth 411 and the second side teeth 412 are respectively provided on opposite sides of the first vibrating shaft 41. The first side teeth 411 are distributed along the axial direction of the first vibrating shaft 41, and the second side teeth 412 are distributed along the axial direction of the first vibrating shaft 41. Part of the first vibrating shaft 41 is located between the first transmission member 35 and the second transmission member 36. The driving component 20 is used to drive the driving gear 21 to rotate. The driving gear 21 drives the first transmission gear 33 and the second transmission gear 34 to rotate. The first transmission gear 33 drives the first transmission shaft 31 to rotate. The second transmission gear 34 drives the second transmission shaft 32 to rotate. The first transmission component 35 rotates and the second rotating component rotates, so that the first side tooth 411 and the first tooth 351, and the second side tooth 412 and the second tooth 361 alternately mesh, so that the first vibration shaft 41 reciprocates along the first direction.

[0050] Since both the first drive shaft 31 and the second drive shaft 32 are rotatably connected to the base 10, they can both rotate relative to the base 10. Because the first drive shaft 31 and the second drive shaft 32 are spaced apart, the first drive gear 33 and the first drive component 35 are both sleeved on the first drive shaft 31, and the second drive gear 34 and the second drive component 36 are both sleeved on the second drive shaft 32. The output end of the drive component 20 is connected to a drive gear 21, which is located between the first drive gear 33 and the second drive gear 34, and meshes with both the first drive gear 33 and the second drive gear 34. Therefore, when the drive component 20 is running, its output end can drive the drive gear 21 to rotate, thereby driving the first drive gear 33 and the second drive gear 34 to rotate. The first drive gear 33 drives the first drive shaft 31 to rotate, and the second drive gear 34 drives the second drive shaft 32 to rotate. Consequently, the first drive shaft 31 drives the first drive component 35 to rotate, and the second drive shaft 32 drives the second drive component 36 to rotate.

[0051] Since the outer wall of the first transmission member 35 is provided with a first toothed pattern 351 along the circumferential direction of the first transmission member 35, and the first toothed pattern 351 occupies half of the outer wall of the first transmission member 35, and the outer wall of the second transmission member 36 is provided with a second toothed pattern 361 along the circumferential direction of the second transmission member 36, and the second toothed pattern 361 occupies half of the outer wall of the second transmission member 36, the first vibrating plate 40 is connected to a first vibrating shaft 41, the first vibrating shaft 41 is slidably connected to the base 10, and the first side toothed pattern 411 and the second side toothed pattern 412 are respectively provided on opposite sides of the first vibrating shaft 41. The first side toothed pattern 411 is along the axial direction of the first vibrating shaft 41. The second side teeth 412 are distributed along the axial direction of the first vibration shaft 41. A portion of the first vibration shaft 41 is located between the first transmission member 35 and the second transmission member 36. Therefore, after the drive member 20 operates, the drive member 20 drives the drive gear 21 to rotate, which in turn drives the first transmission gear 33 and the second transmission gear 34 to rotate. The first transmission gear 33 drives the first transmission shaft 31 to rotate, and the second transmission gear 34 drives the second transmission shaft 32 to rotate. The first transmission shaft 31 drives the first transmission member 35 to rotate, and the second transmission shaft 32 drives the second transmission member 36 to rotate, thus causing the first side teeth 412 on the first transmission member 35 to rotate. When the first transmission member 35 drives the first vibration shaft 41, the second tooth 361 on the second transmission member 36 separates from the second side tooth 412 on the first vibration shaft 41. That is, the portion of the outer wall of the second transmission member 36 without the second tooth 361 faces the second side tooth 412. When the second tooth 361 on the second transmission member 36 engages with the second side tooth 412 on the first vibration shaft 41, and the second transmission member 36 drives the first vibration shaft 41, the first tooth 351 on the first transmission member 35 engages with the first side tooth 412 on the first vibration shaft 41. 411 Separation, that is, the part of the outer wall of the first transmission member 35 without the first tooth pattern 351 faces the first side tooth pattern 411, and the drive gear 21 drives the first transmission gear 33 and the second transmission gear 34 to rotate. The rotation direction of the first transmission gear 33 is opposite to the rotation direction of the second transmission gear 34, and thus the rotation direction of the first transmission member 35 is opposite to the rotation direction of the second transmission member 36. This makes the direction of the first vibration shaft 41 driven by the first transmission member 35 opposite to the direction of the first vibration shaft 41 driven by the second transmission member 36, thereby causing the first vibration shaft 41 to reciprocate, and thus the first vibration disk 40 to reciprocate.

[0052] That is, after the material is placed on the first vibrating plate 40, the first vibrating plate 40 moves back and forth along the first direction, that is, the first vibrating plate 40 moves along its own sliding direction, so that the material is in motion in the first vibrating plate 40, and avoids the material from being stationary and settling in the first vibrating plate 40.

[0053] In addition, in some embodiments, the base 10 may be provided with a third slide groove and a fourth slide groove that are positioned opposite each other. The third slide groove extends along the axial direction of the first vibration shaft 41, and the fourth slide groove extends along the axial direction of the first vibration shaft 41. A third sliding table and a fourth sliding table are provided on opposite sides of the first vibration shaft 41. The third sliding table is embedded in the third slide groove, and the fourth sliding table is embedded in the fourth slide groove.

[0054] Since a third sliding platform and a fourth sliding platform are provided on opposite sides of the first vibrating shaft 41, with the third sliding platform embedded in the third sliding groove and the fourth sliding platform embedded in the fourth sliding groove, when the first transmission member 35 or the second transmission member 36 drives the first vibrating shaft 41 to move, the third sliding platform and the fourth sliding platform will slide along the third sliding groove and the fourth sliding groove respectively, causing the first vibrating plate 40 to slide relative to the base 10. In addition, the third sliding platform embedded in the third sliding groove and the fourth sliding platform embedded in the fourth sliding groove can provide a certain degree of support for the third sliding platform and the fourth sliding groove respectively. Thus, after material is placed in the first vibrating plate 40, the third sliding groove and the fourth sliding groove can effectively support the first vibrating plate 40, preventing the first vibrating plate 40 from shifting its position due to carrying material.

[0055] Of course, in this embodiment, the sliding connection between the first vibration shaft 41 and the base 10 can also be in other ways. For example, a groove can be provided on the first vibration shaft 41, and a sliding platform can be provided on the base, with the sliding platform embedded in the groove. This embodiment does not limit the sliding connection between the first vibration shaft 41 and the base 10.

[0056] Additionally, in some embodiments, such as Figure 1As shown, the vibration device may further include a second vibrating disk 50, which is rotatably connected to the base 10. The transmission assembly may further include a third transmission shaft 37, a fourth transmission shaft 38, a third transmission member 391, and a fourth transmission member 392. One end of the third transmission shaft 37 is connected to one end of the first transmission shaft 31, and one end of the fourth transmission shaft 38 is connected to one end of the second transmission shaft 32. The third transmission member 391 is sleeved on the third transmission shaft 37, and the fourth transmission member 392 is sleeved on the fourth transmission shaft 38. A third tooth 3911 is provided on the outer wall of the third transmission member 391 along its circumferential direction, and the third tooth 3911 occupies half of the outer wall of the third transmission member 391. A fourth tooth 3921 is provided on the outer wall of the fourth transmission member 392 along its circumferential direction, and the fourth tooth 3921 occupies half of the outer wall of the fourth transmission member 392. The second vibrating disk 50 is connected to a vibrating gear 51, which is located between the third transmission member 391 and the fourth transmission member 392. When the third transmission member 391 and the fourth transmission member 392 rotate, the third tooth 3911 and the fourth tooth 3921 alternately mesh with the vibrating gear 51, so that the vibrating gear 51 drives the second vibrating disk 50 to reciprocate.

[0057] Since the second vibratory plate 50 is rotatably connected to the base 10, the second vibratory plate 50 can rotate relative to the base 10. Because one end of the third transmission shaft 37 is connected to one end of the first transmission shaft 31, and one end of the fourth transmission shaft 38 is connected to one end of the second transmission shaft 32, with the third transmission component 391 sleeved on the third transmission shaft 37 and the fourth transmission component 392 sleeved on the fourth transmission shaft 38, when the first transmission shaft 31 rotates, it drives the third transmission shaft 37 to rotate; when the second transmission shaft 32 rotates, it drives the fourth transmission shaft 38 to rotate. This causes the driving component 20 to drive the driving gear 21 to rotate, which in turn drives the first transmission gear 33 and the second transmission gear 34 to rotate. The first transmission gear 33 drives the first transmission shaft 31 to rotate, the second transmission gear 34 drives the second transmission shaft 32 to rotate, the first transmission shaft 31 drives the third transmission shaft 37 to rotate, and the second transmission shaft 32 drives the fourth transmission shaft 38 to rotate. Since the third transmission member 391 has a third tooth pattern 3911 on its outer wall along the circumferential direction, and the third tooth pattern 3911 occupies half of the outer wall of the third transmission member 391, and the fourth transmission member 392 has a fourth tooth pattern 3921 on its outer wall along the circumferential direction, and the fourth tooth pattern 3921 occupies half of the outer wall of the fourth transmission member 392, and the second vibrating plate 50 is connected to a vibrating gear 51, which is located between the third transmission member 391 and the fourth transmission member 392, when the first transmission shaft 31 drives the third transmission shaft 37 to rotate and the second transmission shaft 32 drives the fourth transmission shaft 38 to rotate, the third transmission shaft 37 drives the third transmission member 391 to rotate, and the fourth transmission shaft 38 drives the fourth transmission member 392 to rotate. When the third transmission member 391 rotates and the fourth transmission member 392 rotates, if the third tooth 3911 on the third transmission member 391 meshes with the vibrating gear 51, and the fourth tooth 3921 on the fourth transmission member 392 separates from the vibrating gear 51, that is, the part of the outer wall of the fourth transmission member 392 without the fourth tooth 3921 faces the vibrating gear 51, then the third transmission member 391 drives the vibrating gear 51 to rotate; if the fourth tooth 3921 on the fourth transmission member 392 meshes with the vibrating gear 51, and the third tooth 3911 on the third transmission member 391 separates from the vibrating gear 51, that is, the part of the outer wall of the third transmission member 391 without the third tooth 3911 faces the vibrating gear 51, then the fourth transmission member 392 drives the vibrating gear 51 to rotate.

[0058] The rotation directions of the first transmission gear 33 and the second transmission gear 34 are opposite, causing the rotation direction of the first transmission shaft 31 to be opposite to that of the second transmission shaft 32. This, in turn, causes the rotation direction of the third transmission member 391 to be opposite to that of the fourth rotating member. Consequently, when the third transmission member 391 drives the vibrating gear 51 to rotate, or when the fourth transmission member 392 drives the vibrating gear 51 to rotate, the vibrating gear 51 reciprocates in two directions, namely clockwise and counterclockwise. Specifically, if the third transmission member 391 drives the vibrating gear 51 to rotate clockwise, then the fourth transmission member 392 drives the vibrating gear 51 to rotate counterclockwise; conversely, if the third transmission member 391 drives the vibrating gear 51 to rotate counterclockwise, then the fourth transmission member 392 drives the vibrating gear 51 to rotate clockwise.

[0059] Furthermore, after the second vibratory disk 50 is installed, the driving member 20 drives the driving gear 21 to rotate, which in turn drives the first transmission gear 33 and the second transmission gear 34 to rotate. The first transmission gear 33 drives the first transmission shaft 31 to rotate, and the second transmission gear 34 drives the first transmission shaft 31 to rotate. The first transmission shaft 31 drives the first transmission member 35 and the third transmission shaft 37 to rotate, and the second transmission shaft 32 drives the second transmission member 36 and the fourth transmission shaft 38 to rotate. The first transmission member 35 and the second transmission member 36 drive the first vibration shaft 41 of the first vibratory disk 40 to reciprocate, that is, to reciprocate along the axial direction of the first vibration shaft 41. The third transmission member 391 and the fourth transmission member 392 drive the vibration gear 51 of the second vibratory disk 50 to reciprocate along its own circumferential direction. In other words, after the driving member 20 operates, it can simultaneously drive the first vibratory disk 40 and the second vibratory disk 50 to move, so that the material placed on the first vibratory disk 40 and the material placed on the second vibratory disk 50 can be in motion at the same time, avoiding the material from settling. In addition, the addition of a second vibrating plate 50 can increase the load capacity of the vibrating device.

[0060] It should be noted that in this embodiment, the first drive shaft 31 and the third drive shaft 37 can be an integral structure. Alternatively, they can be connected by welding, bolts, or other types of fasteners. Similarly, the second drive shaft 32 and the fourth drive shaft 38 can be an integral structure. They can also be connected by welding, bolts, or other types of fasteners. Furthermore, the third drive shaft 37 can be a cylinder or a polygonal columnar structure; for example, it can be a hexagonal columnar structure. The specific shape of the third drive shaft 37 is not limited in this embodiment. Additionally, the shape of the fourth drive shaft 38 can be the same as that of the third drive shaft 37.

[0061] In some embodiments, the base 10 may have a through hole with a bushing inside. The second vibrating disk 50 and the vibrating gear 51 are connected by a rotating shaft, which passes through the bushing. Thus, when the vibrating gear 51 rotates, it drives the rotating shaft to rotate. The rotating shaft rotates within the bushing, which facilitates its rotation and consequently, the rotation of the second vibrating disk 50. In other words, by providing the bushing and the rotating shaft, the rotation of the second vibrating disk 50 is facilitated.

[0062] It should be noted that the shape of the rotating shaft can be cylindrical, or it can be other shapes, such as a hexagonal prism structure. The specific shape of the rotating shaft is not limited in this embodiment.

[0063] Additionally, in some embodiments, such as Figure 1 As shown, the vibration device may also include a third vibration plate 60, and a third transmission gear 601 and a fourth transmission gear 602 are provided on the base 10 with opposite positions, and the third transmission gear and the fourth transmission gear 602 are rotatably connected to the base 10. A sliding frame 70 is also provided on the base 10. The sliding frame 70 is slidably connected to the base 10. The sliding frame 70 includes a first side arm 71 and a second side arm 72, which are connected to each other. Both the first side arm 71 and the second side arm 72 are slidably connected to the base 10. The first side arm 71 has a first transmission tooth pattern and a first drive tooth pattern. The second side arm 72 has a second transmission tooth pattern and a second drive tooth pattern. The side of the third transmission gear 601 is connected to a first connecting rod 6011. The connection point between the first connecting rod 6011 and the side of the third transmission gear 601 is at a preset distance from the center of the side of the third transmission gear 601. The side of the fourth transmission gear 602 is connected to a second connecting rod 6021. The connection point between the second connecting rod 6021 and the side of the fourth transmission gear 602 is at a preset distance from the center of the side of the fourth transmission gear 602. Both the first connecting rod 6011 and the second connecting rod 6021 are connected to the third vibrating plate 60. The first and second transmission teeth are positioned opposite each other, and the third and fourth transmission components 391 and 392 are located between the first and second transmission teeth. The first drive teeth mesh with the third transmission gear 601, and the second drive teeth mesh with the fourth transmission gear 602. When the third and fourth transmission components 391 and 392 rotate, the third tooth 3911 meshes with the first transmission teeth, and the fourth tooth 3921 meshes with the second transmission teeth, so that the first side arm 71 and the second side arm 72 reciprocate, causing the third transmission gear 601 and the fourth transmission gear 602 to reciprocate, driving the first connecting rod 6011 and the second connecting rod 6021 to reciprocate along the second direction, so that the third vibrating plate 60 reciprocates along the second direction.

[0064] Since the base 10 is provided with a third transmission gear 601 and a fourth transmission gear 602 positioned opposite each other, and both the third and fourth transmission gears 602 are rotatably connected to the base 10, both the third transmission gear 601 and the fourth transmission gear 602 can rotate relative to the base 10. Since the base 10 is also provided with a sliding frame 70, which is slidably connected to the base 10, the sliding frame 70 includes a first side arm 71 and a second side arm 72 opposite each other. The first side arm 71 and the second side arm 72 are connected, and both the first side arm 71 and the second side arm 72 are slidably connected to the base 10, both the first side arm 71 and the second side arm 72 can slide relative to the base 10.

[0065] Since the first side arm 71 has a first transmission tooth pattern and the second side arm 72 has a second transmission tooth pattern, and the first and second transmission tooth patterns are positioned opposite each other, and the third transmission member 391 and the fourth transmission member 392 are located between the first and second transmission tooth patterns, after the drive member 20 operates, the drive member 20 drives the drive gear 21 to rotate, causing the first transmission gear 33 and the second transmission gear 34 to rotate. Ultimately, when the third transmission member 391 and the fourth transmission member 392 rotate, if the third tooth pattern 3911 on the third transmission member 391 meshes with the first transmission tooth pattern, the fourth tooth pattern 3921 on the fourth transmission member 392 will also mesh with the first transmission tooth pattern. When the fourth transmission member 392 separates from the second transmission tooth pattern (i.e., the portion of its outer wall without the fourth tooth pattern 3921 faces the second transmission tooth pattern), the third transmission member 391 drives the first side arm 71 to move, and the first side arm 71 drives the second side arm 72 to move. If the fourth tooth pattern 3921 on the fourth transmission member 392 engages with the second transmission tooth pattern, the third tooth pattern 3911 on the third transmission member 391 separates from the first transmission tooth pattern (i.e., the portion of its outer wall without the third tooth pattern 3911 faces the first transmission tooth pattern), the fourth transmission member 392 drives the second side arm 72 to move, and the second side arm 72 drives the first side arm 71 to move. Since the rotation direction of the third transmission member 391 is opposite to that of the fourth transmission member 392, the first side arm 71 and the second side arm 72 will reciprocate along their respective sliding directions.

[0066] Since the first side arm 71 is provided with a first driving tooth pattern and the second side arm 72 is provided with a second driving tooth pattern, the first driving tooth pattern meshes with the third transmission gear 601, and the second driving tooth pattern meshes with the fourth transmission gear 602. Therefore, when the first side arm 71 and the second side arm 72 reciprocate, the first driving tooth pattern on the first side arm 71 drives the third transmission gear 601 to reciprocate, and the second driving tooth pattern on the second side arm 72 drives the fourth transmission gear 602 to reciprocate. Since the side of the third transmission gear 601 is connected to the first connecting rod 6011, and the connection point between the first connecting rod 6011 and the side of the third transmission gear 601 has a preset distance from the center of the side of the third transmission gear 601, and the side of the fourth transmission gear 602 is connected to the second connecting rod 6021, and the connection point between the second connecting rod 6021 and the side of the fourth transmission gear 602 has a preset distance from the center of the side of the fourth transmission gear 602, and both the first connecting rod 6011 and the second connecting rod 6021 are connected to the third vibrating plate 60, therefore, it is equivalent to the first The connection point between the connecting rod 6011 and the first transmission gear 33 is eccentric relative to the first transmission gear 33, and the connection point between the second connecting rod 6021 and the second transmission gear 34 is eccentric relative to the second transmission gear 34. Thus, when the first transmission gear 33 rotates, the first transmission gear 33 drives the first connecting rod 6011 to reciprocate along the second direction, and the second transmission gear 34 drives the second connecting rod 6021 to reciprocate along the second direction. This causes the first connecting rod 6011 and the second connecting rod 6021 to drive the third vibrating plate 60 to reciprocate along the second direction.

[0067] Furthermore, after the third vibratory plate 60 is installed, the driving member 20 drives the driving gear 21 to rotate, which in turn drives the first transmission gear 33 and the second transmission gear 34 to rotate. The first transmission gear 33 drives the first transmission shaft 31 to rotate, and the second transmission gear 34 drives the first transmission shaft 31 to rotate. The first transmission shaft 31 drives the first transmission member 35 and the third transmission shaft 37 to rotate, and the second transmission shaft 32 drives the second transmission member 36 and the fourth transmission shaft 38 to rotate. Meanwhile, the first transmission member 35 and the second transmission member 36 drive the first vibration shaft 41 of the first vibratory plate 40 to rotate along... The first direction of reciprocating motion is along the axial direction of the first vibration shaft 41. The third transmission member 391 and the fourth transmission member 392 drive the vibration gear 51 of the second vibration disk 50 to reciprocate along its own circumferential direction. The third transmission member 391 and the fourth transmission member 392 also drive the first side arm 71 and the second side wall to reciprocate, thereby causing the third transmission gear 601 and the fourth transmission gear 602 to rotate reciprocally. This causes the first connecting rod 6011 and the second connecting rod 6021 to reciprocate along the second direction, ultimately causing the third vibration disk 60 to reciprocate along the second direction. In other words, after the drive member 20 operates, it can simultaneously drive the first vibration disk 40, the second vibration disk 50, and the third vibration disk 60 to move, ensuring that the materials placed on the first vibration disk 40, the second vibration disk 50, and the third vibration disk 60 are all in motion simultaneously, preventing the materials from settling. Furthermore, the inclusion of the third vibration disk 60 increases the material load capacity of the vibration device.

[0068] In some embodiments, the base 10 may be provided with a first mounting hole and a second mounting hole positioned opposite each other. The third vibrating plate 60 is connected to a first drive rod 61 and a second drive rod 62. The first drive rod 61 is partially embedded in the first mounting hole, and the second drive rod 62 is partially embedded in the second mounting hole. The base 10 is provided with a first sliding groove and a second sliding groove positioned opposite each other. The extension directions of the first sliding groove and the second sliding groove are both parallel to the second direction. The first sliding groove communicates with the first mounting hole, and the second sliding groove communicates with the second mounting hole. The first connecting rod 6011 is connected to the first drive rod 61 through a first transmission rod 611, and the second connecting rod 6021 is connected to the second drive rod 62 through a second transmission rod 621. The first transmission rod 611 passes through the first sliding groove, and the second transmission rod 621 passes through the second sliding groove. The first transmission rod 611 is movable along the direction of the first sliding groove, and the second transmission rod 621 is movable along the direction of the second sliding groove.

[0069] Since the base 10 is provided with a first mounting hole and a second mounting hole in opposite positions, and the third vibratory plate 60 is connected with a first drive rod 61 and a second drive rod 62, the first drive rod 61 is partially embedded in the first mounting hole and the second drive rod 62 is partially embedded in the second mounting hole. Therefore, the first drive rod 61 can move along the axial direction of the first mounting hole and the second drive rod 62 can move along the axial direction of the second mounting hole. Because the base 10 is provided with a first sliding groove and a second sliding groove positioned opposite each other, and the extension directions of the first sliding groove and the second sliding groove are both parallel to the second direction, the first sliding groove communicates with the first mounting hole, and the second sliding groove communicates with the second mounting hole. The first connecting rod 6011 is connected to the first driving rod 61 through the first transmission rod 611, and the second connecting rod 6021 is connected to the second driving rod 62 through the second transmission rod 621. The first transmission rod 611 passes through the first sliding groove, and the second transmission rod 621 passes through the second sliding groove. Therefore, when the third transmission gear 601 drives the first connecting rod 6011 to move, and the fourth transmission gear 602 drives the second connecting rod 6021 to move, the first connecting rod 6011... The first transmission rod 611 moves, driving the first drive rod 61. The second connecting rod 6021 drives the second transmission rod 621, which in turn drives the second drive rod 62. The wall of the first sliding groove provides some resistance to the first transmission rod 611, causing it to reciprocate only along the extension direction of the first sliding groove. Similarly, the wall of the second sliding groove provides some resistance to the second transmission rod 621, causing it to reciprocate only along the extension direction of the second sliding groove. This, in turn, causes the first drive rod 61 and the second drive rod 62 to reciprocate along the second direction, resulting in the third vibrating plate 60 reciprocating along the second direction. In other words, by providing the first sliding groove, the second sliding groove, the first transmission rod 611, the first drive rod 61, the second transmission rod 621, and the second drive rod 62, it is easy to drive the third vibrating plate 60 to reciprocate along the second direction.

[0070] Additionally, in some embodiments, such as Figure 4As shown, the vibration device may further include a fourth vibrating disk 80, which is connected to a second vibrating shaft 81 and a third vibrating shaft 82. The second vibrating shaft 81 and the third vibrating shaft 82 are spaced apart and are slidably connected to the base 10. A third transmission member 391 and a fourth transmission member 392 are located between the second vibrating shaft 81 and the third vibrating shaft 82. A third driving tooth pattern is provided on the side of the second vibrating shaft 81 facing the third transmission member 391, and a fourth driving tooth pattern 821 is provided on the side of the third vibrating shaft 82 facing the fourth transmission member 392. The third driving tooth pattern is distributed along the axial direction of the second vibrating shaft 81, and the fourth driving tooth pattern 821 is distributed along the axial direction of the third vibrating shaft 82. When the third transmission member 391 and the fourth transmission member 392 rotate, the third tooth 3911 and the third drive tooth 821, and the fourth tooth 3921 and the fourth drive tooth 821, alternately mesh, so that the second vibration shaft 81 and the third vibration shaft 82 reciprocate along the third direction, and the third vibration disk 60 reciprocates along the third direction.

[0071] Since both the second vibration shaft 81 and the third vibration shaft 82 are slidably connected to the base 10, the second vibration shaft 81 can slide relative to the base 10, and the third vibration shaft 82 can slide relative to the base 10. Since the third transmission member 391 and the fourth transmission member 392 are located between the second vibration shaft 81 and the third vibration shaft 82, the second vibration shaft 81 has a third driving tooth pattern on the side facing the third transmission member 391, and the third vibration shaft 82 has a fourth driving tooth pattern 821 on the side facing the fourth transmission member 392. The third driving tooth pattern is distributed along the axial direction of the second vibration shaft 81, and the fourth driving tooth pattern 821 is distributed along the axial direction of the third vibration shaft 82. Therefore, when the driving member 20 drives the driving gear 21 to rotate, the driving gear 21 rotates, which in turn drives the first transmission gear 33 and the second transmission gear 34 to rotate. The first transmission gear 33 drives the first transmission shaft 31 to rotate, the second transmission gear 34 drives the second transmission shaft 32 to rotate, the first transmission shaft 31 drives the third transmission shaft 37 to rotate, the second transmission shaft 32 drives the fourth transmission shaft 38 to rotate, the third transmission shaft 37 drives the third transmission member 391 to rotate, and the fourth transmission shaft 38 drives the fourth transmission member 392 to rotate. When component 392 rotates, if the third tooth 3911 on the third transmission component 391 meshes with the third driving tooth 821 on the second vibration shaft 81, the fourth tooth 3921 on the fourth transmission component 392 separates from the fourth driving tooth 821 on the third vibration shaft 82. That is, the portion of the outer wall of the fourth transmission component 392 without the fourth tooth 3921 faces the fourth driving tooth 821. Thus, the third transmission component 391 drives the second vibration shaft 81 to move, and the second vibration shaft 81 drives the fourth vibration disk 80 to move. If the fourth tooth 3921 on the fourth transmission component 392 meshes with the fourth driving tooth 821 on the third vibration shaft 82, the third tooth 3911 on the third transmission component 391 separates from the third driving tooth 81 on the second vibration shaft 81. That is, the portion of the outer wall of the third transmission component 391 without the third tooth 3911 faces the third driving tooth 82. Thus, the fourth transmission component 392 drives the third vibration shaft 82 to move, and the third vibration shaft 82 drives the fourth vibration disk 80 to move.

[0072] The rotation directions of the first transmission gear 33 and the second transmission gear 34 are opposite, which makes the rotation direction of the first transmission shaft 31 opposite to that of the second transmission shaft 32, and the rotation direction of the third transmission member 391 opposite to that of the fourth rotating member. As a result, when the third transmission member 391 drives the second vibration shaft 81 to move, or when the fourth transmission member 392 drives the third vibration shaft 82 to move, the movement direction of the second vibration shaft 81 is opposite to that of the third vibration shaft 82, causing the fourth vibration disk 80 to reciprocate along the third direction.

[0073] In addition, after the fourth vibratory disk 80 is set, the driving member 20 drives the driving gear 21 to rotate, and the driving gear 21 drives the first transmission gear 33 and the second transmission gear 34 to rotate. The first transmission gear 33 drives the first transmission shaft 31 to rotate, and the second transmission gear 34 drives the first transmission shaft 31 to rotate. The first transmission shaft 31 drives the first transmission member 35 and the third transmission shaft 37 to rotate, and the second transmission shaft 32 drives the second transmission member 36 and the fourth transmission shaft 38 to rotate. The first transmission member 35 and the second transmission member 36 drive the first vibration shaft 41 of the first vibratory disk 40 to reciprocate, that is, to reciprocate along the axial direction of the first vibration shaft 41. The third transmission member 391 and the fourth transmission member 392 drive the vibration gear 51 of the second vibratory disk 50 to reciprocate along its own circumferential direction. Furthermore, when the third tooth 3911 on the third transmission member 391 meshes with the vibrating gear 51, the third tooth 3911 separates from the third drive tooth on the second vibrating shaft 81. Simultaneously, the fourth tooth 3921 on the fourth transmission member 392 separates from the vibrating gear 51 and meshes with the fourth drive tooth 821 on the third vibrating shaft 82. Thus, the third transmission member 391 drives the vibrating gear 51 to rotate, and the fourth transmission member 392 drives the third vibrating shaft 82 to move. When the fourth tooth 3921 on the fourth transmission member 392 meshes with the vibrating gear 51, the fourth tooth 3921 separates from the fourth drive tooth 821 on the third vibrating shaft 82. Simultaneously, the third tooth 3911 on the third transmission member 391 separates from the vibrating gear 51, and the fourth tooth 3921 meshes with the fourth drive tooth 821 on the third vibrating shaft 82. Thus, the fourth transmission member 392 drives the fourth vibrating shaft to rotate, and the third transmission member 391 drives the vibrating gear 51 to rotate. When the vibrating gear 51 rotates, the second vibrating disk 50 rotates along with it. When the second vibrating shaft 81 or the third vibrating shaft 82 moves, the fourth vibrating disk 80 moves. That is, after the driving component 20 operates, it can simultaneously drive the first vibrating disk 40, the second vibrating disk 50, and the fourth vibrating disk 80 to move, so that the material placed on the first vibrating disk 40, the second vibrating disk 50, and the fourth vibrating disk 80 can be in motion at the same time, preventing the material from settling. In addition, the fourth vibrating disk 80 can also increase the load capacity of the vibrating device.

[0074] In addition, in some embodiments, the base 10 may be provided with a first sliding groove and a second sliding groove that are positioned opposite each other. The first sliding groove extends along the axial direction of the second vibration shaft 81, and the second sliding groove extends along the axial direction of the third vibration shaft 82. A first sliding stage is provided on the second vibration shaft 81 and is embedded in the first sliding groove. A second sliding stage is provided on the third vibration shaft 82 and is embedded in the second sliding groove.

[0075] Since the second vibration shaft 81 is provided with a first sliding platform and the third vibration shaft 82 is provided with a second sliding platform, with the first sliding platform embedded in the first sliding groove and the second sliding platform embedded in the second sliding groove, when the third transmission member 391 drives the second vibration shaft 81 to move, or the fourth transmission member 392 drives the third vibration shaft 82 to move, the first sliding platform and the second sliding platform will slide along the first sliding groove and the second sliding groove respectively, so that the fourth vibration plate 80 slides relative to the base 10. In addition, the first sliding platform embedded in the first sliding groove and the second sliding platform embedded in the second sliding groove can provide a certain support for the first sliding platform, and the second sliding groove can provide a certain support for the second sliding platform. Thus, after material is placed in the fourth vibration plate 80, the first sliding groove and the second sliding groove can effectively support the fourth vibration plate 80, so that the fourth vibration plate 80 will not shift its position due to carrying material.

[0076] Additionally, in some embodiments, such as Figure 6 As shown, the vibration device may further include a fifth vibrating disc and a gear assembly 100. The fifth vibrating disc is disposed on the base 10, and the base 10 is provided with a sliding groove. The fifth vibrating disc is connected to a connecting shaft, which passes through the sliding groove. The sliding groove extends along the fourth direction, and the connecting shaft can slide in the sliding groove. One end of the connecting shaft is connected to a transmission rack 91, which meshes with the vibrating gear 51. The extending direction of the transmission rack 91 is parallel to the extending direction of the sliding groove. When the vibrating gear 51 rotates, the vibrating gear 51 drives the transmission rack 91 to reciprocate along the fourth direction, thereby causing the fifth vibrating disc to reciprocate along the fourth direction.

[0077] Since the fifth vibratory disk is mounted on the base 10, and the base 10 has a sliding groove, the fifth vibratory disk is connected to a connecting shaft that passes through the sliding groove. The sliding groove extends along the fourth direction, and the connecting shaft can slide within it. Therefore, when the connecting shaft moves within the sliding groove, it drives the fifth vibratory disk to move along the extension direction of the sliding groove, thus causing the fifth vibratory disk to move along the fourth direction. Since one end of the connecting shaft is connected to a transmission rack 91, which meshes with the vibrating gear 51, and the extension direction of the transmission rack 91 is parallel to the extension direction of the sliding groove, when the third transmission member 391 and the fourth transmission member 392 drive the vibrating gear 51 to reciprocate, the vibrating gear 51 will drive the transmission rack 91 to reciprocate, thus causing the transmission rack 91 to reciprocate along the fourth direction, which in turn causes the fifth vibratory disk to reciprocate along the fourth direction.

[0078] It should be noted that, in the embodiments of this application, the gear assembly 100 may include one gear or multiple gears. The specific number of gears in the gear assembly 100 is not limited in the embodiments of this application.

[0079] In addition, after the fifth vibratory disc is set, the drive member 20 drives the drive gear 21 to rotate, and the drive gear 21 drives the first transmission gear 33 and the second transmission gear 34 to rotate. The first transmission gear 33 drives the first transmission shaft 31 to rotate, and the second transmission gear 34 drives the first transmission shaft 31 to rotate. The first transmission shaft 31 drives the first transmission member 35 and the third transmission shaft 37 to rotate, and the second transmission shaft 32 drives the second transmission member 36 and the fourth transmission shaft 38 to rotate. The first transmission member 35 and the second transmission member 36 drive the first vibration shaft 41 of the first vibratory disc 40 to reciprocate, that is, to reciprocate along the axial direction of the first vibration shaft 41. The third transmission member 391 and the fourth transmission member 392 drive the vibration gear 51 of the second vibratory disc 50 to reciprocate along its own circumferential direction. When the vibrating gear 51 reciprocates, it drives the second vibrating disk 50 to reciprocate, and also drives the transmission rack 91 to reciprocate, causing the transmission rack 91 to reciprocate along the fourth direction. The transmission rack 91 then drives the fifth vibrating disk to reciprocate along the fourth direction. That is, after the drive unit 20 operates, it can simultaneously drive the first vibrating disk 40, the second vibrating disk 50, and the fifth vibrating disk to move, ensuring that the material placed on the first vibrating disk 40, the second vibrating disk 50, and the fifth vibrating disk is in motion simultaneously, preventing the material from settling. Furthermore, the inclusion of the fifth vibrating disk increases the material load capacity of the vibrating device.

[0080] In this embodiment, since the output end of the drive component 20 is connected to the transmission assembly, and the first vibratory disk 40 is slidably connected to the base 10 and connected to the transmission assembly, the drive component 20 can drive the transmission assembly to move. This allows the transmission assembly to transmit power to the first vibratory disk 40, causing it to reciprocate along its sliding direction, i.e., along the first direction. Therefore, after material is placed on the first vibratory disk 40, the drive component 20 can drive the first vibratory disk 40 to reciprocate through the transmission assembly, preventing the material from settling and depositing. In other words, in this embodiment, by setting up the drive component 20, the transmission assembly, and the first vibratory disk 40, the drive component 20 can drive the transmission assembly to move, which in turn drives the first vibratory disk 40 to reciprocate along the first direction. This prevents the material from settling and depositing in the first vibratory disk 40 after it has been placed, thus avoiding problems such as material deterioration and deposition that affect the material's performance. For example, if glass primer is placed on the first vibratory disk 40, the primer may delaminate, affecting its performance and ultimately impacting the installation of the windshield.

[0081] It should be noted that the various embodiments in this specification are described in a progressive manner, with each embodiment focusing on the differences from other embodiments. The same or similar parts between the various embodiments can be referred to each other.

[0082] Although optional embodiments of the present application have been described, those skilled in the art, upon learning the basic inventive concept, can make other changes and modifications to these embodiments. Therefore, the appended claims are intended to be interpreted as including the optional embodiments as well as all changes and modifications falling within the scope of the embodiments of the present application.

[0083] Finally, it should be noted that in this document, relational terms such as "first" and "second" are used merely to distinguish one entity from another, and do not necessarily require or imply any such actual relationship or order between these entities. Furthermore, the terms "comprising," "including," or any other variations thereof are intended to cover non-exclusive inclusion, such that an article or terminal device that comprises a list of elements includes not only those elements but also other elements not expressly listed, or elements inherent to such an article or terminal device. Without further limitations, an element defined by the phrase "comprising one..." does not exclude the presence of other identical elements in the article or terminal device that includes that element.

[0084] The technical solutions provided in this application have been described in detail above. Specific examples have been used to illustrate the principles and implementation methods of this application. At the same time, for those skilled in the art, there will be changes in the specific implementation methods and application scope based on the principles and implementation methods of this application. Therefore, the content of this specification should not be construed as a limitation of this application.

Claims

1. A vibration device, characterized in that, The vibration device includes: a base, a driving component, a transmission assembly, and a first vibrating plate; The driving component is mounted on the base, and the output end of the driving component is connected to the transmission assembly. The first vibrating plate is slidably connected to the base and connected to the transmission assembly. The first vibrating plate is used to carry materials, and the driving component is used to drive the transmission assembly to move so that the transmission assembly drives the first vibrating plate to reciprocate along the first direction. The transmission assembly includes a first transmission shaft, a second transmission shaft, a first transmission gear, a second transmission gear, a first transmission component, and a second transmission component; the output end of the driving component is connected to a driving gear. The first drive shaft and the second drive shaft are both rotatably connected to the base, and the first drive shaft and the second drive shaft are spaced apart. The first drive gear and the first drive component are both sleeved on the first drive shaft, and the second drive gear and the second drive component are both sleeved on the second drive shaft. The outer wall of the first drive component is provided with a first tooth pattern along the circumferential direction of the first drive component, and the first tooth pattern occupies half of the outer wall of the first drive component. The outer wall of the second drive component is provided with a second tooth pattern along the circumferential direction of the second drive component, and the second tooth pattern occupies half of the outer wall of the second drive component. The drive gear is located between the first transmission gear and the second transmission gear, and the drive gear meshes with the first transmission gear and the second transmission gear respectively. The first vibrating plate is connected to a first vibration shaft, and the first vibration shaft is slidably connected to the base. The first side teeth and the second side teeth are respectively provided on opposite sides of the first vibration shaft. The first side teeth are distributed along the axial direction of the first vibration shaft, and the second side teeth are distributed along the axial direction of the first vibration shaft. Part of the first vibration shaft is located between the first transmission component and the second transmission component. The driving component is used to drive the driving gear to rotate, the driving gear drives the first transmission gear and the second transmission gear to rotate, the first transmission gear drives the first transmission shaft to rotate, the second transmission gear drives the second transmission shaft to rotate, the first transmission component rotates, the second transmission component rotates, so that the first side tooth pattern meshes with the first tooth pattern, the second side tooth pattern meshes with the second tooth pattern, so that the first vibration shaft reciprocates along the first direction; The vibration device further includes a second vibration disk, which is rotatably connected to the base. The transmission assembly further includes a third transmission shaft, a fourth transmission shaft, a third transmission component, and a fourth transmission component. One end of the third transmission shaft is connected to one end of the first transmission shaft, one end of the fourth transmission shaft is connected to one end of the second transmission shaft, the third transmission component is sleeved on the third transmission shaft, and the fourth transmission component is sleeved on the fourth transmission shaft. The third transmission member has a third tooth pattern on its outer wall along the circumferential direction, and the third tooth pattern occupies half of the outer wall of the third transmission member. The fourth transmission member has a fourth tooth pattern on its outer wall along the circumferential direction, and the fourth tooth pattern occupies half of the outer wall of the fourth transmission member. The second vibratory plate is connected to a vibrating gear, which is located between the third transmission member and the fourth transmission member; When the third and fourth transmission components rotate, the third and fourth toothed teeth alternately mesh with the vibrating gear, so that the vibrating gear drives the second vibrating disk to reciprocate.

2. The vibration device according to claim 1, characterized in that, The base is provided with a through hole, and a bushing is provided in the through hole. The second vibrating plate is connected to the vibrating gear through a rotating shaft, and the rotating shaft passes through the bushing.

3. The vibration device according to claim 1, characterized in that, The vibration device also includes a third vibration plate, and a third transmission gear and a fourth transmission gear are provided on the base, which are positioned opposite each other, and the third transmission gear and the fourth transmission gear are rotatably connected to the base. The base is also provided with a sliding frame, which is slidably connected to the base. The sliding frame includes a first side arm and a second side arm, which are connected to each other. Both the first side arm and the second side arm are slidably connected to the base. The first side arm has a first transmission tooth pattern and a first driving tooth pattern, and the second side arm has a second transmission tooth pattern and a second driving tooth pattern. A first connecting rod is connected to the side of the third transmission gear, and the connection point between the first connecting rod and the side of the third transmission gear is at a preset distance from the center of the side of the third transmission gear. A second connecting rod is connected to the side of the fourth transmission gear, and the connection point between the second connecting rod and the side of the fourth transmission gear is at a preset distance from the center of the side of the fourth transmission gear. Both the first connecting rod and the second connecting rod are connected to the third vibrating plate. The first transmission tooth pattern and the second transmission tooth pattern are positioned opposite each other, and the third transmission member and the fourth transmission member are located between the first transmission tooth pattern and the second transmission tooth pattern. The first driving tooth pattern meshes with the third transmission gear, and the second driving tooth pattern meshes with the fourth transmission gear. When the third transmission member and the fourth transmission member rotate, the third toothed teeth and the first transmission toothed teeth, and the fourth toothed teeth and the second transmission toothed teeth, alternately mesh to cause the first side arm and the second side arm to reciprocate, causing the third transmission gear and the fourth transmission gear to reciprocate, driving the first connecting rod and the second connecting rod to reciprocate along the second direction, and causing the third vibrating plate to reciprocate along the second direction.

4. The vibration device according to claim 3, characterized in that, The base is provided with a first mounting hole and a second mounting hole that are positioned opposite each other. The third vibrating plate is connected to a first drive rod and a second drive rod. The first drive rod is partially embedded in the first mounting hole, and the second drive rod is partially embedded in the second mounting hole. The base is provided with a first sliding groove and a second sliding groove positioned opposite each other, and the extension directions of the first sliding groove and the second sliding groove are both parallel to the second direction. The first sliding groove communicates with the first mounting hole, and the second sliding groove communicates with the second mounting hole. The first connecting rod and the first driving rod are connected by a first transmission rod, and the second connecting rod and the second driving rod are connected by a second transmission rod. The first transmission rod passes through the first sliding groove, and the second transmission rod passes through the second sliding groove. The first transmission rod moves along the direction of the first sliding groove, and the second transmission rod moves along the direction of the second sliding groove.

5. The vibration device according to claim 4, characterized in that, The vibration device further includes a fourth vibration plate, which is connected to a second vibration shaft and a third vibration shaft. The second vibration shaft and the third vibration shaft are spaced apart, and both the second vibration shaft and the third vibration shaft are slidably connected to the base. The third transmission component and the fourth transmission component are located between the second vibration shaft and the third vibration shaft. The second vibration shaft is provided with a third driving tooth pattern on the side facing the third transmission member, and the third vibration shaft is provided with a fourth driving tooth pattern on the side facing the fourth transmission member. The third driving tooth pattern is distributed along the axial direction of the second vibration shaft, and the fourth driving tooth pattern is distributed along the axial direction of the third vibration shaft. When the third transmission member and the fourth transmission member rotate, the third toothed teeth and the third driving toothed teeth, and the fourth toothed teeth and the fourth driving toothed teeth, alternately mesh to cause the second vibration shaft and the third vibration shaft to reciprocate along a third direction, and the third vibration disk to reciprocate along the third direction.

6. The vibration device according to claim 5, characterized in that, The base is provided with a first sliding groove and a second sliding groove positioned opposite each other. The first sliding groove extends along the axial direction of the second vibration shaft, and the second sliding groove extends along the axial direction of the third vibration shaft. A first sliding platform is provided on the second vibration shaft, and the first sliding platform is embedded in the first sliding groove. A second sliding platform is provided on the third vibration shaft, and the second sliding platform is embedded in the second sliding groove.

7. The vibration device according to claim 4, characterized in that, The vibration device also includes a fifth vibratory disk and a gear assembly; The fifth vibratory plate is disposed on the base, and the base is provided with a sliding groove. The fifth vibratory plate is connected to a connecting shaft, which passes through the sliding groove. The sliding groove extends along the fourth direction, and the connecting shaft slides in the sliding groove. One end of the connecting shaft is connected to a transmission rack, which meshes with the vibrating gear. The extending direction of the transmission rack is parallel to the extending direction of the sliding groove. When the vibrating gear rotates, the vibrating gear drives the transmission rack to reciprocate along the fourth direction, so that the fifth vibrating disk reciprocates along the fourth direction.

8. The vibration device according to claim 1, characterized in that, The base is provided with a third slide groove and a fourth slide groove that are positioned opposite each other. The third slide groove extends along the axial direction of the first vibration shaft, and the fourth slide groove extends along the axial direction of the first vibration shaft. A third sliding table and a fourth sliding table are provided on opposite sides of the first vibration shaft. The third sliding table is embedded in the third slide groove, and the fourth sliding table is embedded in the fourth slide groove.

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