Vibration detection device based on artificial intelligence

Abstract

The invention relates to the technical field of bearing vibration detection, in particular to a vibration detection device based on artificial intelligence, which comprises a detection table, a control panel, a detection mechanism, a driving mechanism, a feeding and discharging mechanism and a mounting mechanism, and is characterized in that the control panel is fixedly mounted on the detection table, and the detection mechanism is fixedly mounted on the detection table; the detection mechanism is used for detecting the bearing, the driving mechanism is used for driving the mounting mechanism to move, the mounting mechanism is fixedly mounted on the detection table and used for fixing the bearing, and the feeding and discharging mechanism is fixedly mounted on the detection table and used for feeding and discharging the bearing. According to the vibration detection device based on artificial intelligence, through arrangement of the feeding and discharging mechanism and the conveying mechanism, the moving block can sequentially drive the multiple different mounting blocks and the bearing table to move, the working efficiency and the using effect of the vibration detection device are improved, and the production and maintenance efficiency of new energy automobiles is improved.

Description

Technical Field

[0001] The present invention relates to the technical field of bearing vibration detection, and in particular to a vibration detection device based on artificial intelligence. Background Art

[0002] A bearing is a mechanical part installed in new energy vehicles and other places where shafts are needed to support and constrain the rotation or swing of the shaft. It forms a dynamic connection with the shaft to transmit loads and constrain the movement of the shaft. Bearing vibration is the phenomenon of periodic or non-periodic mechanical vibration caused by the interaction of internal structural parts, or external loads, installation conditions and other factors during the operation of the bearing.

[0003] The core of the artificial intelligence vibration detection device is to determine the operating status of the bearing by capturing vibration signals and analyzing their characteristics. Its core principles include the capture, conversion and analysis of vibration signals. When the bearing is operating normally, structural friction and load changes will produce regular vibrations; if there is a fault, it will cause abnormal impact vibrations. The physical quantity of mechanical vibration is converted into an electrical signal through the sensor. After pre-processing such as amplification and filtering of the electrical signal, it is compared with the normal status data through time domain or frequency domain analysis to determine whether there is a fault.

[0004] Considering that the existing artificial intelligence vibration detection device needs to be manually installed and disassembled for the bearings on the detection device when in use, and when multiple bearings are to be detected, the previously installed bearing needs to be manually disassembled and then the new bearing needs to be installed, which makes it difficult to perform continuous detection of multiple bearings, thereby reducing the efficiency of bearing detection and increasing the labor of the staff, resulting in reduced working efficiency and use effect of the vibration detection device, thereby reducing the production and maintenance efficiency of new energy vehicles. Summary of the Invention

[0005] The purpose of the present invention is to provide a vibration detection device based on artificial intelligence.

[0006] To achieve this object, the present invention adopts the following technical solutions: Provided is an artificial intelligence-based vibration detection device, comprising a detection platform, a control panel, a detection mechanism, a driving mechanism, a loading and unloading mechanism, and a mounting mechanism. The control panel is fixedly mounted on the detection platform, the detection mechanism is fixedly mounted on the detection platform, the detection mechanism is used to detect bearings, the driving mechanism is used to drive the mounting mechanism to move, the mounting mechanism is fixedly mounted on the detection platform, the mounting mechanism is used to fix the bearings, the loading and unloading mechanism is fixedly mounted on the detection platform, and the loading and unloading mechanism is used to load and unload bearings. The loading and unloading mechanism includes a conveying plate, a mounting block and a conveying mechanism. A slot is provided on the conveying plate, and the mounting block is plugged into the slot. The conveying mechanism is used to drive the mounting block to move.

[0007] Furthermore, the conveying mechanism includes a moving block, an insert rod, a push rod, a stop block, a second motor and a threaded rod. The moving block is slidably installed on the detection table, and the moving block is plugged into the mounting block. The insert rod is fixedly installed on the push rod through a connecting plate, and the push rod passes through the moving block. The stop block is fixedly installed on the push rod, and the stop block and the moving block are connected by a reset spring. A socket is provided on the mounting block, the insert rod is plugged into the socket, and the insert rod passes through the moving block. The second motor is fixedly installed on the detection table, the threaded rod is rotatably installed on the detection table, and the threaded rod is fixedly installed on the output shaft of the second motor, and the threaded rod is threadedly connected to the moving block.

[0008] Furthermore, the loading and unloading mechanism also includes an electric transmission track, a bearing platform and a limit plate. The electric transmission track is fixedly installed on the detection platform, the conveying plate is slidably installed on the electric transmission track, the bearing platform is fixedly installed on the mounting block, the bearing platform is used to support the bearing, and the limit plate is fixedly installed on the detection platform.

[0009] Furthermore, the driving mechanism includes an electric telescopic rod, a fixed cylinder, a mobile rod, a cylindrical rod and a motor. The electric telescopic rod is fixedly installed on the inspection platform, the fixed cylinder is fixedly installed on the inspection platform, the mobile rod is slidably installed on the fixed cylinder, and the mobile rod is fixedly connected to the output end of the electric telescopic rod. The motor is fixedly installed on the inspection platform, the cylindrical rod is fixedly connected to the output shaft of the motor through a circular plate, a plug-in column, and a sleeve connected in sequence through a circular plate, and the plug-in column and the sleeve are slidably connected, and the circular plate is rotatably installed on the mobile rod.

[0010] Furthermore, the installation mechanism includes a limiting cylinder, a circular slider and a claw. The limiting cylinder is rotatably installed on the fixed cylinder through a chuck, the circular slider is slidably installed on the limiting cylinder, the claw is hinged to the circular slider through a connecting rod, and the claw is slidably installed on the chuck.

[0011] Furthermore, the mounting mechanism also includes a rubber pad and a pressure plate, the rubber pad is fixedly mounted on the clamping claw, the pressure plate is slidably mounted on the clamping claw, and the pressure plate is slidably connected to the circular slider through a guide rod, the circular slider is fixedly mounted on the cylindrical rod, and the cylindrical rod passes through the chuck.

[0012] Furthermore, the detection mechanism includes a support frame, a semicircular ring, a hinged rod and a slider. The two ends of the support frame are respectively fixedly mounted on the detection platform and the fixed cylinder, and a slide groove is provided on the support frame. The semicircular ring is slidably mounted on the slide groove. The middle part of the hinged rod is rotatably mounted on the support frame, and both ends of the hinged rod are provided with through grooves. The semicircular ring passes through one through groove through the hinged column, and the slider is slidably mounted on the detection platform, and the slider passes through another through groove through the cylindrical block.

[0013] Furthermore, the detection mechanism also includes an extrusion mechanism, a signal transmission mechanism and an elastic telescopic rod. The elastic telescopic rod is fixedly installed on the detection platform, and the telescopic end of the elastic telescopic rod is fixedly connected to the slider. The extrusion mechanism is used to squeeze the slider. The signal transmission mechanism is fixedly installed on the semicircular ring, and the signal transmission mechanism is used to perform vibration detection on the bearing.

[0014] Furthermore, the extrusion mechanism includes a movable plate, an inclined block and an extrusion block. The movable plate is slidably mounted on the detection table, and the movable plate is fixedly mounted on the movable rod. A T-slot is provided on the movable plate. The inclined block is slidably connected to the T-slot through the T-block, and the extrusion block is fixedly mounted on the movable block.

[0015] Furthermore, the signal transmission mechanism includes a sensing head, a piezoelectric sensor and a cylindrical cylinder. The cylindrical cylinder is fixedly mounted on the semicircular ring, the piezoelectric sensor is fixedly mounted on the inner side of the cylindrical cylinder, the sensing head is connected to the piezoelectric sensor through a spring, and the sensing head is slidingly connected to the cylindrical cylinder. The piezoelectric sensor is electrically connected to the control panel through a wire.

[0016] The beneficial effects of the present invention are as follows: the vibration detection device based on artificial intelligence, through the set loading and unloading mechanism and the conveying mechanism, enables the moving block to drive multiple different mounting blocks and supporting platforms to move in sequence, thereby realizing the sequential loading and unloading of bearings on multiple supporting platforms, and then realizing the continuous detection of multiple bearings, improving the working efficiency and use effect of the vibration detection device, and improving the production and maintenance efficiency of new energy vehicles. In addition, through the set driving mechanism and installation mechanism, the inner ring and both sides of the bearing can be fixed at the same time, thereby avoiding the displacement of the bearing during rotation, thereby improving the detection accuracy and detection effect of the vibration detection device, and, through the set detection mechanism, extrusion mechanism and signal transmission mechanism, after the bearing is installed, the moving block in the conveying mechanism can be used to drive the extrusion mechanism to move, and then drive the signal transmission mechanism to contact the bearing for vibration detection, thereby further improving the working efficiency and use effect of the vibration detection device. BRIEF DESCRIPTION OF THE DRAWINGS

[0017] In order to more clearly illustrate the technical solutions of the embodiments of the present invention, the following briefly introduces the drawings required for use in the embodiments of the present invention.

[0018] Figure 1 It is a schematic diagram of the three-dimensional structure of the present invention; Figure 2 It is a rear view structural schematic diagram of the present invention; Figure 3 This is a schematic diagram of the top view of the detection platform of the present invention; Figure 4 This is a schematic diagram of the disassembled structure of the conveying plate and the mounting block of the present invention; Figure 5This is a schematic diagram of the split structure of the push rod and the moving block of the present invention; Figure 6 This is a schematic cross-sectional view of the fixing tube of the present invention; Figure 7 It is a schematic cross-sectional view of the chuck and the limiting cylinder of the present invention; Figure 8 This is a schematic cross-sectional structural diagram of a circular slider according to the present invention; Figure 9 This is a schematic diagram of the main structure of the detection mechanism of the present invention; Figure 10 This is a schematic diagram of the disassembled structure of the extrusion mechanism of the present invention; Figure 11 It is a schematic diagram of the cylindrical tube split structure of the present invention.

[0019] In the figure: 1. detection table; 2. control panel; 5. detection mechanism; 51. support frame; 52. slide; 53. semicircular ring; 54. hinge column; 55. hinge rod; 56. slider; 57. cylindrical block; 58. extrusion mechanism; 581. moving plate; 582. oblique block; 583. T-block; 584. T-slot; 585. extrusion block; 59. signal transmission mechanism; 591. induction head; 592. spring; 593. piezoelectric sensor; 594. cylindrical tube; 595. wire; 510. elastic telescopic rod; 511. through slot; 6. driving mechanism; 61. electric telescopic rod; 62. fixed tube; 63. moving rod; 64. circular Plate; 65, cylindrical rod; 66, motor 1; 67, sleeve; 68, plug-in column; 7, loading and unloading mechanism; 71, electric conveying track; 72, conveying plate; 73, bearing platform; 74, slot; 75, mounting block; 76, conveying mechanism; 761, motor 2; 762, moving block; 763, threaded rod; 764, plug-in rod; 765, push rod; 766, block; 767, return spring; 768, connecting plate; 769, socket; 77, limit plate; 9, mounting mechanism; 91, chuck; 93, limit cylinder; 94, circular slider; 95, connecting rod; 96, claw; 97, rubber pad; 98, pressure plate; 99, guide rod. DETAILED DESCRIPTION

[0020] The technical solution of the present invention will be further described below with reference to the accompanying drawings and through specific implementation methods.

[0021] Among them, the drawings are only used for illustrative purposes and represent only schematic diagrams rather than actual pictures, and should not be understood as limitations on this patent; in order to better illustrate the embodiments of the present invention, some parts of the drawings may be omitted, enlarged or reduced, and do not represent the size of the actual product.

[0022] Reference Figures 1 to 4The artificial intelligence-based vibration detection device shown includes a detection platform 1, a control panel 2, a detection mechanism 5, a driving mechanism 6, a loading and unloading mechanism 7 and an installation mechanism 9. The control panel 2 is fixedly installed on the detection platform 1. The control panel 2 is provided with a display screen and control buttons to facilitate observation and analysis of the vibration detection results. The detection mechanism 5 is fixedly installed on the detection platform 1. The detection mechanism 5 is used to detect the bearing. The detection mechanism 5 can perform vibration detection on multiple positions of the outer ring of the bearing. The driving mechanism 6 is used to drive the installation mechanism 9 to move. The installation mechanism 9 is fixedly installed on the detection platform 1. The installation mechanism 9 is used to fix the bearing. The installation mechanism 9 can clamp and fix the inner ring and both sides of the bearing at the same time, thereby avoiding displacement of the bearing during rotation. The loading and unloading mechanism 7 is fixedly installed on the detection platform 1. The loading and unloading mechanism 7 is used to load and unload the bearing, thereby enabling continuous vibration detection of multiple bearings. The loading and unloading mechanism 7 includes a conveying plate 72, a mounting block 75 and a conveying mechanism 76. A slot 74 is provided on the conveying plate 72. There are multiple slots 74, which correspond to multiple mounting blocks 75 respectively. The mounting blocks 75 are plugged into the slots 74. Through the plug-in effect of the mounting blocks 75 and the slots 74, the conveying plate 72 can drive the mounting blocks 75 to move. The conveying mechanism 76 is used to drive the mounting blocks 75 to move, thereby driving the supporting platform 73 and the bearing to move.

[0023] Reference Figures 3 to 5The conveying mechanism 76 includes a moving block 762, an insert rod 764, a push rod 765, a stopper 766, a motor 2 761 and a threaded rod 763. The moving block 762 is slidably mounted on the detection platform 1, and the moving block 762 is plugged into the mounting block 75. When the mounting block 75 is plugged into the moving block 762, the moving effect of the moving block 762 can drive the mounting block 75 to move. The insert rod 764 is fixedly mounted on the push rod 765 through the connecting plate 768, and the push rod 765 passes through the moving block 762. When the moving block 762 drives the push rod 765 to contact the inner wall of the detection platform 1, the push rod 765 can be squeezed through the inner wall of the detection platform 1, so that the connecting plate 768 can drive the insert rod 764 to move, thereby releasing the plugging effect of the insert rod 764 and the socket 769. The stopper 766 is fixedly mounted on the push rod 765, and a return spring is provided between the stopper 766 and the moving block 762. When the cam 762 is in the unlock state, the locking cam 764 is in the unlock state, and the locking cam 764 is in the unlock state, so that the cam 762 can be unlocked and the cam 764 can be unlocked.

[0024] Reference Figure 2 and Figure 4 The loading and unloading mechanism 7 also includes an electric transmission rail 71, a bearing platform 73 and a limit plate 77. The electric transmission rail 71 is fixedly mounted on the detection platform 1. By starting the electric transmission rail 71, the conveying plate 72 can be driven to move. The conveying plate 72 is slidably mounted on the electric transmission rail 71. The movement effect of the conveying plate 72 can drive the mounting block 75 to move. The bearing platform 73 is fixedly mounted on the mounting block 75. The bearing platform 73 is used to carry the bearing. The movement effect of the mounting block 75 can drive the bearing platform 73 to move, and then drive the carried bearing to move. The limit plate 77 is fixedly mounted on the detection platform 1. The limit plate 77 is used to protect one side of the conveying plate 72 to prevent the mounting block 75 from falling off when the conveying plate 72 drives the mounting block 75 for conveying.

[0025] Reference Figure 2 、 Figure 3 and Figure 6The driving mechanism 6 includes an electric telescopic rod 61, a fixed cylinder 62, a mobile rod 63, a cylindrical rod 65 and a motor 66. The electric telescopic rod 61 is fixedly mounted on the detection platform 1. By starting the electric telescopic rod 61, the mobile rod 63 can be driven to move. The fixed cylinder 62 is fixedly mounted on the detection platform 1. The mobile rod 63 is slidably mounted on the fixed cylinder 62. The mobile rod 63 is fixedly connected to the output end of the electric telescopic rod 61. The moving effect of the mobile rod 63 can drive the circular plate 64 to move. The motor 66 is fixedly mounted on the detection platform 1. By Starting motor 1 66 can drive sleeve 67 to rotate. The cylindrical rod 65 is fixedly connected to the output shaft of motor 1 66 through the circular plate 64, the plug-in column 68, and the sleeve 67 connected in sequence by the circular plate 64, and the plug-in column 68 is slidably connected to the sleeve 67. The moving effect of the circular plate 64 can drive the cylindrical rod 65 and the plug-in column 68 to move. The circular plate 64 is rotatably installed on the moving rod 63. The rotation effect of the sleeve 67 can drive the plug-in column 68 to rotate, so that the circular plate 64 drives the cylindrical rod 65 to rotate.

[0026] Reference Figure 7 and Figure 8 The mounting mechanism 9 includes a limiting cylinder 93, a circular slider 94 and a claw 96. The limiting cylinder 93 is rotatably mounted on the fixed cylinder 62 through the chuck 91. The rotation effect of the limiting cylinder 93 can drive the chuck 91 to rotate, and the circular slider 94 is slidably mounted on the limiting cylinder 93. The sliding effect of the circular slider 94 can drive the connecting rod 95 to move, thereby driving the claw 96 to move. The claw 96 is hinged to the circular slider 94 through the connecting rod 95, and the claw 96 is slidably mounted on the chuck 91. When the moving block 762 drives the mounting block 75 and the bearing platform 73 to move to the bottom of the limiting cylinder 93, the sliding effect of the claw 96 can lift the bearing placed on the bearing platform 73 below the limiting cylinder 93 and clamp its inner ring. The mounting mechanism 9 also includes a rubber pad 97 and a pressure plate 98. The rubber pad 97 is fixedly mounted on the claw 96. The rubber pad 97 is provided to improve the friction and fixing effect between the claw 96 and the inner ring of the bearing, and can avoid wear on the inner ring of the bearing. The pressure plate 98 is slidably mounted on the claw 96, and the pressure plate 98 is slidably connected to the circular slider 94 through the guide rod 99. Through the sliding effect of the pressure plate 98, one side of the bearing on the claw 96 can be limited. The circular slider 94 is fixedly mounted on the cylindrical rod 65, and the cylindrical rod 65 passes through the chuck 91. Through the rotation and movement effect of the cylindrical rod 65, the circular slider 94 can be driven to rotate and move.

[0027] Reference Figure 1 and Figure 9The detection mechanism 5 includes a support frame 51, a semicircular ring 53, a hinged rod 55 and a slider 56. The two ends of the support frame 51 are fixedly mounted on the detection platform 1 and the fixed cylinder 62 respectively, and a slide groove 52 is provided on the support frame 51. Through the fixing effect of the support frame 51, the fixed cylinder 62 is supported and fixed. The semicircular ring 53 is slidably mounted on the slide groove 52. There are two semicircular rings 53 symmetrically distributed. Through the moving effect of the semicircular ring 53, the signal transmission mechanism 59 can be driven to move. The middle part of the hinged rod 55 is rotatably mounted on the support frame 51, and the two ends of the hinged rod 55 are fixedly mounted on the detection platform 1 and the fixed cylinder 62. A through slot 511 is provided at each end. The hinge column 54 can move along the through slot 511 through the rotation effect of the hinge rod 55. The semi-circular ring 53 passes through a through slot 511 through the hinge column 54. The movement effect of the hinge column 54 along the through slot 511 can drive the semi-circular ring 53 to move along the slide groove 52. The slider 56 is slidably installed on the detection table 1, and the slider 56 passes through another through slot 511 through the cylindrical block 57. The movement effect of the slider 56 can drive the cylindrical block 57 to move along the through slot 511, thereby driving the hinge rod 55 to rotate.

[0028] Reference Figure 3 and Figure 9 The detection mechanism 5 also includes a squeezing mechanism 58, a signal transmission mechanism 59 and an elastic telescopic rod 510. The elastic telescopic rod 510 is fixedly mounted on the detection platform 1, and the telescopic end of the elastic telescopic rod 510 is fixedly connected to the slider 56. Through the elastic force of the elastic telescopic rod 510, the slider 56 always keeps driving the semi-circular ring 53 to move away from the chuck 91 without being affected by external force. The squeezing mechanism 58 is used to squeeze the slider 56, thereby driving the semi-circular ring 53 to move along the slide groove 52. The signal transmission mechanism 59 is fixedly mounted on the semi-circular ring 53. The signal transmission mechanism 59 is used to perform vibration detection on the bearing.

[0029] Reference Figure 3 and Figure 10 The extrusion mechanism 58 includes a movable plate 581, an inclined block 582 and an extrusion block 585. The movable plate 581 is slidably mounted on the detection table 1, and the movable plate 581 is fixedly mounted on the movable rod 63. The moving effect of the movable rod 63 can drive the movable plate 581 to move. A T-slot 584 is provided on the movable plate 581. The inclined block 582 is slidably connected to the T-slot 584 through the T-block 583. The moving effect of the movable plate 581 can drive the inclined block 582 to move, so that the position of the inclined block 582 can correspond to the slider 56. The extrusion block 585 is fixedly mounted on the movable block 762. The moving effect of the movable block 762 can drive the extrusion block 585 to move, so that the extrusion block 585 can extrude the inclined block 582, thereby driving the inclined block 582 to extrude the slider 56, and driving the slider 56 to move.

[0030] Reference Figure 1 and Figure 11 The signal transmission mechanism 59 includes a sensing head 591, a piezoelectric sensor 593 and a cylindrical tube 594. The cylindrical tube 594 is fixedly mounted on the semicircular ring 53. The movement of the semicircular ring 53 can drive the cylindrical tube 594 to move, thereby driving the sensing head 591 to contact the outer ring of the bearing. The piezoelectric sensor 593 is fixedly mounted on the inner side of the cylindrical tube 594. The pressure signal is converted into an electrical signal by the piezoelectric sensor 593. The sensing head 591 is connected to the piezoelectric sensor 593 through a spring 592, and the sensing head 591 is slidably connected to the cylindrical tube 594. When the sensing head 591 is subjected to the vibration effect, pressure is generated on the spring 592, and the pressure can be transmitted to the piezoelectric sensor 593 through the spring 592. The piezoelectric sensor 593 is electrically connected to the control panel 2 through a wire 595, and the electrical signal converted by the piezoelectric sensor 593 can be transmitted to the control panel 2 through the wire 595 for vibration detection.

[0031] Reference Figures 1 to 11 This artificial intelligence-based vibration detection device, through the set loading and unloading mechanism and the conveying mechanism, enables the moving block to sequentially drive multiple different mounting blocks and bearing platforms to move, thereby realizing the sequential loading and unloading of bearings on multiple bearing platforms, thereby realizing continuous detection of multiple bearings, improving the working efficiency and use effect of the vibration detection device, and improving the production and maintenance efficiency of new energy vehicles. In addition, through the set driving mechanism and mounting mechanism, the inner ring and both sides of the bearing can be fixed at the same time, thereby avoiding the displacement of the bearing during rotation, thereby improving the detection accuracy and detection effect of the vibration detection device, and through the set detection mechanism, extrusion mechanism and signal transmission mechanism, after the bearing is installed, the moving block in the conveying mechanism can drive the extrusion mechanism to move, thereby driving the signal transmission mechanism to contact the bearing for vibration detection, thereby further improving the working efficiency and use effect of the vibration detection device.

[0032] The above are only preferred embodiments of the present invention. It should be pointed out that for ordinary technicians in this technical field, several improvements and modifications can be made without departing from the technical principles of the present invention. These improvements and modifications should also be regarded as the scope of protection of the present invention.

Claims

1. A vibration detection device based on artificial intelligence, characterized in that: The invention comprises a testing platform (1), a control panel (2), a testing mechanism (5), a driving mechanism (6), a loading and unloading mechanism (7) and a mounting mechanism (9), wherein the control panel (2) is fixedly mounted on the testing platform (1), the testing mechanism (5) is fixedly mounted on the testing platform (1), the testing mechanism (5) is used to test the bearing, the driving mechanism (6) is used to drive the mounting mechanism (9) to move, the mounting mechanism (9) is fixedly mounted on the testing platform (1), the mounting mechanism (9) is used to fix the bearing, the loading and unloading mechanism (7) is fixedly mounted on the testing platform (1), and the loading and unloading mechanism (7) is used to load and unload the bearing; The loading and unloading mechanism (7) comprises a conveying plate (72), a mounting block (75) and a conveying mechanism (76); a slot (74) is provided on the conveying plate (72); the mounting block (75) is plugged into the slot (74); and the conveying mechanism (76) is used to drive the mounting block (75) to move.

2. The vibration detection device based on artificial intelligence according to claim 1, characterized in that: The conveying mechanism (76) includes a moving block (762), an insert rod (764), a push rod (765), a stopper (766), a second motor (761) and a threaded rod (763), wherein the moving block (762) is slidably mounted on the detection table (1), and the moving block (762) is plugged into the mounting block (75), the insert rod (764) is fixedly mounted on the push rod (765) through a connecting plate (768), and the push rod (765) passes through the moving block (762), the stopper (766) is fixedly mounted on the push rod (765), and the stopper ( 766) is connected to the moving block (762) via a return spring (767), a socket (769) is provided on the mounting block (75), the plug rod (764) is plugged into the socket (769), and the plug rod (764) passes through the moving block (762), the motor 2 (761) is fixedly mounted on the detection table (1), the threaded rod (763) is rotatably mounted on the detection table (1), and the threaded rod (763) is fixedly mounted on the output shaft of the motor 2 (761), and the threaded rod (763) is threadedly connected to the moving block (762).

3. The vibration detection device based on artificial intelligence according to claim 1, characterized in that: The loading and unloading mechanism (7) further comprises an electric transmission track (71), a bearing platform (73) and a limit plate (77), wherein the electric transmission track (71) is fixedly mounted on the detection platform (1), the conveying plate (72) is slidably mounted on the electric transmission track (71), the bearing platform (73) is fixedly mounted on the mounting block (75), the bearing platform (73) is used to support the bearing, and the limit plate (77) is fixedly mounted on the detection platform (1).

4. The vibration detection device based on artificial intelligence according to claim 1, characterized in that: The driving mechanism (6) comprises an electric telescopic rod (61), a fixed cylinder (62), a mobile rod (63), a cylindrical rod (65) and a motor (66), wherein the electric telescopic rod (61) is fixedly mounted on the detection platform (1), the fixed cylinder (62) is fixedly mounted on the detection platform (1), the mobile rod (63) is slidably mounted on the fixed cylinder (62), and the mobile rod (63) is fixedly connected to the output end of the electric telescopic rod (61), the motor (66) is fixedly mounted on the detection platform (1), the cylindrical rod (65) is fixedly connected to the output shaft of the motor (66) through a circular plate (64), a plug-in column (68) and a sleeve (67) connected in sequence by a circular plate (64), and the plug-in column (68) is slidably connected to the sleeve (67), and the circular plate (64) is rotatably mounted on the mobile rod (63).

5. The artificial intelligence-based vibration detection device according to claim 4, characterized in that: The mounting mechanism (9) comprises a limiting cylinder (93), a circular slider (94) and a claw (96); the limiting cylinder (93) is rotatably mounted on the fixed cylinder (62) via a chuck (91); the circular slider (94) is slidably mounted on the limiting cylinder (93); the claw (96) is hinged to the circular slider (94) via a connecting rod (95), and the claw (96) is slidably mounted on the chuck (91).

6. The artificial intelligence-based vibration detection device according to claim 5, characterized in that: The mounting mechanism (9) further comprises a rubber pad (97) and a pressure plate (98), wherein the rubber pad (97) is fixedly mounted on the clamping claw (96), the pressure plate (98) is slidably mounted on the clamping claw (96), and the pressure plate (98) is slidably connected to the circular slider (94) via a guide rod (99), and the circular slider (94) is fixedly mounted on the cylindrical rod (65), and the cylindrical rod (65) passes through the chuck (91).

7. The vibration detection device based on artificial intelligence according to claim 5, characterized in that: The detection mechanism (5) includes a support frame (51), a semicircular ring (53), a hinged rod (55) and a slider (56), wherein the two ends of the support frame (51) are fixedly mounted on the detection platform (1) and the fixed cylinder (62), respectively, and a slide groove (52) is provided on the support frame (51), and the semicircular ring (53) is slidably mounted on the slide groove (52), and the middle part of the hinged rod (55) is rotatably mounted on the support frame (51), and both ends of the hinged rod (55) are provided with a through groove (511), and the semicircular ring (53) passes through one through groove (511) through the hinged column (54), and the slider (56) is slidably mounted on the detection platform (1), and the slider (56) passes through the other through groove (511) through the cylindrical block (57).

8. The artificial intelligence-based vibration detection device according to claim 7, characterized in that: The detection mechanism (5) further comprises a squeezing mechanism (58), a signal transmission mechanism (59) and an elastic telescopic rod (510), wherein the elastic telescopic rod (510) is fixedly mounted on the detection platform (1), and the telescopic end of the elastic telescopic rod (510) is fixedly connected to the slider (56), the squeezing mechanism (58) is used to squeeze the slider (56), and the signal transmission mechanism (59) is fixedly mounted on the semicircular ring (53), and the signal transmission mechanism (59) is used to perform vibration detection on the bearing.

9. The artificial intelligence-based vibration detection device according to claim 8, characterized in that: The extrusion mechanism (58) includes a movable plate (581), an inclined block (582) and an extrusion block (585). The movable plate (581) is slidably mounted on the detection table (1), and the movable plate (581) is fixedly mounted on the movable rod (63). A T-slot (584) is provided on the movable plate (581). The inclined block (582) is slidably connected to the T-slot (584) via the T-block (583). The extrusion block (585) is fixedly mounted on the movable block (762).

10. The artificial intelligence-based vibration detection device according to claim 8, characterized in that: The signal transmission mechanism (59) includes a sensing head (591), a piezoelectric sensor (593) and a cylindrical tube (594), wherein the cylindrical tube (594) is fixedly mounted on the semicircular ring (53), and the piezoelectric sensor (593) is fixedly mounted on the inner side of the cylindrical tube (594). The sensing head (591) is connected to the piezoelectric sensor (593) via a spring (592), and the sensing head (591) is slidably connected to the cylindrical tube (594). The piezoelectric sensor (593) is electrically connected to the control panel (2) via a wire (595).

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