Continuous part detection device

Abstract

The utility model discloses a continuous part detection device, which relates to the technical field of part detection, and has the technical key points that the continuous part detection device comprises a rack on which an inclined conveying slideway is arranged; the rack is provided with a feeding assembly at one side of the high position of the slideway, and is provided with a weighing mechanism at the other side; an adsorption opening is formed in the lower surface of the conveying slide way, a collecting box and a negative pressure generating device are arranged below the conveying slide way, and a grinding assembly is arranged on a fixed support in the box; a first lifting component is arranged on the mounting bracket above the slideway, and a movable part of the first lifting component is connected with the pressing block and corresponds to the movable opening; a second lifting assembly is arranged on one side of the movable part; the weighing mechanism comprises a weighing frame, an electronic scale is arranged on the weighing frame, a storage groove is formed in the weighing frame, the groove bottom is inclined, and a discharging port, an electric gate and an alarm assembly are arranged on one side of the weighing frame. After being polished, the parts are placed in the storage groove, the electronic scale controls the electric gate or gives an alarm according to the preset weight, and the negative pressure generating device continuously works; according to the utility model, the wear resistance of the zero-degree part can be continuously detected, and chippings can be continuously cleaned.

Description

Technical Field

[0001] This utility model relates to the field of component testing technology, and in particular to a continuous component testing device. Background Technology

[0002] Wear resistance testing of mechanical components is a core aspect of ensuring product reliability and lifespan in industrial manufacturing. In various mechanical systems, components must withstand complex conditions such as friction, impact, and corrosion over extended periods. Their wear resistance directly affects equipment operational stability, maintenance costs, and safety. For example, failure of critical components such as bearings, gears, and seals due to wear can lead to equipment downtime, production interruptions, and even safety accidents. Therefore, quantitatively evaluating the wear resistance of components through scientific testing methods has become a key technical requirement for quality control in many industries, including machinery, electronics, and aerospace.

[0003] Taking the automotive industry as an example, wheel hubcaps, as key components protecting the wheel hub and bolts, must withstand complex conditions such as gravel impact and mud erosion over long periods. Their wear resistance directly affects vehicle driving safety and maintenance costs. To address these needs, existing technologies have proposed various testing solutions. For instance, utility model patent application number CN201821451229.7 discloses a device for testing the wear resistance of plastic wheel hubcaps.

[0004] The key drawback of existing wear resistance testing technologies lies in the lack of continuous testing capability. Traditional devices typically employ an intermittent testing mode, meaning that after each test, the machine must be stopped to replace the sample and clean up debris, resulting in low testing efficiency. Utility Model Content

[0005] In order to solve the above-mentioned technical problems, the purpose of this utility model is to provide a continuous component inspection device that can continuously test the wear resistance of zero-degree components and continuously clean up debris.

[0006] To achieve the above objectives, the present invention provides the following technical solution:

[0007] A continuous component inspection device includes a frame with an inclined conveyor slide on the frame, a feeding assembly on one side of the frame at a higher position on the conveyor slide, and a weighing mechanism on the other side of the frame.

[0008] The lower surface of the conveyor slide is provided with multiple adsorption ports. A collection box is fixedly installed below the conveyor slide. A negative pressure generating device is installed on one side of the collection box. A fixed bracket is installed inside the collection box below the conveyor slide. A grinding component is installed on the fixed bracket. An movable port for the grinding component to pass through is provided on the conveyor slide.

[0009] A mounting bracket is fixedly installed above the conveyor slide, and a first lifting component is installed on the mounting bracket. A pressing block is fixedly connected to the movable part at the bottom of the first lifting component. The pressing block corresponds to the movable opening. A second lifting component is installed on the side of the first lifting component facing the weighing unit. A stop plate is fixedly connected to the movable part at the bottom of the second lifting component.

[0010] The weighing mechanism includes a weighing frame connected to the frame, an electronic scale fixedly mounted on the weighing frame, a trough on the weighing surface of the electronic scale, the trough being directly below the outlet of the conveyor slide, the bottom of the trough being an inclined surface, the side of the inclined surface away from the conveyor slide being at a lower position, a discharge port being opened on the side of the trough away from the conveyor slide, an electric gate being provided at the discharge port, and an alarm component being provided on one side of the fixed part of the electronic scale;

[0011] When the component comes into contact with the stop plate, the first lifting assembly extends, and the grinding assembly simulates wear. After the preset wear time, the first lifting assembly and the second lifting assembly retract, and the component enters the storage slot through the conveyor slide outlet. The electronic scale controls the electric gate to open or controls the alarm assembly to sound an alarm according to the preset weight range and through the control unit. During this process, the negative pressure generating device continues to work.

[0012] Preferably, the polishing assembly includes a third lifting assembly connected to a fixed bracket, a polishing motor is fixedly connected to the movable part of the third lifting assembly, and a polishing column is fixedly connected to the output shaft of the polishing motor, the polishing column being able to pass through the movable opening.

[0013] Preferably, a pressure sensor is provided between the grinding motor and the third lifting assembly, and the pressure sensor controls the extension and retraction of the third lifting assembly according to a preset pressure range and through a control unit.

[0014] Preferably, the negative pressure generating device is a blower, and the first lifting component, the second lifting component, and the third lifting component are electric cylinders.

[0015] Preferably, a photoelectric switch is provided on the side of the first lifting component facing the feeding component. The photoelectric switch is triggered when the component passes by. The control unit is electrically connected to a timer. After the photoelectric switch is triggered, after a preset sliding time, the control unit controls the first lifting component to extend and drive the pressing block to press the component, and controls the third lifting component to extend and the grinding motor to start. After a preset wear time, the control unit controls the retraction of the first lifting component, the second lifting component and the third lifting component, and controls the grinding motor to turn off.

[0016] Preferably, the feeding component is a vibratory feeder, and the discharge port of the vibratory feeder is connected to the inlet of the conveying chute.

[0017] Preferably, the air inlet of the negative pressure generating device is provided with an isolation net, the side wall of the collection box is provided with a transparent observation window, and the bottom of the collection box is hinged with a cleaning door.

[0018] Preferably, the alarm component is an audible and visual alarm.

[0019] This utility model has the following beneficial effects:

[0020] I. Achieving Continuous Testing and Improving Testing Efficiency: Existing wear resistance testing technologies lack continuous testing capabilities. Traditional devices employ intermittent testing modes, requiring shutdowns after each test to replace samples and clean debris, resulting in low testing efficiency. However, this invention's continuous component testing device, through the design of an inclined conveyor chute and feeding components, continuously feeds components, allowing components to move along the conveyor chute. Combined with subsequent testing procedures, frequent shutdowns for sample replacement and debris cleaning are unnecessary, enabling continuous wear resistance testing of components and significantly improving testing efficiency.

[0021] II. Continuous Debris Removal and Cleanliness of the Testing Environment: Multiple suction ports are provided on the lower surface of the conveyor chute, with a collection box fixed below. A negative pressure generating device is installed on one side of the collection box. During the testing process, the negative pressure generating device operates continuously, sucking the grinding debris generated during grinding into the collection box through the suction ports. This achieves continuous debris removal, maintains a clean testing environment, and prevents debris from interfering with the testing process and results.

[0022] III. Precise control of grinding pressure improves testing accuracy: A pressure sensor is installed between the grinding motor and the third lifting component in the grinding assembly. Based on a preset pressure range, the pressure sensor controls the extension and retraction of the third lifting component through a control unit. During the grinding process, the grinding pressure of the grinding column on the parts can be precisely controlled, making the grinding conditions more stable and consistent. This improves the accuracy and reliability of the testing results, and more accurately reflects the wear resistance of the parts.

[0023] IV. Automated Inspection Process, Reducing Manual Intervention: A photoelectric switch is installed on the side of the first lifting assembly facing the feeding assembly. The photoelectric switch is triggered when a part passes by, and a timer is electrically connected to the control unit. After the photoelectric switch is triggered, and after a preset sliding time, the control unit controls the first lifting assembly to extend, causing the pressing block to press the part, and also controls the extension of the third lifting assembly and the start of the grinding motor. After a preset wear time, the control unit controls the retraction of the first, second, and third lifting assemblies, and controls the grinding motor to shut down. The entire inspection process is automated, reducing manual intervention, minimizing the impact of human factors on the inspection results, and improving the stability and consistency of the inspection.

[0024] V. Accurate Weighing and Alarm, Timely Feedback of Test Results: The weighing mechanism features a storage slot on the weighing surface of the electronic scale, located directly below the outlet of the conveyor slide. After grinding, the parts enter the storage slot through the conveyor slide outlet. The electronic scale, based on a preset weight range, controls the electric gate to open or the alarm component to sound an alarm via the control unit. This design accurately weighs the ground parts and provides timely feedback on the test results based on the preset range. If the weight of the parts exceeds or falls below the preset range, the alarm component will sound an alarm, allowing operators to promptly understand the wear resistance of the parts.

[0025] VI. Smooth connection between feeding and testing: The feeding component is a vibratory feeder, whose outlet is connected to the inlet of the conveyor chute. The vibratory feeder can evenly and continuously transport the parts to the conveyor chute, ensuring the stability and smoothness of feeding. It achieves seamless connection with subsequent testing steps such as grinding and weighing, making the entire testing process more efficient and orderly.

[0026] 7. Easy to observe and clean: The side wall of the collection box is equipped with a transparent observation window, which allows operators to observe the accumulation of debris inside the collection box at any time and understand the cleaning needs in a timely manner; the bottom of the collection box is hinged with a cleaning door, which can be opened to clean the debris inside the collection box when needed. This design not only ensures the normal operation of the device, but also facilitates maintenance and upkeep.

[0027] 8. Prevention of foreign object entry and safety alarm: An isolation net is installed at the air inlet of the negative pressure generator to effectively prevent large foreign objects from entering the negative pressure generator and protect the normal operation of the device; the alarm component is set as an audible and visual alarm, which can simultaneously emit sound and light alarms when the detection result is abnormal, attracting the attention of operators and improving safety and warning effect. Attached Figure Description

[0028] To more clearly illustrate the technical solutions of the embodiments of this utility model, the drawings used in the embodiments will be briefly introduced below. It should be understood that the following drawings only show some embodiments of this utility model and should not be regarded as a limitation on the scope. For those skilled in the art, other related drawings can be obtained based on these drawings without creative effort.

[0029] Figure 1 This is a cross-sectional view of the first embodiment of the present invention.

[0030] Figure 2 This is a partial cross-sectional view of the first embodiment of the present invention.

[0031] Figure 3 This is a three-dimensional schematic diagram of the weighing mechanism according to the first embodiment of the present utility model.

[0032] Figure 4 A partial cross-sectional view of the second embodiment of this utility model.

[0033] In the diagram: 1. Frame; 2. Conveyor chute; 201. Suction port; 3. Feeding assembly; 301. Collection box; 302. Negative pressure generating device; 303. Fixed bracket; 341. Third lifting assembly; 342. Grinding motor; 343. Grinding column; 344. Pressure sensor; 305. Isolation net; 306. Transparent observation window; 307. Cleaning door; 401. Mounting bracket; 402. First lifting assembly; 403. Pressing block; 404. Second lifting assembly; 405. Stop plate; 406. Photoelectric switch; 501. Weighing frame; 502. Electronic scale; 503. Storage trough; 504. Electric gate; 505. Alarm assembly. Detailed Implementation

[0034] The technical solutions of the present utility model will be clearly and completely described below with reference to the accompanying drawings of the embodiments. Obviously, the described embodiments are only some embodiments of the present utility model, and not all embodiments. Based on the embodiments of the present utility model, all other embodiments obtained by those skilled in the art without creative effort are within the protection scope of the present utility model.

[0035] First embodiment

[0036] like Figures 1 to 3As shown, a continuous component inspection device includes a frame 1 with an inclined conveyor chute 2. A feeding assembly 3 is mounted on one side of the frame 1 at a higher position on the conveyor chute 2, and a weighing mechanism is mounted on the other side of the frame 1. Multiple suction ports 201 are provided on the lower surface of the conveyor chute 2. A collection box 301 is fixedly mounted below the conveyor chute 2, and a negative pressure generating device 302 is mounted on one side of the collection box 301. A fixed bracket 303 is mounted inside the collection box 301 below the conveyor chute 2, and a grinding assembly is mounted on the fixed bracket 303. An opening for the grinding assembly to pass through is provided on the conveyor chute 2. A mounting bracket 401 is fixedly mounted above the conveyor chute 2, and a first lifting assembly 402 is mounted on the mounting bracket 401. The movable part at the bottom of the first lifting assembly 402 is fixedly connected to... A pressing block 403 is connected, and the pressing block 403 corresponds to the movable port. A second lifting component 404 is provided on the side of the first lifting component 402 facing the weighing unit. A stop plate 405 is fixedly connected to the movable part at the bottom of the second lifting component 404. The weighing mechanism includes a weighing frame 501 connected to the frame 1. An electronic scale 502 is fixedly installed on the weighing frame 501. A storage trough 503 is provided on the weighing surface of the electronic scale 502. The storage trough 503 is located directly below the outlet of the conveyor slide 2. The bottom of the storage trough 503 is an inclined surface. The side of the inclined surface away from the conveyor slide 2 is at a low position. A discharge port is opened on the side of the storage trough 503 away from the conveyor slide 2. An electric gate 504 is provided at the discharge port. An alarm component 505 is provided on one side of the fixed part of the electronic scale 502.

[0037] like Figures 1 to 3 As shown, the feeding assembly 3 places the parts at a high position on the inclined conveyor chute 2, and the parts slide down the conveyor chute 2 under the action of gravity. When the parts slide down to contact the stop plate 405, the stop plate 405 stops the parts under the action of the second lifting assembly 404. At the same time, the first lifting assembly 402 extends, so that the pressing block 403 presses down on the parts. At this time, the grinding assembly on the fixed bracket 303 in the collection box 301 below the conveyor chute 2 grinds the parts through the movable port to simulate their wear. After the preset wear time is up, the first lifting assembly 402 and the second lifting assembly 404 retract, and the parts continue to slide down. The parts come to the storage slot 503 of the weighing mechanism electronic scale 502 through the outlet of the conveyor chute 2. The electronic scale 502 weighs the parts. According to the preset weight range, the control unit controls the electric gate 504 to open so that qualified parts can be discharged from the outlet, or controls the alarm assembly 505 to alarm to indicate that the parts are unqualified. During the grinding process of the grinding components, the negative pressure generating device 302 works continuously, sucking the waste generated during grinding into the collection box 301 through multiple adsorption ports 201 on the lower surface of the conveyor slide 2.

[0038] like Figures 1 to 2As shown, the polishing assembly includes a third lifting assembly 341 connected to a fixed bracket 303. A polishing motor 342 is fixedly connected to the movable part of the third lifting assembly 341, and a polishing column 343 is fixedly connected to the output shaft of the polishing motor 342. The polishing column 343 can pass through a movable opening. The movable part of the third lifting assembly 341 extends upward, driving the polishing motor 342 fixedly connected to it to move downward. This causes the polishing column 343 fixedly connected to the output shaft of the polishing motor 342 to gradually approach and contact the part being inspected through the movable opening on the conveyor slide 2, preparing for subsequent polishing operations. When the polishing column 343 contacts the part, the polishing motor 342 starts, and its output shaft drives the polishing column 343 to rotate, polishing the surface of the part to simulate the wear and tear of the part during actual use.

[0039] like Figures 1 to 2 As shown, a pressure sensor 344 is installed between the grinding motor 342 and the third lifting assembly 341. The pressure sensor 344 controls the extension and retraction of the third lifting assembly 341 according to a preset pressure range and through the control unit. During the grinding process, the pressure sensor 344 monitors the pressure applied to the parts by the grinding column 343 in real time. When the pressure is not within the preset pressure range, the pressure sensor 344 transmits a signal to the control unit, which controls the extension and retraction of the third lifting assembly 341 based on the received signal. If the pressure is too low, the control unit controls the third lifting assembly 341 to extend, increasing the pressure of the grinding column 343 on the parts; if the pressure is too high, the control unit controls the third lifting assembly 341 to retract, reducing the pressure of the grinding column 343 on the parts, thereby ensuring that the pressure of the grinding column 343 on the parts is always within the preset pressure range, ensuring the accuracy and consistency of the simulated wear.

[0040] The negative pressure generating device 302 is configured as an exhaust fan, and the first lifting assembly 402, the second lifting assembly 404, and the third lifting assembly 341 are configured as electric cylinders. After the exhaust fan is started, a negative pressure environment is created within the collection box 301. Since the lower surface of the conveyor slide 2 has multiple suction ports 201 connected to the collection box 301, under the action of negative pressure, the waste debris generated by the grinding assembly during the grinding of parts is sucked into the collection box 301 through the suction ports 201, thus collecting the waste debris and preventing it from scattering around the device and affecting the working environment and parts inspection. The electric cylinder technology is mature and offers precise control.

[0041] The feeding component 3 is a vibratory feeder, and the discharge port of the vibratory feeder is connected to the inlet of the conveying chute 2. The vibratory feeder, through its own vibration, causes the parts placed in the feeder to be discharged from the discharge port in an orderly manner according to a certain pattern and direction. Since the discharge port of the vibratory feeder is connected to the inlet of the conveying chute 2, the parts can smoothly enter the conveying chute 2, realizing automatic feeding and improving detection efficiency.

[0042] like Figures 1 to 2 As shown, an isolation net 305 is installed at the air inlet of the negative pressure generating device 302, a transparent observation window 306 is installed on the side wall of the collection box 301, and a cleaning door 307 is hinged to the bottom of the collection box 301. The isolation net 305 at the air inlet of the negative pressure generating device 302 prevents larger particles or debris from entering the exhaust fan, thus avoiding damage and extending the fan's service life. The transparent observation window 306 on the side wall of the collection box 301 allows operators to easily observe the collection status of waste materials, such as whether excessive accumulation has occurred, for timely cleaning. The cleaning door 307 hinged to the bottom of the collection box 301 allows operators to open and remove waste materials when they accumulate to a certain level, ensuring the normal use of the collection box 301 and the continuous operation of the device.

[0043] like Figure 1 and Figure 3 As shown, the alarm component 505 is configured as an audible and visual alarm. When the electronic scale 502 in the weighing mechanism weighs the parts, if the weight of the parts is not within the preset weight range, the control unit controls the audible and visual alarm to emit sound and light signals to remind the operator that the parts are unqualified, so that the unqualified parts can be dealt with in a timely manner.

[0044] Second embodiment

[0045] like Figure 4 As shown, a photoelectric switch 406 is provided on the side of the first lifting component 402 facing the feeding component 3. The photoelectric switch 406 is triggered when the component passes by. The control unit is electrically connected to a timer. After the photoelectric switch 406 is triggered, after a preset sliding time, the control unit controls the first lifting component 402 to extend and drive the pressing block 403 to press the component, and controls the third lifting component 341 to extend and the grinding motor 342 to start. After a preset wear time, the control unit controls the first lifting component 402, the second lifting component 404 and the third lifting component 341 to retract, and controls the grinding motor 342 to turn off.

[0046] A photoelectric switch 406 is installed on the side of the first lifting assembly 402 facing the feeding assembly 3. When a component slides from the feeding assembly 3 onto the conveyor slide 2 and passes the location of the photoelectric switch 406, it blocks the light emitted by the photoelectric switch 406, thus triggering the switch. Once triggered, the photoelectric switch 406 sends an electrical signal to the control unit, informing it that a component has reached the designated position. Upon receiving the trigger signal from the photoelectric switch 406, the control unit starts a timer electrically connected to it. After a preset sliding time, which is pre-set based on the component's normal sliding speed on the conveyor slide 2 and the distance from the photoelectric switch 406 to the pressing block 403, the timer ensures the component accurately slides to the appropriate grinding position. When the timer reaches the preset sliding time, the control unit sends control signals to the first lifting assembly 402 and the third lifting assembly 341. The first lifting assembly 402 extends, and its movable part drives the pressing block 403 to move downward, pressing down on the parts located on the conveyor slide 2. This provides stable fixation for subsequent grinding operations, preventing the parts from moving during grinding and affecting the grinding effect. Simultaneously, the third lifting assembly 341 extends, and its movable part drives the grinding motor 342 to descend, allowing the grinding column 343 connected to the output shaft of the grinding motor 342 to contact the surface of the parts through the movable opening on the conveyor slide 2. At the same time, the control unit also controls the grinding motor 342 to start, causing the grinding column 343 to rotate and begin simulated wear grinding of the parts.

[0047] While starting the grinding motor 342, the control unit also restarts the timer to time the preset wear time. This preset wear time simulates the wear duration that the component may experience in actual use, and is used to detect whether the component can still meet quality requirements after a certain degree of wear. When the timer reaches the preset wear time, the control unit sends a retraction control signal to the first lifting assembly 402, the second lifting assembly 404, and the third lifting assembly 341. The first lifting assembly 402 retracts, causing the pressing block 403 to rise and release the pressure on the component; the second lifting assembly 404 retracts, and if the stop plate 405 was previously in a stop state (in the overall process, the second lifting assembly 404 may have a stop action according to other logic or in this embodiment, and retracting it to release the stop), it also releases the obstruction on the component; the third lifting assembly 341 retracts, causing the grinding motor 342 to rise, causing the grinding column 343 to leave the surface of the component. At the same time, the control unit controls the grinding motor 342 to shut down, stopping the grinding operation on the component. This completes one simulated wear test of the parts. The parts can then continue to slide along the conveyor chute 2 into the weighing and other subsequent testing stages.

[0048] The above are merely specific embodiments of this utility model, but the technical features of this utility model are not limited thereto. Any simple changes, equivalent substitutions, or modifications made based on this utility model to solve essentially the same technical problems and achieve essentially the same technical effects are all covered within the protection scope of this utility model.

Claims

1. A continuous component inspection device, comprising a frame (1), characterized in that: An inclined conveyor slide (2) is provided on the frame (1), a feeding assembly (3) is provided on one side of the high position of the conveyor slide (2) on the frame (1), and a weighing mechanism is provided on the other side of the frame (1). The lower surface of the conveying slide (2) is provided with multiple adsorption ports (201). A collection box (301) is fixedly installed below the conveying slide (2). A negative pressure generating device (302) is provided on one side of the collection box (301). A fixed bracket (303) is provided inside the collection box (301) below the conveying slide (2). A grinding component is provided on the fixed bracket (303). An movable port for the grinding component to pass through is provided on the conveying slide (2). A mounting bracket (401) is fixedly installed above the conveying slide (2). A first lifting component (402) is installed on the mounting bracket (401). A pressing block (403) is fixedly connected to the movable part at the bottom of the first lifting component (402). The pressing block (403) corresponds to the movable opening. A second lifting component (404) is installed on the side of the first lifting component (402) facing the weighing unit. A stop plate (405) is fixedly connected to the movable part at the bottom of the second lifting component (404). The weighing mechanism includes a weighing frame (501) connected to the frame (1), an electronic scale (502) is fixedly mounted on the weighing frame (501), a storage trough (503) is provided on the weighing surface of the electronic scale (502), the storage trough (503) is located directly below the outlet of the conveying slide (2), the bottom of the storage trough (503) is an inclined surface, the side of the inclined surface away from the conveying slide (2) is in a low position, a discharge port is opened on the side of the storage trough (503) away from the conveying slide (2), an electric gate (504) is provided at the discharge port, and an alarm component (505) is provided on one side of the fixed part of the electronic scale (502). When the component comes into contact with the stop plate (405), the first lifting assembly (402) extends, and the grinding assembly performs simulated wear. After the preset wear time, the first lifting assembly (402) and the second lifting assembly (404) retract, and the component comes into the storage slot (503) through the outlet of the conveying slide (2). The electronic scale (502) controls the electric gate (504) to open or controls the alarm assembly (505) to alarm according to the preset weight range and through the control unit. During this process, the negative pressure generating device (302) continues to work.

2. The continuous component inspection device according to claim 1, characterized in that: The polishing assembly includes a third lifting assembly (341) connected to a fixed bracket (303). The movable part of the third lifting assembly (341) is fixedly connected to a polishing motor (342). The output shaft of the polishing motor (342) is fixedly connected to a polishing column (343). The polishing column (343) can pass through a movable port.

3. The continuous component inspection device according to claim 2, characterized in that: A pressure sensor (344) is provided between the grinding motor (342) and the third lifting assembly (341). The pressure sensor (344) controls the extension and retraction of the third lifting assembly (341) according to a preset pressure range and through the control unit.

4. The continuous component inspection device according to claim 3, characterized in that: The negative pressure generating device (302) is configured as an exhaust fan, and the first lifting component (402), the second lifting component (404) and the third lifting component (341) are configured as electric cylinders.

5. The continuous component inspection device according to claim 4, characterized in that: A photoelectric switch (406) is provided on the side of the first lifting component (402) facing the feeding component (3). The photoelectric switch (406) is triggered when the component passes by. The control unit is electrically connected to a timer. After the photoelectric switch (406) is triggered, after a preset sliding time, the control unit controls the first lifting component (402) to extend and drive the pressing block (403) to press the component, and controls the third lifting component (341) to extend and the grinding motor (342) to start. After a preset wear time, the control unit controls the first lifting component (402), the second lifting component (404) and the third lifting component (341) to retract, and controls the grinding motor (342) to turn off.

6. The continuous component inspection device according to claim 1, characterized in that: The feeding component (3) is a vibratory feeder, and the outlet of the vibratory feeder is connected to the inlet of the conveying slide (2).

7. The continuous component inspection device according to claim 1, characterized in that: An isolation net (305) is provided at the air inlet of the negative pressure generating device (302), a transparent observation window (306) is provided on the side wall of the collection box (301), and a cleaning door (307) is hinged to the bottom of the collection box (301).

8. The continuous component inspection device according to claim 1, characterized in that: The alarm component (505) is configured as an audible and visual alarm.

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