A brake chassis and brake system synchronous detection device and detection method

Abstract

The present invention relates to the technical field related to brake detection, and in particular to a brake chassis and brake system synchronization detection device and detection method, including a load-bearing platform, a hydraulic lifting platform, a supporting base, a docking module, a transition module, a detection module, and a display module. The roller of the present invention contacts the tire, transmits the movement of the tire to the transition module, and then the balance push component and the working component in the detection module perform synchronization detection. When the left and right tires brake out of sync, the balance plate will rotate unbalancedly, triggering the hydraulic component, and visually displaying the braking time difference of the left and right tires through the pressure meter, thereby discovering the problem and ensuring the synchronization of the brakes. The overall structure is ingenious, and synchronization detection is achieved, which effectively solves the defect that the existing technology cannot identify the problem of brake asynchrony, and provides strong support for ensuring driving safety, improving braking efficiency, and extending the service life of tires.

Description

Technical Field

[0001] The present invention relates to the technical field related to brake detection, and in particular to a synchronous detection device and method for a brake chassis and a brake system. Background Art

[0002] The brake system is a vital component of a vehicle. Its primary function is to slow or stop the vehicle to ensure safe driving. As a critical component of vehicle safety, the brake system's health is directly related to driving safety. Therefore, brake system testing is of paramount importance.

[0003] In the existing brake testing process, such as the Chinese patent publication number CN116296453A, a vehicle brake testing device is disclosed, which includes a testing assembly, a wheel edge support portion and a follower; the testing assembly includes a fixed bracket, at least two rollers and a drive motor, and the at least two rollers are parallel to the ground and coaxially arranged, and one end of each roller is rotatably connected to the fixed bracket, and the other end is connected to the output shaft side of the drive motor; the wheel edge support portion is arranged on both sides of the roller, and is used to support the wheels of the vehicle under inspection and make them contact with the roller; the follower is arranged between the wheel edge support portion and the roller, and is used to keep the wheel in a driven state when the roller rotates to drive the wheel.

[0004] In the above-mentioned prior art, the actual braking performance of the vehicle under test is mainly detected by setting up a pair of coaxial rollers in the left and right groups of rollers. However, the above-mentioned prior art does not take into account that the braking performance of the vehicle is multifaceted, and only considers the braking force while ignoring its synchronization. When braking, when the braking force of the tire on one side is greater than that of the other side, the vehicle will shift to the side with smaller braking force when braking. This shift may cause the driver to lose control of the vehicle, especially when driving at high speeds or emergency braking, increasing the risk of accidents. In addition, due to uneven braking force, the effective braking force is reduced, which will cause the vehicle to take a longer distance to stop. The increased braking distance may cause a collision in an emergency, and the tire with a larger braking force may be replaced prematurely due to excessive wear. Uneven wear may also cause other problems with the tire, such as uneven tire surface may cause vehicle instability when driving.

[0005] Based on this, the above-mentioned prior art still has room for improvement. Summary of the Invention

[0006] In order to detect the synchronization of braking between the left and right tires during vehicle braking, the present application provides a brake chassis and brake system synchronization detection device and detection method.

[0007] In the first aspect, the present application provides a brake chassis and brake system synchronous detection device that adopts the following technical solutions:

[0008] A brake chassis and brake system synchronization detection device includes a load-bearing platform, a hydraulic lifting platform, a supporting base, a docking module, a transition module, a detection module, and a display module. The hydraulic lifting platform is arranged in the middle of the load-bearing platform, and the hydraulic lifting platform lifts the vehicle. The supporting base is installed at the bottom of the load-bearing platform. The docking module is symmetrically arranged on the supporting base, and the docking module contacts and cooperates with the tire of the vehicle. The transition module is symmetrically arranged at the edge of the load-bearing platform, and the transition module cooperates with the docking module and the detection module. The detection module is arranged inside the load-bearing platform, and the detection module detects the synchronization of the left and right tires of the vehicle during braking. The display module is arranged on the surface of the load-bearing platform, and the display module intuitively displays the detection results for observation by personnel.

[0009] Preferably, the front and rear ends of the load-bearing platform are slope structures, which facilitate vehicle travel, and the top of the load-bearing platform is a plane.

[0010] Preferably, the docking module includes a movable support bracket, a mounting plate, a V-shaped frame, a roller, a linkage shaft, a docking flange, a clamping piece, and a belt. The movable support bracket is set on the supporting base by sliding left and right through an X-axis electric slider, and the mounting plate is set on the movable support bracket by sliding up and down through a Z-axis electric slider. The V-shaped frame is installed at the upper end of the mounting plate, and the V-shaped frame can adapt to tires of different sizes when clamped with the tire, increasing the applicability of this application. The roller is set on the V-shaped frame by a pin shaft and rotates evenly. When the roller contacts the tire, under the action of friction, the roller is driven by the tire to rotate synchronously. When the tire stops, the roller stops rotating, thereby facilitating the detection of the movement state of the tire. The linkage shaft is rotatably set at the lower end of the mounting plate, and a circular docking flange and a rectangular clamping piece are sequentially installed in the peripheral extension direction of the linkage shaft. The linkage shaft and the roller are matched through a belt.

[0011] Preferably, the transition module includes a sliding frame, a transition piece, an avoidance hole, a snap ring, a snap groove, and a cam piece. The sliding frame is nested and installed in the side wall of the supporting platform. A transition piece is provided on the sliding frame for sliding up and down. A spring is connected between the transition piece and the sliding frame. The spring acts together to reset. An avoidance hole is provided in the middle of the transition piece. The diameter of the avoidance hole is the same as the outer diameter of the docking flange. The diameter of the avoidance hole is larger than the maximum distance of the snap piece (that is, the snap piece can pass through the avoidance hole smoothly without interference). The snap ring is rotatably arranged on the side of the transition piece. A snap groove that is snapped with the snap piece is provided in the middle of the snap ring. A cam piece is installed on the outer periphery of the end of the snap ring.

[0012] Preferably, the detection module includes a balancing pushing component, a working component, and a hydraulic component. The balancing pushing component is arranged inside the carrying platform, the working component is arranged inside the carrying platform, the working component and the balancing pushing component are arranged sequentially, and the hydraulic component is installed in the carrying platform. The hydraulic component transmits the changes of the working component to the display module.

[0013] Preferably, the balancing pushing assembly includes a first structural member, a sliding member, a balancing plate, and a pressing member. The first structural member is installed inside the supporting platform. The sliding member is arranged in the middle of the first structural member for sliding back and forth. A second spring is connected between the sliding member and the first structural member. The second spring plays a resetting role. A balancing plate is arranged on the end of the sliding member through a pin shaft. A third spring is connected between the balancing plate and the sliding member. The third spring is a torque spring. The third spring plays a role in maintaining the state of the balancing plate and resetting. The pressing member is symmetrically installed on the balance plate. An avoidance groove corresponding to the position of the pressing member is opened on the first structural member. The avoidance groove only serves as a structural groove to play a role in avoiding and preventing interference.

[0014] Preferably, the working assembly includes a second structural member, a load-bearing bracket, a blocking plate, a movable shell, an L-shaped member, and a reset assembly. The second structural member is installed inside the load-bearing platform. The load-bearing bracket is arranged on the second structural member for sliding forward and backward. The load-bearing bracket is arranged symmetrically on the left and right. A spring four is connected between the load-bearing bracket and the second structural member, and the spring four plays a reset role. The blocking plate is arranged on the second structural member for sliding forward and backward. A spring five is connected between the blocking plate and the load-bearing bracket, and the spring five plays a reset role. The blocking plate and the pressing member are in contact and extrusion fit. The symmetrically arranged blocking plates are in mutual contact and extrusion fit. The movable shell is arranged in the load-bearing platform for sliding forward and backward. The movable shell is arranged symmetrically on the left and right. A spring six is ​​connected between the movable shell and the load-bearing platform, and the spring six plays a reset role. The L-shaped member is arranged for sliding forward and backward The L-shaped member is pressed against the stop plate to prevent it from moving in the forward and backward directions, and the stop plate is pressed against the stop plate to prevent it from moving in the forward and backward directions.

[0015] Preferably, the reset assembly includes a positioning card plate and a reset drive, the positioning card plate is installed on the L-shaped piece, and the reset drive is arranged in the movable shell.

[0016] Preferably, the hydraulic assembly includes a hydraulic cylinder and a piston. The hydraulic cylinder is installed inside the supporting platform. A piston is slidingly provided inside the hydraulic cylinder. A spring eight is connected between the piston and the hydraulic cylinder. The spring eight plays a resetting role. The piston and the L-shaped part are in contact and extrusion fit. The hydraulic cylinder is connected to the display module through a pipeline.

[0017] Preferably, the display module is a pressure meter in the prior art.

[0018] On the other hand, the present application provides a detection method for a brake chassis and a brake system synchronous detection device, wherein the specific detection method comprises the following steps:

[0019] Step 1: Drive the vehicle onto the carrying platform;

[0020] Step 2: The hydraulic lifting platform lifts the vehicle;

[0021] Step 3: Check the brake hoses, hoses and connectors for leaks or damage, as well as the wear of the tires and whether the wheels are deformed.

[0022] Step 4: The docking module adjusts its position so as to make contact with the vehicle's tire;

[0023] Step 5: Start the vehicle and perform an actual brake test;

[0024] Step 6: The detection module detects the synchronization of the tires when the vehicle brakes;

[0025] Step 7: Observe the display module to confirm whether the vehicle's brake system is normal;

[0026] Step 8: The test is completed and a test report is given.

[0027] In summary, the beneficial technical effects of this application are as follows:

[0028] The brake chassis and brake system synchronization detection device described in this invention utilizes rollers in contact with the tires, transmitting the tire's motion to a transition module. The balancing and propulsion components and working components within the detection module then perform synchronization detection. When the left and right tires brake asynchronously, the balance plate rotates unbalanced, triggering the hydraulic assembly. The pressure gauge visually displays the braking time difference between the left and right tires, thereby identifying the problem and ensuring braking synchronization. The ingenious overall structure enables synchronization detection, effectively resolving the existing inability to identify braking asynchrony, providing strong support for ensuring driving safety, improving braking efficiency, and extending tire service life. BRIEF DESCRIPTION OF THE DRAWINGS

[0029] Figure 1 is a schematic diagram of a first three-dimensional structure of the present invention;

[0030] Figure 2 It is a schematic diagram of the internal structure of the present invention;

[0031] Figure 3 is a schematic structural diagram of the docking module of the present invention (viewed from left to right);

[0032] Figure 4 is a schematic structural diagram of the docking module of the present invention (viewed from right to left);

[0033] Figure 5 It is a schematic structural diagram of the linkage shaft, docking flange, clamping member, transition member, avoidance hole, clamping ring, clamping groove, and cam member of the present invention;

[0034] Figure 6 It is a structural diagram of the detection module of the present invention;

[0035] Figure 7 is a top view of the detection module of the present invention;

[0036] Figure 8 It is a structural diagram of the movable shell, L-shaped member, positioning card plate and reset drive of the present invention.

[0037] Explanation of reference numerals: 1. Carrying platform; 2. Hydraulic lifting platform; 3. Support base; 4. Docking module; 5. Transition module; 6. Detection module; 7. Display module; 41. Mobile support frame; 42. Mounting plate; 43. V-shaped frame; 44. Roller; 45. Linkage shaft; 46. Docking flange; 47. Snap-fit ​​piece; 48. Belt; 51. Sliding frame; 52. Transition piece; 53. Avoidance hole; 54. Snap-fit ​​ring; 55 , snap-fit ​​groove; 56, cam member; 61, balance push assembly; 62, working assembly; 63, hydraulic assembly; 611, structural member one; 612, sliding member; 613, balance plate; 614, pressing member; 621, structural member two; 622, load-bearing bracket; 623, blocking plate; 624, moving shell; 625, L-shaped member; 626, positioning clamping plate; 627, reset drive; 631, hydraulic cylinder; 632, piston. DETAILED DESCRIPTION

[0038] The following is combined with Figures 1-8 This application is described in further detail.

[0039] The embodiments of the present application disclose a brake chassis and brake system synchronization detection device and detection method, which realizes the detection of the braking synchronization between the left and right tires of a vehicle by transmitting and converting the movement of the tires.

[0040] Reference Figure 1 、 Figure 2As shown, a brake chassis and brake system synchronization detection device includes a bearing platform 1, a hydraulic lifting platform 2, a supporting base 3, a docking module 4, a transition module 5, a detection module 6, and a display module 7. The hydraulic lifting platform 2 is arranged in the middle of the bearing platform 1, and the hydraulic lifting platform 2 lifts the vehicle. The supporting base 3 is installed at the bottom of the bearing platform 1. The docking module 4 is symmetrically arranged on the supporting base 3. The docking module 4 contacts and cooperates with the tire of the vehicle. The transition module 5 is symmetrically arranged at the edge of the bearing platform 1. The transition module 5 cooperates the docking module 4 with the detection module 6. The detection module 6 is arranged inside the bearing platform 1. The detection module 6 detects the synchronization of the left and right tires of the vehicle during braking. The display module 7 is arranged on the surface of the bearing platform 1. The display module 7 intuitively displays the detection results for observation by personnel.

[0041] During actual work, the vehicle is driven onto the carrying platform 1, and the hydraulic lifting platform 2 lifts the vehicle. After that, the personnel can easily observe whether the brake oil pipes, hoses and connectors are leaking or damaged, as well as the wear of the tires, whether the wheel hubs are deformed, etc. After the observation is completed, the docking module 4 adjusts its position so as to contact and cooperate with the tires of the vehicle. At the same time, the docking module 4 is connected and cooperated with the transition module 5. After that, the vehicle is started, and the docking module 4 converts and transmits the movement of the tires. After stepping on the brakes, the detection module 6 detects the synchronization of the tires when the vehicle brakes. After that, it is confirmed by observing the display module 7 whether there is a braking time difference between the left and right tires of the vehicle, thereby confirming whether the braking system is normal. This application ensures the balance of the braking force of the braking system by detecting the braking time error between the left and right tires of the vehicle, thereby maintaining the life safety of the driver.

[0042] Reference Figure 1 As shown, the front and rear ends of the carrying platform 1 are slope structures, which are convenient for vehicles to travel, and the top of the carrying platform 1 is a flat surface.

[0043] During actual operation, the vehicle drives up the slope from one end of the carrying platform 1 to the top plane, and after the inspection is completed, drives down the slope from the other end.

[0044] Reference Figure 3-Figure 5As shown, in order to feel the movement of the tire, the present application is provided with a docking module 4, which includes a mobile support bracket 41, a mounting plate 42, a V-shaped frame 43, a roller 44, a linkage shaft 45, a docking flange 46, a clamping member 47, and a belt 48. The mobile support bracket 41 is set on the supporting base 3 by sliding left and right through the X-axis electric slider, and the mounting plate 42 is set on the mobile support bracket 41 by sliding up and down through the Z-axis electric slider. The V-shaped frame 43 is installed at the upper end of the mounting plate 42. When the V-shaped frame 43 is clamped with the tire, it can adapt to wheels of different sizes. Tire, to increase the applicability of this application, a roller 44 is evenly rotated on the V-frame 43 through a pin shaft. When the roller 44 is in contact with the tire, under the action of friction, the roller 44 is driven by the tire to rotate synchronously. When the tire stops, the roller 44 stops rotating, thereby facilitating the detection of the movement state of the tire. A linkage shaft 45 is rotatably set at the lower end of the mounting plate 42, and a circular docking flange 46 and a rectangular clip 47 are sequentially installed in the peripheral extension direction of the linkage shaft 45. The linkage shaft 45 and the roller 44 are matched through a belt 48.

[0045] During the actual docking process, the mobile support frame 41 moves toward the middle under the drive of the X-axis electric slider, the V-shaped frame 43 comes under the tire, and the linkage shaft 45 is gradually inserted into the transition module 5 and clamped. Afterwards, the Z-axis electric slider drives the mounting plate 42 to move upward, and the V-shaped frame 43 moves upward to clamp with the tire, and the roller 44 contacts the tire. When the tire rotates, the roller 44 rotates under the action of friction, and under the action of the belt 48, the linkage shaft 45 rotates, thereby transmitting the movement of the tire to the transition module 5.

[0046] Reference Figure 3 、 Figure 5 As shown, the transition module 5 includes a sliding frame 51, a transition piece 52, an avoidance hole 53, a snap ring 54, a snap groove 55, and a cam piece 56. The sliding frame 51 is nested and installed in the side wall of the carrying platform 1. A transition piece 52 is provided on the sliding frame 51 for sliding up and down. A spring 1 is connected between the transition piece 52 and the sliding frame 51, and the spring acts to reset. An avoidance hole 53 is provided in the middle of the transition piece 52. The diameter of the avoidance hole 53 is the same as the outer diameter of the docking flange 46. The diameter of the avoidance hole 53 is larger than the maximum distance of the snap member 47 (that is, the snap member 47 can smoothly pass through the avoidance hole 53 without interference). The snap ring 54 is rotatably set on the side of the transition piece 52. A snap groove 55 that is snap-fitted with the snap member 47 is provided in the middle of the snap ring 54, and a cam piece 56 is installed on the outer periphery of the end of the snap ring 54.

[0047] During actual operation, the linkage shaft 45 passes through the avoidance hole 53 and is inserted into the clamping groove 55. At this time, the docking flange 46 enters the avoidance hole 53, and the clamping part 47 is clamped with the clamping groove 55. Afterwards, when the linkage shaft 45 rotates, driven by the clamping part 47, the clamping ring 54 rotates, and the cam part 56 rotates with the clamping ring 54, while the transition part 52 remains stationary (the docking flange 46 rotates in the avoidance hole 53, and the docking flange 46 plays a supporting role to prevent the linkage shaft 45 from hanging too much in the avoidance hole 53, resulting in unstable rotation).

[0048] Reference Figure 6 As shown, in order to perform synchronous detection of tires, the present application is provided with a detection module 6, which includes a balancing pushing component 61, a working component 62, and a hydraulic component 63. The balancing pushing component 61 is arranged inside the carrying platform 1, and the working component 62 is arranged inside the carrying platform 1. The working component 62 and the balancing pushing component 61 are arranged sequentially, and the hydraulic component 63 is installed in the carrying platform 1. The hydraulic component 63 transmits the changes of the working component 62 to the display module 7.

[0049] Reference Figure 6 、 Figure 7 As shown, the balancing pushing assembly 61 includes a structural member 611, a sliding member 612, a balancing plate 613, and a pressing member 614. The structural member 611 is installed inside the carrying platform 1. The sliding member 612 is set in the middle of the structural member 611 for sliding back and forth. A spring 2 is connected between the sliding member 612 and the structural member 611. The spring 2 plays a reset role. The end of the sliding member 612 is rotated by a pin to set a balancing plate 613. A spring 3 is connected between the balancing plate 613 and the sliding member 612. The spring 3 is a torque spring. The spring 3 plays a role in maintaining the state of the balancing plate 613 and resetting. The balancing plate 613 and the cam member 56 are extruded together. The pressing member 614 is symmetrically installed on the balancing plate 613. The structural member 611 is provided with an avoidance groove corresponding to the position of the pressing member 614. The avoidance groove only serves as a structural groove to avoid interference.

[0050] Reference Figure 6 、 Figure 7As shown, the working assembly 62 includes a second structural member 621, a load-bearing bracket 622, a blocking plate 623, a movable shell 624, an L-shaped member 625, and a reset assembly. The second structural member 621 is installed inside the load-bearing platform 1, and the load-bearing bracket 622 is arranged to slide back and forth on the second structural member 621. The load-bearing bracket 622 is arranged symmetrically on the left and right. A spring four is connected between the load-bearing bracket 622 and the second structural member 621, and the spring four plays a reset role. The blocking plate 623 is arranged to slide left and right on the second structural member 621, and a spring five is connected between the blocking plate 623 and the load-bearing bracket 622, and the spring five plays a reset role. The blocking plate 623 and the pressing member 614 are in contact and extrusion fit, and the symmetrically arranged blocking plates 623 are in mutual contact and extrusion fit. The movable shell 624 is arranged to slide back and forth in the load-bearing platform 1, and the movable shell 624 is arranged symmetrically on the left and right. A spring six is ​​connected between the movable shell 624 and the load-bearing platform 1, and the spring six plays a reset role. The part 625 is arranged to slide left and right in the movable shell 624. A spring seven is connected between the L-shaped part 625 and the movable shell 624. The spring seven always pushes the L-shaped part 625 toward the middle, and the L-shaped part 625 and the blocking plate 623 are in a squeeze fit. In the initial state, due to the action of the spring seven, the L-shaped part 625 always squeezes the blocking plate 623, so that the two blocking plates 623 arranged symmetrically on the left and right are in a mutually squeezed state. In this state, if the blocking plates 623 are pushed synchronously in the front and rear directions, the blocking plates 623 are always in a balanced state of mutual squeezing. If the blocking plates 623 are not pushed synchronously and cause the front and rear directions to be misaligned, then under the action of the spring seven, the blocking plates 623 will also be misaligned in the left and right directions, so that the L-shaped part 625 can move in the left and right directions, thereby triggering the subsequent hydraulic component 63 to record the asynchronous situation. The reset component is arranged in the movable shell 624 to reset the L-shaped part 625.

[0051] During the actual test, the rotating cam member 56 squeezes the balance plate 613 (the balance plate 613 is relatively wide, and even if the cam member 56 has been adjusted up and down in the early stage, the two can still cooperate), and the sliding member 612 is squeezed and moved synchronously. Under the action of the second spring, the sliding member 612 moves back and forth, and the balance plate 613 moves back and forth synchronously. If the left and right movement states of the tire are synchronized, the squeezing caused by the cam member 56 (symmetrical arrangement) on the balance plate 613 is synchronized, and the balance plate 613 maintains a balanced state and is pushed back and forth, so that the pressing member 614 synchronously pushes the blocking plate 623 to move. The blocking plate 623 is pushed back and forth but cannot contact the hydraulic assembly 63, so there is no abnormality. When the left and right movement states of the tire are not synchronized (they do not stop at the same time when braking), the cam member 56 stops at one place and the other stops at the other. The first part continues to rotate, and the squeezing of the balancing plate 613 by the cam member 56 changes, and the balancing plate 613 rotates unbalancedly, so that the pushing of the blocking plate 623 by the pressing member 614 is asynchronous, and the blocking plate 623 is displaced in the front-to-back direction. Under the action of the spring seven, the blocking plate 623 is also dislocated in the left-to-right direction, so that the L-shaped member 625 moves out in the left-to-right direction. At this time, the moved blocking plate 623 is no longer in contact with the pressing member 614, and the L-shaped member 625 moves to a position where it can contact the pressing member 614. Afterwards, the pressing member 614 repeatedly squeezes the L-shaped member 625, and the L-shaped member 625 is squeezed, thereby driving the movable shell 624 to move back and forth. The moving L-shaped member 625 repeatedly squeezes the hydraulic assembly 63 to record and feedback the asynchronous situation of the tire.

[0052] Reference Figure 8 As shown, in order to reset the L-shaped member 625, the present application is provided with a reset component, which includes a positioning card plate 626 and a reset drive 627. The positioning card plate 626 is installed on the L-shaped member 625, and the reset drive 627 is set in the movable shell 624. When working, the reset drive 627 pushes the positioning card plate 626 to move and reset it.

[0053] Reference Figure 7 As shown, in order to intuitively display the braking time difference between tires, the present application is provided with a hydraulic component 63, which includes a hydraulic cylinder 631 and a piston 632. The hydraulic cylinder 631 is installed inside the supporting platform 1, and a piston 632 is slidingly provided inside the hydraulic cylinder 631. A spring eight is connected between the piston 632 and the hydraulic cylinder 631, and the spring eight plays a reset role. The piston 632 and the L-shaped part 625 are in contact and extrusion fit, and the hydraulic cylinder 631 is connected to the display module 7 through a pipeline.

[0054] Reference Figure 1 As shown, the display module 7 is a pressure meter in the prior art.

[0055] During actual operation, the piston 632 is repeatedly squeezed by the L-shaped part 625, thereby increasing the pressure of the hydraulic cylinder 631. The pressure instrument intuitively displays this pressure change. By observing the pressure difference between the pressure instruments (the pressure instruments correspond to the hydraulic cylinder 631 one by one), the braking time difference between the tires can be clearly judged. If there is no pressure difference, it indicates that the tires stop synchronously and the braking performance is excellent. If the pressure difference is small (within the standard range), it indicates that the tires stop nearly synchronously and the braking performance is acceptable. If the pressure difference is large (outside the standard range), it indicates that there is a large time difference between the tires stopping. The larger the pressure difference, the greater the time difference, and the higher the degree of brake damage.

[0056] Last reference Figure 1-Figure 2 As shown, the present application also discloses a detection method for a brake chassis and a brake system synchronous detection device, and the specific detection method includes the following steps:

[0057] Step 1: Drive the vehicle onto the carrying platform 1;

[0058] Step 2: The hydraulic lifting platform 2 lifts the vehicle;

[0059] Step 3: Check the brake hoses, hoses and connectors for leaks or damage, as well as the wear of the tires and whether the wheels are deformed.

[0060] Step 4: The docking module 4 adjusts its position so as to come into contact with the tire of the vehicle;

[0061] Step 5: Start the vehicle and perform an actual brake test;

[0062] Step 6: The detection module 6 detects the synchronization of the tires when the vehicle brakes;

[0063] Step 7: Observe the display module 7 to confirm whether the vehicle's brake system is normal;

[0064] Step 8: The test is completed and a test report is given.

[0065] The above description is merely illustrative of certain exemplary embodiments of the present invention. It goes without saying that those skilled in the art will be able to modify the described embodiments in various ways without departing from the spirit and scope of the present invention. Therefore, the above drawings and description are illustrative in nature and should not be construed as limiting the scope of protection of the claims.

Claims

1. A brake chassis and brake system synchronous detection device, characterized in that: include: Carrying platform (1); A hydraulic lifting platform (2) is arranged in the middle of the carrying platform (1), and the hydraulic lifting platform (2) lifts the vehicle; A supporting base (3) mounted on the bottom of the carrying platform (1); A docking module (4) is symmetrically arranged on the supporting base (3), and the docking module (4) contacts and cooperates with the tire of the vehicle; A transition module (5) is symmetrically arranged on the edge of the carrying platform (1). The transition module (5) cooperates with the docking module (4) and the detection module (6). The detection module (6) is arranged inside the carrying platform (1). The detection module (6) detects the synchronization of the left and right tires of the vehicle during braking. A display module (7) is provided on the surface of the carrying platform (1), and the display module (7) intuitively displays the test results for observation by personnel; The docking module (4) comprises: A movable support frame (41) is arranged on the support base (3) so as to slide left and right via an X-axis electric slider; A mounting plate (42) is mounted on the movable support frame (41) by sliding up and down via a Z-axis electric slider; A V-shaped frame (43) is mounted on the upper end of the mounting plate (42), and a roller (44) is provided on the V-shaped frame (43) for uniform rotation via a pin; A linkage shaft (45) is rotatably mounted on the lower end of the mounting plate (42). A circular docking flange (46) and a rectangular clamping member (47) are sequentially mounted on the outer periphery of the linkage shaft (45). The linkage shaft (45) and the roller (44) are coupled via a belt (48). The transition module (5) comprises: A sliding frame (51) is nested and installed in the side wall of the bearing platform (1). A transition piece (52) is provided on the sliding frame (51) for sliding up and down. A spring is connected between the transition piece (52) and the sliding frame (51). A avoidance hole (53) is opened in the middle of the transition piece (52). The diameter of the avoidance hole (53) is the same as the outer diameter of the docking flange (46). The diameter of the avoidance hole (53) is larger than the maximum distance of the clamping piece (47); A snap ring (54) is rotatably arranged on the side of the transition piece (52), a snap groove (55) for snapping with the snap piece (47) is provided in the middle of the snap ring (54), and a cam piece (56) is installed on the outer periphery of the end of the snap ring (54); The detection module (6) comprises: A balancing pushing assembly (61) is arranged inside the carrying platform (1); A working assembly (62) is arranged inside the carrying platform (1), and is sequentially arranged between the working assembly (62) and the balancing pushing assembly (61); A hydraulic assembly (63) is installed in the carrier platform (1), and the hydraulic assembly (63) transmits the changes of the working assembly (62) to the display module (7); The balance pushing component (61) comprises: A first structural member (611) is installed inside the carrying platform (1); A sliding member (612) is arranged in the middle of the first structural member (611) for sliding forward and backward movement. A second spring is connected between the sliding member (612) and the first structural member (611). A balancing plate (613) is provided at the end of the sliding member (612) for rotation via a pin. A third spring is connected between the balancing plate (613) and the sliding member (612). The balancing plate (613) and the cam member (56) are extrusion-fitted. A pressing member (614) is symmetrically mounted on the balance plate (613), and a relief groove corresponding to the position of the pressing member (614) is provided on the first structural member (611); The working assembly (62) comprises: Structural member 2 (621), which is installed inside the carrying platform (1); A bearing bracket (622) is arranged on the second structural member (621) for forward and backward sliding. The bearing bracket (622) is arranged symmetrically on both sides. A spring (4) is connected between the bearing bracket (622) and the second structural member (621); The blocking plate (623) is slidably arranged on the second structural member (621) to the left and right. A spring (5) is connected between the blocking plate (623) and the supporting bracket (622). The blocking plate (623) and the pressing member (614) are in contact and extrusion fit. The symmetrically arranged blocking plates (623) are in contact and extrusion fit with each other. A movable shell (624) is arranged in a forward and backward sliding manner in the carrying platform (1), the movable shell (624) is arranged symmetrically on both sides, and a spring (6) is connected between the movable shell (624) and the carrying platform (1); An L-shaped member (625) is slidably disposed in the movable housing (624) to the left and right. A spring (7) is connected between the L-shaped member (625) and the movable housing (624). The L-shaped member (625) and the blocking plate (623) are extrusion-fitted. A reset assembly is provided in the moving shell (624) to reset the L-shaped member (625).

2. A brake chassis and brake system synchronous detection device according to claim 1, characterized in that: The front and rear ends of the bearing platform (1) are slope structures, and the top of the bearing platform (1) is a plane.

3. A brake chassis and brake system synchronous detection device according to claim 1, characterized in that: The reset component includes: A positioning card plate (626) mounted on the L-shaped member (625); A reset drive (627) is provided in the moving housing (624).

4. A brake chassis and brake system synchronous detection device according to claim 1, characterized in that: The hydraulic assembly (63) comprises: A hydraulic cylinder (631) is installed inside the bearing platform (1). A piston (632) is slidably provided inside the hydraulic cylinder (631). A spring 8 is connected between the piston (632) and the hydraulic cylinder (631). The piston (632) and the L-shaped member (625) are in contact and extrusion fit. The hydraulic cylinder (631) is connected to the display module (7) through a pipeline.

5. A brake chassis and brake system synchronous detection device according to any one of claims 1 to 4, characterized in that: The detection method of the brake chassis and brake system synchronous detection device comprises the following steps: Step 1: Drive the vehicle onto the carrying platform (1); Step 2: The hydraulic lifting platform (2) lifts the vehicle; Step 3: Check the brake hoses, hoses and connectors for leaks or damage, as well as the wear of the tires and whether the wheels are deformed; Step 4: The docking module (4) adjusts its position so as to come into contact with the tire of the vehicle; Step 5: Start the vehicle and perform an actual brake test; Step 6: The detection module (6) detects the synchronization of the tires when the vehicle brakes; Step 7: Observe the display module (7) to confirm whether the vehicle's brake system is normal; Step 8: The test is completed and a test report is given.

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