Shockproof system and shockproof showcase

Abstract

The application provides an anti-vibration system and an anti-vibration display cabinet, and belongs to the technical field of anti-vibration display cabinets, and is used to solve the problem of poor anti-vibration performance of display cabinets in related technologies. The anti-vibration system comprises display platforms, connecting platforms and bearing platforms which are parallel to each other, the connecting platforms are respectively connected in sliding mode with the display platforms and the bearing platforms, the relative sliding track of the connecting platform and the display platform is perpendicular to the relative sliding track of the connecting platform and the bearing platform, and both the relative sliding tracks are parallel to the bearing platform; and the sliding connection is realized through a self-designed gas-magnetic double-control track spring structure. Through the above technical scheme, the structure of the three platforms connected in sliding mode in pairs can effectively unload the vibration, the self-designed gas-magnetic double-control track spring structure makes the anti-vibration system have better anti-vibration performance, and the anti-vibration performance is flexible and controllable, and is suitable for different anti-vibration requirements of different exhibits.

Description

Technical Field

[0001] This application relates to the technical field of shockproof display cases, and more particularly to shockproof systems and shockproof display cases. Background Technology

[0002] Display cases are mainly used in museums and other similar settings to display exhibits. For some important exhibits, in addition to their display function, display cases also need to preserve and protect them. For example, museum exhibits are generally required to be placed naturally without support or restraint. When the display case is vibrated (such as during an earthquake), the exhibits are also prone to tipping over and being damaged. In order to protect the exhibits, the display case needs to have corresponding shockproof measures. Summary of the Invention

[0003] This application provides a shockproof system and a shockproof display case, which helps protect exhibits and reduces the possibility of exhibits tipping over when the display case vibrates.

[0004] In a first aspect, this application provides a shock-absorbing system. The shock-absorbing system includes a display platform, a connecting platform, and a supporting platform that are parallel to each other. The connecting platform is slidably connected to both the display platform and the supporting platform. The relative sliding trajectory between the connecting platform and the display platform is perpendicular to the relative sliding trajectory between the connecting platform and the supporting platform, and both relative sliding trajectories are parallel to the supporting platform. The sliding connections are all achieved through a pneumatic-magnetic dual-control track spring structure.

[0005] The gas-magnetic dual-control track spring structure includes a slide rail and a slider. The slider is a permanent magnet with its N and S poles pointing to the two ends of the slide rail, respectively. A permanent magnet that repels the slider is provided at each end of the track. An electromagnet that can be controlled to attract or repel the slider is also provided at each end of the track. The N and S poles of the slider are connected to the two ends of the slide rail through a controllable gas spring. The extension and contraction direction of the controllable gas spring is parallel to the slide rail.

[0006] By adopting the above technical solution, the structure of the three platforms sliding and connecting in pairs can effectively unload the vibration. The independently designed air-magnetic dual-control track spring structure gives the shockproof system better shockproof performance, and the shockproof performance is flexible and controllable, suitable for different shockproof needs of different exhibits.

[0007] Furthermore, the shock absorption system also includes a pneumatic control subsystem and a control subsystem;

[0008] The pneumatic control subsystem is connected to the controllable gas spring and is used to inflate or de-inflate the gas spring to change the damping coefficient of the gas spring; the control subsystem is connected to the electromagnet and is used to control the magnitude and direction of the electromagnet's magnetic force.

[0009] Further, the shockproof system further comprises three inertial elements respectively arranged on the display platform, the connecting platform and the bearing platform to respectively collect first acceleration data of the display platform, second acceleration data of the connecting platform and third acceleration data of the bearing platform, and the control subsystem is connected with the display platform, the connecting platform and the bearing platform to receive the first acceleration data, the second acceleration data and the third acceleration data.

[0010] Further, the control subsystem is further configured to:

[0011] Pre-acquire the corresponding relationship between the acceleration data and the electromagnet and the controllable gas spring, and pre-set the initial magnetic force of the permanent magnet on the slider and the initial damping coefficient of the controllable gas spring;

[0012] Set the damping coefficient of the controllable gas spring to a specified damping coefficient, and set the magnetic force of the electromagnet to a specified magnetic force size and a specified magnetic force direction;

[0013] And

[0014] By controlling the specified damping coefficient, the specified magnetic force size and the specified magnetic force direction, the first acceleration and the second acceleration are controlled to not exceed the acceleration threshold.

[0015] Further, the control subsystem is further configured to:

[0016] Obtain the center of gravity position data and the bearing shape data of the exhibit to be displayed;

[0017] Based on a preset comparison table, the specified damping coefficient, the specified magnetic force size, the specified magnetic force direction and the acceleration threshold are determined according to the center of gravity position data and the bearing shape data of the exhibit to be displayed.

[0018] In a second aspect, the present application provides a shockproof display cabinet. The shockproof display cabinet comprises a display cabinet body and a shockproof system arranged in the display cabinet body;

[0019] The shockproof system comprises a display platform, a connecting platform and a bearing platform which are parallel to each other, and the bearing platform is fixedly connected with the display cabinet body; the connecting platform is respectively slidably connected with the display platform and the bearing platform, the relative sliding track of the connecting platform and the display platform is perpendicular to the relative sliding track of the connecting platform and the bearing platform, and both of the relative sliding tracks are parallel to the bearing platform; and the slidably connecting is realized through a gas-magnetic double control track spring structure.

[0020] The gas-magnetic double-controlled track spring structure comprises a slide rail and a slide block, the slide block is a permanent magnet, the N-pole and S-pole of the slide block point to the two ends of the slide rail respectively, a permanent magnet repelling the slide block is arranged at each end of the slide rail, a controllable electromagnet attracting or repelling the slide block is arranged at each end of the slide rail, the N-pole and S-pole of the slide block are connected to the two ends of the slide rail through a controllable gas spring respectively, and the extension direction of the controllable gas spring is parallel to the slide rail.

[0021] Further, the shockproof system further comprises a gas control subsystem and a control subsystem.

[0022] The gas control subsystem is connected to the controllable gas spring, and is used to inflate or deflate the gas spring to change the damping coefficient of the gas spring; the control subsystem is connected to the electromagnet, and is used to control the magnetic force size and magnetic force direction of the electromagnet.

[0023] Further, the shockproof system further comprises three inertia elements, the three inertia elements are arranged on the display platform, the connecting platform and the bearing platform respectively to collect first acceleration data of the display platform, second acceleration data of the connecting platform and third acceleration data of the bearing platform respectively, and the control subsystem is connected to the display platform, the connecting platform and the bearing platform to receive the first acceleration data, the second acceleration data and the third acceleration data.

[0024] Further, the control subsystem is further configured to:

[0025] Pre-acquire the corresponding relationship between the acceleration data and the electromagnet and the controllable gas spring, and pre-set the initial magnetic force of the permanent magnet on the slide block and the initial damping coefficient of the controllable gas spring;

[0026] Set the damping coefficient of the controllable gas spring as a specified damping coefficient, and set the magnetic force size of the electromagnet as a specified magnetic force size, and set the magnetic force direction of the electromagnet as a specified magnetic force direction;

[0027] And

[0028] By controlling the specified damping coefficient, the specified magnetic force size and the specified magnetic force direction, the first acceleration and the second acceleration are controlled to be less than an acceleration threshold.

[0029] Further, the control subsystem is further configured to:

[0030] Obtain the center of gravity position data and the bearing shape data of the exhibit to be displayed;

[0031] Based on a preset comparison table, the specified damping coefficient, the specified magnetic force size, the specified magnetic force direction and the acceleration threshold are determined according to the center of gravity position data and the bearing shape data of the exhibit to be displayed.

[0032] To sum up, the present application at least contains the following beneficial effects:

[0033] 1. A shockproof system and a shockproof display cabinet are provided, and the independently designed air-magnetic double control track spring structure can effectively prevent shock to realize the protection of exhibits;

[0034] 2. The acceleration of the three platforms of the shockproof system can be monitored through the inertial element to realize precise shockproof control;

[0035] 3. Different shockproof schemes are configured based on different gravity center heights and bearing shape data of exhibits, so as to realize precise shockproof and be more conducive to targeted protection of exhibits.

[0036] It should be understood that the content described in the summary section is not intended to limit the key or important features of the embodiments of the present application, nor to limit the scope of the present application. Other features of the present application will become apparent through the following description. BRIEF DESCRIPTION OF DRAWINGS

[0037] The above and other features, advantages, and aspects of the embodiments of the present application will become more apparent with reference to the following detailed description when taken in conjunction with the accompanying drawings, in which like reference characters designate like elements in which:

[0038] Figure 1 A mechanical structure principle diagram of a shockproof system in the embodiments of the present application is shown;

[0039] Figure 2 A principle diagram of an air-magnetic double control track spring structure in the embodiments of the present application is shown;

[0040] Figure 3 An electrical structure principle diagram of a shockproof system in the embodiments of the present application is shown;

[0041] Figure 4 A principle diagram of the shockproof system applied to a shockproof display cabinet is shown. DETAILED DESCRIPTION

[0042] To make the purposes, technical solutions and advantages of the embodiments of the present application more clear, the technical solutions in the embodiments of the present application will be described clearly and completely below with reference to the drawings in the embodiments of the present application. Obviously, the described embodiments are some of the embodiments of the present application, not all of the embodiments of the present application. Based on the embodiments in the present application, all other embodiments obtained by those of ordinary skill in the art without creative labor fall within the scope of protection of the present application.

[0043] In addition, the term "and / or" in this document merely describes an associated relationship between associated objects, which means that there can be three relationships, for example, A and / or B can represent three cases of A alone, A and B together, and B alone. In addition, the character " / " in this document generally represents an "or" relationship between the front and rear associated objects.

[0044] The application provides a shockproof system and a shockproof display cabinet, which are beneficial to the shockproof of photos placed naturally without support and restraint.

[0045] In a first aspect, the embodiments of the application disclose a shockproof system.

[0046] Referring to Figure 1 The shockproof system comprises a display platform, a connecting platform and a bearing platform which are parallel to each other, the connecting platform is slidably connected with the display platform and the bearing platform, the relative sliding track of the connecting platform and the display platform is perpendicular to the relative sliding track of the connecting platform and the bearing platform, and both of the relative sliding tracks are parallel to the bearing platform.

[0047] Specifically, the display platform, the connecting platform and the bearing platform are rectangular plates with the same size, the two long edges of the display platform are slidably connected with the two long edges of the connecting platform, and the sliding tracks are along the two long edges, respectively, the two short edges of the connecting platform are slidably connected with the two short edges of the bearing platform, and the sliding tracks are along the two short edges, respectively, so that the display platform can slide freely on a plane relative to the bearing platform (of course, limited by the length of the sliding track). This structure can effectively decompose and unload the shock borne by the bearing platform, so as to protect the exhibits displayed on the display platform as much as possible.

[0048] The sliding connection is realized by a gas-magnetic double-control track spring structure.

[0049] Referring to Figure 2 The gas-magnetic double-control track spring structure comprises a sliding rail and a sliding block, the sliding block is a permanent magnet, and the N pole and the S pole of the sliding block point to the two ends of the sliding rail, respectively, one permanent magnet repelling the sliding block is arranged at each end of the sliding rail, and one controllable electromagnet attracting or repelling the sliding block is arranged at each end of the sliding rail, respectively, the N pole and the S pole of the sliding block are further connected to the two ends of the sliding rail through a controllable gas spring, and the extension direction of the controllable gas spring is parallel to the sliding rail.

[0050] Figure 2The principle diagram of the air-magnetic double-control track spring structure is shown in the figure, and the air-magnetic double-control track spring structure connecting the connecting platform and the bearing platform is taken as an example for illustration. The slide rail frame is fixedly connected to the connecting platform, and the sliding block is fixedly connected to the display platform. The slide rail is in the shape of a rod, and the sliding block is a cylindrical permanent magnet with a sliding hole. The sliding block is coaxial with the sliding hole, and the sliding hole is in clearance fit with the slide rail to achieve sliding connection. The two ends of the sliding block are N-pole and S-pole respectively. Two electromagnets are fixedly arranged at the two ends of the slide rail frame respectively, and are arranged higher than the slide rail and lower than the slide rail respectively. The magnetic force directions of the two electromagnets are along the slide rail direction, so as to attract or repel the sliding block. Two permanent magnets are also fixedly arranged at the two ends of the slide rail frame respectively, and the magnetic force directions are along the slide rail direction to repel the sliding block. The controllable gas spring (shown in the form of a spring line in the figure, and the specific controllable gas spring can refer to the structure of the pneumatic telescopic rod. The controllable gas spring is filled with compressible gas to have elasticity, and the damping coefficient of the controllable gas spring can be changed by filling and discharging gas) is connected to one end of the sliding block and the other end of the slide rail frame, so that the two controllable gas springs can provide elastic force for the sliding block.

[0051] Based on the above, the cooperation structure of the electromagnet, the sliding block and the controllable gas spring makes the elasticity of the sliding block flexible and controllable, and the basic damping coefficient of the permanent magnet and the controllable gas spring can also provide basic elastic force for the sliding block, so that the shockproof system can have better performance, and the shockproof performance can be flexibly adjusted according to different requirements of different exhibits, and the usability is higher.

[0052] Referring to Figure 2 and Figure 3 , further, the shockproof system further comprises an air control subsystem and a control subsystem;

[0053] The air control subsystem is connected to the controllable gas spring, and is used to charge or discharge the gas spring to change the damping coefficient of the gas spring. The control subsystem is connected to the electromagnet, and is used to control the magnetic force size and direction of the electromagnet.

[0054] Specifically, the air control subsystem can include (not shown in the figure) a compressed gas source, a first gas path connecting the compressed gas source and the controllable gas spring, a charging valve arranged in the first gas path, a second gas path connecting the controllable gas spring and the atmosphere, and a discharging valve arranged in the second gas path. The charging valve is opened to charge the controllable gas spring, and the discharging valve is opened to discharge the controllable gas spring, so as to realize the control of the damping coefficient of the controllable gas spring. Of course, in order to facilitate the charging of the compressed gas source, a third gas path connecting the compressed gas source and the charging port and a one-way valve arranged in the third gas path can also be provided. The one-way valve allows the gas to flow from the charging port to the compressed gas source, so as to charge the compressed gas source.

[0055] Further, the shockproof system further comprises three inertial elements respectively arranged on the display platform, the connecting platform and the bearing platform to respectively collect first acceleration data of the display platform, second acceleration data of the connecting platform and third acceleration data of the bearing platform, and the control subsystem is connected with the display platform, the connecting platform and the bearing platform to receive the first acceleration data, the second acceleration data and the third acceleration data.

[0056] Further, the control subsystem is further configured to: pre-acquire a corresponding relationship between the acceleration data and the electromagnet and the controllable gas spring, and pre-set an initial magnetic force of the permanent magnet on the slider and an initial damping coefficient of the controllable gas spring; set the damping coefficient of the controllable gas spring as a specified damping coefficient, and set the magnetic force of the electromagnet as a specified magnetic force size and a specified magnetic force direction; and control the first acceleration and the second acceleration not to exceed the acceleration threshold value by controlling the specified damping coefficient, the specified magnetic force size and the specified magnetic force direction.

[0057] The permanent magnet can provide the slider with basic "magnetic elasticity", and the controllable gas spring in the initial state (when the built-in rated amount of gas) can provide the slider with basic "gas elasticity", both the "magnetic elasticity" and the "gas elasticity" can bring the slider with elastic force, and the farther the slider deviates from the initial position, the greater the elastic force the slider receives. Based on this principle, the electromagnet and the controllable gas spring can be configured according to actual situation requirements, so that the elastic force brought by the "magnetic elasticity" and the "gas elasticity" to the slider is relatively reasonable when shaking. Of course, since the bearing platform is a vibration source relative to the exhibit, a strong monitoring mechanism can also be used, when the acceleration of any one of the connecting platform and the display platform exceeds the acceleration threshold value, it is judged that the exhibit has a risk of falling, and the stiffness of the "magnetic elasticity" and the "gas elasticity" is reduced to reduce the elastic force and reduce the possibility of the exhibit falling.

[0058] Further, the control subsystem is further configured to: acquire the center of gravity position data and the bearing shape data of the exhibit to be displayed; and determine the specified damping coefficient, the specified magnetic force size, the specified magnetic force direction and the acceleration threshold value based on the preset reference table according to the center of gravity position data and the bearing shape data of the exhibit to be displayed.

[0059] Based on the experience of those skilled in the art, the reason for the exhibit to fall is that the center of gravity deviates from the support, that is, when the center of gravity position data of the exhibit is known and its bearing shape data is known, it can be determined under what acceleration the exhibit is prone to fall, and here the relationship between the bearing shape data, the center of gravity position data and the instantaneous acceleration that the exhibit can withstand without falling can be determined based on the experience of those skilled in the art combined with a limited number of experiments, that is, a preset reference table is trained, and in actual use of the shockproof system, the specified damping coefficient, the specified magnetic force size, the specified magnetic force direction and the acceleration threshold value can be automatically determined according to the preset reference table.

[0060] In a second aspect, the present application provides a shockproof display cabinet. Referring to Figures 1-4 The shockproof display cabinet comprises a display cabinet body and a shockproof system arranged in the display cabinet body;

[0061] The shockproof system comprises a display platform, a connecting platform and a bearing platform which are parallel to each other, and the bearing platform is fixedly connected to the display cabinet body; the connecting platform is slidably connected to the display platform and the bearing platform respectively, the relative sliding track of the connecting platform and the display platform is perpendicular to the relative sliding track of the connecting platform and the bearing platform, and both of the relative sliding tracks are parallel to the bearing platform; the sliding connection is realized by a gas-magnetic double control track spring structure;

[0062] The gas-magnetic double control track spring structure comprises a sliding rail and a sliding block, the sliding block is a permanent magnet and its N-pole and S-pole point to the two ends of the sliding rail respectively, a permanent magnet repelling the sliding block is arranged at each end of the sliding rail, a controllable electromagnet attracting or repelling the sliding block is arranged at each end of the sliding rail, and the N-pole and S-pole of the sliding block are connected to the two ends of the sliding rail through a controllable gas spring, and the extension direction of the controllable gas spring is parallel to the sliding rail.

[0063] Further, the shockproof system further comprises a gas control subsystem and a control subsystem;

[0064] The gas control subsystem is connected to the controllable gas spring, and is used for inflating or deflating the gas spring to change the damping coefficient of the gas spring; the control subsystem is connected to the electromagnet, and is used for controlling the magnetic force and the magnetic direction of the electromagnet.

[0065] Further, the shockproof system further comprises three inertia elements, and the three inertia elements are arranged on the display platform, the connecting platform and the bearing platform respectively to collect first acceleration data of the display platform, second acceleration data of the connecting platform and third acceleration data of the bearing platform respectively; the control subsystem is connected to the display platform, the connecting platform and the bearing platform to receive the first acceleration data, the second acceleration data and the third acceleration data.

[0066] Further, the control subsystem is further configured to:

[0067] Pre-acquire the corresponding relationship between the acceleration data, the electromagnet and the controllable gas spring, and pre-set the initial magnetic force of the permanent magnet on the sliding block and the initial damping coefficient of the controllable gas spring;

[0068] Set the damping coefficient of the controllable gas spring as a specified damping coefficient, and set the magnetic force of the electromagnet as a specified magnetic force, and set the magnetic direction of the electromagnet as a specified magnetic direction;

[0069] and

[0070] By controlling the specified damping coefficient, the specified magnetic force size, the specified magnetic force direction, the first acceleration and the second acceleration are controlled not to exceed the acceleration threshold.

[0071] Further, the control subsystem is further configured to:

[0072] Obtain the center of gravity position data and the bearing shape data of the exhibit to be displayed;

[0073] Based on a preset comparison table, the specified damping coefficient, the specified magnetic force size, the specified magnetic force direction and the acceleration threshold are determined according to the center of gravity position data and the bearing shape data of the exhibit to be displayed.

[0074] It should be understood that the shockproof system described in the first aspect can be configured in the showcase to obtain a shockproof showcase. The shockproof system can be configured inside the showcase, so that the bearing platform directly bears the exhibit. The shockproof system can also be configured at the bottom of the showcase, and the exhibit is displayed in the upper part of the showcase and fixed on the display platform. The lower part of the showcase is fixed on the bearing platform as a possible seismic source. The application structure can be determined according to the actual needs of the person skilled in the art, and is not specifically disclosed.

[0075] In summary, the present application at least includes the following beneficial effects:

[0076] 1. A shockproof system and a shockproof showcase are provided. The self-designed gas-magnetic double-controlled track spring structure can effectively prevent shock, so as to realize the protection of the exhibit.

[0077] 2. The acceleration of the three platforms of the shockproof system can be monitored by the inertial element, so as to realize precise shockproof control.

[0078] 3. Different shockproof schemes are configured based on exhibits with different center of gravity heights and bearing shape data, so as to realize precise shockproof and be more conducive to targeted protection of the exhibit.

[0079] It should be understood that the content described in the summary section is not intended to limit the key or important features of the embodiments of the present application, nor is it intended to limit the scope of the present application. Other features of the present application will become apparent through the following description.

[0080] The above description is only the preferred embodiments of the present application and the explanation of the applied technical principles. Those skilled in the art should understand that the disclosure range involved in the present application is not limited to the technical solutions formed by the specific combination of the above technical features, and also covers other technical solutions formed by any combination of the above technical features or their equivalent features without departing from the above disclosed concept. For example, the above features are replaced with the technical features disclosed in the present application (but not limited to) having similar functions to form technical solutions.

Claims

1. A shock-absorbing system, characterized in that, It includes a display platform, a connecting platform, and a support platform that are parallel to each other. The connecting platform is slidably connected to the display platform and the support platform respectively. The relative sliding trajectory of the connecting platform and the display platform is perpendicular to the relative sliding trajectory of the connecting platform and the support platform, and both relative sliding trajectories are parallel to the support platform. The sliding connection is achieved by a pneumatic and magnetic dual-control track spring structure. The gas-magnetic dual-control track spring structure includes a slide rail and a slider. The slider is a permanent magnet with its N-pole and S-pole pointing to the two ends of the slide rail, respectively. A permanent magnet that repels the slider is provided at each end of the track. An electromagnet that can be controlled to attract or repel the slider is also provided at each end of the track. The N-pole and S-pole of the slider are connected to the two ends of the slide rail by a controllable gas spring. The extension and contraction direction of the controllable gas spring is parallel to the slide rail. The shock absorption system also includes a pneumatic control subsystem and a control subsystem; The pneumatic control subsystem is connected to the controllable gas spring and is used to inflate or de-inflate the gas spring to change its damping coefficient; the control subsystem is connected to the electromagnet and is used to control the magnitude and direction of the electromagnet's magnetic force. The shock absorption system also includes three inertial elements, which are respectively configured on the display platform, the connecting platform, and the supporting platform to collect first acceleration data of the display platform, second acceleration data of the connecting platform, and third acceleration data of the supporting platform. The control subsystem is connected to the display platform, the connecting platform, and the supporting platform to receive the first acceleration data, the second acceleration data, and the third acceleration data.

2. The shockproof system according to claim 1, characterized in that, The control subsystem is further configured as follows: The correlation between acceleration data and electromagnet and controllable gas spring is pre-acquired, and the initial magnetic force of permanent magnet on slider and the initial damping coefficient of controllable gas spring are preset. Set the damping coefficient of the controllable gas spring to the specified damping coefficient, and set the magnetic force of the electromagnet to the specified magnetic force magnitude and magnetic force direction to the specified magnetic force direction; as well as By controlling the specified damping coefficient, the specified magnetic force magnitude, and the specified magnetic force direction, the first acceleration and the second acceleration are controlled to not exceed the acceleration threshold.

3. The shockproof system according to claim 2, characterized in that, The control subsystem is further configured as follows: Obtain the center of gravity and load-bearing shape data of the exhibits to be displayed; Based on a preset lookup table, the specified damping coefficient, specified magnetic force magnitude, specified magnetic force direction, and acceleration threshold are determined according to the center of gravity position data and bearing shape data of the exhibits to be displayed.

4. A shockproof display case, characterized in that, Includes the display case itself and the shockproof system installed inside the display case; The shockproof system includes a display platform, a connecting platform, and a support platform that are parallel to each other. The support platform is fixedly connected to the display case body. The connecting platform is slidably connected to both the display platform and the support platform. The relative sliding trajectory between the connecting platform and the display platform is perpendicular to the relative sliding trajectory between the connecting platform and the support platform, and both relative sliding trajectories are parallel to the support platform. The sliding connections are all achieved through a pneumatic-magnetic dual-control track spring structure. The gas-magnetic dual-control track spring structure includes a slide rail and a slider. The slider is a permanent magnet with its N-pole and S-pole pointing to the two ends of the slide rail, respectively. A permanent magnet that repels the slider is provided at each end of the track. An electromagnet that can be controlled to attract or repel the slider is also provided at each end of the track. The N-pole and S-pole of the slider are connected to the two ends of the slide rail by a controllable gas spring. The extension and contraction direction of the controllable gas spring is parallel to the slide rail. The shock absorption system also includes a pneumatic control subsystem and a control subsystem; The pneumatic control subsystem is connected to the controllable gas spring and is used to inflate or de-inflate the gas spring to change its damping coefficient; the control subsystem is connected to the electromagnet and is used to control the magnitude and direction of the electromagnet's magnetic force. The shock absorption system also includes three inertial elements, which are respectively configured on the display platform, the connecting platform, and the supporting platform to collect first acceleration data of the display platform, second acceleration data of the connecting platform, and third acceleration data of the supporting platform. The control subsystem is connected to the display platform, the connecting platform, and the supporting platform to receive the first acceleration data, the second acceleration data, and the third acceleration data.

5. A shockproof display case according to claim 4, characterized in that, The control subsystem is further configured as follows: The correlation between acceleration data and electromagnet and controllable gas spring is pre-acquired, and the initial magnetic force of permanent magnet on slider and the initial damping coefficient of controllable gas spring are preset. Set the damping coefficient of the controllable gas spring to the specified damping coefficient, and set the magnetic force of the electromagnet to the specified magnetic force magnitude and magnetic force direction to the specified magnetic force direction; as well as By controlling the specified damping coefficient, the specified magnetic force magnitude, and the specified magnetic force direction, the first acceleration and the second acceleration are controlled to not exceed the acceleration threshold.

6. A shockproof display case according to claim 5, characterized in that, The control subsystem is further configured as follows: Obtain the center of gravity and load-bearing shape data of the exhibits to be displayed; Based on a preset lookup table, the specified damping coefficient, specified magnetic force magnitude, specified magnetic force direction, and acceleration threshold are determined according to the center of gravity position data and bearing shape data of the exhibits to be displayed.

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