Intelligent monitoring and adjusting floating platform system

Abstract

The invention relates to an intelligent monitoring and adjusting floating platform system. A self-adjusting floating platform comprises an upper equipment mounting plate, a lower fixing plate, and a vertical vibration isolation system, a damping energy consumption system, a displacement sensor and a vibration sensor which are positioned between the upper equipment mounting plate and the lower fixing plate; the vertical vibration isolation system comprises a plurality of elastic vibration isolation units distributed in an array mode. The damping energy dissipation system comprises a plurality of damping energy dissipation units distributed in an array mode. The plurality of displacement sensors are distributed in an array; the plurality of vibration sensors are distributed in an array; the elastic vibration isolation unit, the damping energy consumption unit, the displacement sensor and the vibration sensor are in one-to-one correspondence in position to form a monitoring unit of the whole intelligent monitoring and adjusting floating platform system; and the displacement sensor, the vibration sensor and the damping energy consumption unit are all in signal connection with the data processing and feedback system through the data acquisition system. The vibration isolation floating platform solves the problem that an existing vibration isolation floating platform lacks the capabilities of monitoring vibration characteristics and adaptively adjusting mechanical properties.

Description

Technical Field

[0001] This invention relates to a vertical vibration isolation system, belonging to the field of structural vibration control technology, and particularly to an intelligent monitoring and self-adjusting floating platform system. Background Technology

[0002] With the rapid development of urbanization, land resources are becoming increasingly scarce. Traditional factories occupy large areas and have low space utilization rates. The contradiction between the urgent need for industrial transformation and development and limited land resources is intensifying, making intensive land use an inevitable trend in urban development. In the process of urban renewal, upgrading these existing industrial lands into high-rise industrial complexes is of great significance for revitalizing existing land resources and improving land use efficiency. To this end, the national and local governments at all levels have successively formulated a series of relevant policies and industrial plans to vigorously promote the implementation of the "industrial development in high-rise buildings" strategy.

[0003] In "industrial building upstairs" projects, a series of vibration problems arise during the operation of mechanical equipment and the transportation of materials. These vibration sources are characterized by their wide spatial distribution and complex and variable vibration characteristics. Spatially, vibration sources can appear on different floors and in different areas of the building, exhibiting a relatively dispersed and complex distribution. In terms of vibration characteristics, they encompass various features such as different frequencies, amplitudes, and vibration directions. Such vibrations not only threaten the safety of the building structure but also reduce the comfort of building users and even have a highly adverse impact on the normal operation of instruments and equipment in other locations within the building.

[0004] Vibration-isolated floating platforms are an effective method for solving vibration problems in industrial equipment. Currently, these platforms mainly rely on passive control based on existing vibration isolation supports. Therefore, their performance is limited, and they cannot monitor vibration characteristics or adaptively adjust mechanical properties, making them unsuitable for the complex and varied excitation sources encountered in modern industrial production. There is an urgent need to invent a floating platform system with monitoring capabilities and the ability to adjust performance based on monitoring results. Summary of the Invention

[0005] The purpose of this invention is to solve the problem that existing vibration isolation floating platforms in the "industrial building construction" process lack the ability to monitor vibration characteristics and adaptively adjust mechanical properties during use, making it difficult to meet the complex and ever-changing excitation sources faced in modern industrial production.

[0006] The present invention adopts the following technical solution:

[0007] An intelligent monitoring and adjustment floating platform system includes a self-adjusting floating platform, a data acquisition system 7, and a data processing and feedback system 8. The self-adjusting floating platform includes an upper equipment mounting plate 5, a lower fixing plate 6, and a vertical vibration isolation system 2, a damping energy dissipation system 1, a displacement sensor 4, and a vibration sensor 3 located between the two. The vertical vibration isolation system 2 includes multiple arrayed elastic vibration isolation units. The damping energy dissipation system 1 includes multiple arrayed damping energy dissipation units. There are multiple displacement sensors 4 arranged in an array. There are multiple vibration sensors 3 arranged in an array. The elastic vibration isolation units, damping energy dissipation units, displacement sensors 4, and vibration sensors 3 are individually positioned to form a monitoring unit of the entire intelligent monitoring and adjustment floating platform system. The displacement sensors 4, vibration sensors 3, and damping energy dissipation units are all signal-connected to the data processing and feedback system 8 through the data acquisition system 7.

[0008] Preferably, the damping energy dissipation system 1 includes a damping piston 11, a damping fixed outer cylinder 15, a flow control booster 13, a flow control valve 12, and damping material 14; the partition located in the middle of the damping piston 11 divides the damping fixed outer cylinder 15 into two cavities filled with damping material 14, the two cavities are connected by the flow control booster 13, and the pressure difference is adjusted by adjusting the opening of the flow control valve 12 on the flow control booster 13, thereby adjusting the damping force; the flow control valve 12 in the damping energy dissipation unit 1 is signal-connected to the data processing and feedback system 8 through the data acquisition system 7.

[0009] Preferably, the displacement sensor 4 is disposed between the upper equipment mounting plate 5 and the lower fixing plate 6 to monitor the displacement of the distance between the two.

[0010] Furthermore, the displacement sensor is a wire-type displacement sensor or a laser-type displacement sensor; the vertical vibration isolation system 2 is a rubber vibration isolation component, a spring vibration isolation component, or a composite vibration isolation component.

[0011] Furthermore, in a monitoring unit, the vibration sensor 3 has a pair, one of which is set on the upper part of the upper equipment mounting plate 5, and the other is set on the upper part of the lower fixing plate 6, with the upper and lower positions aligned or staggered.

[0012] Furthermore, the vibration sensor 3 located on the upper part of the upper equipment mounting plate 5 corresponds to the longitudinal position of the displacement sensor 4.

[0013] Furthermore, the data processing and feedback system 8 is equipped with a backup power supply; the damping piston has its own damping orifice.

[0014] A control method for the above-mentioned intelligent monitoring and adjustment floating platform system, wherein the data acquisition system 7 acquires real-time monitoring data of the displacement sensor 4, vibration sensor 3 and flow control valve 12; the data processing and feedback system 8 processes the real-time monitoring data of the displacement sensor 4, vibration sensor 3 and flow control valve 12, and performs automatic feedback adjustment of the flow control valve 12 based on the monitoring results.

[0015] Preferably, when the intelligent monitoring and self-adjusting floating platform system starts working, the floating platform deforms. The data acquisition system 7 monitors and collects data on the vertical deformation and vibration characteristics at different locations on the floating platform in real time. The collected data is further input into the data processing and feedback system 8 to process the collected data, thereby automatically judging and adjusting the state of the floating platform system.

[0016] First, the overall attitude of the platform is monitored and determined using displacement monitoring data:

[0017] A) If the vertical deformation is the same at all parts of the platform, it is considered that the floating platform has undergone overall translation and the overall posture meets the requirements. The vibration index is further judged by vibration monitoring data. If the vibration monitoring data results meet the design requirements, the vibration control effect is judged to be qualified and the parameters of flow control valve 12 remain unchanged.

[0018] B) If the vibration monitoring data does not meet the design requirements, the vibration control effect is deemed unqualified, and all flow control valves 12 are synchronously adjusted through the data processing and feedback system 8:

[0019] If the vertical deformation of different parts of the platform is found to be different through displacement monitoring data, it is considered that the floating platform is swaying. The vertical deformation and vibration characteristics of different parts of the platform are monitored and processed. If the vibration monitoring data of the platform meets the requirements, the flow control valve 12 at the location where the vertical deformation is too large or too small is adjusted. The vertical deformation is adjusted by changing the damping force at that location. After the adjustment is completed, the overall attitude of the platform is monitored and judged again.

[0020] If the overall attitude of the platform is determined to be swaying motion and the vibration monitoring data of various parts of the platform does not meet the requirements, then all flow control valves are adjusted non-proportionally. The overall vibration control and local vertical deformation adjustment are achieved by adjusting the damping force of various parts of the floating platform non-proportionally. After the adjustment is completed, the overall attitude of the platform is monitored and determined again.

[0021] The beneficial effects of this invention are as follows:

[0022] 1) During operation, the intelligent monitoring self-adjusting floating platform system drives the vertical vibration isolation system and damping energy dissipation system to undergo vertical reciprocating deformation through the upper equipment mounting plate and the lower fixing plate. During the vertical reciprocating deformation, the vertical vibration isolation system undergoes elastic deformation, providing load-bearing capacity and vibration isolation capability for the floating platform system; during the deformation of the damping energy dissipation system, the damping material achieves volume adjustment on both sides of the damping piston through the damping holes reserved in the damping piston and the flow control expansion path. The flow resistance generated during the flow of the damping material provides stable energy dissipation capability for the intelligent monitoring self-adjusting floating platform.

[0023] 2) Displacement sensors can monitor the vertical deformation at various locations of the intelligent monitoring self-adjusting floating platform system in real time. The overall attitude of the floating platform can be determined by the vertical deformation values ​​at different locations. Vibration sensors can monitor the vibration characteristics at different locations of the upper equipment mounting plate and lower fixing plate of the intelligent monitoring self-adjusting floating platform system in real time. The vibration isolation effect of the floating platform can be determined by monitoring the vibration information.

[0024] 3) The flow control booster of the damping energy dissipation system is equipped with a flow control valve. The inner diameter of the flow control booster can be adjusted by regulating the flow control valve. The flow control valve is automatically adjusted according to the monitoring results to change the damping force of the damping energy dissipation system, so as to achieve automatic monitoring and adjustment of the overall attitude and vibration isolation effect of the floating platform.

[0025] 4) When the intelligent monitoring and self-adjusting floating platform system starts working, the floating platform deforms. The data acquisition system monitors and collects data on the vertical deformation and vibration characteristics at different locations on the floating platform in real time. The collected data is further input into the data processing and feedback system for processing, thereby automatically judging and adjusting the state of the floating platform system. First, the overall attitude of the platform is monitored and judged through displacement monitoring data. If the vertical deformation is the same at all points on the platform, it is considered that the floating platform has undergone overall translation and the overall attitude meets the requirements. Vibration monitoring data is then used to further judge the vibration indicators. If the vibration monitoring data results meet the design requirements, the vibration control effect is judged to be qualified, and the flow control valve parameters remain unchanged. If the vibration monitoring data results do not meet the design requirements, the vibration control effect is judged to be unqualified, and the data processing and feedback system controls all flow control valves to adjust synchronously. After adjustment, the overall attitude of the platform is monitored and judged again. If the overall attitude monitoring and judgment of the platform through displacement monitoring data reveals different vertical deformations at various points on the platform, it is considered that the floating platform is undergoing swaying motion. The vertical deformation and vibration characteristics at various points on the platform are then monitored and processed. If the platform vibration monitoring data meets the requirements, the flow control valves at locations with excessive or insufficient vertical deformation are adjusted. This adjustment changes the damping force at those locations to regulate the vertical deformation. After adjustment, the overall attitude monitoring and judgment of the platform are repeated. If the overall attitude of the platform is determined to be swaying motion and the vibration monitoring data at various points on the platform does not meet the requirements, all flow control valves are adjusted non-proportionally. This non-proportional adjustment of the damping force at various points on the floating platform achieves overall vibration control and local vertical deformation regulation. After adjustment, the overall attitude monitoring and judgment of the platform are repeated.

[0026] 5) In the intelligent monitoring self-adjusting floating platform system, all components of the floating platform can be mass-produced in the factory in a standardized manner. The displacement sensor and vibration sensor are mature products. The data acquisition system and data processing and feedback system can all adopt integrated prefabricated products, which can realize the rapid construction of the intelligent monitoring self-adjusting floating platform system. Modular integrated installation is achieved through threads, etc., which facilitates maintenance and replacement.

[0027] 6) The intelligent monitoring and self-adjusting floating platform system solves the problem that conventional vibration isolation floating platforms have limited performance and cannot monitor vibration characteristics or adaptively adjust mechanical properties. The system can automatically adjust the damping energy dissipation system in real time through monitoring data, meeting the complex and ever-changing excitation sources faced in modern industrial production. Attached Figure Description

[0028] Figure 1 This is a side view of the intelligent monitoring self-adjusting floating platform system in one embodiment of the present invention;

[0029] Figure 2 for Figure 1 A magnified view of the left side of the middle section.

[0030] Figure 3 This is a schematic diagram of the plan layout of an intelligent monitoring self-adjusting floating platform system according to an embodiment of the present invention;

[0031] Figure 4 This is a schematic diagram of the workflow of an intelligent monitoring and self-adjusting floating platform system in one embodiment of the present invention.

[0032] The numbers in the diagram represent the following components: 1. Damping energy dissipation system; 2. Vertical vibration isolation system; 3. Vibration sensor; 4. Displacement sensor; 5. Upper equipment mounting plate; 6. Lower fixing plate; 7. Data acquisition system; 8. Data processing and feedback system; 11. Damping piston; 12. Flow control valve; 13. Flow control booster; 14. Damping material; 15. Damping fixing outer cylinder. Detailed Implementation

[0033] The present invention will be further described below with reference to the accompanying drawings and specific embodiments.

[0034] refer to Figure 1-2 and combined Figures 3-4 An intelligent monitoring and adjustment floating platform system includes a self-adjusting floating platform, a data acquisition system 7, and a data processing and feedback system 8;

[0035] See Figure 1-3 The self-adjusting floating platform includes an upper equipment mounting plate 5, a lower fixing plate 6, and a vertical vibration isolation system 2, a damping energy dissipation system 1, a displacement sensor 4, and a vibration sensor 3 located between the two. The vertical vibration isolation system 2 includes multiple arrayed elastic vibration isolation units. The damping energy dissipation system 1 includes multiple arrayed damping energy dissipation units. There are multiple displacement sensors 4 arranged in an array. There are multiple vibration sensors 3 arranged in an array. The positions of the elastic vibration isolation units, damping energy dissipation units, displacement sensors 4, and vibration sensors 3 are one-to-one, forming a monitoring unit of the entire intelligent monitoring and adjusting floating platform system. The displacement sensors 4, vibration sensors 3, and damping energy dissipation units are all connected to the data processing and feedback system 8 through the data acquisition system 7. The connection method can be wireless transmission or wired transmission.

[0036] See Figure 2The damping energy dissipation system 1 includes a damping piston 11, a damping fixed outer cylinder 15, a flow control booster 13, a flow control valve 12, and damping material 14. A baffle plate located in the middle of the damping piston 11 divides the damping fixed outer cylinder 15 into two cavities filled with damping material 14. The two cavities are connected by the flow control booster 13, and the pressure difference is adjusted by regulating the opening of the flow control valve 12 on the flow control booster 13, thereby adjusting the damping force. The flow control valve 12 in the damping energy dissipation unit 1 is connected to the data processing and feedback system 8 via a data acquisition system 7. Adjusting the flow control valve 12 allows for adjustment of the flow inner diameter of the flow control booster 13, achieving the purpose of damping force adjustment.

[0037] See also Figure 2 The displacement sensor 4 is installed between the upper equipment mounting plate 5 and the lower fixing plate 6 to monitor the displacement of the distance between the two.

[0038] In this embodiment, the displacement sensor is a wire-type displacement sensor or a laser-type displacement sensor; the vertical vibration isolation system 2 is a rubber vibration isolation component, a spring vibration isolation component, or a composite vibration isolation component.

[0039] In this embodiment, combined with Figure 1 and Figure 3 In a monitoring unit, the vibration sensor 3 has a pair, one of which is set on the upper part of the upper equipment mounting plate 5, and the other is set on the upper part of the lower fixing plate 6, with the upper and lower positions aligned or staggered.

[0040] See Figure 1-2 The vibration sensor 3 located on the upper part of the upper equipment mounting plate 5 corresponds to the longitudinal position of the displacement sensor 4.

[0041] In this embodiment, the data processing and feedback system 8 is equipped with a backup power supply;

[0042] In this embodiment, see Figure 2 The damping piston has its own damping orifice.

[0043] The control method of the above-mentioned intelligent monitoring and adjustment floating platform system includes the data acquisition system 7 collecting real-time monitoring data from the displacement sensor 4, vibration sensor 3, and flow control valve 12; and the data processing and feedback system 8 processing the real-time monitoring data from the displacement sensor 4, vibration sensor 3, and flow control valve 12, and automatically adjusting the flow control valve 12 based on the monitoring results.

[0044] Specifically, when the intelligent monitoring and self-adjusting floating platform system starts working, the floating platform deforms. The data acquisition system 7 monitors and collects data on the vertical deformation and vibration characteristics at different locations on the floating platform in real time. The collected data is further input into the data processing and feedback system 8 to process the collected data, thereby automatically judging and adjusting the state of the floating platform system.

[0045] First, the overall attitude of the platform is monitored and determined using displacement monitoring data:

[0046] A) If the vertical deformation is the same at all parts of the platform, it is considered that the floating platform has undergone overall translation and the overall posture meets the requirements. The vibration index is further judged by vibration monitoring data. If the vibration monitoring data results meet the design requirements, the vibration control effect is judged to be qualified and the parameters of flow control valve 12 remain unchanged.

[0047] B) If the vibration monitoring data does not meet the design requirements, the vibration control effect is deemed unqualified, and all flow control valves 12 are synchronously adjusted through the data processing and feedback system 8:

[0048] If the vertical deformation of different parts of the platform is found to be different through displacement monitoring data, it is considered that the floating platform is swaying. The vertical deformation and vibration characteristics of different parts of the platform are monitored and processed. If the vibration monitoring data of the platform meets the requirements, the flow control valve 12 at the location where the vertical deformation is too large or too small is adjusted. The vertical deformation is adjusted by changing the damping force at that location. After the adjustment is completed, the overall attitude of the platform is monitored and judged again.

[0049] If the overall attitude of the platform is determined to be swaying motion and the vibration monitoring data of various parts of the platform does not meet the requirements, then all flow control valves are adjusted non-proportionally. The overall vibration control and local vertical deformation adjustment are achieved by adjusting the damping force of various parts of the floating platform non-proportionally. After the adjustment is completed, the overall attitude of the platform is monitored and determined again.

[0050] During operation, the intelligent monitoring self-adjusting floating platform system drives the vertical vibration isolation system 2 and the damping energy dissipation system 1 to undergo vertical reciprocating deformation via the upper equipment mounting plate 5 and the lower fixing plate 6. During this vertical reciprocating deformation, the vertical vibration isolation system 2 undergoes elastic deformation, providing load-bearing capacity and vibration isolation capability for the floating platform system. During the deformation of the damping energy dissipation system 1, the damping material 14 achieves volume adjustment on both sides of the damping piston 11 through the damping holes reserved in the damping piston 11 and the flow control booster 13. The flow resistance generated during the flow of the damping material 14 provides stable energy dissipation capability for the intelligent monitoring self-adjusting floating platform.

[0051] The displacement sensor 3 can monitor the vertical deformation at various locations of the intelligent monitoring self-adjusting floating platform system in real time. The overall attitude of the floating platform can be determined by the vertical deformation values ​​at different locations. The vibration sensor 4 can monitor the vibration characteristics at different locations of the upper equipment mounting plate 5 and the lower fixing plate 6 of the intelligent monitoring self-adjusting floating platform system in real time. The vibration isolation effect of the floating platform can be determined by monitoring the vibration information.

[0052] The flow control booster 13 of the damping energy dissipation system 1 is equipped with a flow control valve 12. The flow control valve 12 can be adjusted to adjust the inner diameter of the flow control booster 13. The flow control valve 12 is automatically adjusted according to the monitoring results to change the damping force of the damping energy dissipation system, so as to achieve automatic monitoring and adjustment of the overall attitude and vibration isolation effect of the floating platform.

[0053] When the intelligent monitoring and self-adjusting floating platform system starts working, the floating platform deforms. The data acquisition system 7 monitors and collects data on the vertical deformation and vibration characteristics at different locations on the floating platform in real time. The collected data is further input into the data processing and feedback system 8 for processing, thereby automatically judging and adjusting the state of the floating platform system. First, the overall attitude of the platform is monitored and judged through displacement monitoring data. If the vertical deformation is the same at all points on the platform, it is considered that the floating platform has undergone overall translation and the overall attitude meets the requirements. Vibration monitoring data is used to further judge the vibration index. If the vibration monitoring data results meet the design requirements, the vibration control effect is judged to be qualified, and the parameters of the flow control valve 12 remain unchanged. If the vibration monitoring data results do not meet the design requirements, the vibration control effect is judged to be unqualified, and the data processing and feedback system 8 controls all flow control valves 12 to be synchronously adjusted. After the adjustment is completed, the overall attitude of the platform is monitored and judged again. If the overall attitude monitoring and judgment of the platform through displacement monitoring data reveals different vertical deformations at various points on the platform, it is considered that the floating platform is undergoing swaying motion. The vertical deformation and vibration characteristics at various points on the platform are then monitored and processed. If the platform vibration monitoring data results meet the requirements, the flow control valve 12 at the location where the vertical deformation is too large or too small is adjusted. The damping force at that location is changed to adjust the vertical deformation. After adjustment, the overall attitude monitoring and judgment of the platform is repeated. If the overall attitude of the platform is determined to be swaying motion and the vibration monitoring data results at various points on the platform do not meet the requirements, all flow control valves are adjusted non-proportionally. The overall vibration control and local vertical deformation adjustment are achieved through non-proportional adjustment of the damping force at various points on the floating platform. After adjustment, the overall attitude monitoring and judgment of the platform is repeated.

[0054] In the intelligent monitoring self-adjusting floating platform system, all components of the floating platform can be mass-produced in the factory in a standardized manner. The displacement sensor and vibration sensor are mature products, and the data acquisition system and data processing and feedback system can all adopt integrated prefabricated products, which can realize the rapid construction of the intelligent monitoring self-adjusting floating platform system. Modular integrated installation is achieved through threads, etc., which facilitates maintenance and replacement.

[0055] This invention utilizes an intelligent monitoring and self-adjusting floating platform system to solve the problems of conventional vibration isolation floating platforms having limited performance and being unable to monitor vibration characteristics and adaptively adjust mechanical properties. By monitoring data, the damping energy dissipation system is automatically adjusted in real time to meet the complex and ever-changing excitation sources faced in modern industrial production.

[0056] The above are preferred embodiments of the present invention. Those skilled in the art can make various modifications or improvements based on these embodiments. Without departing from the overall concept of the present invention, such modifications or improvements should fall within the scope of protection claimed by the present invention.

Claims

1. An intelligent monitoring and adjustment floating platform system, characterized in that: It includes a self-adjusting floating platform, a data acquisition system (7), and a data processing and feedback system (8); The self-adjusting floating platform includes an upper equipment mounting plate (5), a lower fixing plate (6), and a vertical vibration isolation system (2), a damping energy dissipation system (1), a displacement sensor (4), and a vibration sensor (3) located between the two. The vertical vibration isolation system (2) includes multiple arrayed elastic vibration isolation units; The damping energy dissipation system (1) includes multiple array-distributed damping energy dissipation units; The displacement sensors (4) are multiple and arranged in an array; The vibration sensors (3) are multiple and arranged in an array; The positions of the elastic vibration isolation unit, damping energy dissipation unit, displacement sensor (4), and vibration sensor (3) are one-to-one, forming a monitoring unit of the entire intelligent monitoring and adjustment floating platform system; The displacement sensor (4), vibration sensor (3), and damping energy dissipation unit are all connected to the data processing and feedback system (8) via the data acquisition system (7).

2. The intelligent monitoring and adjustment floating platform system as described in claim 1, characterized in that: The damping energy dissipation system (1) includes a damping piston (11), a damping fixed outer cylinder (15), a flow control booster (13), a flow control valve (12), and damping material (14). The damping piston (11) has a partition in the middle that divides the damping fixed outer cylinder (15) into two cavities filled with damping material (14). The two cavities are connected by the flow control booster (13), and the pressure difference is adjusted by adjusting the opening of the flow control valve (12) on the flow control booster (13), thereby adjusting the damping force. The flow control valve (12) in the damping energy dissipation unit (1) is connected to the data processing and feedback system (8) via the data acquisition system (7).

3. The intelligent monitoring and adjustment floating platform system as described in claim 1, characterized in that: The displacement sensor (4) is installed between the upper equipment mounting plate (5) and the lower fixing plate (6) to monitor the displacement of the distance between the two.

4. The intelligent monitoring and adjustment floating platform system as described in claim 3, characterized in that: The displacement sensor is a wire-type displacement sensor or a laser-type displacement sensor; the vertical vibration isolation system (2) is a rubber vibration isolation component, a spring vibration isolation component or a composite vibration isolation component.

5. The intelligent monitoring and adjustment floating platform system as described in claim 3, characterized in that: In a monitoring unit, the vibration sensor (3) has a pair, one of which is located on the upper part of the upper equipment mounting plate (5), and the other is located on the upper part of the lower fixing plate (6), with the upper and lower positions aligned or staggered.

6. The intelligent monitoring and adjustment floating platform system as described in claim 5, characterized in that: The vibration sensor (3) located on the upper part of the upper equipment mounting plate (5) corresponds to the longitudinal position of the displacement sensor (4).

7. The intelligent monitoring and adjustment floating platform system as described in claim 2, characterized in that: The data processing and feedback system (8) is equipped with a backup power supply; the damping piston has its own damping hole.

8. A control method for an intelligent monitoring and regulating floating platform system as described in claim 2, characterized in that: The data acquisition system (7) collects real-time monitoring data from the displacement sensor (4), vibration sensor (3), and flow control valve (12); The data processing and feedback system (8) processes the monitoring data of the displacement sensor (4), vibration sensor (3) and flow control valve (12), and automatically adjusts the flow control valve (12) based on the monitoring results.

9. The control method for the intelligent monitoring and adjustment floating platform system as described in claim 8, characterized in that: When the intelligent monitoring and self-adjusting floating platform system starts working, the floating platform deforms. The data acquisition system (7) monitors and collects data on the vertical deformation and vibration characteristics at different locations of the floating platform in real time. The collected data is further input into the data processing and feedback system (8) to process the collected data and thereby automatically judge and adjust the state of the floating platform system. First, the overall attitude of the platform is monitored and determined using displacement monitoring data: A) If the vertical deformation is the same in all parts of the platform, it is considered that the floating platform has undergone overall translation and the overall posture meets the requirements. The vibration index is further judged by vibration monitoring data. If the vibration monitoring data results meet the design requirements, the vibration control effect is judged to be qualified and the flow control valve (12) parameters remain unchanged. B) If the vibration monitoring data does not meet the design requirements, the vibration control effect is deemed unqualified, and all flow control valves (12) are controlled synchronously through the data processing and feedback system (8): If the vertical deformation of different parts of the platform is found to be different through the monitoring and judgment of the overall attitude of the platform by displacement monitoring data, it is considered that the floating platform as a whole has swaying motion. The vertical deformation and vibration characteristics of each part of the platform are monitored and processed. If the platform vibration monitoring data results meet the requirements, the flow control valve (12) at the location where the vertical deformation is too large or too small is adjusted. The vertical deformation is adjusted by changing the damping force at that location. After the adjustment is completed, the overall attitude of the platform is monitored and judged again. If the overall attitude of the platform is determined to be swaying motion and the vibration monitoring data of various parts of the platform does not meet the requirements, then all flow control valves are adjusted non-proportionally. The overall vibration control and local vertical deformation adjustment are achieved by adjusting the damping force of various parts of the floating platform non-proportionally. After the adjustment is completed, the overall attitude of the platform is monitored and determined again.

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