Intelligently controlled seismic isolation device for power buildings

Abstract

The present invention relates to the field of power building maintenance technology, and discloses an intelligently controlled power building seismic isolation device, comprising: a power building body, with a control system installed inside and an alarm light provided outside; two groups of docking plates, one of which is installed at the bottom of the power building body, for connecting and transmitting longitudinal vibrations; multiple groups of second buffer mechanisms, installed on adjacent sides of the two docking plates, for responding to vibrations transmitted by the docking plates; and a range-extending mechanism, which is provided on both sides of the second buffer mechanism. By linking the range-extending mechanism with the second buffer mechanism, electrical energy is generated during vibration and stored in a battery. The power generation module can continuously supply power during vibration, providing emergency power support for the control system, alarm lights and other equipment. This energy recovery design improves the self-power supply capability of the device, ensures the continuous operation of the device under extreme conditions, and guarantees the normal operation of the building's safety functions.

Description

Technical Field

[0001] The present invention relates to the technical field of power building maintenance, and in particular to an intelligently controlled power building seismic isolation device. Background Art

[0002] In the field of power buildings, especially in response to earthquakes or other strong vibration scenarios, seismic isolation technology plays a vital role in the structural stability of buildings and the protection of internal equipment. Most existing seismic isolation technologies rely on a single shock-absorbing mechanism to absorb and disperse vibration energy, and usually can only work effectively for vibrations within a specific range. When faced with large-scale vibrations, such systems often cannot provide sufficient shock-absorbing effects, resulting in the risk of structural damage to buildings during strong vibrations. At the same time, existing systems mostly use passive shock-absorbing modes, lack the ability to respond to and control vibration intensity in real time, and cannot flexibly adjust the seismic isolation strategy according to different vibration levels, which limits their effectiveness in dealing with complex vibration scenarios.

[0003] Furthermore, existing seismic isolation devices often fail to fully utilize the mechanical energy generated during vibration, leaving the system reliant on external power supplies. This makes it difficult for the system to continue operating when an earthquake or vibration causes a power outage. There are also limitations in protecting critical power equipment and ensuring emergency power supply, especially when vibration damages equipment, as there is a lack of effective emergency measures to prevent equipment failure or malfunction.

[0004] To this end, those skilled in the art provide an intelligently controlled electric building seismic isolation device to solve the problems raised in the above background technology. Summary of the Invention

[0005] In view of the shortcomings of the existing technology, the present invention provides an intelligently controlled electric power building seismic isolation device, which solves the problems of the existing technology in that the seismic isolation effect is relatively simple and the emergency response is poor.

[0006] To achieve the above objectives, the present invention is implemented through the following technical solutions: an intelligently controlled electric building seismic isolation device, comprising:

[0007] The power building itself has a control system installed inside and an alarm light installed outside;

[0008] There are two sets of docking plates, one of which is installed at the bottom of the power building body to connect and transmit longitudinal vibrations;

[0009] The second buffer mechanism, which has multiple groups, is installed on the adjacent side of the two docking plates to cope with the vibration transmitted by the docking plates;

[0010] A range extender mechanism is provided on both sides of the second buffer mechanism and is linked with the second buffer mechanism to generate electricity by utilizing the power of the second buffer mechanism components;

[0011] The range extender mechanism further includes a threaded rod, which is mounted on one side of the interior of the second buffer mechanism and is threadedly connected to a thread groove provided in the threaded sleeve, thereby driving the first gear and the second gear to engage with each other, and cooperating with the permanent magnet on the rotating shaft connected to the second gear to rotate within the range of the magnetic flux lines of the coil, thereby electrically connecting to the battery to achieve power generation and storage;

[0012] The first seismic isolation mechanism is arranged in the middle of the adjacent side of the two butt joint plates and is used to bear the vibrations transmitted daily by the power building body.

[0013] Preferably, the range-extending mechanism further includes an enclosing block, which is fixed on both sides of the outer wall of the limit block. Fixed rods are respectively provided on both sides of the inner cavity of the limit block for fixing the rotation position of the rotating shaft inside the limit block, and the threaded sleeve is fixed inside the range-extending mechanism.

[0014] Preferably, the second buffer mechanism also includes an assembly block, multiple of which are arranged on the top of the docking plate, wherein a first damper is provided on the adjacent side of two of the assembly blocks for contacting the positioning plate to achieve shock isolation, and a track is provided on the top of the assembly block for providing a fixed running track for the displacement block so as to contact the positioning plate, a push rod is provided on one side of the displacement block, and a spring is provided on the outer wall thereof for positioning the initial extrusion position of the displacement block, and a connecting block is fixed on one side of the assembly block for limiting the movement of the push plate connected to the push rod, and the push plate is connected to the threaded rod as the power of the range extender mechanism.

[0015] Preferably, the push plate drives the first connecting rod connected to the inner cavity of the assembly block to move during the sliding process. As the angle of the first connecting rod increases, the lifting block connected to the central axis will be pulled to move laterally, and the opposing resistance formed by the slider and the second damper will be cooperated to complete the displacement limit of the lifting block.

[0016] Preferably, the first seismic isolation mechanism also includes a third damper, which is fixed on the opposite side of the multiple docking plates, and its outer wall is provided with a protective block. Measuring plates are respectively provided on both sides, and a sliding block is slid in the inner cavity of the measuring plate to limit the central axis of the second connecting rod. Connecting blocks are provided on both sides of the second connecting rod, which are respectively located on the opposite sides of the docking plates on both sides.

[0017] Preferably, the inner cavity of the moving block is provided with a plurality of sensors for detecting and measuring the movement length of the moving block in the inner cavity of the measuring plate.

[0018] Preferably, the warning light is electrically connected to the battery, and the control system is electrically connected to the battery.

[0019] Preferably, the sensor is electrically connected to the battery.

[0020] Preferably, the lifting block comprises an upper part and a lower part, the lower part is connected to the bottom of the upper part and extends and retracts with the movement of the first connecting rod.

[0021] Preferably, the control system includes a vibration detection module, a threshold judgment and reminder trigger module, an intelligent control module, a power generation and energy storage module, and a light reminder and warning module.

[0022] Working Principle: First, under normal conditions, the power building structure absorbs and buffers transmitted vibrations through the first isolation mechanism. This first isolation mechanism includes a third damper connected to the docking plate to cushion normal building vibrations. Sensors detect building vibrations by measuring the travel lengths of the plate and displacement block. When significant vibrations occur, the second buffer mechanism and the range extender are activated. The second buffer mechanism transmits vibrations through the docking plate and uses a structure consisting of an assembly block, displacement block, and push plate to convert the vibrations into mechanical energy, which then drives the threaded rod to rotate.

[0023] The threaded rod engages with the threaded groove inside the threaded sleeve, causing the first gear to engage with the second gear, driving the permanent magnet on the rotating shaft to rotate in the coil, generating electrical energy and transmitting it to the battery for storage through electrical connection.

[0024] The battery provides power to the warning lights and control system, providing emergency warnings and power supply in extreme vibration situations. Sensors monitor the movement length of the moving block in real time. When a large vibration is detected, the sensor activates the warning lights as an alarm and simultaneously activates the power generation function to ensure continuous power supply in emergency situations.

[0025] The range-extending mechanism links the movement of the threaded rod and the push plate, allowing the power generation process to work closely with the second buffer mechanism, thereby achieving energy recovery and power guarantee during extreme vibrations of the building.

[0026] In addition, the jacking block cooperates with the first connecting rod and the slider to limit and resist resistance, thereby ensuring that the system can operate stably during large vibrations, reducing damage to the building structure, and making timely adjustments according to different vibration intensities to achieve intelligent protection and emergency response for power equipment.

[0027] The present invention provides an intelligently controlled electric power building seismic isolation device, which has the following beneficial effects:

[0028] 1. The present invention generates electrical energy during vibration by linking the range-extending mechanism with the second buffer mechanism and stores it in a battery. The power generation module can continuously supply power during vibration, providing emergency power support for control systems, alarm lights and other equipment. This energy recovery design improves the self-power supply capacity of the device, ensures its continued operation in extreme situations, and guarantees the normal operation of the building's safety functions.

[0029] 2. The vibration detection module of this invention, combined with sensors, can monitor building vibrations in real time and automatically trigger a light warning system based on vibration intensity. When vibrations exceeding a safety threshold are detected, the system issues an alert, prompting personnel to take emergency measures. This feature significantly improves the system's response speed in emergency situations, ensuring that safety hazards are addressed promptly.

[0030] 3. The present invention provides corresponding shock-absorbing responses according to different vibration intensities by setting up multi-level shock-absorbing effects. The first buffer mechanism is used to cope with daily slight vibrations and provide basic shock-absorbing effects. In the case of larger vibrations, the second buffer mechanism will be activated to provide stronger shock-absorbing capabilities. BRIEF DESCRIPTION OF THE DRAWINGS

[0031] Figure 1 It is an assembly perspective view of the present invention;

[0032] Figure 2 This is an exploded schematic diagram of the docking plate of the present invention;

[0033] Figure 3 This is a schematic diagram of the planar structure of the docking plate of the present invention;

[0034] Figure 4 This is a schematic diagram of the cross-sectional structure of the assembly block of the present invention;

[0035] Figure 5 It is a schematic diagram of the connection block structure of the present invention;

[0036] Figure 6 Schematic diagram of the cross-sectional structure of the threaded sleeve of the present invention;

[0037] Figure 7 It is a three-dimensional schematic diagram of the protection block structure of the present invention;

[0038] Figure 8 It is a three-dimensional schematic diagram of the block shifting structure of the present invention.

[0039] Among them, 1. Power building body; 2. Docking plate; 3. Second buffer mechanism; 301. Positioning plate; 302. First damper; 303. Displacement block; 304. Assembly block; 305. Connecting block; 306. Push rod; 307. Spring; 308. First connecting rod; 309. Lifting block; 310. Slider; 311. Second damper; 312. Push plate; 4. Range extender mechanism; 401. Threaded rod; 402. Threaded sleeve ; 403, first gear; 405, limit block; 406, enclosing block; 407, second gear; 408, fixing rod; 409, rotating shaft; 410, coil; 411, permanent magnet; 412, threaded groove; 5, first seismic isolation mechanism; 501, third damper; 502, connecting block; 503, protection block; 504, measuring plate; 505, moving block; 506, second connecting rod; 507, sensor; 6, battery. DETAILED DESCRIPTION

[0040] The following will clearly and completely describe the technical solution of the present invention in conjunction with the accompanying drawings. Obviously, the embodiments described are only some embodiments of the present invention, not all embodiments. Based on the embodiments of the present invention, all other embodiments obtained by ordinary technicians in this field without making creative efforts are within the scope of protection of the present invention.

[0041] Example 1:

[0042] Please see the attached Figure 1 -Attached Figure 3 The embodiment of the present invention provides an intelligently controlled electric building seismic isolation device, comprising:

[0043] The power building body 1 has a control system installed inside and an alarm light set outside; the alarm light is electrically connected to the battery 6, the control system is electrically connected to the battery 6, and the sensor 507 is electrically connected to the battery 6.

[0044] Specifically, the alarm light is electrically connected to the battery 6 to ensure that in the event of an earthquake or other extreme vibration, a warning signal can be issued in real time to remind people inside and outside the building to pay attention to safety. The control system is also electrically connected to the battery 6, using the stored electrical energy in the battery 6 to support the continuous operation of the system in an emergency and maintain a stable power supply in the building. The sensor 507 is also electrically connected to the battery 6. The main function of the sensor 507 is to monitor the vibration intensity of the building while determining whether it is necessary to activate the alarm light and start the emergency power system. The power building body 1 realizes intelligent vibration detection and emergency response through this system.

[0045] When the building is affected by vibration, the sensor 507 will automatically determine whether the current vibration is within the safety threshold range by detecting the vibration amplitude of the building in real time. Once it detects that the vibration exceeds the preset threshold, the sensor 507 will immediately activate the power supply of the battery 6 and trigger the alarm light to issue a warning. In addition, the control system will automatically adjust the building's seismic isolation device according to the changes in vibration intensity to ensure that the damage to the building structure and its internal equipment can be minimized during the vibration process. This device can not only provide basic buffering during daily minor vibrations, but also intelligently perform energy scheduling and risk warnings in extreme situations such as earthquakes, significantly improving the safety and operational stability of power buildings. By rationally configuring the functions and energy flows of each component, this device can achieve efficient seismic isolation and energy management, ensuring the continuous operation of equipment and the structural stability of the building under extreme conditions.

[0046] Please see the attached Figure 2 -Attached Figure 3 , docking plates 2, there are two groups, one of which is installed at the bottom of the power building body 1, for connecting and transmitting longitudinal vibration;

[0047] Specifically, when a building vibrates, butt-joint plate 2 effectively transfers the vibration from the building's base to the seismic isolation device, allowing the vibration energy to be further processed by the buffer mechanism, thereby reducing the direct impact of the vibration on the building's superstructure. Through the connection and transmission of butt-joint plate 2, the vibration energy is rationally distributed, ensuring the building's structural stability during longitudinal vibration and providing foundational support for subsequent buffering and power generation mechanisms.

[0048] Please see the attached Figure 3 -Attached Figure 5 , the second buffer mechanism 3, there are multiple groups, which are installed on the adjacent side of the two docking plates 2 to cope with the vibration transmitted by the docking plates 2; the second buffer mechanism 3 also includes an assembly block 304, multiple of which are arranged on the top of the docking plate 2, wherein the adjacent side of the two assembly blocks 304 is provided with a first damper 302, which is used to contact the positioning plate 301 to achieve shock isolation, and a track is provided on the top of the assembly block 304, which is used to provide a fixed running track for the displacement block 303 so that it contacts the positioning plate 301, and a push rod 306 is provided on one side of the displacement block 303, and a spring 307 is provided on the outer wall thereof for positioning the initial extrusion position of the displacement block 303, and a connecting block 305 is fixed on one side of the assembly block 304 for limiting the movement of the push plate 312 connected to the push rod 306. The push plate 312 serves as the power of the range extender mechanism 4 and is connected to the threaded rod 401.

[0049] Specifically, the core of the second buffer mechanism 3 is that it effectively absorbs and alleviates the transmitted vibration through multiple structures to ensure the stability of the building. The buffer mechanism also includes an assembly block 304, and multiple assembly blocks 304 are installed on the top of the docking plate 2, wherein the adjacent sides of two adjacent assembly blocks 304 are provided with a first damper 302 for contacting the positioning plate 301, thereby achieving effective seismic isolation. A track is provided on the top of the assembly block 304 to provide a stable running path for the displacement block 303, so that it can contact the positioning plate 301, ensuring the effective conduction and absorption of vibration. A push rod 306 is provided on one side of the displacement block 303, and a spring 307 is provided on the outside of the push rod 306. The spring 307 plays a role in positioning the initial extrusion position of the displacement block 303, ensuring that the system maintains appropriate responsiveness in the early stage of vibration. A connecting block 305 is fixed on one side of the assembly block 304 to limit the movement of the push plate 312 connected to the push rod 306 to prevent it from exceeding a reasonable range. The push plate 312 serves as the power source of the range extender mechanism 4 and is connected to the threaded rod 401. It drives the threaded rod 401 to rotate through the transmission of vibration energy, thereby driving the power generation system to achieve energy conversion and storage.

[0050] Please see the attached Figure 4 During the sliding process, the push plate 312 drives the first connecting rod 308 connected to the inner cavity of the assembly block 304 to move. As the angle of the first connecting rod 308 increases, the lifting block 309 connected to the central axis will be pulled to move laterally, and the opposing resistance formed by the slider 310 and the second damper 311 will be cooperated to complete the displacement limit of the lifting block 309.

[0051] The lifting block 309 includes an upper portion and a lower portion. The lower portion is connected to the bottom of the upper portion and expands and contracts as the first connecting rod 308 moves.

[0052] Specifically, as the push plate 312 slides, it drives the first connecting rod 308, which is connected to the inner cavity of the assembly block 304, to move. As the angle of the first connecting rod 308 gradually increases, it pulls the lifting block 309, connected to the central axis, causing it to move laterally. The movement of the lifting block 309, combined with the opposing resistance created by the slider 310 and the second damper 311, effectively controls its displacement range, thereby achieving a position-limiting function and ensuring the stability and reliability of the system during vibration absorption.

[0053] Lifting block 309 consists of an upper and lower portion. The lower portion is cylindrical and connected to the bottom of the upper portion. As the first connecting rod 308 moves, lifting block 309 expands and contracts as needed. This design effectively absorbs vibration and mitigates impact, further enhancing the system's shock absorption. Through the expansion and contraction mechanism of lifting block 309, the system can flexibly adapt to vibrations of varying intensities and maintain stable operation during vibrations.

[0054] Please see the attached Figure 5 -Attached Figure 6 , the range-extending mechanism 4 is arranged on both sides of the second buffer mechanism 3, and is linked with the second buffer mechanism 3 to generate electricity with the help of the power of the second buffer mechanism 3 components; it also includes an enclosing block 406, which is fixed on both sides of the outer wall of the limit block 405, and fixing rods 408 are respectively provided on both sides of the inner cavity of the limit block 405 for fixing the rotation position of the rotating shaft 409 inside the limit block 405, and the threaded sleeve 402 is fixed inside the range-extending mechanism 4.

[0055] Specifically, the range extender mechanism 4 is arranged on both sides of the second buffer mechanism 3, and is linked with the second buffer mechanism 3 to generate electricity using the power of its components. The range extender mechanism 4 also includes an enclosure block 406, which is fixed on both sides of the outer wall of the limit block 405 to stabilize the structure and protect the internal components. Fixed rods 408 are respectively provided on both sides of the inner cavity of the limit block 405. The fixed rods 408 are used to stabilize the rotating shaft 409 to ensure that the rotating shaft 409 can maintain the accuracy and stability of its rotational position inside the limit block 405. The threaded sleeve 402 is fixed inside the range extender mechanism 4 and is connected to the threaded rod 401 to convert mechanical energy into electrical energy through rotational motion.

[0056] The range-extending mechanism 4 is designed to work closely with the second buffer mechanism 3, utilizing the mechanical energy generated during the vibration damping process for efficient energy conversion. Rotating shaft 409 achieves stable electromagnetic induction at a fixed rotational position, thereby driving the power generation function. This power generation function provides emergency power support for the building, ensuring continuous system operation during vibration events, and also provides power for other equipment such as alarm lights and control systems.

[0057] Please see the attached Figure 6 The range extender mechanism 4 further includes a threaded rod 401, which is installed on one side of the interior of the second buffer mechanism 3 and is threadedly connected to a thread groove 412 provided inside the threaded sleeve 402, thereby driving the first gear 403 and the second gear 407 to be meshed with each other, and the permanent magnet 411 on the rotating shaft 409 connected to the second gear 407 rotates within the range of the magnetic flux lines of the coil 410, and is electrically connected to the battery 6 to complete power generation and storage;

[0058] Specifically, the range extender mechanism 4 also includes a threaded rod 401, which is mounted on one side of the interior of the second buffer mechanism 3 and is threadedly connected to a threaded groove 412 provided within the threaded sleeve 402, allowing the threaded rod 401 to rotate during the movement of the system. The rotation of the threaded rod 401 drives the first gear 403 to form an engagement connection with the second gear 407, thereby causing the second gear 407 to rotate the rotating shaft 409 to which it is connected. The rotating shaft 409 is equipped with a permanent magnet 411. When the permanent magnet 411 rotates, it passes through the magnetic flux lines of the coil 410, generating electromagnetic induction, and thus generating current.

[0059] The electricity generated during this process is then transferred to battery 6 via an electrical connection, completing the process of generating and storing the energy. The stored energy in battery 6 can be used to provide emergency power to the system, such as providing a continuous power supply for warning lights and other control systems. This ensures the stable operation of building safety equipment and systems, especially during earthquakes or other extreme vibrations.

[0060] Please see the attached Figure 7 -Attached Figure 8 The first seismic isolation mechanism 5 is arranged in the middle of the adjacent side of the two docking plates 2 and is used to bear the vibration transmitted by the power building body 1 on a daily basis.

[0061] It also includes a third damper 501, which is fixed on the opposite side of the multiple docking plates 2. The outer wall of the third damper 501 is provided with a protective block 503, and measuring plates 504 are provided on both sides. A moving block 505 is slid in the inner cavity of the measuring plate 504, which is used to limit the central axis of the second connecting rod 506. Connecting blocks 502 are provided on both sides of the second connecting rod 506, which are respectively located on the opposite side of the docking plates 2 on both sides. The inner cavity of the moving block 505 is provided with multiple sensors 507, which are used to detect the movement length of the measuring moving block 505 in the inner cavity of the measuring plate 504.

[0062] Specifically, the first seismic isolation mechanism 5 is positioned in the middle of the adjacent sides of the two docking plates 2. It primarily serves to absorb vibrations transmitted from the power building body 1 during daily use, ensuring effective vibration buffering and damping under normal circumstances. This mechanism also includes a third damper 501, secured to the opposing sides of the multiple docking plates 2. This damper absorbs and dampens the energy transmitted by vibrations to the docking plates 2. A protective block 503 is sheathed around the outer wall of the third damper 501 to protect it from external environmental influences and ensure its long-term stable operation.

[0063] Measuring plates 504 are installed on either side, with shifting blocks 505 slidably mounted within their inner cavities. These shifting blocks 505 primarily limit the central axis of the second connecting rod 506, ensuring its path and range of motion are controlled and preventing excessive displacement from adversely affecting the structure. Connecting blocks 502 are located on opposite sides of the docking plate 2, ensuring a stable connection and vibration transmission between the structures.

[0064] Furthermore, multiple sensors 507 are installed within the inner cavity of the shift block 505. These sensors 507 detect the length of movement of the shift block 505 within the inner cavity of the measuring plate 504. Through this precise measurement, the system can monitor vibrations in real time and, based on the amplitude of the vibrations, determine the building's vibration status, thereby deciding whether to implement further emergency measures or adjust the isolation system's response. Feedback from sensors 507 also supports the system's overall intelligent control, ensuring the isolation system responds optimally to varying vibration intensities.

[0065] Example 2:

[0066] According to Example 1, this embodiment provides a control system, including a vibration detection module, a threshold judgment and reminder triggering module, an intelligent control module, a power generation and energy storage module, and a light reminder and warning module.

[0067] Vibration detection module:

[0068] The control system begins with the vibration detection module, which is equipped with multiple sensors 507 (such as accelerometers and infrared sensors). These sensors 507 are located at key locations in the power building and on the seismic isolation devices. These sensors 507 continuously monitor the building's vibrations, acquiring real-time data such as vibration amplitude and frequency. During routine monitoring, the vibration detection module records minor vibrations caused by environmental factors, such as wind and minor mechanical vibrations. This data is then transmitted to subsequent modules for processing.

[0069] Threshold judgment and reminder trigger module:

[0070] After receiving data from the vibration detection module, the system enters the threshold determination and alert triggering module. This module pre-sets multiple vibration threshold levels, including daily vibration, warning level, and crisis level. The system analyzes the vibration amplitude and frequency to determine whether the current vibration exceeds the set safety threshold. If the vibration amplitude is below the safety threshold, the system continues monitoring and does not trigger an alert. However, if the vibration exceeds a specific threshold, the system will respond accordingly based on the vibration intensity.

[0071] Intelligent control module:

[0072] Upon detecting vibration levels exceeding a preset threshold, the system enters the intelligent control module. This module automatically adjusts the operating state of the building's seismic isolation devices based on the current vibration conditions, ensuring effective cushioning for vibrations of varying intensities. The intelligent control module adjusts the damping effect of the first and second buffer mechanisms 3 according to the varying vibration intensities. For example, for moderate vibrations, the system might enhance the damping effect to absorb more vibration energy. However, during strong earthquakes, the system fully activates the seismic isolation devices to maximize the safety of the building and its internal equipment.

[0073] Power generation and energy storage modules:

[0074] When the vibration reaches a certain intensity, the power generation and energy storage module of the system starts. This module generates electricity by using the mechanical energy generated during the vibration process through the range extension mechanism 4 linked to the second buffer mechanism 3. Specifically, the rotation of the threaded rod 401 drives the gear system and the rotating shaft 409 to operate, thereby generating electromagnetic induction and generating electrical energy through the coil 410. The power generation and energy storage module will store the generated electrical energy in the battery 6. This electrical energy will provide power support for other functional modules of the system (such as light reminders, control systems) after the vibration ends or in an emergency, ensuring that the system can still operate normally in the event of a power outage.

[0075] Light reminder and warning module:

[0076] If the vibration exceeds the safety threshold, the intelligent control system will simultaneously trigger the lighting and warning modules. Using power from the battery 6, these modules illuminate warning lights or activate audible and visual alarms installed on the building's exterior, alerting people inside and outside the building that the vibration has exceeded the safety limit and poses a potential danger. This warning allows personnel to take timely emergency measures, such as evacuating or suspending equipment operations, thereby mitigating further risks posed by the vibration.

[0077] While embodiments of the present invention have been shown and described, it will be appreciated by those skilled in the art that various changes, modifications, substitutions, and variations may be made to these embodiments without departing from the principles and spirit of the invention, and that the scope of the invention is defined by the appended claims and their equivalents.

Claims

1. Intelligently controlled electric power building seismic isolation device, characterized in that: include: The power building body (1) has a control system installed inside and an alarm light installed outside; There are two sets of docking plates (2), one of which is installed at the bottom of the power building body (1) for connecting and transmitting longitudinal vibration; The second buffer mechanism (3) has a total of multiple groups, which are installed on the adjacent side of the two docking plates (2) to cope with the vibration transmitted by the docking plates (2); the second buffer mechanism (3) also includes an assembly block (304), and multiple assembly blocks (304) are arranged on the top of the docking plates (2), wherein the adjacent side of two assembly blocks (304) is provided with a first damper (302) for contacting with the positioning plate (301) to achieve seismic isolation, and the top of the assembly block (304) is provided with a track for providing a displacement block (303) fixes the running track so as to contact the positioning plate (301); a push rod (306) is provided on one side of the displacement block (303); a spring (307) is provided on the outer wall of the push rod (306) for positioning the initial extrusion position of the displacement block (303); a connecting block (305) is fixed on one side of the assembly block (304) for limiting the movement of the push plate (312) connected to the push rod (306); the push plate (312) serves as the power of the range-extending mechanism (4) and is connected to the threaded rod (401); A range-extending mechanism (4) is provided on both sides of the second buffer mechanism (3) and is linked with the second buffer mechanism (3) to generate electricity by means of the power generated by the work of the components of the second buffer mechanism (3); The range-extending mechanism (4) further includes a threaded rod (401), which is mounted on one side of the interior of the second buffer mechanism (3) and is threadedly connected to a threaded groove (412) provided inside the threaded sleeve (402), thereby driving the first gear (403) and the second gear (407) to be meshed with each other, and the permanent magnet (411) on the rotating shaft (409) connected to the second gear (407) rotates within the range of the magnetic flux lines of the coil (410), and is electrically connected to the storage battery (6) to complete power generation and storage; The first seismic isolation mechanism (5) is arranged in the middle of the adjacent side of the two butt joint plates (2) and is used to bear the vibrations transmitted by the power building body (1) on a daily basis. The first seismic isolation mechanism (5) also includes a third damper (501), which is fixed on the opposite side of the plurality of butt joint plates (2). The outer wall of the third damper (501) is provided with a protective block (503). Measuring plates (504) are respectively provided on both sides. A moving block (505) is slidably provided in the inner cavity of the measuring plate (504) for limiting the central axis of the second connecting rod (506). Connecting blocks (502) are provided on both sides of the second connecting rod (506), which are respectively located on the opposite sides of the butt joint plates (2). The inner cavity of the moving block (505) is provided with a plurality of sensors (507) for detecting the moving length of the measuring moving block (505) in the inner cavity of the measuring plate (504).

2. The intelligent control electric power building seismic isolation device according to claim 1 is characterized in that: The range-extending mechanism (4) further includes an enclosing block (406), the enclosing block (406) being fixed to both sides of the outer wall of the limit block (405), and fixing rods (408) being respectively provided on both sides of the inner cavity of the limit block (405) for fixing the rotation position of the rotating shaft (409) inside the limit block (405), and the threaded sleeve (402) being fixed inside the range-extending mechanism (4).

3. The intelligent control electric power building seismic isolation device according to claim 1 is characterized in that: The push plate (312) drives the first connecting rod (308) connected to the inner cavity of the assembly block (304) to move during the sliding process. As the angle of the first connecting rod (308) increases, the lifting block (309) connected to the central axis is pulled to move laterally, and the displacement of the lifting block (309) is limited by the opposing resistance formed by the slider (310) and the second damper (311).

4. The intelligent control electric power building seismic isolation device according to claim 1 is characterized in that: The warning light is electrically connected to the battery (6), and the control system is electrically connected to the battery (6).

5. The intelligent control electric power building seismic isolation device according to claim 1 is characterized in that: The sensor (507) is electrically connected to the battery (6).

6. The intelligently controlled electric power building seismic isolation device according to claim 3 is characterized in that: The lifting block (309) comprises an upper portion and a lower portion, wherein the lower portion is connected to the bottom of the upper portion and expands and contracts with the movement of the first connecting rod (308).

7. The intelligently controlled electric power building seismic isolation device according to claim 1, characterized in that: The control system includes a vibration detection module, a threshold judgment and reminder trigger module, an intelligent control module, a power generation and energy storage module, and a light reminder and early warning module.

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