Full-height rotary gate

Abstract

The utility model is suitable for the technical field of full-height rotating gates, and provides a full-height rotating gate which comprises a supporting module, a full-height rotating gate module, an energy storage module and a solar module, the full-height rotating gate module is installed on the supporting module, a passing channel is arranged on the full-height rotating gate module, the full-height rotating gate module has a locking state of cutting off the passing channel, and the energy storage module is installed on the supporting module. In the unlocking state, pedestrians are allowed to pass through the passage; the energy storage module is installed on the supporting module, electrically connected with the full-height rotating brake module and used for storing electric energy and supplying power to the full-height rotating brake module. The solar module is mounted on the supporting module, is electrically connected with the energy storage module and the full-height rotating brake module, and is used for transmitting electric energy to the energy storage module; or electric energy is transmitted to the energy storage module and the full-height rotating gate module respectively. The full-height rotating brake provided by the utility model can keep stable operation in an environment without commercial power, and has relatively good environmental adaptability and universality.

Description

Technical Field

[0001] This application belongs to the field of full-height turnstile technology, and more specifically, relates to a full-height turnstile. Background Technology

[0002] Full-height turnstiles, as an important personnel access control device, mainly consist of a rotating blade assembly, a central rotating shaft system, an electromagnetic locking mechanism, and a control system. Existing manually operated full-height turnstiles employ an electromagnetic unlocking mechanism. When an authorization signal is received, the electromagnetic lock releases, allowing personnel to manually push the rotating blade to rotate it to a preset angle for passage. Once in position, the electromagnetic lock re-locks.

[0003] However, traditional full-height switching equipment relies entirely on the mains power supply system, which poses a risk of functional failure when the power grid fails. At the same time, it is difficult to deploy in outdoor or emergency locations where there is no mains power supply due to power supply limitations, which seriously restricts the equipment's versatility and environmental adaptability. Utility Model Content

[0004] The purpose of this application is to provide a full-height switch, which aims to solve the technical problems of poor versatility and environmental adaptability of existing full-height switches.

[0005] To achieve the above objectives, according to one aspect of this application, a full-height turnstile is provided. The full-height turnstile includes: a support module, a full-height turnstile module, an energy storage module, and a solar module. The full-height turnstile module is installed on the support module and has a passageway. The full-height turnstile module has a locked state that blocks the passageway and an unlocked state that allows pedestrians to pass through the passageway. The energy storage module is installed on the support module and electrically connected to the full-height turnstile module for storing electrical energy and supplying power to the full-height turnstile module. The solar module is installed on the support module and electrically connected to the energy storage module and the full-height turnstile module for supplying electrical energy to the energy storage module; or for supplying electrical energy to both the energy storage module and the full-height turnstile module.

[0006] Optionally, the support module includes a base and a support frame arranged sequentially in a vertical direction. The support frame is installed on the base and located above the base. The full-height switch module and the energy storage module are installed on the side of the base near the support frame, and the solar module is installed on the side of the support frame away from the base.

[0007] Optionally, the full-height turnstile module includes a door frame assembly, a pivot assembly, and a locking assembly. The door frame assembly is mounted on a support module and forms a passageway. The pivot assembly is rotatably mounted within the passageway. The locking assembly is connected to the door frame assembly and the pivot assembly to engage or disengage the door frame assembly and the pivot assembly. When the full-height turnstile module is locked, the pivot assembly and the door frame assembly are engaged through the locking assembly to block the passageway. When the full-height turnstile module is unlocked, the pivot assembly and the door frame assembly are disengaged through the locking assembly, and the pivot assembly can rotate within the passageway to allow pedestrians to pass through.

[0008] Optionally, the solar module has a first power output terminal, the full-height switch module has a first power input terminal, and the energy storage module includes an energy storage battery assembly. The charging terminal of the energy storage battery assembly is electrically connected to the first power output terminal, and the discharging terminal of the energy storage battery assembly is electrically connected to the first power input terminal. The energy storage battery assembly is used to store the electrical energy transmitted by the solar module and to supply power to the full-height switch module.

[0009] Optionally, the solar module is used to supply electrical energy to the energy storage module and the full-height switch module respectively. The full-height switch has a first power supply state in which the full-height switch module is powered only through the energy storage module, and a second power supply state in which the full-height switch module is powered directly through the solar module. The solar module also has a second power output terminal, and the full-height switch module also has a second power input terminal. The second power output terminal is electrically connected to the second power input terminal so that the solar module can directly power the full-height switch module when the full-height switch is in the second power supply state.

[0010] Optionally, the full-height turnstile also includes a control module electrically connected to the locking assembly, used to control the locking assembly to engage or disengage the door frame assembly and the pivot assembly, so that the full-height turnstile module switches between a locked state and an unlocked state.

[0011] Optionally, the full-height turnstile also includes a monitoring module, which includes a position detection component. The position detection component is located in the full-height turnstile module and electrically connected to the control module. It is used to monitor the locked or unlocked status of the full-height turnstile module in real time and feed back to the control module.

[0012] Optionally, the monitoring module also includes a power detection component, which is installed in the energy storage module and electrically connected to the control module and the energy storage module. The power detection component is used to monitor the charging status of the energy storage module in real time and feed it back to the control module.

[0013] Optionally, the monitoring module also includes a light intensity detection component, which is installed on the solar module and electrically connected to the control module to monitor the light intensity at the solar module in real time and feed it back to the control module.

[0014] Optionally, the full-height turnstile also includes a wireless communication module, which is electrically connected to the control module, and the control module communicates wirelessly with external devices through the wireless communication module.

[0015] The beneficial effects of the full-height switch provided in this application are as follows: Compared with the prior art, the full-height switch provided in this application provides a stable installation foundation for the full-height switch module, energy storage module, and solar energy module by setting a support module. The energy storage module is set to be electrically connected to the full-height switch module, enabling the full-height switch to store electrical energy through the energy storage module and provide stable power supply to the full-height switch module. The solar energy module is set to be electrically connected to the energy storage module and the full-height switch module, enabling the full-height switch to charge the energy storage module through the solar energy module or directly supply power to the full-height switch module. Through the synergistic cooperation of the solar energy module and the energy storage module, the full-height switch can completely get rid of its dependence on mains power. That is, the full-height switch provided in this application can maintain stable operation in an environment without mains power, effectively improving the environmental adaptability and versatility of the full-height switch. Attached Figure Description

[0016] To more clearly illustrate the technical solutions in the embodiments of this application, the drawings used in the description of the embodiments or the prior art will be briefly introduced below. Obviously, the drawings described below are only some embodiments of this application. For those skilled in the art, other drawings can be obtained based on these drawings without creative effort.

[0017] Figure 1 This is a schematic diagram of the structure of a full-height switch provided in an embodiment of this application;

[0018] Figure 2 This is an exploded view of a full-height switch provided in an embodiment of this application;

[0019] Figure 3 This is a schematic diagram of the structure of the support module provided in the embodiments of this application;

[0020] Figure 4 This is a schematic diagram of the structure of the full-height switching module provided in the embodiments of this application;

[0021] The details of the reference numerals used in the above figures are as follows:

[0022] 10. Support module; 11. Base; 12. Support frame;

[0023] 20. Full-height turnstile module; 21. Gate frame assembly; 211. First fence; 212. Second fence; 213. Chassis; 22. Rotary shaft assembly; 221. Stop arm assembly;

[0024] 30. Energy storage module;

[0025] 40. Solar module. Detailed Implementation

[0026] To make the technical problems, technical solutions, and beneficial effects to be solved by this application clearer, the following detailed description is provided in conjunction with the accompanying drawings and embodiments. It should be understood that the specific embodiments described herein are merely illustrative and are not intended to limit the scope of this application.

[0027] It should be noted that when an element is referred to as being "fixed to" or "set on" another element, it can be directly or indirectly on that other element. When an element is referred to as being "connected to" another element, it can be directly or indirectly connected to that other element. Unless otherwise specified, the embodiments and features described in this application can be combined with each other. This application will now be described in detail with reference to the accompanying drawings and embodiments.

[0028] It should be understood that the terms "length", "width", "upper", "lower", "front", "rear", "left", "right", "vertical", "horizontal", "top", "bottom", "inner", "outer", etc., indicate the orientation or positional relationship based on the orientation or positional relationship shown in the accompanying drawings. They are only for the convenience of describing this application and simplifying the description, and do not indicate or imply that the device or element referred to must have a specific orientation, or be constructed and operated in a specific orientation. Therefore, they should not be construed as limitations on this application.

[0029] Furthermore, the terms "first" and "second" are used for descriptive purposes only and should not be construed as indicating or implying relative importance or implicitly specifying the number of technical features indicated. Thus, a feature defined as "first" or "second" may explicitly or implicitly include one or more of that feature. In the description of this application, "multiple" means two or more, unless otherwise explicitly specified.

[0030] As described in the background section, full-height turnstiles, as an important personnel access control device, mainly consist of a rotating vane assembly, a central rotating shaft system, an electromagnetic locking mechanism, and a control system. Existing manually operated full-height turnstiles employ an electromagnetic unlocking mechanism. When an authorization signal is received, the electromagnetic lock releases, allowing personnel to manually push the rotating vane to rotate it to a preset angle for passage. Once in position, the electromagnetic lock re-locks. However, traditional full-height turnstile equipment relies entirely on the mains power supply system, posing a risk of malfunction during power grid failures. Furthermore, limitations in power supply conditions make deployment in outdoor areas, emergency locations, and other environments without mains power supply difficult, severely restricting the equipment's versatility and environmental adaptability.

[0031] See Figures 1 to 4As shown, to solve the above problems, according to one aspect of this application, an embodiment of this application provides a full-height turnstile, which includes: a support module 10, a full-height turnstile module 20, an energy storage module 30, and a solar module 40. The full-height turnstile module 20 is installed on the support module 10, and has a passageway. The full-height turnstile module 20 has a locked state that blocks the passageway and an unlocked state that allows pedestrians to pass through the passageway. The energy storage module 30 is installed on the support module 10 and electrically connected to the full-height turnstile module 20, for storing electrical energy and supplying power to the full-height turnstile module 20. The solar module 40 is installed on the support module 10 and electrically connected to both the energy storage module 30 and the full-height turnstile module 20, for supplying electrical energy to the energy storage module 30; or for supplying electrical energy to both the energy storage module 30 and the full-height turnstile module 20 respectively. The full-height toggle switch provided in this embodiment provides a stable installation foundation for the full-height toggle switch module 20, energy storage module 30, and solar module 40 through the support module 10. The energy storage module 30 is electrically connected to the full-height toggle switch module 20, enabling the full-height toggle switch to store electrical energy through the energy storage module 30 and provide a stable power supply to the full-height toggle switch module 20. The solar module 40 is electrically connected to the energy storage module 30 and the full-height toggle switch module 20, enabling the full-height toggle switch to charge the energy storage module 30 or directly supply power to the full-height toggle switch module 20 through the solar module 40. Through the coordinated operation of the solar module 40 and the energy storage module 30, the full-height toggle switch can completely eliminate its dependence on mains power. That is, the full-height toggle switch provided in this embodiment can maintain stable operation in an environment without mains power, effectively improving the environmental adaptability and versatility of the full-height toggle switch.

[0032] See Figure 2 and Figure 3 As shown, in a specific embodiment, the support module 10 includes a base 11 and a support frame 12 arranged vertically in sequence. The support frame 12 is installed on the base 11 and located above the base 11. The full-height switch module 20 is installed on the side of the base 11 near the support frame 12, and the solar module 40 is installed on the side of the support frame 12 away from the base 11. By installing the full-height switch module 20 and the energy storage module 30 on the side of the base 11 near the support frame 12, the center of gravity of the full-height switch can be lowered to a certain extent, which is beneficial to improving the stability of the full-height switch. Installing the solar module 40 on the side of the support frame 12 away from the base 11 can effectively raise the installation height of the solar module 40, thereby improving the photovoltaic conversion efficiency of the solar module 40. At the same time, since both the full-height switch module 20 and the energy storage module 30 are installed on the base 11, the power supply distance between the energy storage module 30 and the full-height switch module 20 can be shortened, reducing line loss and improving energy utilization.

[0033] In one optional embodiment, the support frame 12 provided in this embodiment includes a support platform and a support column assembly. The support platform is spaced apart from the base 11 via the support column assembly, forming an accommodating space between the support platform and the base 11. The full-height switch module 20 and the energy storage module 30 provided in this embodiment are both disposed within the accommodating space, and the solar module 40 is installed on the side of the support platform away from the base 11. Integrating the full-height switch module 20 and the energy storage module 30 into the accommodating space can reduce the impact of the external environment on the full-height switch module 20 and the energy storage module 30 to a certain extent, improving the reliability of the full-height switch. Installing the solar module 40 on the side of the support platform away from the base 11 allows the solar module 40 to obtain a better light-receiving height, which is beneficial to improving the power generation efficiency of the solar module 40.

[0034] In one optional embodiment, the support column assembly provided in this embodiment includes multiple support columns, all extending vertically and spaced apart circumferentially along the support platform. The two ends of each support column are fixedly connected to the base 11 and the support platform, respectively, to support the support platform. Connecting the base 11 and the support platform with multiple circumferentially spaced vertical support columns ensures the stability and load-bearing capacity of the support structure, optimizes the spatial layout, provides a uniform stress distribution on the support platform, and facilitates installation and maintenance, thereby improving the reliability and practicality of the support frame 12.

[0035] In one alternative embodiment, some components of the full-height turnstile provided in this embodiment can be manufactured using 3D printing or laser cutting processes.

[0036] See Figure 2 and Figure 4As shown, in a specific embodiment, the full-height turnstile module 20 includes a door frame assembly 21, a pivot assembly 22, and a locking assembly. The door frame assembly 21 is mounted on the support module 10 and forms a passageway. The pivot assembly 22 is rotatably mounted within the passageway. The locking assembly is connected to the door frame assembly 21 and the pivot assembly 22 and is used to engage or disengage the door frame assembly 21 and the pivot assembly 22. When the full-height turnstile module 20 is in the locked state, the pivot assembly 22 and the door frame assembly 21 are engaged by the locking assembly, so that the pivot assembly 22 blocks the passageway. When the full-height turnstile module 20 is in the unlocked state, the pivot assembly 22 and the door frame assembly 21 are disengaged by the locking assembly, and the pivot assembly 22 can rotate within the passageway to allow pedestrians to pass through the passageway. The full-height turnstile module 20 provided in this embodiment can form a stable passageway structure by setting a door frame assembly 21, providing reliable support for the pivot assembly 22. By rotatably installing the pivot assembly 22 in the passageway and quickly engaging or disengaging it from the door frame assembly 21 through a locking assembly, reliable isolation or smooth passage can be achieved. That is, when the full-height turnstile module 20 is in the locked state, the locking assembly rigidly engages the pivot assembly 22 with the door frame assembly 21, forming a full-height physical barrier that effectively prevents illegal passage. When the full-height turnstile module 20 is in the unlocked state, the locking assembly separates the pivot assembly 22 from the door frame assembly 21, allowing the pivot assembly 22 to rotate freely in the passageway and enabling pedestrians to pass smoothly.

[0037] In an optional embodiment, the door frame assembly 21 provided in this embodiment includes a left fence, a second fence 212 spaced apart from the first fence 211, and a housing 213 installed between the first fence 211 and the second fence 212 and located at the top of the first fence 211 and the second fence 212. The first fence 211, the second fence 212 and the housing 213 provided in this embodiment together enclose a passageway.

[0038] In one optional embodiment, the chassis 213 provided in this embodiment has a rotating hole, the bottom of the first fence 211 has a rotating support protrusion, one end of the rotating shaft assembly 22 is rotatably installed in the rotating hole, and the other end of the rotating shaft is rotatably installed on the rotating support protrusion, so that the rotating shaft assembly 22 provided in this embodiment can be rotatably installed in the passageway.

[0039] In an optional embodiment, the pivot assembly 22 provided in this embodiment includes an upper bushing rotatably mounted in a rotating hole, a lower bushing rotatably mounted on a rotating support protrusion, and a plurality of stop rod assemblies 221 connected between the upper bushing and the lower bushing. The plurality of stop rod assemblies 221 are arranged sequentially along the circumference of the upper bushing or the lower bushing. The stop rod assembly 221 includes a square tube with its two ends detachably connected to the upper bushing and the lower bushing, respectively, and a plurality of stop rods fixedly mounted on the square tube. The plurality of stop rods are arranged sequentially and at intervals along the length of the square tube and are located between the upper bushing and the lower bushing, for blocking pedestrians from passing when the full-height pivot module is in a locked state.

[0040] In one optional embodiment, the locking component provided in this embodiment is an electromagnetic locking mechanism. The electromagnetic locking mechanism is connected to the door frame assembly 21 and the pivot assembly 22. When the full-height turnstile module 20 is in the locked state, the electromagnetic locking mechanism is de-energized and engages the pivot assembly 22 with the door frame assembly 21 to block the passage. When the full-height turnstile module 20 is in the unlocked state, the electromagnetic locking mechanism is energized and separates the pivot assembly 22 from the door frame assembly 21. At this time, pedestrians can manually push the pivot assembly 22 to rotate to pass through the passage. The specific structure of the electromagnetic locking mechanism is a conventional structure in the prior art and will not be described in detail here.

[0041] In one specific embodiment, the solar module 40 has a first power output terminal, the full-height switch module 20 has a first power input terminal, and the energy storage module 30 includes an energy storage battery assembly. The charging terminal of the energy storage battery assembly is electrically connected to the first power output terminal, and the discharging terminal of the energy storage battery assembly is electrically connected to the first power input terminal. The energy storage battery assembly is used to store the electrical energy transmitted by the solar module 40 and to supply power to the full-height switch module 20. The solar module 40 provided in this embodiment charges the energy storage battery assembly through the first power output terminal, and the energy storage battery assembly then supplies power to the full-height switch module 20 through its discharging terminal, forming a two-stage power transmission architecture. This not only solves the contradiction between intermittent solar power supply and continuous power consumption of the full-height switch, but also ensures stable operation of the full-height switch under no-sunlight conditions through the energy buffering effect of the energy storage battery. Simultaneously, it improves energy utilization efficiency, enabling the full-height switch to operate self-sufficiently when disconnected from the external power grid.

[0042] In one optional embodiment, the energy storage battery assembly provided in this embodiment is a lithium battery pack. Of course, in other embodiments, the energy storage battery assembly provided in this embodiment may also be other types of battery packs.

[0043] In an optional embodiment, the energy storage module 30 provided in this embodiment further includes an energy storage cabinet. The energy storage battery assembly provided in this embodiment is disposed in the internal cavity of the energy storage cabinet. By setting up the energy storage cabinet to store the energy storage battery assembly, the external environment can be avoided from affecting the energy storage battery assembly, thus extending the service life of the energy storage battery assembly.

[0044] In one optional embodiment, the discharge terminal of the energy storage battery module provided in this embodiment is electrically connected to the first power input terminal via a DC-DC converter, so that the voltage of the discharge terminal of the energy storage battery module is adapted to the voltage of the first power input terminal.

[0045] In one specific embodiment, the solar module 40 is used to supply electrical energy to the energy storage module 30 and the full-height switch module 20 respectively. The full-height switch has a first power supply state in which the full-height switch module 20 is powered only through the energy storage module 30, and a second power supply state in which the full-height switch module 20 is powered directly through the solar module 40. The solar module 40 also has a second power output terminal, and the full-height switch module 20 also has a second power input terminal. The second power output terminal is electrically connected to the second power input terminal so that the solar module 40 can directly power the full-height switch module 20 when the full-height switch is in the second power supply state. The solar module 40 provided in this embodiment is electrically connected to the second power input terminal of the full-height switch module 20 through a second power output terminal, enabling the full-height switch to have two power supply states. In the first power supply state, the solar module 40 prioritizes charging the energy storage module 30, and the energy storage module 30 supplies power to the full-height switch module 20 independently, ensuring the continuous operation of the full-height switch module 20 at night or when there is insufficient sunlight. In the second power supply state, the solar module 40 directly supplies power to the full-height switch module 20, which reduces the charging and discharging losses of the energy storage module 30 and improves energy utilization efficiency.

[0046] In one optional embodiment, the solar module 40 provided in this embodiment is a monocrystalline silicon photovoltaic panel. Of course, in other embodiments, the solar module 40 provided in this embodiment can also be other types of solar power generation devices such as thin-film solar cells and concentrated photovoltaic systems.

[0047] In one optional embodiment, the second power output terminal of the solar module 40 provided in this embodiment is electrically connected to the second power input terminal of the full-height switch module 20 through a DC-DC converter, so that the voltage of the second power output terminal of the solar module 40 is adapted to the voltage of the second power input terminal of the full-height switch module 20.

[0048] In one specific embodiment, the full-height turnstile further includes a control module electrically connected to the locking component. The control module controls the locking component to engage or disengage the door frame assembly 21 and the pivot assembly 22, thereby switching the full-height turnstile module 20 between a locked and unlocked state. By providing the control module and electrically connecting it to the locking component, the full-height turnstile module 20 can control the operation of the locking component through the control module. This allows the locking component to quickly engage or disengage the door frame assembly 21 and the pivot assembly 22 under the control of the control module, enabling the full-height turnstile module 20 to quickly switch between locked and unlocked states.

[0049] In one optional embodiment, the control module provided in this embodiment is a microcontroller. Of course, in other embodiments, the control module provided in this embodiment can also be a programmable logic controller.

[0050] In one alternative embodiment, the control module provided in this embodiment is installed inside the chassis 213.

[0051] In one specific embodiment, the full-height turnstile further includes a monitoring module. The monitoring module includes a position detection component, which is disposed on the full-height turnstile module 20 and electrically connected to the control module. This position detection component is used to monitor the locked or unlocked state of the full-height turnstile module 20 in real time and feed it back to the control module. By setting the position detection component on the full-height turnstile module 20, the turnstile can acquire the position signal of the full-height turnstile module 20 in real time through the position detection component and accurately determine the locked or unlocked state of the full-height turnstile module 20. Electrically connecting the position detection component to the control module allows the position detection component to feed back the determined state information to the control module, thereby enabling the control module to accurately grasp the actual working state of the full-height turnstile module 20.

[0052] In one optional embodiment, the position detection component provided in this embodiment is a position sensor. The position sensor provided in this embodiment determines the locked or unlocked state of the full-height gate module 20 by collecting the position signal of the rotating shaft assembly 22 in real time.

[0053] In one specific embodiment, the monitoring module further includes a power detection component. The power detection component is installed on the energy storage module 30 and electrically connected to both the control module and the energy storage module 30. It is used to monitor the charging status of the energy storage module 30 in real time and feed it back to the control module. By installing the power detection component electrically connected to the energy storage module 30, the full-height switch can collect the charging and discharging parameters of the energy storage module 30 in real time, thereby accurately monitoring the charging status of the energy storage module 30. Electrically connecting the power detection component to the control module allows it to feed back the collected data to the control module, enabling the control module to accurately grasp the actual operating status of the energy storage module 30.

[0054] In one optional embodiment, the power detection component provided in this embodiment is a power sensor.

[0055] In one specific embodiment, the monitoring module further includes a light intensity detection component. This component is installed on the solar module 40 and electrically connected to the control module. It is used to monitor the light intensity at the solar module 40 in real time and feed it back to the control module. By installing the light intensity detection component on the solar module 40, the full-height switch can monitor the light intensity of the environment where the solar module 40 is located in real time. Electrically connecting the light intensity detection component to the control module allows it to feed back the detected light intensity data to the control module in real time, thereby enabling the control module to indirectly determine the actual power generation efficiency of the solar module 40.

[0056] In one optional embodiment, the light intensity detection component provided in this embodiment is a light intensity sensor.

[0057] In one specific embodiment, the full-height turnstile further includes a wireless communication module, which is electrically connected to the control module. The control module communicates wirelessly with external devices through the wireless communication module. By electrically connecting the wireless communication module to the control module, the control module can establish a wireless data interaction channel with external devices, enabling the full-height turnstile to transmit its status information to external devices in real time, receive control commands from external devices, and perform remote parameter configuration. This significantly improves the convenience and timeliness of managing the full-height turnstile, making it easier to deploy and maintain.

[0058] In one optional embodiment, the wireless communication module provided in this embodiment is a wireless local area network module. Of course, in other embodiments, the wireless communication module provided in this embodiment can also be a long-range radio module.

[0059] In one optional embodiment, at least one of the position sensor, power sensor, and light intensity sensor provided in this embodiment establishes a data connection with the control module through a message queue telemetry transmission protocol or a hypertext transfer protocol to upload the detection data to the control module.

[0060] In an optional embodiment, the full-height switch provided in this embodiment further includes an energy feedback module. The energy feedback module provided in this embodiment includes a generator assembly and a rectifier assembly. The input shaft of the generator assembly is driven to the rotating shaft assembly 22. When the rotating shaft assembly 22 rotates, the rotating shaft assembly 22 can drive the generator assembly to operate in the power generation mode. The electrical energy generated by the generator assembly is processed by the rectifier assembly and stored in the energy storage module 30, thereby realizing the recovery and reuse of energy.

[0061] In an optional embodiment, the full-height turnstile provided in this embodiment can achieve intelligent management by developing integrated control software and mobile applications. The control software includes equipment management, status monitoring and data analysis modules, which communicate with the control module of the full-height turnstile. The mobile application is developed based on a cross-platform framework and supports remote control and abnormal alarms.

[0062] In one alternative embodiment, by developing a machine learning-based data analysis algorithm, the historical charging and discharging data of the energy storage module 30, the power generation efficiency of the solar module 40, and the operation log of the full-height switch module 20 are analyzed over time. An energy demand prediction model can be established in the control module, thereby dynamically optimizing the power supply strategy and operating parameters of the full-height switch to improve its energy efficiency.

[0063] In one optional embodiment, the control module provided in this embodiment integrates a load prediction model. The load prediction model can dynamically optimize the charging and discharging strategy of the energy storage module 30 by combining historical electricity consumption data and weather forecast information, realize intelligent power dispatching, and ensure that the full-height switch can still obtain a stable power supply during peak electricity consumption periods or in severe weather conditions.

[0064] In one optional embodiment, the control module of the full-height switch provided in this embodiment adopts a priority control strategy to ensure the power supply of critical modules.

[0065] In one alternative embodiment, by conducting operational tests and load stress tests in a real operating environment, the control module can collect the working data of each module and dynamically optimize the control algorithm to ensure the stable operation and long-term reliability of the full-height switch under peak power demand.

[0066] In summary, implementing the full-height switch provided in this embodiment has at least the following beneficial technical effects: The full-height switch provided in this embodiment provides a stable installation foundation for the full-height switch module 20, energy storage module 30, and solar module 40 by setting a support module 10. The energy storage module 30 is electrically connected to the full-height switch module 20, enabling the full-height switch to store electrical energy through the energy storage module 30 and provide stable power to the full-height switch module 20. The solar module 40 is electrically connected to the energy storage module 30 and the full-height switch module 20, enabling the full-height switch to charge the energy storage module 30 or directly power the full-height switch module 20 through the solar module 40. Through the coordinated cooperation of the solar module 40 and the energy storage module 30, the full-height switch can completely get rid of its dependence on mains power. That is, the full-height switch provided in this embodiment can maintain stable operation in an environment without mains power, effectively improving the environmental adaptability and versatility of the full-height switch.

[0067] The above are merely preferred embodiments of this application and are not intended to limit this application. Any modifications, equivalent substitutions, and improvements made within the spirit and principles of this application should be included within the protection scope of this application.

Claims

1. A full-height switch, characterized in that, The full-height switch includes: Support module (10); A full-height turnstile module (20) is installed on a support module (10). The full-height turnstile module (20) is provided with a passageway. The full-height turnstile module (20) has a locked state that isolates the passageway and an unlocked state that allows pedestrians to pass through the passageway. An energy storage module (30) is installed on the support module (10) and electrically connected to the full-height switch module (20) for storing electrical energy and supplying power to the full-height switch module (20); A solar module (40) is installed on the support module (10) and electrically connected to the energy storage module (30) and the full-height switch module (20) for supplying electrical energy to the energy storage module (30); or supplying electrical energy to the energy storage module (30) and the full-height switch module (20) respectively.

2. The full-height switch according to claim 1, characterized in that, The support module (10) includes a base (11) and a support frame (12) arranged sequentially in the vertical direction. The support frame (12) is installed on the base (11) and located above the base (11). The full-height gate module (20) and the energy storage module (30) are installed on the side of the base (11) close to the support frame (12). The solar module (40) is installed on the side of the support frame (12) away from the base (11).

3. The full-height switch according to claim 1, characterized in that, The full-height turnstile module (20) includes a door frame assembly (21), a pivot assembly (22), and a locking assembly. The door frame assembly (21) is installed on the support module (10) and forms the passageway. The pivot assembly (22) is rotatably installed in the passageway. The locking assembly is connected to the door frame assembly (21) and the pivot assembly (22) and is used to engage or disengage the door frame assembly (21) and the pivot assembly (22). When the full-height turnstile module (20) is in the locked state, the pivot assembly (22) and the door frame assembly (21) are engaged by the locking assembly so that the pivot assembly (22) blocks the passageway; When the full-height turnstile module (20) is in the unlocked state, the pivot assembly (22) is separated from the door frame assembly (21) by the locking assembly, and the pivot assembly (22) is able to rotate within the passageway to allow pedestrians to pass through the passageway.

4. The full-height switch according to claim 1, characterized in that, The solar module (40) has a first power output terminal, the full-height switch module (20) has a first power input terminal, the energy storage module (30) includes an energy storage battery assembly, the charging terminal of the energy storage battery assembly is electrically connected to the first power output terminal, the discharging terminal of the energy storage battery assembly is electrically connected to the first power input terminal, and the energy storage battery assembly is used to store the power transmitted by the solar module (40) and to supply power to the full-height switch module (20).

5. The full-height switch according to claim 4, characterized in that, The solar module (40) is used to supply electrical energy to the energy storage module (30) and the full-height switch module (20) respectively. The full-height switch has a first power supply state in which the full-height switch module (20) is powered only through the energy storage module (30), and a second power supply state in which the full-height switch module (20) is powered only through the solar module (40) directly. The solar module (40) also has a second power output terminal, and the full-height switch module (20) also has a second power input terminal. The second power output terminal is electrically connected to the second power input terminal so that the solar module (40) can directly supply power to the full-height switch module (20) when the full-height switch is in the second power supply state.

6. The full-height switch according to claim 3, characterized in that, The full-height turnstile also includes a control module, which is electrically connected to the locking component and is used to control the locking component to engage or disengage the door frame component (21) and the pivot component (22) so that the full-height turnstile module (20) switches between the locked state and the unlocked state.

7. The full-height switch according to claim 6, characterized in that, The full-height turnstile also includes a monitoring module, which includes a position detection component. The position detection component is located in the full-height turnstile module (20) and electrically connected to the control module. It is used to monitor the locked or unlocked state of the full-height turnstile module (20) in real time and feed it back to the control module.

8. The full-height switch according to claim 7, characterized in that, The monitoring module also includes a power detection component, which is installed on the energy storage module (30) and electrically connected to the control module and the energy storage module (30) to monitor the charging status of the energy storage module (30) in real time and feed it back to the control module.

9. The full-height switch according to claim 7, characterized in that, The monitoring module also includes a light intensity detection component, which is installed on the solar module (40) and electrically connected to the control module. It is used to monitor the light intensity at the solar module (40) in real time and feed it back to the control module.

10. The full-height switch according to any one of claims 6 to 9, characterized in that, The full-height switch also includes a wireless communication module, which is electrically connected to the control module. The control module communicates wirelessly with external devices through the wireless communication module.

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