Window intelligent control device and control method for coping with typhoon

Abstract

The invention relates to the field of intelligent protection, in particular to an intelligent window control device and method for coping with typhoons. Comprising vertical guide rail structures arranged on walls of two vertical frames of a window and a roller shutter structure connected with the vertical guide rail structures, and an ultrasonic wind power sensor is installed on the wall of any side of the two vertical frames of the window; installing an ultrasonic wind power sensor, connecting the roller shutter structure with a control system, and selecting a driving module; when the wind speed exceeds the threshold value, the control system automatically controls the roller shutter structure to be closed; and cloud data debugging: when the ultrasonic wind power sensor senses wind power, data is transmitted to a cloud data processing center of the Internet through a base station, a result is fed back to a control terminal, and a user makes a choice or automatically activates the intelligent protection device. The wind power can be detected in time, and starting and stopping of the protection device can be remotely operated in time through the control terminal; when the window is of a common manual structure, the roller shutter structure achieves the function of closing the window in time.

Description

Technical Field

[0001] The present invention relates to the field of intelligent protection, and in particular to an intelligent window control device and a control method for coping with typhoons. Background Art

[0002] In areas where typhoons are frequent, house windows face a great risk of being damaged by strong winds. Traditional window protection measures such as film application and installation of simple guardrails often cannot provide sufficient protection strength and stability to resist the invasion of typhoons. Strong typhoons may cause glass to break, window frames to deform, or even windows to be blown off, posing a serious threat to the safety of people and property indoors and outdoors. Therefore, a more effective intelligent house window protection device is needed to cope with extreme weather such as typhoons.

[0003] There are also some devices specifically designed for wind resistance of windows in the prior art, such as typhoon-proof glass, which is a new type of building material. It uses high-strength tempered glass as an anti-impact layer, and its wind pressure resistance is more than 10 times higher than that of ordinary glass. However, it is inconvenient to install and disassemble, has a complex structure, and has a high production cost, and fails to solve the problem of typhoon damage to windows.

[0004] First of all, the existing window windproof devices have defects in both materials and structural design, and cannot effectively disperse and resist the powerful force of typhoons. For example, the strength of the glass film is limited or the structure of the simple guardrail is not stable enough. The difficulty in solving the above problems lies in finding high-strength, lightweight and easy-to-install materials and structural design solutions. CNCN109624446A disclosed on the website discloses the structure of multi-layer explosion-proof glass; secondly, it affects lighting and visual beauty. The film itself will reduce light transmittance, and the presence of the guardrail will block light and damage the appearance of the building. To solve these problems, it is necessary to ensure the protective function of the window while minimizing the impact on lighting and beauty. This requires innovation and balance in material selection and design; finally, the need for shelter and escape in emergency situations is not fully considered. To solve this problem, it is necessary to design a protective structure that can not only protect in typhoon weather, but also be quickly opened or removed in an emergency.

[0005] After searching, the text CN112145062A published on the website shows that in the shutter structure, adjacent blades must be strictly sealed to play a protective role. If a strong typhoon occurs, since the shutters are usually made of flexible materials and the chains that drive the blades have a more complex structure, this shutter structure is only suitable for actual use when the windows are closed first.

[0006] The second public text retrieved, CN203175250U, is only for intelligent control of window opening and closing; the third relatively similar public text, CN213743141U, intelligently controls the opening and closing of windows and has anti-theft functions. Moreover, if the hinges between the rods are used for a long time and rust, remote operation may not achieve the effect of timely closing. In extreme weather such as strong typhoons, it cannot protect the glass windows. Summary of the invention

[0007] The purpose of the present invention is to overcome the deficiencies of the prior art and to provide a window intelligent control device and control method which can effectively cope with typhoons and is easy to install and has strong adaptability.

[0008] The control device of the present invention adopts the following technical solution: A smart window control device for coping with typhoons, comprising a vertical guide rail structure placed on two vertical frame walls of the window, a rolling shutter structure connected to the vertical guide rail structure, an ultrasonic wind sensor in a control system installed on either side wall of the two vertical frames of the window; the bottom end of the rolling shutter structure is connected to a window bottom frame protection structure, an opening and closing structure is provided on the window bottom frame protection structure, and a control panel in the opening and closing structure is placed in the window bottom frame protection structure.

[0009] The control device of the present invention adopts the following preferred solution: The bottom end of the rolling shutter structure adopts an inverted triangle structure, the upper end surface of the inverted triangle structure is placed below the control panel, the inverted triangle structure is connected to the first blade, the first blade and the second blade are hinged by a connecting piece and a pin-connecting pin shaft, a concave structure is provided on the top of the first blade, a convex structure is provided on the right side of the concave structure, and a soft sealing structure is provided above the convex structure.

[0010] The ultrasonic wind sensor establishes a link with a base station, and the base station transmits data to a cloud data processing center via the Internet, and the cloud data processing center transmits control signals to the opening and closing structure and the control system respectively.

[0011] The transceiver probe of the ultrasonic wind sensor is arranged perpendicular to the window.

[0012] The spring is a compression spring; a sewage discharge structure is also arranged on the protective structure of the bottom frame of the window, and a signal sensor is installed on the sewage discharge structure.

[0013] The rolling shutter structure is slidably connected to the vertical guide rail structure, the upper end of the rolling shutter structure is mounted on the rolling cage structure, the two ends of the steel bars in the rolling cage structure are respectively connected to the left turntable structure and the right turntable structure, the rotation centers of the left turntable structure and the right turntable structure are connected through a rotating shaft, a driving motor is mounted on the rotating shaft, and a driving sensor is mounted on the housing of the driving motor.

[0014] The inverted triangle structure is connected to the first blade, the first blade is hinged to the second blade through a connecting piece and a pin-connecting pin shaft, an upper convex structure and a lower concave structure are arranged at the upper right end of the first blade, and a soft sealing structure is arranged above the upper convex structure.

[0015] A soft connection structure is arranged between the two side edges of the rolling shutter structure and the vertical guide rail structure.

[0016] The control method of the present invention adopts the following technical solution: The control method of the intelligent control device for windows to cope with typhoons is carried out in the following steps: S1. Install a vertical guide rail structure on the wall of the two vertical frames of the window, the vertical guide rail is fixed on the wall to ensure that the rolling shutter structure can slide up and down smoothly; the top of the rolling shutter structure is installed on the rolling cage structure; the two sides of the rolling shutter structure are placed in the vertical guide rail structure; the bottom end of the rolling shutter structure is connected to the window bottom frame protection structure; S2. Install the ultrasonic wind sensor: Install the ultrasonic wind sensor firmly on the outer wall on either side of the two frames of the window, with an open environment to ensure that the wind can be accurately received; and the transceiver probe of the ultrasonic wind sensor is perpendicular to the window surface; S3, connecting the rolling curtain structure with the control system, including connecting the rolling curtain structure with the microcontroller, the wind sensor and the drive sensor, to ensure that the control system can accurately control the opening and closing of the rolling curtain structure; S4, select the drive module: according to the size of the window, select the drive module that matches the drive motor, which can receive the signal of the drive sensor and control the forward and reverse rotation and speed of the drive motor; S5. Set wind speed threshold: Set a suitable wind speed threshold according to the local typhoon conditions and the bearing capacity of the windows; when the wind speed exceeds the threshold, the control system will automatically control the roller shutter structure to close to protect the windows; S6. Cloud data debugging: The cloud data processing center establishes a database to further enhance risk prediction and judgment capabilities by collecting relevant information or data values ​​including but not limited to typhoon warnings, wind extremes and destructive power in previous years; when the ultrasonic wind sensor senses the wind, the data is transmitted to the cloud data processing center of the Internet through the base station. After being processed by the cloud data processing center, the results are fed back to the control system, allowing the user to make a decision or automatically control the opening or closing of the roller shutter structure.

[0017] As a preferred control method: Debugging in step S6: Testing the control system to ensure that the control system can accurately receive data instructions from the cloud data processing center and the user, and control the opening and closing of the roller shutter structure according to preset conditions.

[0018] Compared with the prior art, the present invention adopting the above technical solution can detect the wind force in time according to the set wind force value and remotely operate or automatically activate the device in time through the control terminal. When the window is a normal manually closed structure, the window cannot be closed remotely in time. Due to the effect of the roller shutter structure, the window can be closed in time to prevent strong winds and heavy rain from entering the room. BRIEF DESCRIPTION OF THE DRAWINGS

[0019] Figure 1 It is a schematic diagram of the installation structure of the present invention.

[0020] Figure 2 It is a schematic diagram of the opening and closing structure.

[0021] Figure 3 This is a schematic diagram of the structure of the roller shutter structure and the vertical guide rail ( Figure 1 B view in the figure).

[0022] Figure 4 It is a control flow diagram.

[0023] Figure 5 It is a schematic diagram of the blade connection structure in the rolling shutter structure of the present invention.

[0024] Figure 6 yes Figure 5 Enlarged view of part A in . DETAILED DESCRIPTION

[0025] The present invention is described in detail below in conjunction with the accompanying drawings and embodiments: See attached Figure 1 To Attachment Figure 6, wherein: window 1, vertical guide rail structure 2, left turntable structure 3, left bearing seat 4, rotating shaft 5, rolling cage structure 6, driving motor 7, driving sensor 8, right turntable structure 9, right bearing seat 10, rolling shutter structure protection cover 11, wall 12, ultrasonic wind sensor 13, sensor mounting cover 14, window bottom frame protection structure 15, through hole 1501, mounting plate 1502, mounting small plate 150201; opening and closing structure 16, protection frame 1601, microcontroller 1602, spring 1603, control board 1604; rolling shutter structure 17, inverted triangle structure 1701, first blade 1702, second blade 1703, third blade 1704, pin-connected pin shaft 1705, connecting piece 1706, soft sealing structure 1707, protruding structure 1708, concave structure 1709, base station 18, Internet 19, cloud data processing center 20, PC terminal 21.

[0026] In the present embodiment, an intelligent control device for windows to cope with typhoons includes a vertical guide rail structure 2 placed on the wall where two vertical frames of the window are located, a roller shutter structure 17 connected to the vertical guide rail structure 2, and an ultrasonic wind sensor 13 in the control system is installed on the wall 12 on either side of the two vertical frames of the window, and the transceiver probe of the ultrasonic wind sensor 13 is arranged in a vertical state to the glass surface of the window 1.

[0027] The bottom end of the rolling shutter structure 17 is connected to the window bottom frame protection structure 15, and the window bottom frame protection structure 15 is provided with an opening and closing structure 16, and the control board 1604 in the opening and closing structure 16 is placed in the window bottom frame protection structure 15. The microcontroller 1602 in the opening and closing structure 16 can adopt a strong magnetic attraction structure; the control board 1604 is connected to the microcontroller 1602 through a spring 1603.

[0028] The ultrasonic wind sensor 13 establishes a link with a base station 18, and the base station transmits data to a cloud data processing center 20 via the Internet 19, and the cloud data processing center 20 transmits control signals to the opening and closing structure 16 and the control system respectively.

[0029] The control terminal is a PC 21 and / or a mobile phone APP; the bottom end of the rolling shutter structure 17 adopts an inverted triangle structure 1701, and the upper end surface of the inverted triangle structure 1701 is placed below the control panel.

[0030] The spring 1603 is a compression spring, which is usually in a normally closed state. The force of the spring 1603 always presses the control board 1604, and the upper port of the opening and closing structure 16 is in a closed state to prevent too much debris from falling into it; only when the sensor on the control board 1604 receives the signal from the inverted triangle structure 1701, the microcontroller 1602 overcomes the pressure of the spring 1603 and returns the control board 1604 to the protective frame 1601, which is conducive to the inverted triangle structure 1701 to enter the interior. When the inverted triangle structure 1701 enters the interior completely, the spring 1603 is reset, and the control board 1604 is stuck on the upper end surface of the inverted triangle structure 1701, which plays a protective role on the bottom of the rolling shutter structure 17.

[0031] The window bottom frame protection structure 15 is also provided with a sewage structure, on which a signal sensor is installed (a structure without a signal sensor can also be used, and manual cleaning of sludge or debris can also be used, which can be achieved under calm weather conditions. The structure without a signal sensor is limited to one-story buildings or bungalows with low floor structures); the installation plate 1502 of the sewage structure is hinged to the window bottom frame protection structure 15, and the installation small plate 150201 of the installation plate 1502 is placed in the through hole 1501 of the window bottom frame structure 15, such as Figure 2 As shown, the through hole 1501 is a stepped hole structure, and the small mounting plate 150201 is placed in the large end aperture of the through hole 1501; the mounting plate 1502 may be provided with a chip structure for receiving signals. Due to the strong destructive force of the typhoon, when too much rain falls, the control board 1604 is flooded and the top surface of the mounting plate 1502 is submerged. The mounting plate 1502 is opened under the control of the control system to achieve the drainage function; this helps the device to better protect the windows from strong typhoons.

[0032] The two sides of the rolling shutter structure 17 are slidably connected to the vertical guide rail structure 2, and the top of the rolling shutter structure 17 is mounted on the rolling cage structure 6. The rolling cage structure 6 is composed of four or six steel bars of equal length and diameter connecting the left turntable structure 3 and the right turntable structure 9 at both ends. The rotation centers of the left turntable structure 3 and the right turntable structure 9 are connected by a rotating shaft 5, and the two ends of the rotating shaft 5 are respectively placed on the left bearing seat 4 and the right bearing seat 10. The rotating shaft 5 is equipped with a driving motor 7, and the housing of the driving motor 7 is equipped with a driving sensor 8.

[0033] A control method for a window intelligent control device for typhoon response is carried out according to the following steps: S1. Accurately measure the height and width of the window to ensure that the size of the rolling shutter structure 17 is slightly larger than the window 1, and can completely cover the window 1 and provide effective protection; install the vertical guide rail structure 2 on the wall 12 of the two vertical frames of the window, and the vertical guide rail 2 is fixed on the wall 12 to ensure that the rolling shutter structure 17 can slide up and down smoothly; the vertical guide rail structure 2 is firmly installed, and the guide rail is fixed to the wall with high-strength screws to ensure that the rolling shutter can slide up and down smoothly. The top of the rolling shutter structure 17 is installed on the rolling cage structure 6; the two sides of the rolling shutter structure 17 are placed in the vertical guide rail structure 2; the bottom of the rolling shutter structure 17 is connected to the window bottom frame protection structure 15.

[0034] S2. Install the ultrasonic wind sensor 13: Firmly install the ultrasonic wind sensor 13 on the outer wall 12 on either side of the two window frames, with an open surrounding environment to ensure that the wind can be accurately received; and the transceiver probe of the ultrasonic wind sensor 13 is set vertically to the surface of the window 1.

[0035] S3, connecting the rolling curtain structure 17 with the control system, including connecting the rolling curtain structure 17 with the microcontroller 1602, the ultrasonic wind sensor 13 and the driving sensor 8, to ensure that the control system can accurately control the opening and closing of the rolling curtain structure 17.

[0036] S4. Select a driving module: According to the actual size of the window 1, select a driving module that matches the driving motor 7, which can receive the signal of the driving sensor 8 and control the forward and reverse rotation and speed of the driving motor 7.

[0037] S5. Setting wind speed threshold: setting a suitable wind speed threshold according to the local typhoon conditions (for example, the maximum typhoon value ever recorded) and the bearing capacity of the window 1; when the wind speed exceeds the threshold, the control system will automatically control the roller shutter structure 17 to close to protect the window 1.

[0038] S6. Cloud data debugging: The cloud data processing center 20 establishes a corresponding database, and further enhances risk prediction and judgment capabilities by collecting relevant information or data values ​​including but not limited to warnings of typhoons in previous years, wind extremes and destructive power, etc.; when the ultrasonic wind sensor 13 senses the wind, the data is transmitted to the cloud data processing center 20 of the Internet 19 through the base station 18. After being processed by the cloud data processing center 20, the results are fed back to the control system, and the user makes a decision or automatically controls the opening or closing of the roller shutter structure. In this step, debugging: test the control system. After the installation is complete, test it to ensure that the control system can accurately receive data instructions from the cloud data processing center and the user, and control the opening and closing of the roller shutter structure 17 according to preset conditions; such as Figure 4In the process shown in , data is transmitted to the drive sensor 8, and the drive sensor 8 controls the rolling shutter structure 17 to open. When the bottom end of the rolling shutter structure 17 reaches the vicinity of the opening and closing structure 16, the microcontroller 1602 receives a signal and controls the spring 1603 to retract, thereby driving the control board 1604 to retreat into the protective frame 1601. When the inverted triangle structure 1701 of the rolling shutter structure 17 touches the bottom frame protective structure 15 of the window, the drive motor 7 stops rotating and the rolling shutter structure 17 stops extending. At the same time, the control board 1604 is reset under the action of the spring 1603 and is placed on the upper end surface of the inverted triangle structure 1701 to achieve the function of limiting, so as to better prevent the strong wind force of the typhoon from damaging the rolling shutter structure 17 and better protect the window 1 from being damaged.

[0039] In this embodiment, the more important function is that when the window is a common manually closed window and cannot be closed remotely and timely, the rolling shutter structure plays a role in closing the window to prevent the storm from entering the room. To actually achieve this function, the adjacent two blades in the rolling shutter structure 17 need to have a good sealing structure. The adjacent two blades can be sealed by using an arc-like structure. For example, after the adjacent two blades are unfolded, the convex part of the lower end of the upper blade is embedded in the concave part of the lower blade, which plays a good sealing role. Figure 5 and Figure 6 The specific structure shown is: The inverted triangle structure 1701 is connected to the first blade 1702, and the first blade 1702 is hinged with the second blade 1703 through a connecting piece 1706 and a pin-connecting pin shaft 1705. The upper right end of the first blade 1702 is provided with an upper convex structure 1708 and a concave structure 1709, and a soft sealing structure 1707 is provided above the upper convex structure 1708. When the rolling shutter structure 17 is in the state as Figure 5 In the unfolded state shown, the first blade 1702 serves as the blade below the second blade 1703, and a raised structure 1708 is provided at the upper right end of the first blade, and a concave structure 1709 is immediately formed on the left side of the raised portion at the upper end of the first blade 2, and the lower end of the second blade 1703 is embedded in the concave structure 1709 of the first blade 1702, and the curvatures of the two are consistent. The soft sealing structure 1707 placed on the raised structure 1708 can be a rubber or silicone structure. The use of the soft sealing structure 1708 can not only reduce the collision between the two adjacent blades when the rolling shutter structure 17 is folded and / or unfolded, but also mainly plays the role of sealing the gap between the two adjacent blades when the rolling shutter structure 17 is opened.

[0040] The upper portion of the first blade 1702 is a semi-elliptical cross-sectional structure, and the lower portion is a rectangular cross-sectional structure; the cross-sectional structures of the second blade 1703 and the third blade 1704 are respectively elliptical in structure as a whole, such as Figure 5The lower end of the first blade 1702 is a straight end face, which can be connected to the inverted triangle structure 1701 by welding. The connection method between the top of the second blade 1703 and the third blade 1704 is the same as the connection between the top of the first blade 1702 and the bottom of the second blade 1703 described above, which is obvious from the figure and will not be repeated.

[0041] like Figure 5 As expressed in, when the roller blind structure 17 is rolled up counterclockwise, a protruding structure 1708 is provided at the upper right end of the first blade 1702. If the roller blind structure 17 is rolled up clockwise, a protruding structure 1708 is provided at the upper left end of the first blade 1702, which is also regarded as within the scope of the present invention.

[0042] There is a soft connection structure between the two side edges of the rolling shutter structure 17 and the vertical guide rail structure 2. For example, brushes or sealing strips are provided on the vertical guide rail structure 2 at the parts in contact with the two side edges of the rolling shutter structure 17 to achieve a structural requirement of good sealing.

[0043] In this embodiment, the ultrasonic wind sensor 13 transmits the monitored typhoon wind force and wind speed to the control system. The control system starts the drive motor 7 according to the set threshold value (freely set by the homeowner or automatically determined based on historical data in the database of the cloud data processing center 20), and lowers the roller shutter structure 17 to protect the house windows from typhoon impact and damage from foreign objects in the sky.

[0044] Wind speed refers to the distance that wind flows in a unit of time, and wind force refers to the force exerted by wind when it blows on an object. Generally speaking, the greater the wind speed and the higher the wind force level, the greater the destructive power of the wind.

[0045] The working principle of the ultrasonic wind sensor 13 is to use the ultrasonic time difference method to measure the wind speed. The transceiver-integrated ultrasonic wind sensor 13 has a fixed probe position and emits ultrasonic pulse trains at a certain frequency. The propagation speed of ultrasonic waves in the air will be superimposed on the airflow speed in the wind direction. In the two cases of tailwind and headwind, the propagation speed of ultrasonic waves will produce a superposition or weakening effect respectively. The wind speed can be calculated by measuring the propagation time of ultrasonic waves in the tailwind and headwind. Since the wind force component perpendicular to the window 1 is more destructive, during the installation process of the ultrasonic wind speed sensor 13, the transceiver probe inside the ultrasonic wind sensor 13 is made perpendicular to the window to obtain the component of wind force perpendicular to the window 1, so as to facilitate the subsequent data processing and the control end to make more accurate judgments.

[0046] Users can select wind speed units, output frequency and output format according to their needs, and can also select heating devices (recommended for use in cold environments) or analog outputs. It can be used in conjunction with computers, data loggers or other data acquisition devices that have RS485 or analog outputs. If necessary, multiple units can be used in a network.

[0047] Products such as Arduino and RaspberryPi are selected as the core of the control system. They are easy to operate and have high processing power and the ability to run a complete operating system, as well as more interfaces and expansions. Data is received and processed in the cloud, and the processed data is compared with the user's preset threshold to determine whether to control the start of the device; when the conditions are met, a precise control signal is sent to the drive motor 7 of the roller shutter structure 17 through the PC or APP to ensure that the roller shutter structure 17 can start quickly and protect the window 1.

[0048] The rolling shutter structure 17 mainly includes aluminum alloy, stainless steel, color steel plate, PVC, etc. The 2mm thick high-strength aluminum alloy rolling shutter structure 17 has the advantages of both steel and ordinary aluminum alloy, with high strength and light weight, and good anti-corrosion performance.

[0049] The expressions "first", "second", etc. in the present invention are merely expressions in which components with the same structure appear due to their different placements, and do not have the meaning that the first one is important and the second one is less important.

[0050] The present invention is not limited to the various structures listed in the above embodiments. Any modifications or changes made within the protection scope of the present invention are deemed to be within the protection scope of the present invention.

Claims

1. A typhoon-resistant window intelligent control device, comprising a vertical guide rail structure placed on two vertical frame walls of the window, and a rolling shutter structure connected to the vertical guide rail structure, characterized in that: An ultrasonic wind sensor in the control system is installed on the wall on either side of the two vertical frames of the window; the bottom end of the rolling shutter structure is connected to the window bottom frame protection structure, and the window bottom frame protection structure is provided with an opening and closing structure, and the control panel in the opening and closing structure is placed in the window bottom frame protection structure.

2. The intelligent window control device for typhoon response according to claim 1, characterized in that: The bottom end of the rolling shutter structure adopts an inverted triangle structure, the upper end surface of the inverted triangle structure is placed below the control panel, the inverted triangle structure is connected to the first blade, the first blade and the second blade are hinged by a connecting piece and a pin-connecting pin shaft, a concave structure is provided on the top of the first blade, a convex structure is provided on the right side of the concave structure, and a soft sealing structure is provided above the convex structure.

3. The intelligent window control device for typhoon prevention according to claim 1, characterized in that: The ultrasonic wind sensor establishes a link with a base station, and the base station transmits data to a cloud data processing center via the Internet, and the cloud data processing center transmits control signals to the opening and closing structure and the control system respectively.

4. The intelligent window control device for typhoon prevention according to claim 1, characterized in that: The transceiver probe of the ultrasonic wind sensor is arranged perpendicular to the window.

5. The intelligent window control device for typhoon prevention according to claim 1, characterized in that: The spring is a compression spring; a sewage discharge structure is also arranged on the protective structure of the bottom frame of the window, and a signal sensor is installed on the sewage discharge structure.

6. The intelligent window control device for typhoon prevention according to claim 1, characterized in that: The rolling shutter structure is slidably connected to the vertical guide rail structure, the upper end of the rolling shutter structure is mounted on the rolling cage structure, the two ends of the steel bars in the rolling cage structure are respectively connected to the left turntable structure and the right turntable structure, the rotation centers of the left turntable structure and the right turntable structure are connected through a rotating shaft, a driving motor is mounted on the rotating shaft, and a driving sensor is mounted on the housing of the driving motor.

7. The intelligent window control device for typhoon prevention according to claim 2, characterized in that: The inverted triangle structure is connected to the first blade, the first blade is hinged to the second blade through a connecting piece and a pin-connecting pin shaft, an upper convex structure and a lower concave structure are arranged at the upper right end of the first blade, and a soft sealing structure is arranged above the upper convex structure.

8. The intelligent window control device for typhoon prevention according to claim 1, characterized in that: A soft connection structure is arranged between the two side edges of the rolling shutter structure and the vertical guide rail structure.

9. A control method for a typhoon-resistant window intelligent control device according to any one of claims 1 to 8, characterized in that: Proceed as follows: S1. Install a vertical guide rail structure on the wall of the two vertical frames of the window, the vertical guide rail is fixed on the wall to ensure that the rolling shutter structure can slide up and down smoothly; the top of the rolling shutter structure is installed on the rolling cage structure; the two sides of the rolling shutter structure are placed in the vertical guide rail structure; the bottom end of the rolling shutter structure is connected to the window bottom frame protection structure; S2. Install the ultrasonic wind sensor: Install the ultrasonic wind sensor firmly on the outer wall on either side of the two frames of the window, with an open environment to ensure that the wind can be accurately received; and the transceiver probe of the ultrasonic wind sensor is perpendicular to the window surface; S3, connecting the rolling curtain structure with the control system, including connecting the rolling curtain structure with the microcontroller, the wind sensor and the drive sensor, to ensure that the control system can accurately control the opening and closing of the rolling curtain structure; S4, select the drive module: according to the size of the window, select the drive module that matches the drive motor, which can receive the signal of the drive sensor and control the forward and reverse rotation and speed of the drive motor; S5. Set wind speed threshold: Set a suitable wind speed threshold according to the local typhoon conditions and the bearing capacity of the windows; When the wind speed exceeds the threshold, the control system will automatically control the roller shutter structure to close to protect the window; S6. Cloud data debugging: The cloud data processing center establishes a database to further enhance risk prediction and judgment capabilities by collecting relevant information or data values ​​including but not limited to typhoon warnings, wind extremes and destructive power in previous years; when the ultrasonic wind sensor senses the wind, the data is transmitted to the cloud data processing center of the Internet through the base station. After being processed by the cloud data processing center, the results are fed back to the control system, allowing the user to make a decision or automatically control the opening or closing of the roller shutter structure.

10. The control method of the intelligent window protection device for typhoon according to claim 9, characterized in that: Debugging in step S6: Testing the control system to ensure that the control system can accurately receive data instructions from the cloud data processing center and the user, and control the opening and closing of the roller shutter structure according to preset conditions.

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