Intelligent car window and control method thereof

Abstract

According to the intelligent car window and the control method thereof, all parts of the car window can be automatically adjusted according to environmental parameters, accurate adjustment and control can be achieved according to customer preferences, light transmittance, ventilation and humidity can be adjusted according to needs, the environment in a car is optimized, various sensors are matched with an intelligent algorithm, and the intelligent car window is obtained. The use comfort, convenience and intelligent degree of the garage are improved, the good application prospect is achieved, and the problem that the indoor condition of a traditional garage cannot be adjusted in real time according to the environment condition is solved.

Description

Technical Field

[0001] The present invention relates to the field of smart garages, and in particular to a smart garage window and a control method thereof. Background Art

[0002] As people's demand for comfortable and intelligent travel and living environments increases, the problem of single function of traditional garage windows has become prominent. Existing windows are often difficult to flexibly adjust light transmittance, ventilation and humidity according to environmental changes and personal preferences. For example, under different lighting, wind speed and humidity scenarios, they are unable to adaptively optimize the interior environment of the car, and lack convenient personalized settings, which cannot meet diverse needs. Solving the above shortcomings will improve user experience and create a smarter and more comfortable garage environment. Summary of the invention

[0003] The main purpose of the present invention is to provide an intelligent garage window and a control method thereof, which solves the problems in the above-mentioned background technology.

[0004] In order to solve the above technical problems, the technical solution adopted by the present invention is: an intelligent garage window, comprising a garage, a window assembly is arranged on one side of the garage, the window assembly comprises a grille assembly, a window shell is arranged on one side of the grille assembly, a ventilation assembly is arranged on the other side, an atomized glass is arranged between the ventilation assembly and the grille assembly, and a shading assembly is arranged on one side of the ventilation assembly; There is also an auxiliary camera above the window assembly, which is used to monitor the outdoor conditions on one side of the window; There are solar panels on the top of the garage, a drone above the solar panels, deployable wings on both sides of the garage, and multiple cameras around the garage.

[0005] In the preferred solution, a drone base is provided on the top of the garage, and an annular water collection tank is provided around the drone base to collect water droplets dripping from the drone and reduce the erosion of the roof by water droplets; A humidity sensor is also provided on the top edge of the water collection tank, and the humidity sensor is used to detect the liquid level height in the water collection tank.

[0006] In the preferred embodiment, a plurality of photosensitive sensors are provided on the surface of the wing plate, and the photosensitive sensors are used to detect the light intensity; There are liftable support legs under the carport, a main camera on one side of the cockpit, a rear camera on the other side, and side cameras on both sides of the cockpit; A detachable unmanned vehicle is provided between the supporting legs. The unmanned vehicle is used to transport the garage. The main camera, rear camera and side cameras are used to assist the unmanned vehicle in autonomous driving.

[0007] In a preferred embodiment, a first through hole is provided at the center of the vehicle window shell, and a circulation plate is provided in the first through hole, and the circulation plate is used to prevent water drops on the vehicle window shell from directly flowing into the first through hole.

[0008] In a preferred embodiment, the grille assembly includes a symmetrically arranged grille top plate, grille side plates are provided at both ends of the grille top plate, and a plurality of rotatable flip grilles are provided between the grille side plates; A synchronous wheel is provided at one end of each flip grille, a connecting seat is provided at one side of the synchronous wheel, a rotatable connecting shaft is provided on the connecting seat, and a grille motor is connected to the other end of the connecting shaft, and the grille motor is used to control the rotation angle of the flip grille; The flip grille is made of a transparent polycarbonate plate with good ultraviolet filtering function. Mounting seats are provided on both sides of the grille top plate. A first ring plate is provided on the mounting seat on one side and a second ring plate is provided on the other side. The first ring plate is fitted with the circulation plate. Atomized glass is provided between the second ring plate and the ventilation assembly. The transmittance of the atomized glass can be adjusted by electric current.

[0009] In the preferred embodiment, the ventilation assembly includes a ventilation support plate, a third through hole is provided in the middle of the ventilation support plate, and a plurality of through holes are provided around the third through hole, and the micro fan is used for air exchange inside and outside the garage; A filter is arranged on the outward side of the micro fan, and an air outlet on the inward side of the micro fan is located around the micro fan, and a filter is also arranged at the air outlet.

[0010] In the preferred embodiment, the shading assembly includes a winder, on which a shading curtain is provided, a counterweight block is provided at the bottom of the shading curtain, a permanent magnet is provided below the counterweight block, a curtain base is provided below the permanent magnet, the permanent magnet is in contact with the curtain base, and the curtain base is made of magnetically affinity material.

[0011] The above-mentioned intelligent garage window control method is applied, and the method comprises: S1. Use an unmanned vehicle to transport the garage to a designated location, lower the supporting legs, and place the garage on the ground.

[0012] S2. The customer sets the adjustment degree of the window assembly on the mobile phone according to personal preference; S3, take off the drone, measure the wind speed and humidity through the hot wire anemometer and humidity sensor on the drone, and transmit the wind speed and humidity parameters to the information processing module; S4, unfold the wing panels, collect real-time light conditions through the photosensitive sensor, and transmit the wind speed parameters to the information processing module; S5, the information processing module adjusts the light transmittance of the atomized glass according to the parameters of the photosensor, adjusts the tilt angle of the flip grille to change the air permeability according to the wind speed parameters of the hot wire anemometer, and adjusts the rotation direction of the micro fan to change the air humidity inside and outside the garage according to the humidity parameters of the humidity sensor; S6. The information processing module adjusts various parameters according to the customer's personal preferences through the adjustment algorithm.

[0013] In the preferred solution, in step S6, the adjustment algorithm includes: Algorithm for adjusting the light transmittance of atomized glass: The initial transmittance of atomized glass is , the value range is The information processing module is based on the discrete sequence of light intensity transmitted by the photosensitive sensor. Adjust and use adaptive adjustment algorithm to update the transmittance :

[0014] in is the adjustment coefficient, and its value range is set according to the actual characteristics and requirements of the atomized glass. is the light intensity over a period of time The average value of calculate, The number of sampling points in the time window used for averaging is determined by the algorithm, which enables the light transmittance of the fogged glass to be dynamically and adaptively adjusted according to the real-time lighting conditions to ensure that the lighting in the garage is appropriate; Algorithm for changing the ventilation by flipping the grille tilt angle: The initial tilt angle of the flip grille is Degree, value range The information processing module uses the wind speed value transmitted by the hot wire anemometer to Adjustment is performed, and a nonlinear adjustment algorithm is used to update the tilt angle :

[0015] in and The adjustment coefficient is pre-set according to the characteristics of the flip grille and the actual required ventilation performance. Through this algorithm, the tilt angle of the flip grille can be reasonably changed with the change of wind speed, effectively adjusting the ventilation of the garage to cope with different wind speed environments; Micro fan rotation direction adjustment algorithm: Micro fans have two rotation directions: forward rotation and reverse rotation. Forward rotation exhausts the air in the garage outward, while reverse rotation sends the air outside the garage into the car. and Indicates that the information processing module is based on the humidity value transmitted by the humidity sensor Adjustment is performed and a threshold comparison switching algorithm is used to determine the rotation direction of the micro fan. :

[0016] in and is the preset humidity threshold. When the micro fan rotates forward to discharge the wet air in the car, the humidity is lower than When the humidity is between the two thresholds, the micro fan rotates in the opposite direction to introduce relatively dry air from outside the vehicle. The rotation direction remains unchanged, thereby achieving effective regulation of the air humidity inside and outside the garage.

[0017] In the preferred solution, in step S6, adjustment parameters of personal preferences of customers are further introduced into each adjustment algorithm, as follows: Algorithm for adjusting the light transmittance of atomized glass: Introducing the lighting preference coefficient of the customer's personal preferences The value range is determined by the customer according to their preference for lighting. The transmittance adjustment algorithm formula based on the customer's personal preferences is:

[0018] Pass coefficient Make the adjustment of the light transmittance of the atomized glass more in line with the customer's personal preferences for the lighting environment in the garage; Algorithm for changing the ventilation by flipping the grille tilt angle: Introducing ventilation preference coefficients for customer personal preferences The value range is determined by the customer according to their preference for ventilation degree. The tilt angle adjustment algorithm formula based on the customer's personal preferences is:

[0019] use The tilt angle of the flip grille can be adjusted to suit the customer's personal expectations for garage ventilation; Micro fan rotation direction adjustment algorithm: Introducing humidity preference coefficient for customer personal preferences The value range is determined by the customer according to their preference for the humidity environment in the garage. The micro fan rotation direction adjustment algorithm formula based on the customer's personal preferences is:

[0020] With the help of The rotation direction of the micro fan can be flexibly controlled according to the customer's personal preference for the air humidity in the garage, thereby meeting the personalized environmental adjustment needs of different customers.

[0021] The present invention provides an intelligent garage window and a control method thereof, which has the following beneficial effects: various components of the window can be automatically adjusted according to environmental parameters, and can also be accurately controlled in combination with customer preferences to achieve on-demand adjustment of light transmittance, ventilation, and humidity, optimize the interior environment of the vehicle, and utilize a variety of sensors in conjunction with intelligent algorithms to improve the comfort, convenience, and intelligence of the use of the garage, and has good application prospects. BRIEF DESCRIPTION OF THE DRAWINGS

[0022] The present invention will be further described below in conjunction with the accompanying drawings and embodiments: Figure 1 It is an axonometric view of the garage of the present invention; Figure 2 It is a front view of the garage combined with the unmanned vehicle of the present invention; Figure 3 is an isometric view of the vehicle window assembly of the present invention; Figure 4 is an exploded view of the vehicle window assembly of the present invention; Figure 5 is an exploded view of the vehicle window assembly of the present invention from another direction; Figure 6 is an axonometric view of a grille assembly of the present invention; Figure 7 is an isometric view of the vehicle window assembly of the present invention from another direction; Figure 8 It is a transmission schematic diagram of the grille motor of the present invention; Fig. 9 is an axonometric view of the ventilation support plate of the present invention; Fig.10 It is a cross-sectional view of the shading component of the present invention.

[0023] In the figure: garage 1; drone 2; drone base 201; water collection tank 202; solar panel 3; wing plate 4; photosensitive sensor 401; window assembly 5; window housing 501; circulation plate 502; first through hole 503; second through hole 504; first ring plate 505; grille assembly 506; second ring plate 507; ventilation assembly 508; grille motor 509; shading assembly 510; curtain base 511; ventilation support plate 512; Micro fan 513; third through hole 514; grille side plate 515; grille top plate 516; flip grille 517; synchronous wheel 518; mounting seat 519; connecting seat 520; connecting shaft 521; atomizing glass 522; filter 523; winder 524; blackout curtain 525; counterweight 526; permanent magnet 527; supporting leg 6; main camera 7; rear camera 8; side camera 9; unmanned vehicle 10; auxiliary camera 11. DETAILED DESCRIPTION

[0024] Example 1 like Figure 1-10 As shown, a smart car window comprises a car window 1, a car window assembly 5 is provided on one side of the car window 1, the car window assembly 5 comprises a grille assembly 506, a car window housing 501 is provided on one side of the grille assembly 506, a ventilation assembly 508 is provided on the other side, an atomized glass 522 is provided between the ventilation assembly 508 and the grille assembly 506, and a shading assembly 510 is provided on one side of the ventilation assembly 508; An auxiliary camera 11 is also provided above the vehicle window assembly 5, and the auxiliary camera 11 is used to monitor the outdoor conditions on one side of the window; A solar panel 3 is provided on the top of the garage 1 , a drone 2 is provided above the solar panel 3 , deployable wing panels 4 are provided on both sides of the garage 1 , and a plurality of cameras are provided around the garage 1 .

[0025] In the preferred embodiment, a drone base 201 is provided on the top of the garage 1, and an annular water collection tank 202 is provided around the drone base 201. The water collection tank 202 is used to collect water droplets dripping from the drone 2 to reduce the erosion of the roof by water droplets; A humidity sensor is also provided on the top edge of the water collecting tank 202 , and the humidity sensor is used to detect the liquid level in the water collecting tank 202 .

[0026] In the preferred embodiment, a plurality of photosensitive sensors 401 are provided on the surface of the wing plate 4, and the photosensitive sensors 401 are used to detect the light intensity; A liftable support leg 6 is provided below the garage 1, a main camera 7 is provided on one side of the cockpit of the garage 1, a rear camera 8 is provided on the other side, and side cameras 9 are provided on both sides of the cockpit; A detachable unmanned vehicle 10 is provided between the supporting legs 6 , and the unmanned vehicle 10 is used to transport the garage 1 . The main camera 7 , the rear camera 8 , and the side cameras 9 are used to assist the unmanned vehicle 10 in automatic driving.

[0027] In a preferred embodiment, a first through hole 503 is provided at the center of the vehicle window housing 501 , and a circulation plate 502 is provided in the first through hole 503 . The circulation plate 502 is used to prevent water droplets of the vehicle window housing 501 from directly flowing into the first through hole 503 .

[0028] In the preferred embodiment, the grille assembly 506 includes a symmetrically arranged grille top plate 516, grille side plates 515 are provided at both ends of the grille top plate 516, and a plurality of rotatable flip grilles 517 are provided between the grille side plates 515; Each flip grille 517 has a synchronous wheel 518 at one end, a connecting seat 520 at one side of the synchronous wheel 518, a rotatable connecting shaft 521 is provided on the connecting seat 520, and a grille motor 509 is connected to the other end of the connecting shaft 521. The grille motor 509 is used to control the rotation angle of the flip grille 517; The flip grille 517 is made of a transparent polycarbonate plate with good ultraviolet filtering function. Mounting seats 519 are provided on both sides of the grille top plate 516. A first ring plate 505 is provided on the mounting seat 519 on one side, and a second ring plate 507 is provided on the other side. The first ring plate 505 is in contact with the circulation plate 502. A frosted glass 522 is provided between the second ring plate 507 and the ventilation component 508. The transmittance of the frosted glass 522 can be adjusted by electric current.

[0029] In the preferred embodiment, the ventilation assembly 508 includes a ventilation support plate 512, a third through hole 514 is provided in the middle of the ventilation support plate 512, and a plurality of micro fans 513 are provided around the third through hole 514 for exchanging air inside and outside the garage 1; A filter 523 is provided on the outward side of the micro fan 513 , and an air outlet on the inward side of the micro fan 513 is located around the micro fan 513 , and a filter 523 is also provided at the air outlet.

[0030] In the preferred embodiment, the shading assembly 510 includes a winder 524, on which a blackout curtain 525 is provided, at the bottom of the blackout curtain 525 a counterweight block 526 is provided, below the counterweight block 526 a permanent magnet 527 is provided, below the permanent magnet 527 a curtain base 511 is provided, the permanent magnet 527 is in contact with the curtain base 511, and the curtain base 511 is made of a magnetically-affinity material.

[0031] One side of the blackout curtain 525 inside the garage is a flexible screen, which can project the images captured in real time by the auxiliary camera 11, and can also be connected to the customer's player signal to play preset videos.

[0032] The above-mentioned intelligent garage window control method is applied, and the method comprises: S1. The garage 1 is transported to a designated location by the unmanned vehicle 10, and the supporting legs 6 are lowered to make the garage 1 stand on the ground.

[0033] S2, the customer sets the adjustment degree of the vehicle window assembly 5 on the mobile phone according to personal preference; S3, take off the drone 2, measure the wind speed and humidity through the hot wire anemometer and humidity sensor on the drone 2, and transmit the wind speed and humidity parameters to the information processing module; S4, unfold the wing plate 4, collect the real-time light conditions through the photosensitive sensor 401, and transmit the wind speed parameters to the information processing module; S5, the information processing module adjusts the light transmittance of the atomized glass according to the parameters of the photosensor 401, adjusts the tilt angle of the flip grille 517 according to the wind speed parameters of the hot wire anemometer to change the air permeability, and adjusts the rotation direction of the micro fan 513 according to the humidity parameters of the humidity sensor to change the air humidity inside and outside the garage 1; S6. The information processing module adjusts various parameters according to the customer's personal preferences through the adjustment algorithm.

[0034] In the preferred solution, in step S6, the adjustment algorithm includes: Algorithm for adjusting the light transmittance of atomized glass 522: The initial light transmittance of atomized glass 522 is , the value range is The information processing module processes the discrete sequence of light intensity transmitted by the light sensor 401. Adjust and use adaptive adjustment algorithm to update the transmittance :

[0035] in is the adjustment coefficient, and the value range is set according to the actual characteristics and requirements of the atomized glass 522. is the light intensity over a period of time The average value of calculate, is the number of sampling points in the time window used for averaging. Through this algorithm, the transmittance of the fogged glass 522 can be dynamically and adaptively adjusted according to the real-time lighting conditions to ensure that the lighting in the garage 1 is appropriate; Algorithm for changing the ventilation by tilting the grille 517: The initial tilt angle of the flip grille 517 is Degree, value range The information processing module uses the wind speed value transmitted by the hot wire anemometer to Adjustment is performed, and a nonlinear adjustment algorithm is used to update the tilt angle :

[0036] in and The adjustment coefficient is pre-set according to the characteristics of the flip grille 517 and the actual required ventilation performance. Through this algorithm, the tilt angle of the flip grille 517 can be reasonably changed with the change of wind speed, and the ventilation of the garage 1 can be effectively adjusted to cope with different wind speed environments; Micro fan 513 rotation direction adjustment algorithm: The micro fan 513 has two rotation directions: forward rotation and reverse rotation. The forward rotation exhausts the air in the garage 1 outward, and the reverse rotation sends the air outside the garage 1 into the car. The forward rotation and reverse rotation are respectively used and Indicates that the information processing module is based on the humidity value transmitted by the humidity sensor Adjustment is performed and a threshold comparison switching algorithm is used to determine the rotation direction of the micro fan. :

[0037] in and is the preset humidity threshold. When the micro fan 513 rotates forward to discharge the wet air in the car, the humidity is lower than When the humidity is between the two thresholds, the micro fan 513 rotates in the opposite direction to introduce relatively dry air outside the vehicle. The rotation direction remains unchanged, thereby achieving effective regulation of the air humidity inside and outside the garage 1.

[0038] In the preferred solution, in step S6, adjustment parameters of personal preferences of customers are further introduced into each adjustment algorithm, as follows: Algorithm for adjusting the light transmittance of atomized glass 522: Introducing the lighting preference coefficient of the customer's personal preferences The value range is determined by the customer according to their preference for lighting. The transmittance adjustment algorithm formula based on the customer's personal preferences is:

[0039] Pass coefficient The result of adjusting the light transmittance of the atomized glass is made to be more in line with the customer's personal preference for the lighting environment in the garage 1; Algorithm for changing the ventilation by tilting the grille 517: Introducing ventilation preference coefficients based on customer personal preferences The value range is determined by the customer according to their preference for ventilation degree. The tilt angle adjustment algorithm formula based on the customer's personal preferences is:

[0040] use The tilt angle of the flip grille can be adjusted to suit the customer's personal expectations of the ventilation conditions of the garage 1; Micro fan 513 rotation direction adjustment algorithm: Introducing humidity preference coefficient for customer personal preferences The value range is determined by the customer according to their preference for the humidity environment in the garage. The micro fan (513) rotation direction adjustment algorithm formula based on the customer's personal preference is:

[0041] With the help of The rotation direction of the micro fan can be flexibly controlled according to the customer's personal preference for the air humidity in the garage 1, thereby meeting the personalized environmental adjustment needs of different customers.

[0042] Example 2, combined with Example 1, further illustrates that the following is a specific example of the patent for the smart car window: First, execute step S1 to transport the carport 1 to a designated outdoor camping site or temporary parking location by the unmanned vehicle 10, and then lower the support legs 6 to allow the carport 1 to stand firmly on the ground, in preparation for the activation of subsequent window-related functions.

[0043] Then, in step S2, the customer opens the smart control APP on the mobile phone according to his / her expectation of the interior environment of the car, and sets the adjustment degree of the car window assembly 5 on the corresponding interface. For example, if customer A prefers a brighter interior light environment, he / she will set the light preference coefficient of the fogged glass 522 to Set it to 0.8 (select between 0 - 1); if you want moderate ventilation, set the ventilation preference coefficient Set to 0.5; for the relatively dry humidity requirement in the car, the humidity preference coefficient Set it to 0.3 and submit it to the information processing module after completing the personalization settings.

[0044] Then, step S3 is performed to control the drone 2 located above the solar panel 3 on the top of the garage 1 to take off. The hot wire anemometer and humidity sensor equipped on the drone 2 start working, measuring the wind speed and humidity information of the current environment in real time, and transmitting these parameters to the information processing module in the prescribed data format. For example, the measured wind speed value is 5m / s, humidity value is 60%, and the data transmitted is in the form of

[0045] At the same time, in step S4, the wing panels 4 on both sides of the garage 1 are unfolded, and a plurality of light sensors 401 arranged on the surface of the wing panels 4 begin to collect real-time light conditions, and the collected light intensity values ​​are (Assume that the light intensity value is measured at a certain moment 800lux according to the time series Discrete sampling (sampling period Set to 1s), get the discrete sequence of light intensity , transmitted to the information processing module through wired transmission (such as CAN bus), the data structure of the transmission is:

[0046] At the same time, the wind speed parameters are also transmitted to the information processing module to achieve comprehensive collection of environmental parameters.

[0047] After the information processing module obtains the above parameters, step S5 is executed to perform the adjustment operation of the vehicle window assembly 5 .

[0048] For the light transmittance adjustment of the atomized glass 522, its initial light transmittance is Set to 50% (the value range is 0-100%), the information processing module is based on the discrete sequence of light intensity received , using an adaptive adjustment algorithm to update the transmittance .

[0049] Set the adjustment coefficient is 0.05 (set according to the actual characteristics and requirements of the atomized glass). First calculate the light intensity over a period of time. The average , assuming that Calculated is 600 lux, Take the appropriate number of sampling points and adjust the transmittance algorithm according to the formula

[0050] Calculate and update the transmittance , and combined with the lighting preference coefficient set by the customer in step S2 , through the transmittance adjustment algorithm formula that integrates the customer's personal preferences

[0051] The transmittance is further adjusted so that the final transmittance is more in line with the preferences of Customer A for the lighting environment.

[0052] For adjusting the tilt angle of the flip grille 517 in the grille assembly 506, the initial tilt angle is Set to 30 degrees (the range is limited to 0 - 90 degrees according to the mechanical structure), the information processing module uses the wind speed value transmitted by the hot wire anemometer The adjustment coefficient is set in advance according to the characteristics of the flip grille 517 and the actual required ventilation performance. , , according to the nonlinear adjustment algorithm formula

[0053] Calculate and update the tilt angle , combined with the ventilation preference coefficient set by the customer , by integrating the tilt angle adjustment algorithm formula based on the customer's personal preferences

[0054] The tilt angle can be adjusted to ensure that the ventilation conditions reach the moderate state expected by the customer, and the ventilation of the garage 1 can be effectively adjusted.

[0055] Regarding the rotation direction adjustment of the micro fan 513 in the ventilation component 508, the micro fan 513 has a positive rotation (using ) and reverse rotation (denoted by Pre-set humidity threshold , , current humidity value , the information processing module compares the switching algorithm according to the threshold

[0056] Judge that the humidity is between the two thresholds at this time and keep the previous moment The rotation direction remains unchanged (assuming it was rotating in the positive direction at the last moment, it will maintain the positive rotation to exhaust part of the air in the car). Combined with the humidity preference coefficient set by the customer , by integrating the micro fan rotation direction adjustment algorithm formula based on the customer's personal preferences

[0057] Adjustments are made to make the micro fan's rotation direction more in line with the customer's preference for in-car air humidity, continuously maintaining the in-car air humidity at a more suitable level and meeting the customer's personalized environmental adjustment needs.

[0058] During the entire use process, the auxiliary camera 11 above the window assembly 5 continuously monitors the outdoor conditions on one side of the window, providing real-time visual information of the outdoor environment to the occupants of the vehicle; and multiple cameras arranged around the garage 1, including the main camera 7, the rear camera 8 and the side camera 9, assist the unmanned vehicle 10 in automatic driving, ensuring the safety and accuracy of the garage during movement.

[0059] The annular water collection tank 202 around the drone base 201 on the top of the garage 1 can effectively collect water droplets dripping from the drone 2. The humidity sensor on the top edge detects the liquid level in the water collection tank 202 in real time to prevent water droplets from eroding the roof, thus fully ensuring the normal operation and user experience of the garage and its window components. The intelligent garage window and control method thereof can flexibly and effectively adjust the functions of various components of the window according to environmental changes and in combination with the personal preferences of the customer, thereby creating a comfortable and intelligent garage use environment for the user.

[0060] The above embodiments are only preferred technical solutions of the present invention and should not be regarded as limiting the present invention. The protection scope of the present invention shall be the technical solutions recorded in the claims, including equivalent replacement solutions of the technical features in the technical solutions recorded in the claims. That is, equivalent replacement improvements within this scope are also within the protection scope of the present invention.

Claims

1. A smart garage window, comprising a garage (1), wherein a window assembly (5) is provided on one side of the garage (1), wherein: The vehicle window assembly (5) comprises a grille assembly (506); a vehicle window housing (501) is provided on one side of the grille assembly (506); a ventilation assembly (508) is provided on the other side; an atomized glass (522) is provided between the ventilation assembly (508) and the grille assembly (506); and a shading assembly (510) is provided on one side of the ventilation assembly (508); An auxiliary camera (11) is also provided above the vehicle window assembly (5), and the auxiliary camera (11) is used to monitor outdoor conditions on one side of the window; A solar panel (3) is provided on the top of the garage (1), a drone (2) is provided above the solar panel (3), deployable wing panels (4) are provided on both sides of the garage (1), and a plurality of cameras are provided around the garage (1).

2. According to claim 1, the intelligent car window is characterized by: A drone base (201) is provided on the top of the garage (1), and an annular water collection tank (202) is provided around the drone base (201). The water collection tank (202) is used to collect water droplets dripping from the drone (2) to reduce the erosion of the roof by water droplets; A humidity sensor is also provided on the top edge of the water collecting tank (202), and the humidity sensor is used to detect the liquid level in the water collecting tank (202).

3. According to claim 1, the intelligent garage window is characterized by: A plurality of light-sensitive sensors (401) are provided on the surface of the wing plate (4), and the light-sensitive sensors (401) are used to detect light intensity; A liftable support leg (6) is provided below the garage (1); a main camera (7) is provided on one side of the cockpit of the garage (1); a rear camera (8) is provided on the other side; and side cameras (9) are provided on both sides of the cockpit; A detachable unmanned vehicle (10) is provided between the supporting legs (6); the unmanned vehicle (10) is used to transport the garage (1); and the main camera (7), the rear camera (8) and the side cameras (9) are used to assist the unmanned vehicle (10) in performing automatic driving.

4. According to claim 1, the intelligent car window is characterized by: A first through hole (503) is provided at the center of the vehicle window outer shell (501), and a circulation plate (502) is provided in the first through hole (503). The circulation plate (502) is used to prevent water droplets on the vehicle window outer shell (501) from directly flowing into the first through hole (503).

5. According to claim 1, the intelligent garage window is characterized by: The grille assembly (506) comprises a symmetrically arranged grille top plate (516), grille side plates (515) are provided at both ends of the grille top plate (516), and a plurality of rotatable flip grilles (517) are provided between the grille side plates (515); A synchronous wheel (518) is provided at one end of each flip grille (517), a connecting seat (520) is provided at one side of the synchronous wheel (518), a rotatable connecting shaft (521) is provided on the connecting seat (520), and a grille motor (509) is connected to the other end of the connecting shaft (521), and the grille motor (509) is used to control the rotation angle of the flip grille (517); The flip grille (517) is made of a transparent polycarbonate plate having good ultraviolet filtering function. Mounting seats (519) are provided on both sides of the grille top plate (516). A first ring plate (505) is provided on the mounting seat (519) on one side, and a second ring plate (507) is provided on the other side. The first ring plate (505) is fitted with the circulation plate (502). A misted glass (522) is provided between the second ring plate (507) and the ventilation assembly (508). The misted glass (522) can adjust the light transmittance by electric current.

6. The intelligent garage window according to claim 5 is characterized by: The ventilation assembly (508) comprises a ventilation support plate (512), a third through hole (514) is provided in the middle of the ventilation support plate (512), and a plurality of micro fans (513) are provided around the third through hole (514) for exchanging air inside and outside the garage (1); A filter screen (523) is provided on the outward side of the micro fan (513), and an air outlet on the inward side of the micro fan (513) is located around the micro fan (513), and a filter screen (523) is also provided at the air outlet.

7. The intelligent garage window according to claim 6 is characterized by: The shading component (510) comprises a winding machine (524), a shading curtain (525) is arranged on the winding machine (524), a counterweight (526) is arranged at the bottom of the shading curtain (525), a permanent magnet (527) is arranged below the counterweight (526), ​​a curtain base (511) is arranged below the permanent magnet (527), the permanent magnet (527) is fitted with the curtain base (511), and the curtain base (511) is made of a magnetically affinity material.

8. A method for controlling a smart garage window according to any one of claims 1 to 7, characterized in that: The method includes: S1. The garage (1) is transported to a designated location by an unmanned vehicle (10), and the supporting legs (6) are lowered so that the garage (1) is placed on the ground; S2, the customer sets the adjustment degree of the window assembly (5) on the mobile phone according to personal preference; S3, launching the drone (2), measuring wind speed and humidity using a hot wire anemometer and a humidity sensor on the drone (2), and transmitting the wind speed and humidity parameters to an information processing module; S4, unfolding the wing panel (4), collecting real-time light conditions through the photosensitive sensor (401), and transmitting wind speed parameters to the information processing module; S5, the information processing module adjusts the light transmittance of the atomized glass according to the parameters of the light sensor (401), adjusts the inclination angle of the flip grille (517) according to the wind speed parameters of the hot wire anemometer to change the air permeability, and adjusts the rotation direction of the micro fan (513) according to the humidity parameters of the humidity sensor to change the air humidity inside and outside the garage (1); S6. The information processing module adjusts various parameters according to the customer's personal preferences through the adjustment algorithm.

9. The method for controlling a smart garage window according to claim 8, characterized in that: In step S6, the adjustment algorithm includes: Algorithm for adjusting the light transmittance of atomized glass (522): The initial transmittance of the atomized glass (522) is , the value range is The information processing module processes the discrete sequence of light intensity transmitted by the light sensor (401). Adjust and use adaptive adjustment algorithm to update the transmittance : in is the adjustment coefficient, and its value range is set according to the actual characteristics and requirements of the atomized glass (522). is the light intensity over a period of time The average value of calculate, is the number of sampling points in the time window used for averaging, and the algorithm enables the light transmittance of the fogged glass (522) to be dynamically and adaptively adjusted according to the real-time lighting conditions, thereby ensuring that the lighting in the garage (1) is appropriate; Algorithm for changing the ventilation performance by tilting the grille (517): The initial tilt angle of the flip grille (517) is Degree, value range The information processing module uses the wind speed value transmitted by the hot wire anemometer to Adjustment is performed, and a nonlinear adjustment algorithm is used to update the tilt angle : in and The adjustment coefficient is preset according to the characteristics of the flip grille (517) and the actual required ventilation performance. The algorithm enables the tilt angle of the flip grille (517) to be reasonably changed with the change of wind speed, thereby effectively adjusting the ventilation performance of the garage (1) to cope with different wind speed environments. Micro fan (513) rotation direction adjustment algorithm: The micro fan (513) has two rotation directions: forward rotation and reverse rotation. The forward rotation exhausts the air in the garage (1) outwards, and the reverse rotation delivers the air outside the garage (1) into the vehicle. The forward rotation and reverse rotation are respectively used and Indicates that the information processing module is based on the humidity value transmitted by the humidity sensor Adjustment is performed and a threshold comparison switching algorithm is used to determine the rotation direction of the micro fan. : in and is the preset humidity threshold. When the micro fan (513) rotates forward to discharge the wet air in the vehicle, the humidity is lower than When the humidity is between the two thresholds, the micro fan (513) rotates in the opposite direction to introduce relatively dry air from outside the vehicle. The rotation direction remains unchanged, thereby achieving effective regulation of the air humidity inside and outside the garage (1).

10. The method for controlling a smart garage window according to claim 9, characterized in that: In step S6, adjustment parameters of customer personal preferences are further introduced into each adjustment algorithm, as follows: Algorithm for adjusting the light transmittance of atomized glass (522): Introducing the lighting preference coefficient of the customer's personal preferences The value range is determined by the customer according to their preference for lighting. The transmittance adjustment algorithm formula based on the customer's personal preferences is: Pass coefficient The light transmittance of the atomized glass can be adjusted to better suit the customer's personal preferences for the lighting environment in the garage (1); Algorithm for changing the ventilation performance by tilting the grille (517): Introducing ventilation preference coefficients based on customer personal preferences The value range is determined by the customer according to their preference for ventilation level. The tilt angle adjustment algorithm formula based on the customer's personal preferences is: use The tilt angle of the flip grille can be adjusted to suit the customer's personal expectations of the ventilation conditions of the garage (1); Micro fan (513) rotation direction adjustment algorithm: Introducing humidity preference coefficient for customer personal preferences The value range is determined by the customer according to their preference for the humidity environment in the garage. The micro fan (513) rotation direction adjustment algorithm formula based on the customer's personal preference is: With the help of The rotation direction of the micro fan can be flexibly controlled according to the customer's personal preference for the air humidity in the garage (1), thereby meeting the personalized environmental adjustment needs of different customers.

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