A control method and device for sliding door and window

Abstract

The present application provides a control method and device for sliding doors and windows, wherein the sliding doors and windows include: a fixed frame formed with a slide rail and a movable window that slides along the slide rail under the drive of a motor, and the driving method includes the following steps: a first wireless component and a second wireless component are arranged opposite to each other, and infrared communication and wireless charging induction are established; the power output by an external power source is transmitted to a control panel via wireless transmission of the first wireless component and the second wireless component in sequence; the control panel outputs instructions, which are transmitted to a control unit via the second wireless component and the first wireless component in sequence, so as to control the motor to drive the movable window to slide along the slide rail; wherein the first wireless component is located on the fixed frame, and the second wireless component and the control panel are located on the fixed frame or the movable window. The sliding doors and windows can be opened and closed wirelessly, and the control panel is provided with the ability of wireless charging, thereby avoiding complex wired connections and improving the convenience of installation and the flexibility of use.

Description

Technical Field

[0001] The present application relates to the field of sliding doors and windows, and in particular to a control method and device for sliding doors and windows. Background Art

[0002] The origin of sliding doors and windows can be traced back to ancient times, but the early sliding doors and windows were simple in design and limited in function. With the advancement of technology and the improvement of people's requirements for quality of life, the design of sliding doors and windows has gradually become more complicated and the functions have become more diversified. In modern buildings, sliding doors and windows have become an indispensable part, and their styles, materials and performance have been greatly improved.

[0003] For a long time, manual operation has been mainly relied on to realize the opening and closing function of sliding doors and windows. Although this operation method is simple and direct, it is not convenient enough in modern life. Especially for the elderly, disabled people or those carrying heavy objects, manual sliding doors and windows may cause inconvenience or even safety hazards. In order to solve the convenience and safety problems of traditional sliding doors and windows, the industry has explored some existing technical solutions. For example, some high-end residences and smart buildings have begun to adopt electric sliding door and window systems, which realize automatic opening and closing of doors and windows through built-in motors and transmission mechanisms. These systems are usually equipped with wired remote controls or smart home system interfaces, allowing users to remotely control the opening and closing status of doors and windows. However, most of these systems rely on wired connections, with high installation and maintenance costs and limited flexibility. In addition, when using electric sliding doors and windows, power is often consumed. Although some electric door and window systems have built-in batteries as backup power sources, they usually do not have automatic charging functions and require users to manually charge them regularly, affecting the convenience of use.

[0004] Therefore, it is necessary to provide a sliding door and window control method and device that can wirelessly drive the opening and closing of sliding doors and windows and wirelessly charge the control panel. Summary of the invention

[0005] In view of this, it is necessary to provide a sliding door and window control method and device that can wirelessly drive the opening and closing of sliding doors and windows and wirelessly charge the control panel to solve the above problems.

[0006] An embodiment of the present application provides a control method for a sliding door and window, the sliding door and window comprising: a fixed frame formed with a slide rail and a movable window driven by a motor to slide along the slide rail, the control method comprising the steps of:

[0007] The first wireless component and the second wireless component are arranged opposite to each other and establish infrared communication and wireless charging induction;

[0008] The power output by the external power source is transmitted to the control panel via wireless transmission of the first wireless component and the second wireless component in sequence;

[0009] The control panel outputs instructions and transmits them to the control unit in sequence via the second wireless component and the first wireless component to control the motor to drive the movable window to slide along the slide rail; wherein the first wireless component is located on the fixed frame, and the second wireless component and the control panel are located on the fixed frame or the movable window.

[0010] In at least one embodiment of the present application, the first wireless component includes: a charging transmitting end connected to the external power supply, and a first infrared end connected to the control unit; the second wireless component includes: a charging receiving end arranged opposite to the charging transmitting end, and a second infrared end connected to the control panel.

[0011] In at least one embodiment of the present application, the charging transmitting end is arranged to be magnetically coupled with the charging receiving end; and the receiving angle of the first infrared end is arranged to be opposite to the divergence angle of the second infrared end.

[0012] In at least one embodiment of the present application, when the second wireless component and the control panel are located on the fixed frame, the fixed frame is divided into a first area and a second area that are continuously spliced, the first wireless component is arranged in the first area, and the second wireless component is arranged in the second area;

[0013] A distance between a first wireless component located in the first area and a second wireless component located in the second area is denoted as L;

[0014] The transmission distance between the charging transmitter and the charging receiver is recorded as X;

[0015] The minimum distance between the charging transmitter and the charging receiver is recorded as X1, and the value range of X1 is 0.5cm-5cm;

[0016] Satisfy the relationship:

[0017] X1≤L≤X.

[0018] In at least one embodiment of the present application, when the second wireless component and the control panel are located on the active window,

[0019] Along the length direction of the slide rail, the fixing frame is marked as a third area, and the first wireless component is arranged in the third area;

[0020] The movable window is divided into a fourth area and a fifth area which are continuously spliced, the third area and the fourth area are connected side by side, the second wireless component is arranged on the movable window, the second wireless component forms a wireless charging induction area in the fourth area, and the second wireless component forms an infrared communication area in the fourth area and the fifth area.

[0021] In at least one embodiment of the present application, along the length direction of the slide rail,

[0022] The distance between the first wireless component and the second wireless component is denoted as D;

[0023] The length of the fourth region is denoted as S1;

[0024] The length of the fifth region is denoted as S2;

[0025] Satisfies the relationship:

[0026] 0<D≤S1+S2.

[0027] In at least one embodiment of the present application, if the active window is closed,

[0028] Along the length direction of the slide rail, the distance between the first wireless component and the second wireless component is recorded as D1;

[0029] The effective transmission distance between the charging transmitter and the charging receiver is denoted as T;

[0030] Satisfies the relationship:

[0031] T1 = S1;

[0032] 0.1cm<D1<S1.

[0033] In at least one embodiment of the present application, if the active window is open,

[0034] Along the length direction of the slide rail, the distance between the first wireless component and the second wireless component is recorded as D3;

[0035] The effective transmission distance between the charging transmitter and the charging receiver is denoted as T;

[0036] The effective communication distance between the first infrared end and the second infrared end is denoted as R;

[0037] 0.1cm≤D3<T, wireless charging works normally;

[0038] 0.1cm≤D3<R, infrared communication function works normally.

[0039] In at least one embodiment of the present application, if the active window is open,

[0040] Along the length direction of the slide rail, the distance between the first wireless component and the second wireless component is recorded as D2, D2 = S ± 0.1 cm;

[0041] The distance between the charging transmitter and the charging receiver is recorded as T1;

[0042] Satisfies the relationship:

[0043] When T1≤S-0.1cm, wireless charging is performed normally;

[0044] When T1≥S+0.1cm, wireless charging is not possible.

[0045] An embodiment of the present application provides a control device for a sliding door and window, the sliding door and window comprising: a fixed frame formed with a slide rail and a movable window that slides along the slide rail under the drive of a motor, the control device comprising:

[0046] a first wireless component;

[0047] The second wireless component is arranged opposite to the first wireless component and establishes infrared communication and wireless charging induction;

[0048] A control unit, used for controlling the motor to drive the movable window to slide along the slide rail;

[0049] A control panel, the power output by the external power supply is transmitted to the control instruction via wireless transmission of the first wireless component and the second wireless component in sequence; the control panel outputs instructions, and transmits them to the control unit via the second wireless component and the first wireless component in sequence, so as to control the motor to drive the movable window to slide along the slide rail; wherein, the first wireless component is located on the fixed frame, and the second wireless component and the control panel are located on the fixed frame or the movable window.

[0050] The control method and device for sliding doors and windows provided above realize the functions of infrared communication and wireless charging induction by arranging the first wireless component fixed on the fixed frame and the second wireless component on the fixed frame or the movable window in a facing relationship. This design not only enables the sliding doors and windows to be opened and closed wirelessly, but also provides the control panel with the ability of wireless charging, thereby avoiding complex wired connections and improving the convenience of installation and flexibility of use. At the same time, by fixing the first wireless component on the fixed frame, and the second wireless component and the control panel on the fixed frame or the movable window, such a layout helps to maintain the stability and reliability of the system, ensuring the effective transmission of wireless signals and the efficient conversion of energy. BRIEF DESCRIPTION OF THE DRAWINGS

[0051] Figure 1 This is a flowchart of a method for controlling sliding doors and windows in an embodiment of the present application.

[0052] Figure 2 This is a schematic diagram of the structure of a control device for a sliding door and window in an embodiment of the present application when it is closed.

[0053] Figure 3 This is a schematic diagram of the structure of a control device for a sliding door and window in an embodiment of the present application when it is opened.

[0054] Figure 4 This is a schematic diagram of the exploded structure of a control device for sliding doors and windows in an embodiment of the present application.

[0055] Figure 5 It is a structural schematic diagram of the first wireless component and the second wireless component being located in a fixed frame in an embodiment of the present application.

[0056] Figure 6 This is a structural diagram of an embodiment of the present application in which the first wireless component is located in a fixed frame and the second wireless component is located in a movable window.

[0057] Figure 7 It is a transmission block diagram of the first wireless component and the second wireless component in the embodiment of the present application.

[0058] Figure 8 It is a structural block diagram of the first area and the second area in the embodiment of the present application.

[0059] Fig. 9 It is a structural block diagram of the third area, the fourth area and the fifth area in the embodiment of the present application.

[0060] Fig.10 It is another structural block diagram of the third area, the fourth area and the fifth area in the embodiment of the present application.

[0061] Main component symbols

[0062] 100. A control method for sliding doors and windows; 10. Fixed frame; 20. Motor; 30. Slide rail; 40. Movable window;

[0063] 200. A control device for sliding doors and windows; 210. A first wireless component; 211. A charging transmitter; 212. A first infrared terminal; 220. A second wireless component; 221. A charging receiver; 222. A second infrared terminal; 230. A control unit; 240. A control panel; 250. An external power supply; 261. A first area; 262. A second area; 263. A third area; 264. A fourth area; 265. A fifth area. DETAILED DESCRIPTION

[0064] The embodiments of the present application will be described below in conjunction with the drawings in the embodiments of the present application. Obviously, the described embodiments are only part of the embodiments of the present application, rather than all the embodiments.

[0065] It should be noted that when a component is considered to be "connected" to another component, it may be directly connected to the other component or there may be a central component at the same time. When a component is considered to be "located on" another component, it may be directly located on the other component or there may be a central component at the same time. The terms "top", "bottom", "upper", "lower", "left", "right", "front", "back", and similar expressions used herein are for illustrative purposes only.

[0066] An embodiment of the present application provides a control method for a sliding door and window, the sliding door and window comprising: a fixed frame formed with a slide rail and a movable window driven by a motor to slide along the slide rail, the control method comprising the steps of:

[0067] The first wireless component and the second wireless component are arranged opposite to each other and establish infrared communication and wireless charging induction;

[0068] The power output by the external power source is transmitted to the control panel via wireless transmission of the first wireless component and the second wireless component in sequence;

[0069] The control panel outputs instructions and transmits them to the control unit in sequence via the second wireless component and the first wireless component to control the motor to drive the movable window to slide along the slide rail; wherein the first wireless component is located on the fixed frame, and the second wireless component and the control panel are located on the fixed frame or the movable window.

[0070] The control method and device for sliding doors and windows provided above realize the functions of infrared communication and wireless charging induction by arranging the first wireless component fixed on the fixed frame and the second wireless component on the fixed frame or the movable window in a facing relationship. This design not only enables the sliding doors and windows to be opened and closed wirelessly, but also provides the control panel with the ability of wireless charging, thereby avoiding complex wired connections and improving the convenience of installation and flexibility of use. At the same time, by fixing the first wireless component on the fixed frame, and the second wireless component and the control panel on the fixed frame or the movable window, such a layout helps to maintain the stability and reliability of the system, ensuring the effective transmission of wireless signals and the efficient conversion of energy.

[0071] Some embodiments of the present application are described in detail below in conjunction with the accompanying drawings. In the absence of conflict, the following embodiments and features in the embodiments can be combined with each other.

[0072] according to Figure 1-Figure 10 In an embodiment of the present application, a control method 100 for a sliding door and window is provided. The sliding door and window comprises: a fixed frame 10 formed with a slide rail 30 and a movable window 40 that slides along the slide rail 30 driven by a motor 20. The control method comprises the following steps:

[0073] S100, the first wireless component 210 and the second wireless component 220 are arranged opposite to each other, and infrared communication and wireless charging induction are established;

[0074] S200, the power output by the external power source 250 is transmitted to the control panel 240 via wireless transmission of the first wireless component 210 and the second wireless component 220 in sequence;

[0075] S300, the control panel 240 outputs instructions, and transmits them to the control unit 230 via the second wireless component 220 and the first wireless component 210 in sequence, so as to control the motor 20 to drive the movable window 40 to slide along the slide rail 30; wherein, the first wireless component 210 is located on the fixed frame 10, and the second wireless component 220 and the control panel 240 are located on the fixed frame 10 or the movable window 40.

[0076] Specifically, step S100: infrared communication is used to transmit control signals to ensure that the instructions are accurately transmitted between the first wireless component 210 and the second wireless component 220. Wireless charging induction is electromagnetic induction charging, and wireless charging supplies power to the control panel 240, provides energy transmission for the control panel 240, avoids the complexity of wired connection, realizes wireless control of sliding doors and windows, and improves the convenience of installation and maintenance.

[0077] Step S200: The energy of the external power source 250 is transmitted wirelessly from the first wireless component 210 to the second wireless component 220, and then the control panel 240 can be continuously charged within the range of the wireless charging induction to ensure its normal operation.

[0078] Step S300: An output instruction is generated on the control panel 240 by using a wireless signal, touch or key, and the output instruction is then transmitted to the control unit 230 through infrared communication between the first wireless component 210 and the second wireless component 220, so that the drive motor 20 drives the movable window 40 to move along the slide rail 30 of the fixed frame 10.

[0079] The first wireless component 210 is fixed on the fixed frame 10, and the first wireless component 210 can be embedded in the fixed frame 10 to ensure its stability and reliability; the second wireless component 220 and the control panel 240 can be located on the fixed frame 10 or the movable window 40, and the second wireless component 220 is embedded in the fixed frame 10 or the movable window 40, which increases the installation flexibility of the second wireless component 220.

[0080] Users can control the opening and closing of the sliding door through a remote control or smartphone APP without manual operation, which improves the convenience of life. At the same time, the wireless charging function ensures that the control panel 240 is always powered, avoiding the trouble of frequent battery replacement.

[0081] In a specific embodiment, the first wireless component 210 includes: a charging transmitting end 211 connected to the external power supply 250, and a first infrared end 212 connected to the control unit 230; the second wireless component 220 includes: a charging receiving end 221 arranged opposite to the charging transmitting end 211, and a second infrared end connected to the control panel 240.

[0082] Specifically, the charging transmitter 211 and the charging receiver 221 are used for wireless charging function, and magnetic field induction transfers energy. The charging transmitter 211 is connected to the external power supply 250, and the charging receiver 221 receives energy and transfers it to the control panel 240. The charging transmitter 211 converts the energy of the external power supply 250 into magnetic field energy to realize wireless energy transmission. The charging receiver 221 receives the magnetic field energy from the charging transmitter 211, and converts it into electrical energy for use by the control panel 240. The first infrared end 212 and the second infrared end are used for infrared communication to realize mutual wireless transmission of signals between the first infrared end and the second infrared end. The first infrared end 212 is connected to the control unit 230, and the second infrared end is connected to the control panel 240. The control panel 240 receives the output command of the control, and transmits the command to the control unit 230 via the second infrared end and the first infrared end 212, thereby driving the motor 20 to open and close the movable window 40. The control unit transmits the signal of the opening and closing status of the movable window to the second infrared end through the first infrared end according to the opening and closing status of the motor-driven movable window. The second infrared end then transmits the signal to the control panel to display the control information to the user. Through wireless infrared communication, the remote control operation of wireless-driven sliding doors and windows can be realized, improving the user experience.

[0083] In a specific embodiment, the charging transmitting end 211 is arranged to be magnetically coupled with the charging receiving end 221; and the receiving angle of the first infrared end 212 is arranged to be opposite to the divergence angle of the second infrared end.

[0084] Specifically, the charging transmitter of wireless charging generates a changing magnetic field through a transmitting coil, and the magnetic field passes through space and is sensed by the charging receiving terminal 221, thereby realizing energy transmission. The degree of magnetic field coupling between the charging transmitter 211 and the charging receiving terminal 221 is affected by many factors, including the physical size, positional relationship, and dielectric properties of the coils. Generally speaking, the closer the distance between the coils, the better the coupling effect; the size and shape of the coils will also affect the distribution of the magnetic field and the coupling efficiency. In this application, the size and shape of the charging transmitter 211 and the charging receiving terminal 221 are designed according to the actual needs of the site.

[0085] Observed from a horizontal angle, the receiving angle is the angle between the edge of the light beam diverged from the first infrared end 212 to the edge of another light beam from the first infrared end 212. The divergence angle is the angle between the edge of the light beam diverged from the second infrared end to the edge of another light beam from the second infrared end. The corresponding setting of the receiving angle and the divergence angle is the alignment method of the antenna or optical element of the transmitting end 222 and the first infrared end 212 in the wireless communication system to ensure the efficiency and stability of signal transmission. The receiving angle is the angle range in which the first infrared end 212 can effectively receive the signal. This angle range depends on the design of the first infrared end 212, such as the directivity of the receiving antenna, the focusing ability of the optical element, etc. The divergence angle is the angle range in which the signal emitted by the second infrared end 222 gradually spreads during the propagation process.

[0086] In the first embodiment, when the second wireless component 220 and the control panel 240 are both located on the fixing frame 10, the fixing frame 10 is divided into a first area 261 and a second area 262 which are continuously connected. The first area 261 and the second area 262 are connected areas at any angle.

[0087] The first wireless component 210 is arranged in the first area 261, and the second wireless component 220 is arranged in the second area 262; the distance between the first wireless component 210 located in the first area 261 and the second wireless component 220 located in the second area 262 is recorded as L; the distance between the first wireless component 210 and the second wireless component 220 is the maximum distance of wireless signal transmission and wireless charging transmission.

[0088] The transmission distance between the charging transmitter 211 and the charging receiver 221 is denoted as X, which represents the maximum distance over which the charging signal can be effectively transmitted. This distance determines the operating range of the system.

[0089] The minimum distance between the charging transmitting terminal 211 and the charging receiving terminal 221 is recorded as X1, and the value range of X1 is 0.5 cm-5 cm; thus, the wireless connection between the charging transmitting terminal 211 and the charging receiving terminal 221 is ensured.

[0090] Satisfying the relationship: X1≤L≤X, the distance L between the second wireless component 220 and the control panel 240 must be between the minimum transmission distance X1 and the maximum transmission distance X. This ensures effective signal transmission while avoiding signal attenuation or loss due to excessive distance.

[0091] In the second embodiment, when the second wireless component 220 and the control panel 240 are located on the movable window 40 , the first wireless component 210 is located on the fixing frame 10 , so as to ensure the wireless connection between the first wireless component 210 and the second wireless component 220 .

[0092] Along the length direction of the slide rail 30, the fixed frame 10 is marked as a third area 263, and the first wireless component 210 is arranged in the third area 263; the third area 263 and the external power supply 250 and the control unit 230 are located on the same fixed frame 10, so that the charging transmitter end 211 of the first wireless component 210 is connected to the external power supply 250, and the first infrared end 212 of the first wireless component 210 is electrically connected to the control unit 230.

[0093] The movable window 40 is divided into a fourth area 264 and a fifth area 265 which are continuously spliced, and the third area 263 and the fourth area 264 are connected side by side, so that the third area 263, the fourth area 264 and the fifth area 265 form a continuous area. The second wireless component 220 is arranged on the movable window 40, and the second wireless component 220 is in the fourth area 264 or the fifth area 265. When the movable window 40 moves to the fourth area 264, the second wireless component 220 is located in the second area 262, and when it moves to the fifth area 265, the second wireless component is located in the fifth area 265. The second wireless component 220 forms a wireless charging induction area in the fourth area 264, and the second wireless component 220 forms an infrared communication area in the fourth area 264 and the fifth area 265.

[0094] In a specific embodiment, along the length direction of the slide rail 30, the distance between the first wireless component 210 and the second wireless component 220 is recorded as D; the distance between the first wireless component 210 and the second wireless component 220 is related to the opening and closing distance between the movable window 40 and the fixed frame 10, and the distance between the first wireless component 210 and the second wireless component 220 is the distance when the movable window 40 is opened to the maximum.

[0095] The length of the fourth area 264 is recorded as S1, and the length of the fifth area 265 is recorded as S2 to ensure that they work in the best position and improve the performance of the overall system. The relationship: 0<D≤S1+S2 is satisfied, which ensures that the distance between the first wireless component 210 and the second wireless component 220 does not exceed the total length (S1+S2) from the active window 40 to the opening, thereby ensuring the effective transmission of the signal. At the same time, signal attenuation or loss due to excessive distance is avoided. The fourth area 264 is the induction area of ​​wireless charging, that is, the effective transmission distance area of ​​the charging transmitter 211 from the first wireless component 210, which is the transmission distance between the charging transmitter 211 and the charging receiver 221.

[0096] In a specific embodiment, when the movable window 40 is closed, since there is always a gap between the movable window 40 and the fixed frame 10 , the distance between the movable window 40 and the fixed frame 10 is 0.1 cm when closed, such that 0.1 cm<D1.

[0097] Along the length direction of the slide rail 30, the distance between the first wireless component 210 and the second wireless component 220 is recorded as D1. The second wireless component 220 is located on the movable frame. When closed, the installation position of the second wireless component is at least set on the side of the edge of the movable window 40 close to the fixed frame 10, so that the signal in the second wireless component 220 can be transmitted or received without hindrance. Signal of the first wireless component 210.

[0098] The effective transmission distance between the charging transmitter 211 and the charging receiver 221 is recorded as T, T=S1. When closed, the charging receiver 221 of the second wireless component 220 moves together with the active window 40 to the fourth area 264, 0.1cm<D1<S1, ensuring the efficiency and stability of wireless charging.

[0099] In a specific embodiment, when the movable window 40 is opened, the distance between the movable window 40 and the edge of the fixed frame 10 is greater than that between the movable window 40 and the edge of the fixed frame 10 when the movable window 40 is opened.

[0100] Along the length direction of the slide rail 30 , the distance between the first wireless component 210 and the second wireless component 220 is recorded as D3. The movement of the movable window 40 drives the movement of the second wireless component 220, so that the distance D3 between the first wireless component 210 and the second wireless component 220 is ≥ 0.1 cm.

[0101] The effective transmission distance between the charging transmitter 211 and the charging receiver 221 is denoted as T. The actual distance between the first wireless component 210 and the second wireless component 220 must satisfy 0.1 cm ≤ D3 < T. Wireless charging operates normally within the range of 0.1 cm ≤ D3 < T.

[0102] The effective communication distance between the first infrared end 212 and the second infrared end is denoted as R. For the first wireless component 210 and the second wireless component 220 of infrared communication, 0.1 cm ≤ D3 < R is satisfied, and the infrared communication function operates normally.

[0103] In a specific embodiment, when the movable window 40 is open, the distance between the first wireless component 210 and the second wireless component 220 along the length direction of the slide rail 30 is recorded as D2, D2 = S ± 0.1 cm, S ± 0.1 cm is the boundary range between the fourth area 264 and the fifth area 265, so that the movable window 40 moves to the end edge of the fourth area 264 at S-0.1 cm, and S + 0.1 cm is the start edge of the fifth area 265;

[0104] In this distance, the distance between the charging transmitter 211 and the charging receiver 221 is recorded as T1. When T1≤S-0.1cm, wireless charging is performed normally; when T1≥S+0.1cm, wireless charging cannot be performed.

[0105] In an embodiment of the present application, a control device 200 for a sliding door and window is provided. The sliding door and window comprises: a fixed frame 10 formed with a slide rail 30 and a movable window 40 that slides along the slide rail 30 driven by a motor 20. The control device comprises:

[0106] A first wireless component 210;

[0107] The second wireless component 220 is arranged opposite to the first wireless component 210 and establishes infrared communication and wireless charging induction;

[0108] A control unit 230, used for controlling the motor 20 to drive the movable window 40 to slide along the slide rail 30;

[0109] The control panel 240 and the power output by the external power supply 250 are transmitted to the control panel 240 via wireless transmission of the first wireless component 210 and the second wireless component 220 in sequence; the control panel 240 outputs instructions, and transmits them to the control unit 230 via the second wireless component 220 and the first wireless component 210 in sequence, so as to control the motor 20 to drive the movable window 40 to slide along the slide rail 30; wherein, the first wireless component 210 is located on the fixed frame 10, and the second wireless component 220 and the control panel 240 are located on the fixed frame 10 or the movable window 40.

[0110] Specifically, the fixed frame 10 is used to frame and fix the movable window 40, so that the movable window 40 can open and close along the slide rail 30 on the fixed frame 10, and the motor 20 is used to drive the movable window 40 to open and close. The first wireless component 210 and the second wireless component 220 realize wireless transmission of control signals through infrared communication to ensure that the instructions are accurately transmitted between the two components; wireless charging induction provides energy transmission to power the control panel 240. The energy of the external power supply 250 is transmitted to the control panel 240 by wireless means, through the wireless transmission of the first wireless component 210 and the second wireless component 220 in sequence, to ensure its normal operation. The output instruction is obtained on the control panel 240, and the output instruction is transmitted to the first wireless component 210 through the wireless communication group on the second wireless component 220, and then the output instruction is transmitted to the control unit 230 electrically connected to the motor 20, so that the control unit 230 controls the operation of the drive motor 20, so that the movable window 40 completes the driving process wirelessly.

[0111] Thus, the control method 100 and device for sliding doors and windows provided above realize the functions of infrared communication and wireless charging induction by arranging the first wireless component 210 fixed on the fixed frame 10 and the second wireless component 220 on the fixed frame 10 or the movable window 40 in a facing relationship. This design not only enables the sliding doors and windows to be opened and closed wirelessly, but also provides the control panel 240 with the ability of wireless charging, thereby avoiding complex wired connections and improving the convenience of installation and flexibility of use. At the same time, by fixing the first wireless component 210 on the fixed frame 10, and the second wireless component 220 and the control panel 240 on the fixed frame 10 or the movable window 40, such a layout helps to maintain the stability and reliability of the system, and ensures the effective transmission of wireless signals and the efficient conversion of energy.

[0112] The above is only an implementation method of the present application. It should be pointed out that a person skilled in the art can make improvements without departing from the inventive concept of the present application, but these improvements are within the scope of protection of the present application.

Claims

1. A method for controlling a sliding door and window, the sliding door and window comprising: A fixed frame having a slide rail and a movable window driven by a motor to slide along the slide rail is formed, wherein the control method comprises the steps of: The first wireless component and the second wireless component are arranged opposite to each other and establish infrared communication and wireless charging induction; The power output by the external power source is transmitted to the control panel via wireless transmission of the first wireless component and the second wireless component in sequence; The control panel outputs instructions and transmits them to the control unit in sequence via the second wireless component and the first wireless component to control the motor to drive the movable window to slide along the slide rail; wherein the first wireless component is located on the fixed frame, and the second wireless component and the control panel are located on the fixed frame or the movable window.

2. The control method for sliding doors and windows according to claim 1, characterized in that: The first wireless component includes: a charging transmitter connected to the external power source, and a first infrared terminal connected to the control unit; The second wireless component includes: a charging receiving end arranged opposite to the charging transmitting end, and a second infrared end connected to the control panel.

3. The control method for sliding doors and windows according to claim 2, characterized in that: The charging transmitting end is arranged to be coupled with the charging receiving end by a magnetic field; The receiving angle of the first infrared end is arranged opposite to the diverging angle of the second infrared end.

4. The control method of sliding doors and windows according to claim 1, characterized in that: When the second wireless component and the control panel are located on the fixing frame, Dividing the fixed frame into a first area and a second area which are continuously spliced, the first wireless component is arranged in the first area, and the second wireless component is arranged in the second area; A distance between a first wireless component located in the first area and a second wireless component located in the second area is denoted as L; The transmission distance between the charging transmitter and the charging receiver is recorded as X; The minimum distance between the charging transmitter and the charging receiver is recorded as X1, and the value range of X1 is 0.5cm-5cm; Satisfy the relationship: X1≤L≤X.

5. The control method for sliding doors and windows according to claim 1, characterized in that: When the second wireless component and the control panel are located on the active window, Along the length direction of the slide rail, the fixing frame is marked as a third area, and the first wireless component is arranged in the third area; The movable window is divided into a fourth area and a fifth area which are continuously spliced, the third area and the fourth area are connected side by side, the second wireless component is arranged on the movable window, the second wireless component forms a wireless charging induction area in the fourth area, and the second wireless component forms an infrared communication area in the fourth area and the fifth area.

6. The control method for sliding doors and windows according to claim 5, characterized in that: Along the length direction of the slide rail, The distance between the first wireless component and the second wireless component is denoted as D; The length of the fourth region is denoted as S1; The length of the fifth region is denoted as S2; Satisfies the relationship: 0<D≤S1+S2.

7. The control method of sliding doors and windows according to claim 6, characterized in that: If the active window is closed, Along the length direction of the slide rail, the distance between the first wireless component and the second wireless component is recorded as D1; The effective transmission distance between the charging transmitter and the charging receiver is denoted as T; Satisfies the relationship: T = S1; 0.1cm<D1<S1.

8. The control method of sliding doors and windows according to claim 6, characterized in that: If the activity window is open, Along the length direction of the slide rail, the distance between the first wireless component and the second wireless component is recorded as D3; The effective transmission distance between the charging transmitter and the charging receiver is denoted as T; The effective communication distance between the first infrared end and the second infrared end is denoted as R; 0.1cm≤D3<T, wireless charging works normally; 0.1cm≤D3<R, infrared communication function works normally.

9. The control method of sliding doors and windows according to claim 6, characterized in that: If the activity window is open, Along the length direction of the slide rail, the distance between the first wireless component and the second wireless component is recorded as D2, D2 = S ± 0.1 cm; The distance between the charging transmitter and the charging receiver is recorded as T1; Satisfies the relationship: When T1≤S-0.1cm, wireless charging is performed normally; When T1≥S+0.1cm, wireless charging is not possible.

10. A control device for a sliding door and window, the sliding door and window comprising: A fixed frame having a slide rail and a movable window driven by a motor to slide along the slide rail is formed, wherein the control device comprises: a first wireless component; The second wireless component is arranged opposite to the first wireless component and establishes infrared communication and wireless charging induction; A control unit, used for controlling the motor to drive the movable window to slide along the slide rail; A control panel, wherein the power output by an external power source is transmitted to the control panel via wireless transmission of the first wireless component and the second wireless component in sequence; the control panel outputs instructions, and transmits them to the control unit via the second wireless component and the first wireless component in sequence, so as to control the motor to drive the movable window to slide along the slide rail; wherein the first wireless component is located on the fixed frame, and the second wireless component and the control panel are located on the fixed frame or the movable window.

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