Light adjusting wall and control system thereof

Abstract

The invention provides a light adjusting wall and a control system thereof. According to the light adjusting wall and the control system thereof, a plurality of light adjusting glass layers are arranged in a placement opening in a stacked mode in the direction perpendicular to a first wall face. The control system is used for controlling whether the dimming glass layer is electrified or not, and when the dimming glass layer is electrified, the light transmittance of the dimming glass layer is reduced, so that the amount of light entering a room is reduced; and when the dimming glass layer is not electrified, the light transmittance of the dimming glass layer is increased, and more light rays are allowed to enter a room. By means of the design, the light adjusting wall can flexibly adjust the light inlet amount according to actual requirements, and different illumination requirements are met.

Description

Technical Field

[0001] The present application relates to the field of curtain walls, and in particular to a light-adjusting wall and a control system thereof. Background Art

[0002] In modern architecture, glass curtain walls are widely used for their aesthetic and transparent qualities. They not only provide expansive views but also effectively utilize natural light, reducing the need for indoor lighting and thus achieving energy conservation and environmental protection. However, traditional or ordinary glass curtain walls have a significant design limitation: they cannot effectively regulate the amount of light entering.

[0003] In practice, light intensity fluctuates with factors such as weather and time of day. On clear days, strong sunlight can penetrate glass curtain walls and directly into a building, causing excessive light and glare, impacting users' visual comfort and work efficiency. On cloudy days or at night, indoor light levels may be insufficient, necessitating additional lighting, which undoubtedly increases energy consumption.

[0004] To address this challenge, some glass curtain wall products with sunshade or reflective features have emerged on the market. However, these products can only partially alleviate the problem of excessive light, without providing flexible and precise control of the amount of light entering. Furthermore, these products are often complex, costly, and difficult to install and maintain, limiting their widespread adoption in practical applications.

[0005] Therefore, developing a new type of glass curtain wall and its control system that can flexibly adjust the amount of light entering according to needs has become a technical problem that needs to be urgently solved in the current construction field. Summary of the Invention

[0006] In view of this, it is necessary to provide a light regulating wall and a control system thereof to solve the problem that the traditional curtain wall cannot effectively regulate the amount of light entering.

[0007] An embodiment of the present application provides a light-adjusting wall, comprising:

[0008] A wall having a first wall surface located indoors and a second wall surface parallel to the first wall surface and located outdoors, wherein a placement opening is formed in the wall, the placement opening communicating with the first wall surface and the second wall surface;

[0009] A plurality of the smart glass layers are stacked in the placement opening along a direction perpendicular to the first wall surface. When the smart glass layers are energized, the transmittance of the smart glass layers decreases. When the smart glass layers are not energized, the transmittance of the smart glass layers increases.

[0010] In at least one embodiment of the present application, the switchable glass layer includes:

[0011] A glass plate is placed in the placement opening, and a plurality of the glass plates are stacked in a direction perpendicular to the first wall surface;

[0012] A dimming film is attached to the surface of the glass plate. When the dimming film is powered on, the light transmittance of the dimming film decreases. When the dimming film is not powered on, the light transmittance of the dimming film increases.

[0013] In at least one embodiment of the present application, the light adjustment wall further includes a plurality of lighting lamps provided on the first wall surface, and the plurality of lighting lamps are arranged around the placement opening.

[0014] In at least one embodiment of the present application, the lighting lamp is a light emitting diode.

[0015] In at least one embodiment of the present application, the light adjustment wall further includes two tempered glass layers, the two tempered glass layers are covered at both ends of the placement opening, and the plurality of dimming glass layers are located between the two tempered glass layers.

[0016] An embodiment of the present application provides a control system, comprising:

[0017] a control component, the control component being electrically connected to a plurality of switchable glass layers simultaneously, the control system allowing the control component to cut off or connect the electrical connection between the control component and any one of the switchable glass layers;

[0018] The control component is electrically connected to a plurality of lighting lamps at the same time, and the lighting lamps allow the control component to cut off or connect the electrical connection between any one of the lighting lamps and the control component;

[0019] A power module is electrically connected to the control component.

[0020] In at least one embodiment of the present application, the control system further includes:

[0021] A light sensor is electrically connected to the control component and is arranged on the first wall.

[0022] In at least one embodiment of the present application, the control system further includes:

[0023] A temperature sensor is electrically connected to the control component, and the light sensor is arranged on the first wall.

[0024] In at least one embodiment of the present application, the control system further includes:

[0025] A display is electrically connected to the control component.

[0026] In at least one embodiment of the present application, the control component is a single chip microcomputer.

[0027] The light-adjusting wall and its control system described above utilize multiple layers of switchable glass stacked perpendicular to the first wall surface within the opening. The control system controls whether the switchable glass layers are powered. When powered, their transmittance decreases, reducing the amount of light entering the room. When powered, their transmittance increases, allowing more light into the room. This design allows the light-adjusting wall to flexibly adjust the amount of light entering based on actual needs, satisfying diverse lighting requirements. BRIEF DESCRIPTION OF THE DRAWINGS

[0028] Figure 1 Structural stereogram of the wall for light adjustment;

[0029] Figure 2 Structural stereogram of the wall for light adjustment;

[0030] Figure 3 Exploded view of the structure of the wall for light conditioning;

[0031] Figure 4 for Figure 1 A magnified view of part A;

[0032] Figure 5 This is a connection diagram for the electrical connection between the control system and the light adjustment wall.

[0033] Description of main component symbols

[0034] 100. Light-adjusting wall; 1. Wall; 11. First wall surface; 12. Second wall surface; 13. Placement port; 2. Dimming glass layer; 21. Glass plate; 22. Dimming film; 3. Lighting lamp; 4. Tempered glass layer; 200. Control system; 201. Control component; 202. Power module; 203. Light sensor; 204. Temperature sensor; 205. Display. DETAILED DESCRIPTION

[0035] 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.

[0036] It should be noted that when a component is considered to be "connected to" another component, it can be directly connected to the other component or there may be an intermediate component. When a component is considered to be "disposed on" another component, it can be directly disposed on the other component or there may be an intermediate component. The terms "top", "bottom", "upper", "lower", "left", "right", "front", "back", and similar expressions used herein are for illustrative purposes only.

[0037] An embodiment of the present application provides a light-adjusting wall, comprising:

[0038] A wall having a first wall surface located indoors and a second wall surface parallel to the first wall surface and located outdoors, wherein a placement opening is formed in the wall, the placement opening communicating with the first wall surface and the second wall surface;

[0039] A plurality of smart glass layers are stacked in the placement opening in a direction perpendicular to the first wall surface, wherein when the smart glass layers are powered, the light transmittance of the smart glass layers decreases, and when the smart glass layers are not powered, the light transmittance of the smart glass layers increases. A control system is provided, comprising:

[0040] a control component, the control component being electrically connected to a plurality of switchable glass layers simultaneously, the control system allowing the control component to cut off or connect the electrical connection between the control component and the switchable glass layers;

[0041] The control component is electrically connected to a plurality of lighting lamps at the same time, and the lighting lamps allow the control component to cut off or connect the electrical connection between the lighting lamps and the control component;

[0042] A power module electrically connected to the control assembly. The light-adjusting wall and its control system are configured by stacking multiple layers of dimming glass perpendicular to the first wall surface within the opening. The control system controls whether the dimming glass layers are powered. When powered, the transmittance decreases, reducing the amount of light entering the room. When powered, the transmittance increases, allowing more light into the room. This design allows the light-adjusting wall to flexibly adjust the amount of light entering based on actual needs, meeting varying lighting requirements.

[0043] The following embodiments of the present application are described in detail with reference to the accompanying drawings. In the absence of conflict, the following embodiments and features therein may be combined with each other.

[0044] See also Figure 1-Figure 5 , an embodiment of the present application provides a light adjustment wall 100, comprising:

[0045] A wall 1 having a first wall surface 11 located indoors and a second wall surface 12 located outdoors and parallel to the first wall surface 11; and a placement opening 13 formed on the wall 1, the placement opening 13 connecting the first wall surface 11 and the second wall surface 12;

[0046] The dimming glass layer 2, wherein multiple dimming glass layers 2 are stacked in the placement opening 13 along a direction perpendicular to the first wall 11, and when the dimming glass layer 2 is energized, the transmittance of the dimming glass layer 2 decreases; when the dimming glass layer 2 is not energized, the transmittance of the dimming glass layer 2 increases.

[0047] Specifically, the wall 1 serves as the basic structure of the light-adjusting wall 100. The wall 1 not only provides the necessary support and protection, but also provides space for the installation of the dimming glass layer 2 by opening a placement opening 13. The parallel design of the first wall 11 and the second wall 12 ensures that the dimming glass layer 2 can evenly and stably receive light from the outside. The placement opening 13 serves as an installation channel for the dimming glass layer 2. The design of the placement opening 13 enables the dimming glass layer 2 to be easily embedded in the interior of the wall 1 while maintaining the overall beauty and integrity of the wall 1. Multiple dimming glass layers 2 are stacked in the placement opening 13 in a direction perpendicular to the first wall 11. The transmittance of the dimming glass layer 2 decreases when power is on, and increases when power is not on. As the core component of the light-adjusting wall 100, the dimming glass layer 2 adjusts the amount of light entering the room by changing its transmittance. When powered, the materials in the switchable glass layer 2 (such as the switchable film 22) undergo chemical reactions or physical changes, resulting in a decrease in light transmittance. When powered off, the materials return to their original state, increasing light transmittance. Stacking multiple switchable glass layers 2 can further increase the flexibility and precision of light adjustment. By adjusting the power supply status of different switchable glass layers 2, a more refined light adjustment effect can be achieved.

[0048] In a specific example, the switchable glass layer 2 includes:

[0049] A glass plate 21 is disposed in the placement opening 13, and a plurality of the glass plates 21 are stacked in a direction perpendicular to the first wall 11;

[0050] The dimming film 22 is attached to the surface of the glass plate 21. When the dimming film 22 is powered, the light transmittance of the dimming film 22 decreases. When the dimming film 22 is not powered, the light transmittance of the dimming film 22 increases.

[0051] Specifically, the glass plate 21 is arranged in the placement opening 13 of the wall 1. Multiple glass plates 21 are stacked in a direction perpendicular to the first wall surface 11 (i.e., the thickness direction of the wall 1). This stacked design not only enhances the structural strength of the dimming glass layer 2, but also provides stable support for the dimming film 22. The glass plate 21, as the base material of the dimming glass layer 2, mainly performs the functions of light transmission and physical support. It allows light to pass through while maintaining the overall structural integrity of the dimming glass layer 2. The dimming film 22 is tightly attached to the surface of the glass plate 21. This bonding method ensures close contact between the dimming film 22 and the glass plate 21, thereby improving the uniformity and stability of the dimming effect. The dimming film 22 is an intelligent material whose transmittance can be switched by power on and power off. When the dimming film 22 is powered on, its internal microstructure changes (such as the arrangement of liquid crystal molecules), causing light to be more scattered or absorbed when passing through, thereby reducing the transmittance. Conversely, when the switchable film 22 is de-energized, its microstructure returns to its initial state, allowing light to pass through more smoothly and increasing its transmittance. The switchable film 22 is the core component for intelligent light regulation. By controlling the power-on and power-off states of the switchable film 22, the transmittance of the switchable glass layer 2 can be flexibly adjusted, achieving precise control of indoor light.

[0052] In a specific example, the light adjustment wall 100 further includes a plurality of lighting lamps 3 disposed on the first wall surface 11 , and the plurality of lighting lamps 3 are disposed around the placement opening 13 .

[0053] Specifically, the lamps 3 are mounted on the first wall 11, which forms the interior portion of the light-adjusting wall 100. Multiple lamps 3 are evenly distributed around the placement opening 13, forming a surround lighting system. This layout ensures that even when the dimming glass layer 2 is dimming the light, the room still receives uniform, soft lighting. In low-light conditions, such as on cloudy days, at night, or when the dimming glass layer 2 is at low transmittance, the lamps 3 provide additional light sources, ensuring ample indoor lighting and meeting the user's lighting needs. By adjusting the brightness and color temperature of the lamps 3, different indoor atmospheres can be created, enhancing user comfort and satisfaction. Compared to traditional lighting methods, the lamps 3 in the light-adjusting wall 100 work in conjunction with the dimming glass layer 2 to achieve more precise light control, thereby reducing unnecessary energy consumption and achieving energy conservation and environmental protection. The lamps 3 in the light-adjusting wall 100 and the dimming glass layer 2 complement and work in synergy. When there is sufficient external light, the dimming glass layer 2 allows an appropriate amount of light to enter the room, while the lamps 3 remain off or at a low brightness to conserve energy. When the external light is insufficient or a specific lighting effect is required, the lighting lamp 3 can be turned on and provide the required light intensity. At the same time, the dimming glass layer 2 can adjust its light transmittance to achieve more flexible light control.

[0054] In one embodiment, the lighting lamp 3 is a light emitting diode.

[0055] Specifically, in the design of the light-adjusting wall 100, choosing light-emitting diodes (LEDs) as the lighting fixtures 3 offers multiple advantages and considerations. LEDs are semiconductor devices that convert electrical energy directly into light. Compared to traditional lighting technologies, LEDs offer many significant advantages, including high energy efficiency, long lifespan, low maintenance costs, and environmental friendliness. LED lighting fixtures 3 are far more energy efficient than traditional lighting technologies, such as incandescent and fluorescent lamps. This means that while providing the same light intensity, LEDs consume less electricity, helping to reduce energy consumption and operating costs. LED lighting fixtures 3 typically have a lifespan of tens of thousands of hours, far exceeding the lifespan of traditional lighting technologies. This means less frequent replacement and lower maintenance costs. LED lighting fixtures 3 have a minimal impact on the environment during production and use. They contain no hazardous substances, such as mercury, and waste disposal is relatively simple. Furthermore, due to their high energy efficiency, LEDs also help reduce greenhouse gas emissions. LED lighting fixtures 3 generally have excellent dimming performance, allowing brightness to be adjusted as needed, enabling more flexible light control. LEDs can emit light in a variety of colors, offering a wide range of possibilities for interior lighting design. The high energy efficiency and environmental friendliness of LEDs help reduce the overall energy consumption and environmental impact of the light-adjusting wall 100. The combination of LED dimming capabilities and the transmittance adjustment function of the dimming glass layer 2 enables more precise and flexible control of indoor light.

[0056] In a specific example, the light adjustment wall 100 further includes two tempered glass layers 4 , which are disposed on both ends of the placement opening 13 , and the plurality of dimming glass layers 2 are located between the two tempered glass layers 4 .

[0057] Specifically, the design of the light-adjusting wall 100 includes, in addition to the core switchable glass layer 2 and lighting 3, two tempered glass layers 4. These two tempered glass layers 4 are strategically placed at either end of the placement opening 13, with multiple switchable glass layers 2 positioned between them. Tempered glass is a specially treated glass with exceptional strength and impact resistance. When impacted, it shatters into numerous small particles rather than sharp fragments, significantly reducing the risk of injury. Furthermore, tempered glass offers excellent light transmittance and heat resistance, ensuring a bright and comfortable indoor lighting environment. The tempered glass layers 4, located at either end of the placement opening 13, provide effective protection for the switchable glass layers 2. They prevent direct impact from external objects, thereby extending the service life of the switchable glass layers 2. The high strength of the tempered glass layers 4 contributes to the overall structural strength of the light-adjusting wall 100. They can withstand greater pressure and loads, ensuring the stability and safety of the light-adjusting wall 100 over long-term use. The tempered glass layer 4 also has certain thermal insulation properties, reducing heat exchange between indoor and outdoor spaces. This helps reduce indoor temperature fluctuations, improving indoor comfort and energy savings. The tempered glass layer 4 has excellent light transmittance, ensuring bright and uniform indoor lighting. It does not block or weaken the light-regulating function of the dimming glass layer 2, but rather works in conjunction with it to achieve intelligent indoor light control.

[0058] An embodiment of the present application provides a control system 200, which includes:

[0059] A control component 201, wherein the control component 201 is electrically connected to multiple switchable glass layers 2 at the same time, and the control system 200 allows the control component 201 to cut off or connect the electrical connection between the control component 201 and any one of the switchable glass layers 2;

[0060] The control component 201 is electrically connected to a plurality of lighting lamps 3 at the same time, and the lighting lamps 3 allow the control component 201 to cut off or connect the electrical connection between any one of the lighting lamps 3 and the control component 201;

[0061] The power module 202 is electrically connected to the control component 201 .

[0062] Specifically, the control component 201 is the core component of the control system 200. It is electrically connected to multiple switchable glass layers 2 and multiple lighting fixtures 3. This design enables the control component 201 to simultaneously control the operating status of multiple switchable glass layers 2 and lighting fixtures 3, achieving comprehensive control over the light-adjusting wall 100. The control component 201 is electrically connected to the switchable film 22 in the switchable glass layer 2. The control system 200 allows the control component 201 to disconnect or reconnect the electrical connection between the control component 201 and the switchable glass layer 2. This means that when the transmittance of the switchable glass layer 2 needs to be adjusted, the control component 201 can send an electrical signal to the switchable film 22 to power it on or off, thereby changing the transmittance. The control component 201 is also electrically connected to multiple lighting fixtures 3. The lighting fixtures 3 allow the control component 201 to disconnect or reconnect the electrical connection between the control component 201 and the control component 201. This means that the control component 201 can control the lighting fixtures 3 to turn on and off, as well as adjust their brightness, to meet different lighting needs. The power module 202 is another key component of the control system 200. It is electrically connected to the control component 201 and provides power to the entire control system 200. The design of the power module 202 ensures that the control component 201 and the dimming glass layer 2 and lighting 3 connected thereto can operate stably and reliably. The power module 202 is usually connected to the building's power system to convert alternating current (AC) into direct current (DC) or AC of a specific voltage suitable for use by the control system 200. The power module 202 has overload protection and short-circuit protection functions to ensure that the control system 200 is not damaged in the event of an abnormal power supply. The functions of the power module 202 can be achieved by a power source such as a battery.

[0063] In a specific example, the control system 200 further includes:

[0064] The light sensor 203 is electrically connected to the control component 201 and is disposed on the first wall 11 .

[0065] Specifically, the light sensor 203 is an electronic component capable of detecting light intensity. It typically consists of a photosensor (such as a photoresistor, photodiode, or phototransistor) and associated circuitry. When light strikes the photosensor, its resistance or current changes, reflecting the light intensity. The light sensor 203 is mounted on the first wall 11 (i.e., an interior wall) and can sense the intensity of light entering the room or through windows in real time. This sensing capability enables the control system 200 to automatically adjust the transmittance of the dimming glass layer 2 and the brightness of the lighting 3 based on current lighting conditions to maintain comfortable and stable indoor lighting. Through an electrical connection to the control component 201, the light sensor 203 transmits the sensed light intensity information to the control component 201. Based on this information, the control component 201 automatically calculates and adjusts the transmittance of the dimming glass layer 2 and the brightness of the lighting 3 to achieve intelligent control. This intelligent control not only improves the automation level of the light-adjusting wall 100 but also ensures that indoor lighting better meets the needs and expectations of users. The light sensor 203 can sense and respond to changes in light intensity in real time, thereby maintaining a comfortable and stable indoor light level, which helps reduce eye fatigue and discomfort for users and improves their work and life quality.

[0066] In a specific example, the control system 200 further includes:

[0067] The temperature sensor 204 is electrically connected to the control component 201 , and the light sensor 203 is disposed on the first wall 11 .

[0068] Specifically, the temperature sensor 204 is an electronic component capable of detecting and converting temperature signals into electrical signals. It typically consists of a thermal element (such as a thermistor, thermocouple, or pyroelectric element) and related circuitry. When the ambient temperature changes, the resistance value or current of the thermal element changes, reflecting the temperature change. The temperature sensor 204 is installed in the space where the light-adjusting wall 100 is located (which may be indoors or outdoors, depending on the application requirements) and can sense and provide feedback on the ambient temperature in real time. This sensing capability enables the control system 200 to automatically adjust the light transmittance of the dimming glass layer 2, the brightness of the lighting 3, and any heating or cooling equipment based on the current ambient temperature to maintain a comfortable and stable indoor temperature. Through an electrical connection to the control component 201, the temperature sensor 204 transmits the sensed temperature information to the control component 201. Based on this information, combined with data from the light sensor 203, the control component 201 automatically calculates and adjusts various parameters of the indoor environment to achieve intelligent control. This intelligent control not only improves the automation level of the light-adjusting wall 100 but also makes the indoor environment more in line with the needs and expectations of users. Temperature sensor 204 can sense and respond to changes in ambient temperature in real time, maintaining a comfortable and stable indoor temperature. This helps reduce user discomfort and improves the quality of work and life. By intelligently controlling various parameters of the indoor environment, temperature sensor 204 can automatically adjust the operation of heating or cooling equipment based on current environmental conditions, thereby reducing unnecessary energy consumption. This helps reduce operating costs and is environmentally friendly.

[0069] In a specific example, the control system 200 further includes:

[0070] The display 205 is electrically connected to the control component 201 .

[0071] Specifically, the display 205 is an electronic device that converts electrical signals into visual images. It typically consists of a display screen, control circuitry, and interface circuitry. The display screen can be a liquid crystal display (LCD), an organic light-emitting diode (OLED), or other types of display screens. When the control component 201 sends electrical signals to the display 205, the display 205 displays corresponding images or information based on these signals. The display 205 can display real-time status information of the control system 200, such as the current light intensity, temperature, transmittance of the dimming glass layer 2, and the brightness of the lighting 3. This information is very important to the user, as it helps them understand the current indoor environment and make appropriate adjustments. The display 205 also serves as the operating interface for the control system 200. The user can operate the control system 200 using buttons, a touch screen, or other input devices on the display 205, such as adjusting the transmittance of the dimming glass layer 2 or controlling the on / off and brightness of the lighting 3. This operation method is not only convenient and fast, but also improves the usability of the control system 200. If the control system 200 experiences a malfunction or abnormality, the display 205 can also display corresponding alarm information. This information is crucial for users, as it helps them promptly identify and address faults, ensuring the proper operation of the control system 200. The display 205 intuitively displays the status information and user interface of the control system 200, allowing users to easily understand and control the status of the system 200. The display 205 provides a user-friendly interface and a rich selection of features, allowing users to quickly and easily operate the control system 200. With the continuous advancement of technology, the functionality and performance of the display 205 are also constantly improving. In the future, the display 205 may integrate more intelligent features, such as voice recognition and gesture control, making the operation of the control system 200 even more convenient and intelligent. In the control system 200 of the light-adjusting wall 100, the display 205 and the control component 201 work closely together. The control component 201 is responsible for receiving and processing information from sensors such as the light sensor 203 and temperature sensor 204, and calculating corresponding control instructions based on this information. The control component 201 then transmits these instructions to the display 205 and other actuators (such as the dimming glass layer 2 and the lighting fixtures 3), achieving intelligent control of the indoor environment. At the same time, the display 205 will also display the status information and operation interface of the control system 200 in real time, providing the user with intuitive operation feedback and information display.

[0072] In one embodiment, the control component 201 is a single chip microcomputer.

[0073] Specifically, a single-chip microcomputer (MCU), also known as a single-chip microcontroller, is an integrated circuit chip that integrates key functions such as a central processing unit (CPU), memory, input / output ports (I / O ports), timers / counters, and an interrupt system onto a single silicon wafer, forming a complete microcomputer system. Compared to general-purpose computers, MCUs lack I / O devices such as a keyboard and display 205. However, they offer advantages such as small size, light weight, low price, and ease of integration, making them ideally suited for embedded systems and intelligent control. By integrating the main functions of a computer onto a single chip, MCUs significantly reduce the size of the entire control system 200 while improving system reliability and stability. MCUs feature a rich set of I / O port resources, timers / counters, and interrupt systems, enabling precise control of multiple peripherals and meeting the demands of complex control tasks. Modern MCUs generally utilize low-power designs, enabling the entire control system 200 to maintain high performance while reducing energy consumption and extending battery life. MCUs typically support multiple programming languages, such as C and assembly language, and possess a wide range of peripheral interfaces and expansion capabilities, making them easy for developers to customize and develop systems based on specific needs. With its low price and powerful functionality, the single-chip microcomputer (MCU) has become a highly cost-effective control component 201 in smart homes, automated control, and other fields. The MCU connects to peripherals such as light sensors 203 and temperature sensors 204 via I / O ports, collecting, processing, and analyzing environmental data in real time. Based on the collected data and environmental requirements, the MCU generates corresponding control instructions, such as adjusting the transmittance of the dimming glass layer 2 or controlling the brightness of the lighting 3. The MCU communicates with peripherals such as the display 205 and remote control via communication interfaces such as serial ports, I2C, and SPI, enabling information display and remote control. The MCU has powerful self-test and fault handling capabilities, enabling timely detection and resolution of system faults, ensuring the normal operation of the control system 200.

[0074] The above is only an implementation method of the present application. It should be pointed out that for ordinary technicians in this field, improvements can be made without departing from the creative concept of the present application, but these all fall within the scope of protection of the present application.

Claims

1. A light adjustment wall, characterized in that: include: A wall having a first wall surface located indoors and a second wall surface parallel to the first wall surface and located outdoors, wherein a placement opening is formed in the wall, the placement opening communicating with the first wall surface and the second wall surface; A plurality of the smart glass layers are stacked in the placement opening along a direction perpendicular to the first wall surface. When the smart glass layers are energized, the transmittance of the smart glass layers decreases. When the smart glass layers are not energized, the transmittance of the smart glass layers increases.

2. The light adjustment wall according to claim 1, characterized in that: The dimming glass layer includes: A glass plate is placed in the placement opening, and a plurality of the glass plates are stacked in a direction perpendicular to the first wall surface; A dimming film is attached to the surface of the glass plate. When the dimming film is powered on, the light transmittance of the dimming film decreases. When the dimming film is not powered on, the light transmittance of the dimming film increases.

3. The light adjustment wall according to claim 1, characterized in that: The light adjustment wall further includes a plurality of lighting lamps arranged on the first wall surface, and the plurality of lighting lamps are arranged around the placement opening.

4. The light adjustment wall according to claim 3, characterized in that: The lighting lamp is a light emitting diode.

5. The light adjustment wall according to claim 1, characterized in that: The light adjustment wall further comprises two tempered glass layers, the two tempered glass layers are covered at both ends of the placement opening, and the plurality of dimming glass layers are located between the two tempered glass layers.

6. A control system, applied to the light-adjusting wall according to any one of claims 1 to 5, characterized in that: The control system includes: a control component, the control component being electrically connected to a plurality of switchable glass layers simultaneously, the control system allowing the control component to cut off or connect the electrical connection between the control component and any one of the switchable glass layers; The control component is electrically connected to a plurality of lighting lamps at the same time, and the lighting lamps allow the control component to cut off or connect the electrical connection between any one of the lighting lamps and the control component; A power module is electrically connected to the control component.

7. The control system according to claim 6, characterized in that: The control system further comprises: A light sensor is electrically connected to the control component and is arranged on the first wall.

8. The control system according to claim 7, characterized in that: The control system further comprises: A temperature sensor is electrically connected to the control component, and the light sensor is arranged on the first wall.

9. The control system according to claim 6, characterized in that: The control system further comprises: A display is electrically connected to the control component.

10. The control system according to claim 6, characterized in that: The control component is a single chip microcomputer.

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