Shower room frame light control method and frame thereof

Abstract

The present application relates to a shower room frame light control method and frame thereof, and relates to the technical field of shower room frame, which comprises the following steps: collecting internal detection parameters of the shower room, frame specifications corresponding to the shower room frame, light emitting component specifications corresponding to the light emitting components preset in the shower room frame, and manual adjustment instructions of the user; determining light atmosphere parameters according to the internal detection parameters, the manual adjustment instructions and the light emitting component specifications; determining light intensity parameters in combination with the frame specifications and the light emitting component specifications; determining light control information in combination with the light atmosphere parameters and the light intensity parameters; controlling the operation of two groups of light emitting components preset in the shower room frame according to the light control information, so that the two groups of light emitting components preset in the shower room frame output matching light and perform spatial intersection, superposition and fusion in the ice crack glass layer preset in the shower room frame. The present application has the effect of meeting the needs of high-end consumers for the bathroom space, which is not easy to cause aesthetic fatigue and rich experience.

Description

Technical Field

[0001] This invention relates to the field of shower enclosure frame technology, and in particular to a shower enclosure frame lighting control method and the frame thereof. Background Technology

[0002] In shower enclosure frame technology, the shower enclosure frame is the core structural component used to support, fix, and seal the glass partition of the shower enclosure in the bathroom space. Its main application areas cover modern bathroom manufacturing, smart homes, interior decoration, and the architectural hardware industry.

[0003] Currently, traditional shower enclosure frames are mostly made of aluminum alloy or stainless steel profiles. In order to enhance the atmosphere of the bathroom space and solve the problem of insufficient local lighting in enclosed shower enclosures, LED light-emitting components or light sources are used as auxiliary lighting outline decorations on the edges of the glass, which to a certain extent meet the basic lighting needs and achieve a certain decorative effect.

[0004] Currently, the light-emitting components or glass on traditional shower enclosure frames typically only achieve basic "on" and "off" functions, or only have a single static color. The light distribution often lacks three-dimensionality and artistic aesthetics, failing to create a unique visual impact and failing to meet the aesthetic pursuits of high-end consumers for bathroom spaces. This leads to problems such as aesthetic fatigue and a monotonous experience for users over long-term use. Summary of the Invention

[0005] To meet the needs of high-end consumers for bathroom spaces that do not easily cause aesthetic fatigue and provide a richer experience, this invention provides a shower room frame lighting control method and its frame.

[0006] In a first aspect, the present invention provides a method for controlling the lighting of a shower room frame, which adopts the following technical solution: A method for controlling the lighting in a shower enclosure frame includes: Collect internal testing parameters of the shower room, the frame specifications corresponding to the shower room frame, the specifications of the light-emitting components corresponding to the light-emitting components preset in the shower room frame, and the user's manual adjustment commands; The lighting atmosphere parameters are determined based on internal testing parameters, manual adjustment instructions, and the specifications of the light-emitting components. Determine the light intensity parameters by combining the frame specifications and the specifications of the light-emitting components; The lighting control information is determined by combining the lighting atmosphere parameters and the lighting intensity parameters; Based on the lighting control information, the two sets of light-emitting components preset in the shower room frame are controlled to operate, so that the two sets of light-emitting components preset in the shower room frame output matching light and spatially converge and superimpose within the ice crack glass layer preset in the shower room frame.

[0007] By adopting the above technical solution, the lighting atmosphere parameters and light intensity parameters are determined by collecting and analyzing internal detection parameters, manual adjustment commands, and specifications of the light-emitting components. Then, the lighting control information is combined to control the operation of two sets of light-emitting components within the shower enclosure frame, thereby emitting light of different colors and brightness. This light is then blended within the cracked glass to create a personalized light and shadow atmosphere and dynamic rhythmic atmosphere that highly matches the current bathing environment and user needs. This gives the static glass frame rich visual tension, satisfying the needs of high-end consumers for a bathroom space that is less prone to aesthetic fatigue and offers a richer experience.

[0008] This satisfies the needs of high-end consumers for bathroom spaces that are less prone to aesthetic fatigue and offer a richer experience.

[0009] Optional methods for determining lighting atmosphere parameters include: The instruction type is retrieved based on the manual adjustment command; When the instruction type is a preset fixed adjustment type, the user's desired atmosphere parameters are retrieved based on the manual adjustment instruction, and the user's desired atmosphere parameters are used as the lighting atmosphere parameters. When the instruction type is the preset adaptive adjustment type, the water flow temperature parameter, sound parameter, and water flow velocity parameter are retrieved based on the internal detection parameters. The light intensity signal is determined based on the water flow velocity parameters; The warm and cool color tone light signals are determined by combining water flow velocity parameters and water flow temperature parameters; Dynamic light signals are determined by combining water flow velocity parameters and sound parameters; By combining light intensity signals, warm and cool color tone light signals, and dynamic light signals, the environmental atmosphere parameters are determined, and these environmental atmosphere parameters are used as the lighting atmosphere parameters.

[0010] By adopting the above technical solution, the user can manually adjust the lighting environment by selecting the desired lighting type. When the instruction type is a fixed adjustment type, the user's desired atmosphere parameters are determined and used as the lighting atmosphere parameters, allowing the user to customize the lighting and increasing the interactive experience. When the instruction type is an adaptive adjustment type, internal detection parameters such as water temperature, sound, and water flow rate are retrieved to determine the light intensity signal, warm / cool tone light signal, and dynamic light signal. These are then combined to determine the desired environmental atmosphere parameters, which are then used as the lighting atmosphere parameters. This allows the lighting atmosphere to adapt to the bathroom environment while the user is bathing, thus overcoming the rigidity and monotony of fixed dimming modes. The resulting interplay of light and shadow with water flow and ambient sound enhances the intelligence and sensory enjoyment of the bathroom space.

[0011] Optional methods for determining warm and cool hue light signals include: Initial water temperature parameters are retrieved based on water flow temperature parameters; The water flow start time and water flow velocity value are retrieved based on the water flow velocity parameters. Determine the starting reference value by combining the water flow start time and water flow velocity; When the start reference value is within the preset water flow start reference range and the initial water temperature parameter is lower than the preset comfort temperature threshold, a water temperature preheating command is determined. The real-time temperature difference ratio is determined based on the water temperature preheating command and water flow temperature parameters; The preheating gradient light signal is determined based on the real-time temperature difference ratio, and the preheating gradient light signal is used as the warm and cool color tone light signal.

[0012] By adopting the above technical solution, the initial water temperature parameter and the start-up reference value are obtained by retrieving the water flow temperature parameter and the water flow velocity parameter from the internal detection parameters. When the start-up reference value is within the water flow reference range and the initial water temperature parameter is lower than the comfort temperature threshold, the water temperature preheating command is determined. The real-time temperature difference ratio is determined in combination with the water flow temperature parameter. The preheating gradient light signal is determined by the real-time temperature difference ratio and used as the warm and cool color tone light signal, so that the warm and cool color tone of the light follows the water temperature change, which can alleviate the aesthetic fatigue of users during long-term use.

[0013] Optional methods for determining dynamic light signals include: Determine the water flow noise parameters and steady-state background light signal based on the water flow velocity parameters; Environmental mixed audio parameters are obtained by separating sound parameters from water flow noise parameters; Determine the target music parameters based on the ambient mixed audio parameters; Determine the rhythmic light signal based on the target music parameters; The overall light effect signal is determined by combining the steady-state background light signal and the rhythmic light signal, and the overall light effect signal is used as the dynamic light signal.

[0014] By employing the above technical solution, a steady-state background light signal is determined from the water flow velocity parameters, and water flow noise parameters are collected from it. These noise parameters are then separated from the sound parameters to obtain environmental mixed audio parameters, which are used to determine the target music parameters. Based on the target music parameters, a rhythmic light signal is then determined. Combining the steady-state background light signal and the rhythmic light signal to determine a comprehensive light effect signal serves as the dynamic light signal. This allows the light's frequency of change to match the rhythm of the music and the water flow speed, enabling the light to change synchronously with the sound, significantly enhancing the intelligent interactive quality of the sound-light linkage.

[0015] Optionally, after including environmental requirement atmosphere parameters as lighting atmosphere parameters, the following may also be included: The system retrieves the lighting operation information and ambient light intensity of the shower room based on internal detection parameters. Determine the day and night environment by combining lighting operation information and ambient light intensity. When the day and night environment is the preset daytime environment, the daytime compensation coefficient is determined according to the spatial ambient light. The daytime light intensity signal is determined by compensating the light intensity signal based on the daytime compensation coefficient. The environmental demand and atmosphere parameters are updated and replaced based on daytime light intensity signals; When the day and night environment is the preset night environment, the night compensation coefficient is determined based on the lighting operation information and the ambient light of the space. Compensate the light intensity signal and the warm / cool color tone light signal based on the nighttime compensation coefficient to determine the nighttime light intensity signal and the nighttime warm / cool color tone light signal; The environmental atmosphere parameters are updated and replaced based on nighttime light intensity signals and nighttime warm and cool color tone light signals.

[0016] By employing the above technical solution, the system collects information on the shower room's lighting operation and ambient light intensity. Based on internal detection parameters, it determines the day / night environment and identifies whether it is a daytime or nighttime environment. In a daytime environment, it collects ambient light data to determine a daytime compensation coefficient to compensate for the light intensity signal and replaces the ambient atmosphere parameters. In a nighttime environment, it collects a nighttime compensation coefficient to compensate for the light intensity and warm / cool color tone light signals and replaces the desired ambient atmosphere. This aligns with the body's circadian rhythm and visual perception differences, effectively avoiding glare from bright, cool light and creating a soft, warm atmosphere, providing users with a healthy and comfortable bathing experience that is ergonomic and suitable for all-day use.

[0017] Optionally, methods for determining lighting atmosphere parameters also include: Human distance parameters are retrieved based on internal detection parameters; When the human body distance parameter is within the preset far field range, the sleep light information is determined based on the human body distance parameter, and the sleep light information is used as the lighting atmosphere parameter. When the human body distance parameter is within the preset near-field range, the change ratio is determined based on the human body distance parameter; The intensity of dynamic change is determined based on the change ratio, light intensity signal, and warm / cool color tone light signal; The dynamic light signal is determined based on the dynamic intensity, and the dynamic light signal is used as a lighting atmosphere parameter. When the human body distance parameter is within the preset internal range, jump to execute the instruction type retrieved based on the manual adjustment command.

[0018] By employing the above technical solution, the system retrieves human body distance parameters to determine whether the human body is within a preset far-field, near-field, or inner-field range. When determined to be in the preset far-field range, it identifies dormant light information and uses it as a lighting atmosphere parameter, effectively reducing ineffective energy consumption. When determined to be in the near-field range, it determines the change ratio and adjusts the dynamic intensity based on the change ratio, light intensity signal, and warm / cool color tone light signal, so that the lighting effect dynamically changes as the human body approaches, creating a highly ritualistic experience for the user. When determined to be in the inner-field range, it jumps to execute a command type based on manual adjustment instructions. This allows the system to quickly switch to a fixed custom atmosphere or an adaptive atmosphere based on water and sound parameters after the user enters the bathing area, enhancing the convenience and interactivity of the bathing experience.

[0019] Optionally, after controlling the operation of the two sets of light-emitting components preset within the shower enclosure frame based on the light control information, the system also includes: Human dwell time and humidity parameters are retrieved based on internal detection parameters; When the human body stay time parameter is less than the preset human body stay time range, the human body departure time parameter is determined; When the humidity parameter reaches the preset cleaning threshold and the human body distance parameter is in the preset far-field range and the human body departure time parameter is in the preset near-field range, an automatic cleaning command is determined. The operating range parameters are determined based on the automatic cleaning instructions and the frame specifications; Determine the operating frequency parameters by combining the frame specifications and water flow velocity parameters; The cleaning control information is determined by combining the operating range parameters and operating frequency parameters, and the cleaning control information is output to the cleaning brush preset on the shower room frame for cleaning water droplets and water mist.

[0020] By employing the above technical solution, the human body stay time parameter is determined by collecting human body stay time parameters and preset human body stay time intervals. An automatic cleaning command is triggered when the humidity and human body departure time parameters reach preset values. Based on the automatic cleaning command, frame specifications, and water flow rate parameters, the operating range and frequency parameters are obtained, and cleaning control information is determined. The cleaning control information is used to control the cleaning brushes preset on the shower enclosure frame to remove water droplets and mist, ensuring the long-lasting cleanliness of the shower enclosure's appearance and the perfect presentation of the lighting.

[0021] Optionally, after acquiring the internal detection parameters, it also includes When the water flow temperature parameter exceeds the preset water flow temperature range, it is determined to be a water flow over-temperature parameter; When the human body dwell time parameter exceeds the preset human body dwell time range, the human body dwell timeout parameter is determined; The abnormal state value is determined by combining the water flow overheating parameter and the human body residence time parameter; When the abnormal state value reaches the preset safety warning threshold, the high-frequency flashing light signal is determined based on the water flow over-temperature parameter; The warning color signal is determined based on the human body's dwell time parameters; The warning light parameters are determined by combining the high-frequency flashing light signal and the warning color signal, and the warning light parameters are output to issue a warning.

[0022] By adopting the above technical solution, the water flow temperature is referenced to a preset water flow temperature range to obtain the water flow overheating parameter. When the human body residence time parameter exceeds the preset human body residence time range, the human body residence timeout parameter is determined, and combined with the water flow overheating parameter, an abnormal state value is determined. When the abnormal state value reaches the preset safety warning threshold, a high-frequency flashing light signal and a warning color signal are determined based on the water flow overheating parameter and the human body residence timeout parameter, and output as warning light parameters for early warning. This ensures that users can immediately perceive potential dangers such as high-temperature fainting and take cessation measures, significantly reducing the incidence of accidental injuries in the enclosed bathroom environment.

[0023] Optionally, methods for determining lighting control information include: Target fusion color parameters are retrieved based on lighting atmosphere parameters; Based on the frame specifications, retrieve the spacing parameters of the light-emitting components on the opposite sides and the glass dielectric conduction parameters; The offset color mixing ratio information is determined by combining the target fusion color parameters, the spacing parameters of the opposite side light-emitting components, and the glass medium conduction parameters. The allocation signals for the first and second side light-emitting components are determined based on the hedging color mixing ratio information. The intersection light emission control information is determined by combining the allocation signal of the first side light emission component, the allocation signal of the second side light emission component, and the light intensity parameters, and the intersection light emission control information is used as the light control information.

[0024] By employing the above technical solution, the target fusion color parameters are retrieved through lighting atmosphere parameters, and the spacing parameters of the opposite-side light-emitting components and the glass medium conduction parameters are retrieved through frame specifications. Combining the target fusion color parameters, the spacing parameters of the opposite-side light-emitting components, and the glass medium conduction parameters, the offset color mixing ratio information is determined, and signals are allocated to the first-side light-emitting component and the second-side light-emitting component, respectively. Furthermore, combining the allocated signals with the light intensity parameters, the convergence light emission control information is determined and used as the lighting control information, thereby comprehensively improving the color saturation and overall space integration quality of the shower room lighting system.

[0025] Secondly, the present invention provides a shower room frame, which adopts the following technical solution: A shower enclosure frame, comprising: Several glass panels are installed to form a shower space; The glass panel includes: a first outer glass panel; The second outer glass is disposed on one side of the first outer glass, and is parallel to and spaced apart from the first outer glass; An ice-cracked glass layer is sandwiched between the first outer glass and the second outer glass. The side edge of the ice-cracked glass layer is recessed inward and lower than the side edges of the first outer glass and the second outer glass. The side end face of the ice-cracked glass layer together with the inner wall of the first outer glass and the inner wall of the second outer glass to form a side notch. The light-emitting components are vertically disposed in the side recess, with two sets arranged opposite each other and both facing the side end face of the ice-cracked glass layer; A fastener is used to clamp and fix the first outer glass, the ice-cracked glass layer, and the second outer glass.

[0026] By adopting the above technical solution, the ice-cracked glass layer is sandwiched between the first outer glass and the second outer glass, and its side edge is recessed inward to form a side notch. The light-emitting component can be vertically hidden in the side notch and emit light towards the side end face of the ice-cracked glass layer. This allows the light to be fully refracted and converged inside the ice-cracked glass layer. Combined with the changes in light effect, this further breaks the monotony of traditional shower rooms and greatly improves the structural safety of the product and the immersive bathing experience for users.

[0027] In summary, the present invention has at least one of the following beneficial technical effects: 1. By recessing the ice-cracked glass layer inward to form a side notch, the light-emitting components are hidden, allowing light to be deeply refracted and blended inside the flat glass interlayer, achieving visual tension. At the same time, it integrates water flow temperature and speed, audio rhythm and day and night ambient lighting, so that the color, intensity and rhythm of light and shadow resonate with the bathing environment, solving the problems of aesthetic fatigue and monotonous experience for users in long-term use. 2. By monitoring abnormal conditions such as water temperature exceeding the limit and human body staying in the water for an extended period of time in real time, the system forces high-frequency flashing and high-saturation warning colors to provide strong visual intervention, thus building a reliable safety barrier for users. 3. Based on the initial water flow rate and frame specifications, the operating frequency and range are adaptively calculated, and the cleaning brush is automatically driven to remove water droplets and mist from the glass surface, maintaining the optical purity of the outside for a long time and ensuring the perfect presentation of light refraction and color mixing effects. Attached Figure Description

[0028] Figure 1 This is a structural diagram of the shower enclosure frame; Figure 2 yes Figure 1 Enlarged view of part A in the middle; Figure 3This is a flowchart illustrating the method for controlling the lighting in a shower enclosure frame.

[0029] The parts referred to by the numbers in the above attached figures are as follows: 1. Glass panel; 2. First outer glass; 3. Second outer glass; 4. Cracked glass layer; 5. Light-emitting component; 6. Fixture; 7. Side notch. Detailed Implementation

[0030] The present invention will now be described in further detail with reference to the accompanying drawings and embodiments.

[0031] Reference Figure 1 and Figure 2 This invention discloses a shower room frame, which includes several glass panels 1, and the glass panels 1 are spliced ​​together to form a shower room.

[0032] Reference Figure 1 and Figure 2 The glass panel 1 includes a first outer glass panel 2, a second outer glass panel 3, a cracked glass layer 4, a light-emitting component 5, and a fixing element 6. The first outer glass panel 2 and the second outer glass panel 3 serve as physical separation surfaces of the shower space, and are parallel to each other and spaced apart by a predetermined distance. The dimensions of the first outer glass panel 2 and the second outer glass panel 3 are identical, and the material is optical-grade glass with high light transmittance.

[0033] Reference Figure 1 and Figure 2 The ice-cracked glass layer 4 is sandwiched between the first outer glass 2 and the second outer glass 3. The top and side edges of the ice-cracked glass layer 4 are recessed inward, so that the height and width of the ice-cracked glass layer 4 are lower than the edges of the first outer glass 2 and the second outer glass 3. The side end face of the ice-cracked glass layer 4 and the inner walls of the two outer glass surfaces together form a hidden side notch 7.

[0034] Reference Figure 1 and Figure 2 Two sets of light-emitting components 5 are arranged opposite each other and are vertically embedded in the side recesses 7. The light-emitting surface of the light-emitting component 5 is close to and faces the end face of the ice-cracked glass to ensure that the light can enter the ice-cracked glass layer 4 from the side edge to the maximum extent for refraction and superposition. The light-emitting component 5 can be an LED light strip.

[0035] Reference Figure 1 and Figure 2 The fastener 6 is used to clamp and fix the first outer glass 2, the ice-cracked glass layer 4, and the second outer glass 3. In this embodiment, the fastener 6 is U-shaped, and there are four fasteners 6 in total. Adjacent fasteners 6 abut against each other, thereby completely fixing each end face of the first outer glass 2, the second outer glass 3, and the ice-cracked glass layer 4.

[0036] Reference Figure 3 Based on the same inventive concept, embodiments of the present invention provide a shower room frame lighting control method, applied to the above-mentioned shower room frame, comprising: S100: Collects internal detection parameters of the shower room, the frame specifications corresponding to the shower room frame, the specifications of the light-emitting components 5 preset in the shower room frame, and the user's manual adjustment commands.

[0037] Among them, the internal detection parameters refer to the data set of the internal environmental status, water flow status and user behavior status of the shower room. The internal detection parameters include water flow temperature parameters, water flow velocity parameters, sound parameters, light operation information, human body distance parameters, human body dwell time parameters, humidity parameters and ambient light intensity.

[0038] Water flow temperature parameter refers to the real-time temperature of the shower water flowing through the shower enclosure's water system. This parameter is acquired by a temperature sensor installed on the shower enclosure's water system. Water flow velocity parameter refers to the speed or volume of water flow during the shower, acquired by a flow sensor installed on the shower enclosure's water system.

[0039] Sound parameters refer to the real-time acoustic frequencies inside and around the shower room, which are acquired through an audio microphone mounted on the shower room frame. Lighting operation information refers to the real-time on / off status of the light-emitting component 5, which is obtained by reading the operation log or feedback circuit inside the control component.

[0040] The control component refers to the core processing unit of the shower room system. It includes a microprocessor, memory, and related peripheral circuits. It is used to receive detection data from sensors and user input commands, and to perform logical operations and output control signals according to preset algorithms.

[0041] The human body distance parameter refers to the real-time physical distance between the user's body and the glass panel 1, which is collected by an infrared detector installed on the shower enclosure frame. The human body dwell time parameter refers to the time span during which the user enters and remains in the shower space, which is collected by an infrared detector installed on the frame body and obtained through logical calculations by the control components.

[0042] Humidity refers to the moisture content of the air in the shower space, which is collected by a humidity detector installed in the shower room. Ambient light intensity refers to the overall brightness of the external bathroom space surrounding the shower room, which is collected by a photosensor installed on the exterior of the frame.

[0043] The frame specifications refer to the data set of physical dimensions, structural spatial attributes, and material optical properties of each component in the shower enclosure frame. Frame specifications include the spacing parameters between opposite light-emitting components and the glass dielectric conductivity parameters. These specifications are obtained either pre-fixed before product shipment or manually entered through component input during initial installation and commissioning. The spacing parameters between opposite light-emitting components refer to the physical straight-line distance between two sets of light-emitting components 5 positioned relative to each other within the recesses 7 on both sides of the cracked glass layer 4, obtained through pre-shipment calibration and calibration of the frame's physical structure. The glass dielectric conductivity parameters are numerical values ​​characterizing the optical and physical properties of the first outer glass 2, the second outer glass 3, and the intermediate cracked glass layer 4. These parameters are obtained through experimental test data of the selected glass material.

[0044] The specifications of the light-emitting components refer to the set of data related to the hardware performance and optical attributes of the light-emitting components 5 within the shower enclosure frame, such as maximum luminous intensity and color adjustment range. These specifications are obtained through hardware performance calibration before shipment.

[0045] Manual adjustment commands refer to a set of real-time operation commands issued by the user according to their personal needs to control different types of operating states of the five lighting components. Manual adjustment commands include command type and user-required ambient parameters. Command type refers to the category of lighting control mode selected by the user, acquired through an input component located on one side of the shower enclosure frame that receives the user's interactive operation signals.

[0046] S101: Determine the lighting atmosphere parameters based on internal detection parameters, manual adjustment instructions, and the specifications of the light-emitting components.

[0047] Among them, the lighting atmosphere parameters refer to the set of control benchmark data for the overall light and shadow color and rhythm effect that the light-emitting components 5 in the shower room frame need to present under specific usage scenarios.

[0048] By analyzing internal detection parameters, manual adjustment commands, and specifications of light-emitting components, the lighting atmosphere parameters are determined to facilitate subsequent use.

[0049] S102: Determine the light intensity parameters by combining the frame specifications and the specifications of the light-emitting components.

[0050] The light intensity parameter refers to the basic lighting brightness required by the light-emitting component 5 within the shower enclosure frame in the given space. This is obtained by calculating the physical dimensions of the frame and the maximum luminous intensity of the light-emitting component.

[0051] S103: Determine lighting control information by combining lighting atmosphere parameters and lighting intensity parameters.

[0052] Among them, the lighting control information refers to the data set that is finally output to the light-emitting component 5 to perform specific brightness, color distribution and dynamic color mixing effects.

[0053] By combining and analyzing lighting atmosphere parameters and lighting intensity parameters, lighting control information can be determined.

[0054] S104: Control the operation of two sets of light-emitting components 5 preset in the shower room frame according to the light control information, so that the two sets of light-emitting components 5 preset in the shower room frame output matching light and spatially converge and superimpose within the ice crack glass layer 4 preset in the shower room frame.

[0055] Among them, spatial convergence and superposition fusion refers to the visual effect produced by the ice-crack texture inside the ice-crack glass layer 4 when the matching light emitted by the two light-emitting components 5 illuminate each other in opposite directions. The light-emitting components 5 are controlled by the light control information to emit light towards the ice-crack glass layer 4 and converge and fuse there.

[0056] To further ensure the rationality of the lighting atmosphere parameters, it is necessary to perform further separate analysis and calculation on the lighting atmosphere parameters, which will be explained in detail through the steps shown below.

[0057] The method for determining lighting atmosphere parameters includes the following steps: S200: Retrieves instruction type based on manual adjustment instructions.

[0058] The instruction type refers to the category of lighting control mode selected by the user in the operation interface, which includes fixed adjustment type and adaptive adjustment type. The control component communicates, parses, and extracts fields from the manual adjustment instruction data packets received by the input component.

[0059] S201: When the instruction type is a preset fixed adjustment type, the user's desired atmosphere parameters are retrieved based on the manual adjustment instruction, and the user's desired atmosphere parameters are used as the lighting atmosphere parameters.

[0060] Among them, the fixed adjustment type refers to a lighting control mode in which the user manually locks a specific lighting effect state and does not adapt to the environment. This mode selection operation signal is received by a control component located on one side of the frame body. The user-required atmosphere parameters refer to the target lighting effect values ​​of specific color, color temperature, and brightness specified by the user.

[0061] When the instruction type is a preset fixed adjustment type, it means that the user needs to customize the atmosphere. Therefore, the user's desired atmosphere parameters are retrieved by manually adjusting the instruction, and the user's desired atmosphere parameters are used as the lighting atmosphere parameters to achieve precise customization of the desired lighting atmosphere by the user.

[0062] S202: When the instruction type is the preset adaptive adjustment type, the water flow temperature parameter, sound parameter, and water flow velocity parameter are retrieved based on the internal detection parameters.

[0063] Among them, the adaptive adjustment type refers to the lighting control mode that automatically matches and dynamically adjusts the lighting effect parameters according to the internal environment of the shower room.

[0064] When the instruction type is the preset adaptive adjustment type, it means that the user wants the system to automatically output matching light control instructions based on the internal environment status. Therefore, water flow temperature parameters, water flow velocity parameters, and sound parameters are extracted from the data set of internal detection parameters.

[0065] S203: Determine the light intensity signal based on the water flow velocity parameter.

[0066] Among them, the light intensity signal refers to the control value of the overall luminous brightness or light effect of the light-emitting component 5 inside the shower room frame.

[0067] By inputting the water flow velocity parameters into a preset flow velocity and light intensity database, a light intensity signal is obtained for easy subsequent use.

[0068] The higher the water flow velocity parameter, the stronger the light intensity signal. The flow velocity and light intensity database has a pre-stored lookup table of different water flow velocity parameters and their corresponding light intensity signals. The flow velocity and light intensity database is obtained after the operator pre-inputs the parameters.

[0069] S204: Determine the warm and cool color tone light signals by combining water flow velocity parameters and water flow temperature parameters.

[0070] Among them, the warm and cool color tone light signal refers to the control value of the color temperature attribute of the light-emitting component 5 inside the shower room frame.

[0071] By analyzing water flow velocity and temperature parameters, the warm and cool color tone light signals can be determined, facilitating subsequent use.

[0072] S205: Determine the dynamic light signal by combining water flow velocity parameters and sound parameters.

[0073] Among them, the dynamic light signal refers to the control execution value of the color change rhythm and brightness alternation frequency of the light-emitting component 5 in the shower room frame.

[0074] By combining and analyzing water flow velocity parameters with sound parameters, dynamic light signals can be determined.

[0075] S206: Combine light intensity signal, warm and cool color tone light signal and dynamic light signal to determine the environmental atmosphere parameters, and use the environmental atmosphere parameters as the lighting atmosphere parameters.

[0076] Among them, the environmental demand atmosphere parameter refers to a comprehensive light and shadow control data set that can adapt to the current bathing environment. The control component performs comprehensive calculations on the light intensity signal, warm and cool color tone light signal, and dynamic light signal obtained from the above calculations, thus forming the data set of environmental demand atmosphere parameters. This enables the system to automatically match dynamic lighting effect parameters according to the internal environment of the shower room, so that the light-emitting component 5 outputs matching light, which then spatially converges and superimposes within the cracked glass layer 4 to produce a visual effect, achieving adaptive adjustment.

[0077] To further ensure the rationality of the warm and cool color tone light signals, it is necessary to perform further separate analysis and calculation on the warm and cool color tone light signals, which will be explained in detail through the following steps.

[0078] The method for determining warm and cool color tone light signals includes the following steps: S301: Retrieve initial water temperature parameters based on water flow temperature parameters.

[0079] The initial water temperature parameter refers to the base water temperature value at the instant the shower system is turned on. It is obtained by the control component capturing the water flow temperature parameter from the water circuit detector during the first base cycle when the water flow state undergoes a non-zero jump (i.e., from no water to water). S302: Retrieve water flow start time and water flow velocity value based on water flow velocity parameters.

[0080] The water flow velocity value refers to the current speed at which the shower water flows. This value is obtained by the control component directly extracting the current quantitative value from the collected water flow velocity parameters. The water flow start time refers to the time point when the water circuit is first connected and water begins to flow. This time is obtained by real-time monitoring of the water flow velocity parameter changing from zero to non-zero using the control component's built-in timer. The built-in timer is the system clock module within the control component used to record the timestamps of state transitions.

[0081] S303: Determine the starting reference value by combining the water flow start time and water flow velocity value.

[0082] The start-up reference value refers to comprehensive assessment data used to determine whether the shower system is currently in the initial stage of stable water flow. It is calculated by subtracting the current system time from the water flow start-up time using the control components to obtain the continuous water flow duration, and then combining this with the fluctuation range of the water flow velocity value for comprehensive calculation.

[0083] S304: When the start reference value is within the preset water flow start reference range and the initial water temperature parameter is lower than the preset comfort temperature threshold, a water temperature preheating command is determined.

[0084] The water flow start reference range refers to a pre-set time period representing the initial stage of water flow; the comfortable temperature threshold is a preset lower limit of the temperature suitable for human bathing. The water temperature preheating command is an internal control signal indicating that the current water temperature is too cold and the system needs to start preheating.

[0085] By comparing the above real-time parameters with the corresponding threshold ranges, a water temperature preheating command is triggered.

[0086] S305: Determines the real-time temperature difference ratio based on the water temperature preheating command and water flow temperature parameters.

[0087] The real-time temperature difference ratio refers to the dynamic percentage gap between the current water temperature and the comfort temperature threshold. Specifically, it is calculated by taking the absolute difference between the currently collected water flow temperature parameter and the comfort temperature threshold, and then dividing this absolute difference by a preset maximum allowable temperature difference benchmark value to obtain the real-time temperature difference ratio.

[0088] S306: Determine the preheating gradient light signal based on the real-time temperature difference ratio, and use the preheating gradient light signal as the warm and cool color tone light signal.

[0089] The preheating gradient light signal refers to a control value that dynamically changes the emitted color as the water temperature gradually increases. The control component inputs the calculated real-time temperature difference ratio into a preset color temperature mapping table, matches and extracts the corresponding gradient color temperature value. Subsequently, the control component assigns the preheating gradient light signal in the system program and replaces it with the currently pending global warm / cool color tone light signal, thus accurately reflecting the water temperature preheating process through a clear visual gradient. The color temperature of the preheating gradient light signal decreases in a stepwise manner as the real-time temperature difference ratio decreases.

[0090] A color temperature mapping table is a pre-preserved database that maps percentage temperature differences to corresponding luminous color numbers.

[0091] To further ensure the validity of the dynamic light signal, it is necessary to perform further separate analysis and calculation on the dynamic light signal, which will be explained in detail through the steps shown below.

[0092] The method for determining dynamic light signals includes the following steps: S401: Determine the water flow noise parameters and steady-state background light signal based on the water flow velocity parameters.

[0093] Among them, the water flow noise parameter refers to the estimated value of sound wave interference generated by the shower water flow. The steady-state background light signal refers to the basic light effect value that matches the current water flow state. The water flow velocity parameter is extracted in real time by the control component, and the water flow noise parameter is calculated based on the preset positive correlation function mapping relationship between flow velocity and noise. At the same time, the steady-state background light signal is directly converted according to the magnitude of the water flow velocity parameter for convenient subsequent use.

[0094] S402: Obtain environmental mixed audio parameters by separating sound parameters based on water flow noise parameters.

[0095] Among them, the environmental mixed audio parameters refer to the actual external audio signal after removing water flow noise interference. The control component uses water flow noise parameters to filter and remove sound parameters to obtain the environmental mixed audio parameters, which are convenient for subsequent use.

[0096] S403: Determines target music parameters based on ambient mixed audio parameters.

[0097] The target music parameters refer to the beat and melody feature data extracted from the ambient mixed audio. The target music parameters are obtained by performing basic audio feature extraction operations on the ambient mixed audio parameters through the control component, facilitating subsequent use.

[0098] S404: Determine the rhythmic light signal based on the target music parameters.

[0099] The rhythmic light signal refers to the brightness or color control values ​​that change synchronously with the music's beat. The control component converts these values ​​according to the specific beat characteristics of the target music parameters to obtain the rhythmic light signal, facilitating subsequent use.

[0100] S405: Combine the steady-state background light signal and the rhythmic light signal to determine the comprehensive light effect signal, and use the comprehensive light effect signal as the dynamic light signal.

[0101] The overall light effect signal refers to the combined control value after superimposing the basic water flow light effect and the music beat light effect. The overall light effect signal is obtained by superimposing the steady-state background light signal and the rhythmic light signal; then, the control component directly assigns and updates this overall light effect signal to the dynamic light signal currently being executed by the system.

[0102] To further ensure the rationality of using environmental demand atmosphere parameters as lighting atmosphere parameters, it is necessary to conduct further separate analysis and calculation after using environmental demand atmosphere parameters as lighting atmosphere parameters. The specific steps are explained in detail below.

[0103] After using environmental requirement atmosphere parameters as lighting atmosphere parameters, the method includes the following steps: S501: Retrieves the lighting operation information and ambient light intensity of the shower room based on internal detection parameters.

[0104] Among them, the lighting operation information and the ambient light intensity of the space are internal detection parameters that the system continuously acquires. The control component directly retrieves the current data performance value from the data set of internal detection parameters for convenient subsequent use.

[0105] S502: Determine the day and night environment by combining lighting operation information and ambient light intensity.

[0106] The day / night environment refers to the comprehensive time-period status label determined by the system combining internal light emission status and external spatial illuminance. Through the logic comparison unit within the control component, the system extracts the specific values ​​of lighting operation information and ambient light intensity, and compares and performs logical operations with preset illuminance classification thresholds to obtain the day / night environment for subsequent use. The illuminance classification threshold is preset based on the statistical average of ambient light brightness during normal day-night cycles.

[0107] S503: When the day and night environment is the preset daytime environment, the daytime compensation coefficient is determined according to the ambient light of the space.

[0108] Here, "daytime environment" refers to the high illuminance state determined by numerical comparison. The daytime compensation coefficient is a gain reference value used to increase luminous brightness. The difference between the ambient light level and the preset reference value is extracted by the control component and converted using a proportional function to obtain the daytime compensation coefficient, facilitating subsequent use. The preset reference value is set by the operator according to actual needs.

[0109] S504: The light intensity signal is compensated based on the daytime compensation coefficient to determine the daytime light intensity signal.

[0110] The daytime light intensity signal refers to the final brightness control value after gain processing. The control component multiplies the extracted daytime compensation coefficient with the specific value of the original light intensity signal to obtain the daytime light intensity signal, which is convenient for subsequent use.

[0111] S505: Update and replace environmental demand parameters based on daytime light intensity signals.

[0112] The control component directly assigns the calculated daytime light intensity signal to the brightness data bits corresponding to the environmental requirement atmosphere parameters within the system program.

[0113] S506: When the day and night environment is the preset night environment, the night compensation coefficient is determined based on the lighting operation information and the ambient light of the space.

[0114] Here, "nighttime environment" refers to the low-illuminance state determined by numerical comparison. The nighttime compensation coefficient is a reduction benchmark value used to decrease luminous brightness and adjust color temperature. The nighttime compensation coefficient is obtained by comprehensively extracting lighting operation information and ambient light values ​​from the control components and performing reduction calculations for subsequent use.

[0115] S507 compensates for the light intensity signal and the warm / cool color tone light signal based on the night compensation coefficient to determine the night light intensity signal and the night warm / cool color tone light signal.

[0116] Among them, the nighttime light intensity signal and the nighttime warm / cool tone light signal refer to the final control values ​​after the light intensity signal and the warm / cool tone light signal have been respectively reduced. By calling the nighttime compensation coefficient through the control component, the original light intensity signal and the original warm / cool tone light signal are proportionally converted to obtain the light intensity signal and the warm / cool tone light signal, which are convenient for subsequent use.

[0117] The S508 updates and replaces environmental atmosphere parameters based on nighttime light intensity signals and nighttime warm and cool color tone light signals.

[0118] The updated nighttime light intensity signal and nighttime warm / cool color tone light signal are synchronously overwritten into the data packet of environmental requirement atmosphere parameters by the control component, thereby completing the parameter replacement logic.

[0119] To further ensure the rationality of the method for determining the lighting atmosphere parameters, it is necessary to conduct a further separate analysis and calculation of the method, which will be explained in detail through the steps shown below.

[0120] The method for determining lighting atmosphere parameters also includes the following steps: S601: Retrieves human body distance parameters based on internal detection parameters.

[0121] Among them, the distance parameters to the human body are retrieved through internal detection parameters, which facilitates subsequent use.

[0122] S602: When the human body distance parameter is within the preset far field range, determine the sleep light information based on the human body distance parameter, and use the sleep light information as the lighting atmosphere parameter.

[0123] The far-field range refers to a pre-defined physical distance range representing a greater distance from the user. Sleep light information refers to the basic light effect control values ​​in the system's standby state.

[0124] When the distance parameter of the human body is within the preset far field range, the control component directly extracts the dormant light information and assigns it as the lighting atmosphere parameter to be executed globally by the current system.

[0125] S603: When the human body distance parameter is within the preset near-field range, the change ratio is determined based on the human body distance parameter.

[0126] The near-field range refers to a pre-defined physical distance range representing the user's approach. The change ratio refers to a dynamically calculated coefficient that occurs as the distance decreases.

[0127] When the human body distance parameter is within the preset near-field range, the specific difference of the human body distance parameter within the near-field range is extracted and inversely proportionally converted to obtain the change ratio, which is convenient for subsequent use.

[0128] S604: Determine the dynamic change intensity based on the change ratio, light intensity signal, and warm / cool hue light signal.

[0129] The dynamic change intensity refers to the comprehensive driving duty cycle value that simultaneously integrates brightness amplitude and color temperature offset, used to directly drive the light-emitting component 5 to produce a gradient effect. The control component multiplies the calculated change ratio with the specific values ​​of the currently acquired light intensity signal and the warm / cool color tone light signal to obtain the dynamic change intensity, facilitating subsequent use.

[0130] S605: Determine the dynamically changing light signal based on the dynamic intensity, and use the dynamically changing light signal as a lighting atmosphere parameter.

[0131] The dynamically changing light signal refers to the control value used to control the lighting to produce a gradual light effect. The control component calculates the dynamic intensity change, encapsulates it into a data frame according to a preset communication protocol to generate the dynamically changing light signal, and directly assigns and updates it in the system program with the current lighting atmosphere parameters. The preset communication protocol refers to a conventional serial data transmission protocol (I2C protocol, SPI protocol, or DMX512 control protocol).

[0132] S606: When the human body distance parameter is within the preset internal range, jump to execute the instruction type retrieved based on the manual adjustment instruction.

[0133] Here, the internal interval refers to the physical distance range within which the user has entered the internal space. Jump execution means that after the logic comparison unit inside the control component determines that the user has entered this interval, it directly returns and executes the aforementioned main dimming logic based on the manual adjustment command retrieval command type.

[0134] To further ensure the rationality of the method for determining the lighting atmosphere parameters, it is necessary to conduct a further separate analysis and calculation of the method, which will be explained in detail through the steps shown below.

[0135] The method for determining lighting atmosphere parameters also includes the following steps: S701: Retrieves human dwell time and humidity parameters based on internal detection parameters.

[0136] Among them, the human body dwell time parameter and humidity parameter are internal detection parameters that the system continuously acquires. Their current data performance values ​​can be directly retrieved through the control component for convenient subsequent use.

[0137] S702: When the human body stay time parameter is less than the preset human body stay time interval, determine the human body departure time parameter.

[0138] The "human body departure time" parameter refers to the physical idle time in the space after the user finishes showering and leaves the shower room. By controlling the logic comparison unit within the component, when the human body dwell time parameter deviates from the preset range, a built-in timer is directly triggered to continuously accumulate the time and obtain the human body departure time parameter for subsequent use.

[0139] S703: When the humidity parameter reaches the preset cleaning threshold and the human body distance parameter is in the preset far-field range and the human body departure time parameter is in the preset near-field range, an automatic cleaning command is determined.

[0140] The cleaning threshold refers to a pre-set humidity reference value that characterizes the degree of condensation of water droplets in the space. The automatic cleaning command is a control signal used to trigger the physical cleaning hardware action. Through the logic comparison unit inside the control component, the degree of condensation of water droplets in the space, the humidity reference value, and the distance parameter to the human body are compared synchronously through multiple channels; when the pre-set thresholds and interval conditions are fully met, the control component directly triggers the generation of an automatic cleaning command for convenient subsequent use.

[0141] S704: Determine the operating range parameters based on the automatic cleaning instructions and frame specifications.

[0142] The operating range parameter refers to the physical movement coordinate boundary data that the cleaning brush needs to cover. After the system generates an automatic cleaning command, it directly extracts the corresponding physical dimensions and structural space attribute values ​​from the frame specifications through the control component to obtain the operating range parameter, facilitating subsequent use. The cleaning brush is installed and moved on the glass panel 1, and the execution end of the cleaning brush is controlled by the built-in motor to clean the glass panel 1.

[0143] S705: Determine the operating frequency parameters by combining the frame specifications and water flow velocity parameters.

[0144] The operating frequency parameter refers to the number of cycles of the cleaning brush's reciprocating motion. The operating frequency parameter is obtained by extracting the specific dimensions of the frame specifications from the control component and combining them with the currently recorded water flow velocity parameters, performing data fusion and conversion for convenient subsequent use.

[0145] S706: Combines operating range parameters and operating frequency parameters to determine cleaning control information, and outputs the cleaning control information to the cleaning brush preset on the shower room frame for cleaning water droplets and water mist.

[0146] The cleaning control information refers to the set of underlying pulse data used to directly drive the built-in motor of the cleaning brush to perform specific displacements. The control component encapsulates the operating range parameters and operating frequency parameters into a system command data packet to generate the cleaning control information; then, the cleaning control information is directly output to the execution end of the cleaning brush through an external communication bus, thereby driving the physical mechanical structure to complete the cleaning action.

[0147] To further ensure the rationality of the determination method after collecting internal detection parameters, it is necessary to conduct a further separate analysis and calculation of the determination method after collecting internal detection parameters, which will be explained in detail through the following steps.

[0148] After collecting internal detection parameters, the method also includes the following steps: S801: When the water flow temperature parameter exceeds the preset water flow temperature range, it is determined as a water flow over-temperature parameter; The water flow overheating parameter refers to an abnormal status label value indicating that the water temperature is too high and poses a risk of scalding. The control component retrieves the specific value of the water flow temperature parameter and compares it with a preset water flow temperature range. When the water flow temperature parameter exceeds the upper limit of this range, the control component directly triggers the generation of the water flow overheating parameter for subsequent use. The preset water flow temperature range refers to the system's pre-set safe temperature boundaries for scalding prevention.

[0149] S802: When the human body dwell time parameter exceeds the preset human body dwell time range, determine the human body dwell timeout parameter.

[0150] The human body stay timeout parameter refers to an abnormal state label value indicating that the human body has stayed in the enclosed space of the bath for too long, which may pose safety hazards such as hypoxia or fainting. The control component compares the human body stay time parameter with a preset human body stay time range in real time. When the human body stay time parameter is determined to exceed the upper limit of the range, the control component directly triggers the generation of the human body stay timeout parameter for subsequent use. The preset human body stay time range refers to the boundary values ​​of safe bathing time.

[0151] S803: Determine the abnormal state value by combining the water flow overheating parameter and the human body retention time parameter.

[0152] The abnormal state value refers to a quantitative value used to comprehensively assess the degree of risk. It is calculated by weighting and accumulating the parameters of water flow overheating and human body dwell time, facilitating subsequent use. The specific weights for the weighted accumulation calculation are preset by the operator based on actual conditions.

[0153] S804: When the abnormal state value reaches the preset safety warning threshold, a high-frequency flashing light signal is determined based on the water flow over-temperature parameter.

[0154] The safety warning threshold refers to the critical fraction value that triggers the warning action. When this threshold is reached, the logic comparison unit within the control component determines the severity of the water flow overheating parameter and matches it with a corresponding flashing frequency value to determine a high-frequency flashing light signal for subsequent use. The greater the severity of the water flow overheating parameter, the faster the corresponding flashing frequency value.

[0155] S804: Determine the warning color signal based on the human body stay time parameter.

[0156] The warning color signal refers to a specific color control value used to trigger visual alertness. The control component matches the corresponding color code from a preset alarm color library based on the human body dwell time parameter to obtain the warning color signal, facilitating subsequent use. The alarm color library is a pre-stored table that maps different human body dwell time parameters to their corresponding warning color signals; the larger the human body dwell time parameter, the more prominent the warning color signal.

[0157] For example, the alarm color library can be set so that when the human body stays for less than 1 minute, the warning color signal can be set to yellow to indicate a warning; when the human body stays for more than 5 minutes, the warning color signal can be set to red to indicate danger (representing serious danger).

[0158] S805: Combines high-frequency flashing light signals and warning color signals to determine warning light parameters, and outputs warning light parameters to issue warnings.

[0159] Among them, the warning light parameters refer to the comprehensive alarm data packet with the highest priority, which is used to take over the current ambient lighting. After the control component simultaneously receives the high-frequency flashing light signal and the warning color signal, the logic merges them to generate the warning light parameters; then, the current lighting operation logic is interrupted, and the warning light parameters are forcibly output to the light-emitting component 5, thereby realizing visual warning feedback.

[0160] To further ensure the rationality of the method for determining lighting control information, it is necessary to conduct a further separate analysis and calculation of the method, which will be explained in detail through the steps shown below.

[0161] The method for determining lighting control information also includes the following steps: S901: Retrieves target fusion color parameters based on lighting atmosphere parameters.

[0162] The target fusion color parameter refers to the final mixed color value expected to be presented within the glass medium. The target fusion color parameter is obtained by directly extracting the corresponding color code from the lighting atmosphere parameter dataset through the control component and parsing it for subsequent use.

[0163] S902: Retrieve the spacing parameters of the light-emitting components on the opposite side and the glass dielectric conduction parameters based on the frame specifications.

[0164] Among them, the spacing parameters of the light-emitting components on the opposite side and the glass medium conduction parameters are the physical property data preset by the system. The corresponding physical dimensions and optical property values ​​are retrieved directly from the data set of the frame specifications by the control components, which is convenient for subsequent use.

[0165] S903: Combine the target fusion color parameters, the spacing parameters of the opposite side light-emitting components, and the glass medium conduction parameters to determine the offset color mixing ratio information.

[0166] The offset color mixing ratio information refers to the initial distribution ratio of luminous intensity on both sides used to offset the light transmission loss inside the glass. Through the calculation of the control component, the spacing and transmission parameters are input into the optical attenuation calculation logic to obtain a baseline. Then, combined with the specific values ​​of the target fusion color parameters, a multi-channel ratio distribution conversion is performed to obtain the offset color mixing ratio information, which is convenient for subsequent use.

[0167] S904: Determine the allocation signal of the first side light-emitting component and the allocation signal of the second side light-emitting component based on the offset color mixing ratio information.

[0168] The first-side light-emitting component allocation signal and the second-side light-emitting component allocation signal refer to the color allocation coefficients that independently drive the light-emitting hardware on opposite sides. The control component performs a dual-channel split operation on the overall drive signal based on the offset color mixing ratio information to obtain the aforementioned two allocation signals for subsequent use.

[0169] S905: Combine the first side light-emitting component allocation signal, the second side light-emitting component allocation signal and the light intensity parameter to determine the intersection light-emitting control information, and use the intersection light-emitting control information as the light control information.

[0170] Among them, the convergence light emission control information refers to the set of underlying PWM duty cycle data that is ultimately output to the physical hardware to achieve spatial optical convergence. The control component multiplies the allocation signals of the first and second light emission components with the light intensity parameters to calculate the underlying PWM duty cycle data that independently drives the light emission components 5 on both sides, which is the convergence light emission control information. Subsequently, the variable overriding is performed in the system's main control program to directly assign and update the convergence light emission control information with the current light control information for final output execution.

[0171] The above description is merely a preferred embodiment of the present invention. The scope of protection of the present invention is not limited to the above embodiments. All technical solutions falling within the scope of the present invention's concept are within the scope of protection of the present invention. It should be noted that for those skilled in the art, any improvements and modifications made without departing from the principles of the present invention should also be considered within the scope of protection of the present invention.

Claims

1. A method for controlling the lighting of a shower enclosure frame, characterized in that, include: Collect the internal test parameters of the shower room, the frame specifications corresponding to the shower room frame, the specifications of the light-emitting components (5) pre-set in the shower room frame, and the user's manual adjustment instructions; The lighting atmosphere parameters are determined based on internal testing parameters, manual adjustment instructions, and the specifications of the light-emitting components. Determine the light intensity parameters by combining the frame specifications and the specifications of the light-emitting components; The lighting control information is determined by combining the lighting atmosphere parameters and the lighting intensity parameters; The two sets of light-emitting components (5) preset in the shower room frame are controlled according to the light control information so that the two sets of light-emitting components (5) preset in the shower room frame output matching light and spatially converge and superimpose within the ice crack glass layer (4) preset in the shower room frame.

2. The shower room frame lighting control method according to claim 1, characterized in that, Methods for determining lighting atmosphere parameters include: The instruction type is retrieved based on the manual adjustment command; When the instruction type is a preset fixed adjustment type, the user's desired atmosphere parameters are retrieved based on the manual adjustment instruction, and the user's desired atmosphere parameters are used as the lighting atmosphere parameters. When the instruction type is the preset adaptive adjustment type, the water flow temperature parameter, sound parameter, and water flow velocity parameter are retrieved based on the internal detection parameters. The light intensity signal is determined based on the water flow velocity parameters; The warm and cool color tone light signals are determined by combining water flow velocity parameters and water flow temperature parameters; Dynamic light signals are determined by combining water flow velocity parameters and sound parameters; By combining light intensity signals, warm and cool color tone light signals, and dynamic light signals, the environmental atmosphere parameters are determined, and these environmental atmosphere parameters are used as the lighting atmosphere parameters.

3. The shower room frame lighting control method according to claim 2, characterized in that, Methods for determining warm and cool color tone light signals include: Initial water temperature parameters are retrieved based on water flow temperature parameters; The water flow start time and water flow velocity value are retrieved based on the water flow velocity parameters. Determine the starting reference value by combining the water flow start time and water flow velocity; When the start reference value is within the preset water flow start reference range and the initial water temperature parameter is lower than the preset comfort temperature threshold, a water temperature preheating command is determined. The real-time temperature difference ratio is determined based on the water temperature preheating command and water flow temperature parameters; The preheating gradient light signal is determined based on the real-time temperature difference ratio, and the preheating gradient light signal is used as the warm and cool color tone light signal.

4. A method for controlling the lighting of a shower room frame according to claim 2, characterized in that, Methods for determining dynamic light signals include: Determine the water flow noise parameters and steady-state background light signal based on the water flow velocity parameters; Environmental mixed audio parameters are obtained by separating sound parameters from water flow noise parameters; Determine the target music parameters based on the ambient mixed audio parameters; Determine the rhythmic light signal based on the target music parameters; The overall light effect signal is determined by combining the steady-state background light signal and the rhythmic light signal, and the overall light effect signal is used as the dynamic light signal.

5. A method for controlling the lighting of a shower room frame according to claim 2, characterized in that, After incorporating environmental requirement parameters into lighting atmosphere parameters, the following also includes: The system retrieves the lighting operation information and ambient light intensity of the shower room based on internal detection parameters. Determine the day and night environment by combining lighting operation information and ambient light intensity. When the day and night environment is the preset daytime environment, the daytime compensation coefficient is determined according to the spatial ambient light. The daytime light intensity signal is determined by compensating the light intensity signal based on the daytime compensation coefficient. The environmental demand and atmosphere parameters are updated and replaced based on daytime light intensity signals; When the day and night environment is the preset night environment, the night compensation coefficient is determined based on the lighting operation information and the ambient light of the space. Compensate the light intensity signal and the warm / cool color tone light signal based on the nighttime compensation coefficient to determine the nighttime light intensity signal and the nighttime warm / cool color tone light signal; The environmental atmosphere parameters are updated and replaced based on nighttime light intensity signals and nighttime warm and cool color tone light signals.

6. A method for controlling the lighting of a shower room frame according to claim 2, characterized in that, Methods for determining lighting atmosphere parameters also include: Human distance parameters are retrieved based on internal detection parameters; When the human body distance parameter is within the preset far field range, the sleep light information is determined based on the human body distance parameter, and the sleep light information is used as the lighting atmosphere parameter. When the human body distance parameter is within the preset near-field range, the change ratio is determined based on the human body distance parameter; The intensity of dynamic change is determined based on the change ratio, light intensity signal, and warm / cool color tone light signal; The dynamic light signal is determined based on the dynamic intensity, and the dynamic light signal is used as a lighting atmosphere parameter. When the human body distance parameter is within the preset internal range, jump to execute the instruction type retrieved based on the manual adjustment command.

7. A method for controlling the lighting of a shower room frame according to claim 6, characterized in that, After the two sets of light-emitting components (5) located in the shower room frame are operated according to the light control information, the following are also included: Human dwell time and humidity parameters are retrieved based on internal detection parameters; When the human body stay time parameter is less than the preset human body stay time range, the human body departure time parameter is determined; When the humidity parameter reaches the preset cleaning threshold and the human body distance parameter is in the preset far-field range and the human body departure time parameter is in the preset near-field range, an automatic cleaning command is determined. The operating range parameters are determined based on the automatic cleaning instructions and the frame specifications; Determine the operating frequency parameters by combining the frame specifications and water flow velocity parameters; The cleaning control information is determined by combining the operating range parameters and operating frequency parameters, and the cleaning control information is output to the cleaning brush preset on the shower room frame for cleaning water droplets and water mist.

8. A method for controlling the lighting of a shower room frame according to claim 7, characterized in that, Following the acquisition of internal detection parameters, the following are also included: When the water flow temperature parameter exceeds the preset water flow temperature range, it is determined to be a water flow over-temperature parameter; When the human body dwell time parameter exceeds the preset human body dwell time range, the human body dwell timeout parameter is determined; The abnormal state value is determined by combining the water flow overheating parameter and the human body residence time parameter; When the abnormal state value reaches the preset safety warning threshold, the high-frequency flashing light signal is determined based on the water flow over-temperature parameter; The warning color signal is determined based on the human body's dwell time parameters; The warning light parameters are determined by combining the high-frequency flashing light signal and the warning color signal, and the warning light parameters are output to issue a warning.

9. A method for controlling the lighting of a shower room frame according to claim 1, characterized in that, The methods for determining lighting control information include: Target fusion color parameters are retrieved based on lighting atmosphere parameters; Based on the frame specifications, retrieve the spacing parameters of the light-emitting components on the opposite sides and the glass dielectric conduction parameters; The offset color mixing ratio information is determined by combining the target fusion color parameters, the spacing parameters of the opposite side light-emitting components, and the glass medium conduction parameters. The allocation signals for the first and second side light-emitting components are determined based on the hedging color mixing ratio information. The intersection light emission control information is determined by combining the allocation signal of the first side light emission component, the allocation signal of the second side light emission component, and the light intensity parameters, and the intersection light emission control information is used as the light control information.

10. A shower enclosure frame for implementing a shower enclosure frame lighting control method as described in any one of claims 1 to 9, characterized in that, include: A glass panel (1) is provided in several units and used to form a shower space; The glass panel (1) includes: a first outer glass (2); The second outer glass (3) is disposed on one side of the first outer glass (2) and is parallel to and spaced apart from the first outer glass (2); The ice-cracked glass layer (4) is sandwiched between the first outer glass (2) and the second outer glass (3). The side edge of the ice-cracked glass layer (4) is recessed inward and lower than the side edge of the first outer glass (2) and the second outer glass (3). The side end face of the ice-cracked glass layer (4) together with the inner wall of the first outer glass (2) and the inner wall of the second outer glass (3) form a side notch (7). The light-emitting component (5) is vertically disposed in the side recess (7), and two sets are arranged opposite each other and both face the side end face of the ice-cracked glass layer (4); The fastener (6) is used to clamp and fix the first outer glass (2), the ice-cracked glass layer (4), and the second outer glass (3).

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