Display, light and sound effect linkage control method and system based on OLED display

Abstract

The invention discloses a display, light and sound effect linkage control method and system based on an OLED display, the display style of the OLED display is determined according to an indoor scene, the current position of each microphone and the volume of a sound box, and the accuracy of the display style of the OLED display is improved. And the display style of the OLED display is highly coordinated with the indoor singing room. The displayed light show is determined according to the name of a song played by the sound, the display style of the OLED display and the position of each microphone, and the displayed light show is dynamically regulated and controlled according to the resolution of a picture displayed by the OLED display, so that regulation and control of the light show are realized, and the linkage control effect of display, light and sound effect of the OLED display is realized. Therefore, in the moving state of each microphone, the follow-up focusing mode of the indoor singing room is constructed according to the moving position of each microphone, the indoor light state and the display style of the OLED display.

Description

Technical Field

[0001] The present invention relates to the technical field of OLED displays, and in particular, to a method and system for linked control of display, lighting, and sound effects based on an OLED display. Background Art

[0002] With the development of technology, OLED displays have gradually been applied to people's lives. As the display part of an indoor singing room, in the prior art, the OLED display only presents the corresponding picture and presents it in a single display style without considering the influence of the indoor scene, resulting in the inability to achieve a high degree of coordination between the display style of the OLED display and the indoor singing room, and the inability to achieve the linked control effect of the display, lighting, and sound effects of the OLED display. Summary of the Invention

[0003] The purpose of the present invention is to overcome the deficiencies of the prior art. The present invention provides a method and system for linked control of display, lighting, and sound effects based on an OLED display.

[0004] An embodiment of the present invention provides a method for linked control of display, lighting, and sound effects based on an OLED display, including: collecting an indoor image of an indoor singing room; determining a corresponding indoor style based on the recognition of the indoor image; determining an indoor scene based on the indoor style, the reception level of the indoor singing room, and the corresponding indoor lighting state; determining the display style of the OLED display according to the indoor scene, the current positions of each microphone, and the volume of the sound system; determining the presented light show according to the song name played by the sound system, the display style of the OLED display, and the positions of each microphone, and dynamically adjusting the presented light show according to the resolution of the picture presented by the OLED display; in the moving states of each microphone, constructing a follow-up focusing mode of the indoor singing room according to the moving positions of each microphone, the indoor lighting state, and the display style of the OLED display.

[0005] An embodiment of the present invention provides a system for linked control of display, lighting, and sound effects based on an OLED display. The system for linked control of display, lighting, and sound effects based on an OLED display is applied to the above method for linked control of display, lighting, and sound effects based on an OLED display. The system for linked control of display, lighting, and sound effects based on an OLED display includes:

[0006] A collection module for collecting an indoor image of an indoor singing room;

[0007] An identification module for determining a corresponding indoor style based on the recognition of the indoor image;

[0008] A scene module, which is used to determine the indoor scene based on the indoor style, the reception level of the indoor singing room, and the corresponding indoor lighting state;

[0009] A display module, which is used to determine the display style of the OLED display according to the indoor scene, the current positions of each microphone, and the volume of the sound system;

[0010] A light show module, which is used to determine the presented light show according to the song name played by the sound system, the display style of the OLED display, and the positions of each microphone, and dynamically adjust the presented light show according to the resolution of the picture presented by the OLED display;

[0011] A follow-up module, which is used to construct a follow-up focusing mode for the indoor singing room according to the moving positions of each microphone, the indoor lighting state, and the display style of the OLED display during the moving states of each microphone.

[0012] The present invention has the following beneficial effects:

[0013] (1) Through the method in the embodiment of the present invention, the indoor image of the indoor singing room is collected; the corresponding indoor style is determined based on the recognition of the indoor image; the indoor scene is determined based on the indoor style, the reception level of the indoor singing room, and the corresponding indoor lighting state; the display style of the OLED display is determined according to the indoor scene, the current positions of each microphone, and the volume of the sound system, which comprehensively considers the indoor scene, the current positions of each microphone, and the volume of the sound system, improves the accuracy of the display style of the OLED display, and ensures the high coordination between the display style of the OLED display and the indoor singing room;

[0014] (2) The present invention determines the presented light show according to the song name played by the sound system, the display style of the OLED display, and the positions of each microphone, and dynamically adjusts the presented light show according to the resolution of the picture presented by the OLED display, realizes the adjustment of the presented light show, comprehensively considers the resolution of the picture presented by the OLED display, and realizes the linkage control effect of the display, lighting, and sound effects of the OLED display;

[0015] (3) During the moving states of each microphone, the present invention constructs a follow-up focusing mode for the indoor singing room according to the moving positions of each microphone, the indoor lighting state, and the display style of the OLED display, introduces the follow-up focusing mode for the indoor singing room, ensures the good experience of the user holding the microphone, and ensures the diverse display effects of the OLED display. Description of the Drawings

[0016] Figure 1Schematic diagram of the application scenario of the linkage control method for display, lighting, and sound effects based on an OLED display in an embodiment;

[0017] Figure 2 Schematic flowchart of the linkage control method for display, lighting, and sound effects based on an OLED display in an embodiment of the present invention;

[0018] Figure 3 Schematic diagram of the structural composition of the linkage control system for display, lighting, and sound effects based on an OLED display in an embodiment of the present invention;

[0019] Figure 4 Hardware diagram of an electronic device shown according to an exemplary embodiment. Detailed implementation manners

[0020] Next, the technical solutions in the embodiments of the present invention will be clearly and completely described in conjunction with the accompanying drawings in the embodiments of the present invention.

[0021] Embodiment 1

[0022] The linkage control method for display, lighting, and sound effects based on an OLED display provided in this application is applied to an application environment as Figure 1 shown. Among them, the computer 102 communicates with the server 104 through the network. Among them, the computer 102 is but not limited to various personal computers, servers, and OLED displays, and the server 104 is implemented by an independent server or a server cluster composed of multiple servers.

[0023] Embodiment 2

[0024] Please refer to Figures 1 to 4 , a linkage control method for display, lighting, and sound effects based on an OLED display, which is applied to a linkage control scenario for display, lighting, and sound effects based on an OLED display; the linkage control method for display, lighting, and sound effects based on an OLED display includes:

[0025] Step S11: Collect indoor images of the indoor singing room;

[0026] Step S12: Determine the corresponding indoor style based on the recognition of the indoor images;

[0027] Step S13: Determine the indoor scene based on the indoor style, the reception level of the indoor singing room, and the corresponding indoor lighting state;

[0028] Step S14: Determine the display style of the OLED display according to the indoor scene, the current positions of each microphone, and the volume of the speaker;

[0029] Step S15: Determine the presented light show based on the song name played by the sound system, the display style of the OLED display, and the locations of the microphones, and dynamically adjust the presented light show according to the resolution of the picture presented on the OLED display;

[0030] Step S16: In the moving states of the microphones, construct a follow-up focusing mode for the indoor singing room according to the moving positions of the microphones, the indoor lighting state, and the display style of the OLED display.

[0031] In step S11, collect the indoor image of the indoor singing room;

[0032] In the specific implementation process of the present invention, the specific steps are as follows:

[0033] S111: Collect the opening signal of the indoor singing room;

[0034] S112: Trigger the multi-directional shooting of the internal camera of the indoor singing room according to the opening signal of the indoor singing room;

[0035] S113: In the multi-directional shooting of the internal camera of the indoor singing room, the internal camera moves at fixed points along a preset track and performs multi-directional shooting during the fixed-point movement to obtain multiple images in different directions;

[0036] S114: Synthesize the multiple images in different directions and the spatial position of the OLED display;

[0037] S115: Determine the indoor image of the indoor singing room according to the image synthesis of the multiple images in different directions and the spatial position of the OLED display, so as to collect the indoor image of the indoor singing room.

[0038] In the embodiment of the present application, collect the opening signal of the indoor singing room; trigger the multi-directional shooting of the internal camera of the indoor singing room according to the opening signal of the indoor singing room.

[0039] Specifically, the indoor singing room is usually a KTV room. The opening signal of the indoor singing room usually comes from the user's operation or the automatic detection of the access control system of the indoor singing room. The purpose of the opening signal is to tell the system: "This room is occupied and the shooting starts." The opening signal is obtained in various ways:

[0040] Access control system: When the user enters the indoor singing room by means of an access card or password, etc., the access control system will send an opening signal to the control system of the indoor singing room.

[0041] Power Management System: When the power to the indoor singing room is turned on, the power management system detects the change in current and sends a turn-on signal.

[0042] Manual trigger: The user manually triggers the start signal through the remote control, mobile phone APP or a button in the indoor singing room.

[0043] After receiving the power-on signal, the system immediately activates the camera installed in the room and triggers it to perform multi-directional shooting. By sending instructions to the camera, it switches from standby mode to working mode. The camera's built-in or external control module will receive the shooting instructions and start multi-directional shooting according to the preset program or user settings, including horizontal rotation, vertical tilt or lens zoom and other operations. The images captured by the camera will be transmitted to the system in real time and stored in the designated storage medium for subsequent analysis and processing.

[0044] Furthermore, in the multi-directional shooting of the internal camera of the indoor singing room, the internal camera performs fixed-point movement along a preset track, and performs multi-directional shooting during the fixed-point movement to obtain multiple images in different directions.

[0045] Specifically, when designing an indoor singing room, the camera's moving tracks are preset on the ceiling, wall or specific location of the room. These tracks are physical tracks (such as metal slides) or virtual tracks (the camera's moving path is controlled by software). The design of the tracks takes into account the camera's shooting range, the layout of the room, and objects that block the line of sight to ensure that the camera can capture images from every corner of the room.

[0046] When receiving the shooting command, the camera will move to fixed points along the preset track. These fixed points are pre-set key positions, such as the four corners of the room, doorways, near windows, etc., taking into full consideration the camera's moving speed, dwell time and moving path. Optionally, the camera's moving speed, dwell time and moving path are all preset and adjusted as needed to ensure that clear and comprehensive images are captured.

[0047] At this point, multiple fixed points are marked on the preset track, and at each fixed point, the camera will perform multi-directional shooting. This usually includes operations such as horizontal rotation, vertical tilt, and lens zoom to capture images in different directions and heights. The purpose of multi-directional shooting is to ensure that every detail of the room is captured, including wall decorations, furniture layout, ceiling design, etc., to provide comprehensive data support for subsequent style recognition and scene determination.

[0048] Optionally, assume that in a luxurious KTV private room, a camera and a control system with fixed-point movement and multi-directional shooting functions are installed. The KTV private room is designed with a unique interior style and layout, including chandeliers on the ceiling, art paintings on the walls, and customized furniture, etc.

[0049] When the user enters the room and triggers the activation signal, the camera starts to move at fixed points along the preset tracks. These tracks are carefully designed around the room and at key positions to ensure that the camera can capture every corner of the room.

[0050] At each fixed point, the camera performs a 360-degree horizontal rotation and a 90-degree vertical tilt up and down, while using the lens zoom function to capture images at different distances. In this way, the camera not only captures the overall layout and interior style of the room, but also details every aspect, such as the style of the chandelier, the content of the art painting, and the arrangement of the furniture, etc.

[0051] After the shooting is completed, the system stores these images in a specified folder on the server and prepares for the subsequent style recognition and scene determination steps. By analyzing and processing these images, the system can accurately identify the interior style of the room.

[0052] Therefore, image synthesis is performed on multiple images in different directions and the spatial position of the OLED display; an interior image of the indoor singing room is determined based on the image synthesis of multiple images in different directions and the spatial position of the OLED display, so as to collect the interior image of the indoor singing room.

[0053] At this time, multiple images in different directions and the spatial position of the OLED display are introduced. The multiple images in different directions include different perspectives such as the front, side, top, bottom of the room, as well as images of details such as each corner, wall, and furniture in the room. These images together constitute a comprehensive and three-dimensional visual description of the room.

[0054] The spatial position of the OLED display is the three-dimensional spatial position of the OLED display relative to other parts of the room, usually including the horizontal position of the OLED display (such as the X and Y coordinates in the room) and the vertical position (such as the height or Z coordinate). In addition, it also includes information such as the orientation and tilt angle of the OLED display. The multiple images in different directions and the spatial position of the OLED display are used in the image synthesis and processing process. By capturing and processing these images and information, a comprehensive, accurate, and coherent interior image can be generated, thus providing a more personalized and comfortable entertainment experience for users.

[0055] Specifically, since the OLED display is located at different positions in the room, the system also needs to consider its spatial position during the synthesis process. This usually involves special processing of the image of the OLED display, such as scaling, rotation, or adjusting transparency, etc., to ensure its perfect integration with other parts of the room. Optionally, advanced image processing methods, such as image stitching, can automatically or manually adjust the size, shape, and position of the image to output a synthesized image.

[0056] For image synthesis of multiple images in different directions and the image of the OLED display's spatial position, after obtaining multiple images in different directions and the spatial position of the OLED display, image preprocessing is required, which includes operations such as image correction, enhancement, and denoising, etc., to improve the quality and clarity of the image. At the same time, special processing of the image of the OLED display is also needed, such as extracting its content and removing background interference, so as to place the OLED display more accurately in the subsequent synthesis process. At the same time, image registration is the process of aligning and stitching images at different angles and positions. This is achieved by using image registration methods that can find similar features between different images and align them. During the registration process, the position and orientation of the OLED display need to be considered to ensure its correct placement in the synthesized image. After the image registration is completed, image synthesis follows. This usually involves fusing the information in different images together to generate a coherent and complete synthesized image. During the synthesis process, special attention needs to be paid to the placement and display content of the OLED display. Use image synthesis methods to insert the image of the OLED display into the correct position in the synthesized image and ensure its seamless integration with the images of other parts of the room to output the indoor image of this indoor singing room.

[0057] Optionally, assume that in a modern KTV private room, the OLED display is located on the side wall of the room. To form a synthesized image, first use a camera to capture images of the room from multiple angles, including the wall area where the OLED display is located. Then, use a depth sensor or computer vision technology to determine the three-dimensional spatial position of the OLED display in the room. Next, preprocess and register the captured images to align and stitch the images at different angles into a complete indoor image. During the synthesis process, pay special attention to inserting the image of the OLED display into the correct position in the synthesized image and ensure its seamless integration with the images of the wall and other furniture. Finally, post-process and optimize the synthesized image, adjust the image parameters, and check whether the position and display content of the OLED display are accurate. The finally obtained synthesized image will display information such as the layout of the room, the decoration style, and the position and display content of the OLED display. The finally obtained synthesized image serves as the indoor image of this indoor singing room.

[0058] In step S12, the corresponding indoor style is determined based on the recognition of the indoor image;

[0059] In the specific implementation process of the present invention, the specific steps are as follows:

[0060] S121: Obtain the indoor image;

[0061] S122: Mark multiple feature contours according to the traversal of the indoor image;

[0062] S123: Determine the corresponding objects according to the recognition of multiple feature contours;

[0063] S124: Construct multiple regions to be recognized based on the relative positions of each object, the interaction relationships between each object, and the boundary contour of the indoor image;

[0064] S125: Determine the corresponding indoor features according to the recognition of multiple regions to be recognized;

[0065] S126: Determine the indoor style based on the relative positions of multiple indoor features, the types of multiple indoor features, and the configuration model of the OLED display.

[0066] In the embodiment of the present application, the indoor image is obtained; multiple feature contours are marked according to the traversal of the indoor image.

[0067] Among them, the indoor image is introduced, the indoor image is traversed, and contour recognition is performed during the traversal of the indoor image. At this time, the obtained indoor image is traversed and analyzed. The contour extraction method can automatically identify and mark multiple feature contours in the image. Optionally, these feature contours usually correspond to the edges of objects or regions in the indoor environment. By marking the feature contours, the system can more accurately identify and distinguish different objects and regions.

[0068] Optionally, the edge detection and contour extraction methods are used to automatically identify and mark the feature contours of objects such as sofas, coffee tables, storage racks, and OLED displays in the display area. These contours clearly outline the shape and position of each object. Using this information, further analyze the indoor layout, style, and the configuration of the OLED display, etc., to provide a more personalized intelligent experience for users.

[0069] Furthermore, the corresponding objects are determined according to the recognition of multiple feature contours; multiple regions to be recognized are constructed based on the relative positions of each object, the interaction relationships between each object, and the boundary contour of the indoor image.

[0070] Specifically, these feature contours are matched with known object templates or feature libraries to determine the object corresponding to each feature contour. The matching process involves various techniques such as shape analysis, color comparison, and texture recognition to further identify each object in the indoor singing room.

[0071] At this time, each object is within the indoor singing room. By referring to the positions of each object and comparing their positions, the relative positions of each object are determined. Regarding the interaction relationships between each object, the interaction relationships between each object refer to the process of different objects cooperating, interacting, and pushing each other. It emphasizes the interaction, mutual influence, and collaborative relationships among the participating parties. Optionally, the interaction relationships between each object are functional or spatial cooperation relationships. Additionally, the boundary contour of the indoor image is the edge line of the structure in the indoor image, marking the start and end of the spatial range.

[0072] Meanwhile, record the specific positions of each object in the indoor image, which includes their coordinates, directions, and spatial relationships relative to other objects. By analyzing this position information, we initially divide some potential spatial areas. For example, the area near the wall is the storage area, and the central open area is the activity area. Incorporating the interaction relationships between each object and considering the interaction relationships between objects, which include physical contact, functional association, and spatial constraints, etc. After integrating the relative positions and interaction relationships, further use the boundary contour of the indoor image to accurately define the boundaries of these areas to be recognized. The boundary contour not only helps us divide the areas more accurately but also provides important information about the shape, size, and internal object layout of the areas. Through the comprehensive analysis of the above three-fold interaction, we can finally identify and divide multiple areas to be recognized, and these areas have different functional attributes, such as work areas, leisure areas, entertainment areas, etc.

[0073] Therefore, determine the corresponding indoor features based on the recognition of multiple areas to be recognized; determine the indoor style based on the relative positions of multiple indoor features, the types of multiple indoor features, and the configuration model of the OLED display. The indoor style is the artistic feature reflected by the overall layout and decoration of the indoor space. Common indoor styles include: American country style, classical European style, Mediterranean style, Southeast Asian style, Japanese style, neoclassical style, modern minimalist style, new Chinese style (classical Chinese style), etc.; of course, it can also be a combination of two or more of the above styles.

[0074] Specifically, multiple areas to be recognized are introduced, and these areas are recognized. For each area to be recognized, characteristics such as the objects, decorative elements, and spatial layout it contains are analyzed to determine the corresponding indoor features. Optionally, during the recognition process, the functional attributes of the area (such as rest area, activity area, entertainment area, etc.) and the interactions between objects need to be comprehensively considered. Optionally, indoor features include sofas, dining tables, bars, microphones, OLED displays, etc.

[0075] Furthermore, the relative positions of multiple indoor features, the types of multiple indoor features, and the configuration model of the OLED display are introduced, and the indoor style is determined based on the multiple interactions of the relative positions of multiple indoor features, the types of multiple indoor features, and the configuration model of the OLED display.

[0076] At this time, the types of indoor features cover all types and styles of design elements in the indoor space, including the styles of furniture (such as modern, classical, industrial style, etc.), the types of decorations (such as artworks, photo walls, plants, etc.), the styles of lighting fixtures (such as chandeliers, wall lamps, floor lamps, etc.), and the choices of wall and floor materials (such as wallpapers, paints, floors, carpets, etc.). The types of features determine the basic style and tone of the indoor space; at the same time, the configuration model of the OLED display specifically refers to the specific specifications and performance of the OLED screen TV or display used in interior design. This includes screen size, resolution, color performance, brightness, contrast ratio, refresh rate, and whether it supports advanced functions such as HDR.

[0077] Regarding the multiple interactions of the relative positions of multiple indoor features, the types of multiple indoor features, and the configuration model of the OLED display, it covers the interactions of the relative positions of multiple indoor features and the types of multiple indoor features, as well as the interactions of the types of multiple indoor features and the configuration model of the OLED display.

[0078] At this time, in the interaction of the relative positions of multiple indoor features and the types of multiple indoor features, analyze how the relative positions of indoor features affect the overall spatial layout, and how different types of features coordinate or contrast with each other to create a specific atmosphere and style.

[0079] In the interaction of the types of multiple indoor features and the configuration model of the OLED display, consider how the configuration of the OLED display matches or contrasts with other indoor features, such as whether the color performance is harmonious, the size is appropriate, and the style is unified. Therefore, information from multiple aspects such as the relative positions of multiple indoor features, the types of multiple indoor features, and the configuration model of the OLED display is integrated for overall analysis and judgment to determine the indoor style.

[0080] Optional embodiment, the sofa and the coffee table, being the main furniture in the living room, are located in the central position, creating a modern minimalist atmosphere. The relative position of the wall with the OLED display and the storage rack not only highlights the status of the OLED display as the entertainment center but also forms a certain contrast and balance between the classical style of the storage rack and the modern style. The color performance and resolution of the OLED display complement the modern-style sofa and coffee table, jointly creating a modern minimalist atmosphere. However, the classical style of the storage rack and the desk forms a certain contrast with the modern style, and this contrast does not disrupt the overall style but instead adds a sense of hierarchy and richness to the space. Considering various aspects of information such as relative position, type of features, and OLED display configuration, we judge that the indoor space mainly presents a modern minimalist style while incorporating elements of the classical style, forming an indoor style that combines modern and classical. This indoor style not only meets modern people's pursuit of simplicity and fashion but also retains the elegance and entertainment of the classical style.

[0081] In step S13, determine the indoor scene based on the indoor style, the reception level of the indoor singing room, and the corresponding indoor lighting state.

[0082] In the specific implementation process of the present invention, the specific steps are as follows:

[0083] S131: Obtain the indoor style.

[0084] S132: Collect the room number information of the indoor singing room, and determine the reception level of the indoor singing room according to the room number information of the indoor singing room and the reception level table.

[0085] S133: Collect the control space of the indoor singing room based on the traceability of the room number information of the indoor singing room.

[0086] S134: Determine the corresponding indoor lighting state according to the traversal of the control space of the indoor singing room.

[0087] S135: Perform multiple interactions on the indoor style, the reception level of the indoor singing room, and the corresponding indoor lighting state, and determine the indoor scene according to the multiple interactions of the indoor style, the reception level of the indoor singing room, and the corresponding indoor lighting state.

[0088] In the embodiment of the present application, obtain the indoor style; collect the room number information of the indoor singing room, and determine the reception level of the indoor singing room according to the room number information of the indoor singing room and the reception level table.

[0089] Specifically, obtain the indoor style and conduct subsequent control over it. At the same time, collect the room number information of all indoor singing rooms from the management system or physical identifiers. Further, obtain the room number information of the indoor singing rooms and control the room number information of the indoor singing rooms. At the same time, obtain the reception level table, which usually details the reception levels corresponding to different room numbers.

[0090] Introduce the room number information of the indoor singing rooms and the reception level table, make full use of the mapping relationship in the reception level table, and determine the reception level of the indoor singing rooms according to the room number information of the indoor singing rooms and the mapping relationship.

[0091] Optionally, obtain the room number information of all rooms. Then, the reception level table shows that V001 to V005 are "ordinary level", V006 to V008 are "high level", and V009 and V010 are "luxury level". Based on this information, we used an Excel table to match each room number with its corresponding reception level. For example, V003 is marked as "ordinary level", while V009 is marked as "luxury level".

[0092] Further, collect the control space of the indoor singing rooms based on the traceability of the room number information of the indoor singing rooms; determine the corresponding indoor lighting state according to the traversal of the control space of the indoor singing rooms.

[0093] At this time, trace the room number information of the indoor singing rooms and locate the control space of the indoor singing rooms during the tracing process, realizing the collection of the control space of the indoor singing rooms. The control space of the indoor singing rooms, as part of the control system of the indoor singing rooms, stores multiple information of the indoor singing rooms.

[0094] Traverse the control space of the indoor singing rooms to facilitate information query of multiple information of the indoor singing rooms, especially for the query of indoor lighting information, so as to determine the corresponding indoor lighting state through the indoor lighting information and ensure the accuracy of the indoor lighting state.

[0095] At the same time, conduct multiple interactions on the indoor style, the reception level of the indoor singing rooms, and the corresponding indoor lighting state, and determine the indoor scene according to the multiple interactions of the indoor style, the reception level of the indoor singing rooms, and the corresponding indoor lighting state.

[0096] Specifically, introduce the indoor style, the reception level of the indoor singing rooms, and the corresponding indoor lighting state, and conduct multiple interactions on the indoor style, the reception level of the indoor singing rooms, and the corresponding indoor lighting state, realizing the multiple interactions of the indoor style, the reception level of the indoor singing rooms, and the corresponding indoor lighting state.

[0097] For the multiple interactions of the indoor style, the reception level of the indoor singing room, and the corresponding indoor lighting state, consider the indoor style, reception level, and lighting state as three independent variables for multiple interaction analysis. Consider how each variable individually and jointly affects the overall atmosphere and feeling of the indoor scene. Based on the results of the multiple interaction analysis, determine the indoor scene most suitable for the current conditions. The indoor scene generally describes the atmosphere environment corresponding to the indoor style, reception level, and lighting state.

[0098] At this time, create a matching table that includes the indoor style, reception level, lighting state, and indoor scene description. Each row in the matching table represents a specific combination and its corresponding indoor scene description. Ensure that the combinations in the matching table are as comprehensive as possible to cover all combinations of indoor styles, reception levels, and lighting states. When there are new combinations of indoor styles, reception levels, and lighting states, find the closest combination in the matching table and determine the corresponding indoor scene description based on the found combination.

[0099] Optionally, find the combination in the matching table that is closest to the modern minimalist style, high-level reception level, and warm-color lighting state. Assume that there is a row in the matching table that describes "modern minimalist style + high-level reception level + warm-color lighting = warm and comfortable high-level modern minimalist indoor scene". Based on the description in the matching table, we determine the overall atmosphere and feeling of the indoor scene.

[0100] S14: Determine the display style of the OLED display according to the indoor scene, the current positions of each microphone, and the volume of the sound system.

[0101] In the specific implementation process of the present invention, the specific steps are as follows:

[0102] S141: Monitor the indoor singing room in real time;

[0103] S142: Determine the current positions of each microphone according to the real-time monitoring of the indoor singing room;

[0104] S143: Respond to the sound system of the indoor singing room and detect the sound system of the indoor singing room;

[0105] S144: Determine the volume of the sound system according to the detection of the sound system of the indoor singing room;

[0106] S145: Perform multi-dimensional interaction on the indoor scene, the current positions of each microphone, and the volume of the sound system, and determine the display style of the OLED display according to the multi-dimensional interaction of the indoor scene, the current positions of each microphone, and the volume of the sound system.

[0107] At this time, real-time monitoring is performed on the indoor singing room; the current positions of each microphone are determined based on the real-time monitoring of the indoor singing room.

[0108] The indoor singing room is introduced, and real-time monitoring is performed on the indoor singing room, realizing real-time monitoring of the indoor singing room, and real-time control of the internal environment of the indoor singing room. At this time, using computer vision technology, the internal environment captured by the monitoring camera is analyzed in real time, and the position and shape features of the microphone in the image are identified. Based on features such as the shape and color of the microphone, an image database of the microphone is established for more accurate identification. Based on the image recognition results, the microphone is located, and the current positions of each microphone are determined in combination with the microphone and the indoor singing room.

[0109] Furthermore, in response to the sound of the indoor singing room, the sound of the indoor singing room is detected; the volume of the sound is determined based on the detection of the sound of the indoor singing room.

[0110] At this time, the sound of the indoor singing room is introduced, and the sound of the indoor singing room is responded to, thereby activating the detection mode of the sound of the indoor singing room to facilitate the detection of the sound of the indoor singing room and realizing the autonomous detection of the sound of the indoor singing room.

[0111] At the same time, the detection of the sound of the indoor singing room is monitored, so as to collect the working signal of the sound of the indoor singing room, facilitate the analysis of the working signal of the sound of the indoor singing room, and then output the corresponding content. Keyword recognition is performed in this content to determine the field of the volume of the sound, so as to ensure the accuracy of the volume of the sound.

[0112] Furthermore, multi-dimensional interaction is performed on the indoor scene, the current positions of each microphone, and the volume of the sound, and the display style of the OLED display is determined based on the multi-dimensional interaction of the indoor scene, the current positions of each microphone, and the volume of the sound.

[0113] At this time, the indoor scene, the current positions of each microphone, and the volume of the sound are introduced, taking into account the overall situation of the indoor scene, the current positions of each microphone, and the volume of the sound, realizing multi-dimensional interaction of the indoor scene, the current positions of each microphone, and the volume of the sound, thereby fusing multi-dimensional data such as the indoor scene, microphone position, and sound volume to determine the display style of the OLED display.

[0114] Specifically, multi-dimensional data is formed based on the indoor scene, microphone positions, and speaker volume. The multi-dimensional data is input into a comprehensive evaluation learning model to facilitate weighted processing of the multi-dimensional data, obtaining a comprehensive evaluation result. According to the comprehensive evaluation result, the display style of the OLED display is selected from a preset display style library, which includes different color schemes, brightness settings, dynamic effects, etc.

[0115] For the comprehensive evaluation learning model, during the model training process, by adjusting the weight parameters, weighted processing is performed on data of different dimensions. The weight allocation is determined according to business requirements and the importance of the data. The multi-dimensional data after weighted processing will be used as the input of the model to generate a comprehensive evaluation result. The multi-dimensional data after weighted processing is input into the comprehensive evaluation learning model to generate a comprehensive evaluation result. The comprehensive evaluation result is a numerical value or vector, which is used to reflect the influence degree of data of different dimensions on the display style of the OLED display. According to the comprehensive evaluation result, the most suitable display style is selected from the preset display style library.

[0116] Optionally, assume that the comprehensive evaluation result is a numerical vector, such as [0.2, 0.6, 0.1, 0.05, 0.05]. Each numerical value in this vector corresponds to a style in the preset display style library. The size of the numerical value represents the matching degree of the style with the current scene. The most suitable display style is selected according to the comprehensive evaluation result. In this example, the second numerical value (0.6) is the largest, and it corresponds to the "lively style". Therefore, we select the "lively style" as the current display style of the OLED display. When the OLED display switches to the "lively style", it will present a dark color tone and high contrast, and at the same time coordinate with the dim light conditions in the room. In addition, since the user is sitting in the center of the room close to the display, this style can also provide the best visual experience.

[0117] Therefore, determining the display style of the OLED display based on the indoor scene, the current positions of each microphone, and the speaker volume takes into account the overall situation of the indoor scene, the current positions of each microphone, and the speaker volume, improves the accuracy of the display style of the OLED display, and ensures the high coordination of the display style of the OLED display with the indoor singing room.

[0118] S15: Determine the presented light show according to the song name played by the speaker, the display style of the OLED display, and the locations of each microphone, and dynamically adjust the presented light show according to the resolution of the picture presented by the OLED display;

[0119] In the specific implementation process of the present invention, the specific steps are as follows:

[0120] S151: Collect the song name played by the speaker;

[0121] S152: Match the picture presented on the OLED display based on the song name, the list of people in the indoor singing room, and the song database of the indoor singing room;

[0122] S153: When multiple microphones are activated, determine the locations of the respective microphones based on the indoor detection of the indoor singing room;

[0123] S154: Determine the presented light show based on the multiple interactions of the picture presented on the OLED display, the display style of the OLED display, and the locations of the respective microphones;

[0124] S155: Perform resolution detection on the picture presented on the OLED display and output the resolution of the picture presented on the OLED display;

[0125] S156: Determine the effect level based on the resolution of the picture presented on the OLED display and the resolution matching table, and dynamically adjust the presented light show according to the effect level.

[0126] At this time, collect the song name played by the sound system; match the picture presented on the OLED display based on the song name, the list of people in the indoor singing room, and the song database of the indoor singing room.

[0127] Specifically, perform real-time monitoring on the sound system to obtain the song name currently being played by the sound system, which is the basis for subsequent picture matching and creating a personalized experience.

[0128] The song name, the list of people in the indoor singing room, and the song database of the indoor singing room are introduced. The song name and the list of people in the indoor singing room are input into the song database of the indoor singing room to facilitate the matching of the song name, the list of people in the indoor singing room, and the song database of the indoor singing room, so as to match the picture presented on the OLED display.

[0129] The song database of the indoor singing room is a database containing song names and corresponding pictures. Obtain the list of people in the indoor singing room and include their personal preference information (such as favorite colors, picture styles, etc.). Retrieve relevant pictures from the song database based on the song name, and combine the preference information in the list of people. Use the matching method to select the most suitable picture. Optionally, the matching method considers factors such as the popularity of the picture, the degree of fit with the song theme, and the degree of match with the personal preferences.

[0130] Specifically, after receiving the song name, access the pre-established song database. In the song database, several pictures matching the theme and style of the song "Blue and White Porcelain" are prepared in advance, such as Chinese-style landscape paintings, close-ups of blue and white porcelain, etc. Obtain the list of four people in the private room and their preference information. Assume that two of them prefer Chinese classical style, one prefers modern minimalist style, and the other has no specific preference. Introduce a matching method, comprehensively consider the song theme, personnel preferences, and the popularity of the pictures, and finally select a Chinese classical style landscape painting as the picture to be displayed on the OLED display.

[0131] Further, when multiple microphones are activated, determine the location of each microphone based on the indoor detection of the indoor singing room.

[0132] Specifically, perform an activation detection on multiple microphones. When multiple microphones in the indoor singing room are activated simultaneously, this state will be detected first. This is usually achieved through the controller or central processing unit of the microphone array, which can monitor the working state of each microphone.

[0133] Once it is detected that multiple microphones are activated, immediately start scanning the indoor environment. This includes using the images captured by the camera for indoor detection, and for each microphone, the sound signals received from each microphone. These signals contain information such as the time difference, intensity difference, and frequency characteristics of the sound reaching each microphone. By comparing and analyzing these signals, the system can infer the approximate location of the sound source (i.e., the speaker or singer). Based on the results of the signal analysis, combined with the information obtained from the indoor environment scan, determine the specific location of each microphone.

[0134] Specifically, assume that in a professional indoor singing room, five microphones are activated simultaneously. The control system of the indoor singing room detects that all five microphones have been activated, starts scanning the indoor environment of the indoor singing room, collects information about the room size, shape, and the layout of musical instruments and personnel, and analyzes the sound signals received from each microphone. Since the band members are playing at different positions in the room, the signals received by each microphone will be different. By analyzing these differences, the system can infer the approximate location of the sound source. Combining the results of the indoor environment scan and signal analysis, the system uses a method to determine the specific locations of the five microphones. For example, one microphone is placed at the position of the lead singer, and another microphone is placed at the position of the bar.

[0135] Therefore, determine the presented light show based on the multiple interactions of the picture presented on the OLED display, the display style of the OLED display, and the locations of each microphone.

[0136] Specifically, the picture presented by the OLED display, the display style of the OLED display, and the locations of each microphone are introduced, and multiple interactions are performed on the picture presented by the OLED display, the display style of the OLED display, and the locations of each microphone.

[0137] For the multiple interactions regarding the picture presented by the OLED display, the display style of the OLED display, and the locations of each microphone, capture the picture content currently presented by the OLED display, including static images, dynamic videos, or real-time generated graphical interfaces, and analyze the display style of the OLED display. The display style includes preset themes (such as science fiction, romance, festivals, etc.), color schemes (such as cool tones, warm tones, contrasting colors, etc.), and dynamic effects (such as flickering, fading, flowing, etc.). These style information are usually stored in the system configuration file or dynamically adjusted according to user preferences. At the same time, obtain the specific locations of each microphone.

[0138] Based on the captured picture content, the analyzed display style, and the microphone position information, the system designs multiple interaction modes for the light show, covering picture synchronization, style matching, and position interaction. At this time, the light show changes synchronously with the picture content on the OLED display, such as following the color change, brightness adjustment, or projection of specific patterns of the picture. The color, brightness, and dynamic effects of the light show match the display style of the OLED display, such as using soft lights and fading effects in a romantic style. The light show is dynamically adjusted according to the positions of the microphones. For example, when a participant near the microphone speaks, the nearby lights will light up or intensify. Generate the light show according to the designed multiple interaction modes and present it through the lighting devices (such as LED light strips, laser projectors, etc.) around the OLED display. The light show includes static light effects, dynamic light patterns, and light animations synchronized with the picture and sound.

[0139] Specifically, assume that in an indoor singing room, an OLED display is playing the sci-fi scenes of a song. At the same time, four microphones are placed at different positions in the auditorium, capturing the scene of a starship soaring in the night sky in the sci-fi scenes of the song. The picture has bright colors and strong contrast. The display style of the sci-fi scenes in the song is identified as a sci-fi theme, with a color scheme mainly dominated by cool tones. The dynamic effects include special effects such as the movement and explosion of the spaceship. The specific positions of the four microphones are determined through indoor positioning technology, located in the front row, back row, and two sides of the auditorium respectively. Based on the above information, a light show that interacts with the sci-fi scenes in the song and the microphone positions is designed. When the spaceship flies in the night sky, the LED light strips on the ceiling will simulate the twinkling of the starry sky, and at the same time project a light and shadow effect around the auditorium according to the movement trajectory of the spaceship. When the explosion scene in the sci-fi scenes of the song occurs, the lights near the microphones will increase in brightness and flash, simulating the shock wave of the explosion. In addition, according to the size of the audience's voice captured by the microphones, the dynamic effects of the light show will also be adjusted accordingly. For example, when the audience cheers, the lights will become brighter and more active. At the same time, a light show is generated according to the designed multiple interaction modes and presented through the lighting equipment in the indoor singing room. While enjoying the sci-fi scenes in the song, the audience can also feel the immersive lighting effects, enhancing the overall viewing experience.

[0140] Therefore, the resolution of the picture presented by the OLED display is detected, and the resolution of the picture presented by the OLED display is output; based on the resolution of the picture presented by the OLED display and the resolution matching table, the effect level is determined, and the presented light show is dynamically adjusted according to the effect level, realizing the linkage control effect of the display, lighting, and sound effects of the OLED display.

[0141] At this time, the resolution of the picture presented by the OLED display is detected. The resolution of the picture currently presented by the OLED display is obtained through metadata of image recognition or display interfaces (such as HDMI, DisplayPort, etc.), and the detected resolution is output in numerical form (such as 1920x1080, 3840x2160, etc.) for subsequent processing.

[0142] The resolution matching table is a pre-defined table used to match different resolutions with corresponding effect levels. This table is set based on factors such as display effects, hardware performance, and user experience. At this time, this table is constructed according to the physical characteristics of the OLED display (such as pixel density, screen size), the implementation technology of the light show (such as the resolution of LED lights, the processing ability of dynamic effects), and the user's preferences.

[0143] According to the detected resolution information, the corresponding effect level is searched in the resolution matching table. The determination of the effect level involves multiple factors, such as the resolution, the fineness of the display effect, the dynamic processing capability of the light show, etc. According to the determined effect level, the system will dynamically adjust the light show around the OLED display. This involves adjustments to the brightness, color, dynamic effects (such as flickering, gradient, flow, etc.) of the light, and the degree of synchronization between the light and the picture. The control strategy includes smooth transition of lighting effects according to changes in resolution, enabling more sophisticated lighting dynamic effects at high resolution, and simplifying lighting effects at low resolution to reduce hardware burden.

[0144] Specifically, suppose that in an indoor singing room, the OLED display is showing the screen of a high-definition racing game, and the game hall is equipped with an intelligent lighting system to enhance the game atmosphere. The system detects that the OLED display is currently showing the screen of a high-definition racing game with a resolution of 3840x2160 (4K). The lighting system of the game hall has pre-defined a resolution matching table. In this table, 4K resolution is classified as the "high-definition" effect level, while lower resolutions (such as 1080p) are classified as "standard" or "low-definition" effect levels. The system searches and determines the "high-definition" effect level in the resolution matching table based on the detected 4K resolution. According to the "high-definition" effect level, the system dynamically adjusts the light show. The lighting system activates more sophisticated dynamic effects, such as the gradual change of lights when the simulated racing car accelerates, the flow of lights when turning, etc. At the same time, the brightness, color and synchronization of the lights have also been optimized to better match the details and color changes in the 4K high-definition picture, realizing the linkage control effect of the display, lighting and sound effects of the OLED display.

[0145] S16: in the moving state of each microphone, constructing a follow-up focus mode of the indoor singing room according to the moving position of each microphone, the indoor lighting state and the display style of the OLED display;

[0146] In the specific implementation process of the present invention, the specific steps are:

[0147] S161: In an indoor singing room, real-time monitoring of the position of each microphone;

[0148] S162: If the position of each microphone changes, confirm that each microphone is in a moving state;

[0149] S163: collecting the moving position of each microphone in the moving state of each microphone;

[0150] S164: Multiple interactions with the moving positions of each microphone, the indoor lighting status, and the display style of the OLED display;

[0151] S165: Build a follow - up focusing mode for the indoor singing room based on the multiple interactions of the moving positions of each microphone, the indoor lighting state, and the display style of the OLED display.

[0152] S166: Trigger the directional presentation of the light show presented according to the follow - up focusing mode of the indoor singing room.

[0153] At this time, in the indoor singing room, the positions of each microphone are monitored in real - time; if the positions of each microphone change, it is determined that each microphone is in a moving state; in the moving state of each microphone, the moving positions of each microphone are collected.

[0154] Specifically, in the indoor singing room, the positions of each microphone are monitored in real - time. Monitoring the microphone positions in real - time is to ensure that the system can respond immediately to the position changes of the microphones. By comparing the current position with the position recorded at the previous moment, it is judged whether the microphone has moved. If the difference between the position information exceeds a preset threshold (for example, the distance change exceeds a certain range or the position changes significantly within a certain time interval), it is determined that the microphone is in a moving state. Determining the moving state of the microphone is to trigger subsequent actions, such as collecting moving position information, adjusting sound settings, or triggering lighting effects, etc.

[0155] Once it is determined that the microphone is in a moving state, start continuously or regularly collecting its position information, which involves real - time updating of the position data and storing it in the system's memory or database for subsequent processing. Collecting the moving position information is to record the trajectory of the microphone, which is crucial for sound processing, lighting effect synchronization, or other location - based interactive functions.

[0156] Optionally, when a certain microphone is moved to the center position of the box, the system will automatically adjust the sound settings to highlight the sound of that microphone and trigger the lighting system to form a focused lighting effect around the microphone. In this way, customers can obtain a more immersive and personalized experience when singing.

[0157] At the same time, multiple interactions are carried out on the moving positions of each microphone, the indoor lighting state, and the display style of the OLED display; a follow - up focusing mode for the indoor singing room is built based on the multiple interactions of the moving positions of each microphone, the indoor lighting state, and the display style of the OLED display.

[0158] Specifically, the moving positions of each microphone are obtained in real - time, introducing the moving positions of each microphone, the indoor lighting state, and the display style of the OLED display, so as to facilitate multiple interactions on the moving positions of each microphone, the indoor lighting state, and the display style of the OLED display.

[0159] In this multiple interaction, information such as the microphone position, lighting state, and OLED display style is integrated and correlated. When the microphone position changes, the system dynamically adjusts the display content of the lights and the OLED display according to the preset interaction content. Optionally, as the microphone moves, the light gradually turns into bright yellow, and as the microphone gets closer, the light brightness gradually increases, forming a focusing effect. When the microphone approaches the center of the stage, the OLED display starts to show more detailed lyrics and visual effects that match the song rhythm, such as music waveforms and flashing patterns. In this way, the system can dynamically adjust the display content of the lights and the OLED display according to the change of the microphone position, providing users with a more immersive and personalized singing experience.

[0160] In the follow - up focusing mode of the indoor singing room, according to the movement trajectory of the microphone, the display content of the lights and the OLED display is dynamically adjusted. The lighting system will form a light band in the direction of the microphone movement, or adjust the flashing frequency of the lights according to the movement speed of the microphone, creating a dynamic effect. The OLED display shows visual effects that match the song rhythm and lyrics content, such as music waveforms and highlighted lyrics, according to the movement position of the microphone, organically combining the microphone position, lighting state, and OLED display style, thereby enhancing the interactivity and immersion of the indoor singing room.

[0161] Furthermore, trigger the directional presentation of the light show presented according to the follow - up focusing mode of the indoor singing room.

[0162] In the follow - up focusing mode, according to the indoor singing room layout and microphone position information, determine the current focusing center, that is, the position where the user or the microphone is located. Set a circular or elliptical focusing range with the focusing center as the center. The lights and visual effects within this range will be specially processed. Preset a series of change rules for the lights and visual effects according to the song type, rhythm, lyrics emotion, etc. These rules will be triggered as the microphone position changes.

[0163] Real - time detect the position of the microphone through the indoor positioning system. When the microphone position changes significantly (such as entering the preset focusing range), trigger the follow - up focusing mode. At the same time, according to the preset rules, design the content of the light show, including light color, brightness, flashing frequency, dynamic effects, etc., and the synchronization method of these effects with the content on the OLED display. Send instructions to the OLED display and the lighting system according to the microphone position and preset rules to control them to present specific light shows and visual effects. Optionally, when the microphone position meets the preset conditions, automatically trigger a light show that is synchronized with the content on the OLED display and presented directionally, enhancing the interactive effect of the indoor singing room.

[0164] Specifically, the user holds the microphone and walks from a corner of the box to the central stage. When the microphone enters the preset focusing range (such as within 3 meters from the central stage), the follow - up focusing mode is triggered. The lyrics on the OLED display start to scroll along with the song rhythm, and visual elements corresponding to the song theme appear. The lighting system begins to present a light show synchronized with the content of the OLED display. For example, when bright colors or dynamic patterns appear on the OLED display, the lighting system also changes colors or produces a flashing effect accordingly. The effect of the light show changes with the rhythm and emotional content of the song. When the song reaches its climax, the lighting brightness increases and the colors become more vivid. The user feels the perfect synchronization between the light show and the content of the OLED display, as well as their dynamic adjustment with the change of the microphone position, thus obtaining a more immersive and personalized singing experience.

[0165] In the embodiment of the present invention, through the method in the embodiment of the present invention, the indoor image of the indoor singing room is collected; the corresponding indoor style is determined based on the recognition of the indoor image; the indoor scene is determined based on the indoor style, the reception level of the indoor singing room, and the corresponding indoor lighting state; the display style of the OLED display is determined according to the indoor scene, the current positions of each microphone, and the volume of the sound system, taking into account the overall situation of the indoor scene, the current positions of each microphone, and the volume of the sound system, improving the accuracy of the display style of the OLED display and ensuring the high coordination between the display style of the OLED display and the indoor singing room.

[0166] Furthermore, the presented light show is determined according to the song name played by the sound system, the display style of the OLED display, and the locations of each microphone, and the presented light show is dynamically regulated according to the resolution of the picture presented on the OLED display, realizing the regulation of the presented light show and taking into account the resolution of the picture presented on the OLED display, achieving the linkage control effect of the display, lighting, and sound effects of the OLED display.

[0167] Therefore, in the moving state of each microphone, the follow - up focusing mode of the indoor singing room is constructed according to the moving positions of each microphone, the indoor lighting state, and the display style of the OLED display, introducing the follow - up focusing mode of the indoor singing room, ensuring a good experience for the user holding the microphone, and ensuring diverse display effects of the OLED display.

[0168] Embodiment Three

[0169] Please refer to Figure 3 , Figure 3 which is a schematic diagram of the structural composition of the linkage control system for the display, lighting, and sound effects based on the OLED display in the embodiment of the present invention.

[0170] AsFigure 3 As shown in the figure, a linkage control system for display, lighting, and sound effects based on an OLED display, the linkage control system for display, lighting, and sound effects based on an OLED display includes:

[0171] An acquisition module 21, configured to acquire indoor images of an indoor singing room;

[0172] An identification module 22, configured to determine a corresponding indoor style based on the identification of the indoor images;

[0173] A scene module 23, configured to determine an indoor scene based on the indoor style, the reception level of the indoor singing room, and the corresponding indoor lighting state;

[0174] A display module 24, configured to determine the display style of the OLED display according to the indoor scene, the current positions of each microphone, and the volume of the sound system;

[0175] A light show module 25, configured to determine the presented light show according to the song name played by the sound system, the display style of the OLED display, and the positions of each microphone, and dynamically adjust the presented light show according to the resolution of the picture presented by the OLED display;

[0176] A follow-up module 26, configured to construct a follow-up focusing mode of the indoor singing room according to the moving positions of each microphone, the indoor lighting state, and the display style of the OLED display during the moving states of each microphone.

[0177] Embodiment 4

[0178] In this embodiment, an electronic device is provided. Its internal structure diagram is as Figure 4 shown. The electronic device includes a processor, a memory, a network interface, a display screen, and an input device connected through a system bus. Among them, the processor of the electronic device is used to provide computing and control capabilities. The memory of the electronic device includes a non-volatile storage medium and an internal memory. The non-volatile storage medium stores an operating system and a computer program, and a database is deployed on the non-volatile storage medium, and the database is used to store user behavior data and user portraits. The internal memory provides an environment for the operation of the operating system and the computer program in the non-volatile storage medium. The network interface of the electronic device is used to communicate with other electronic devices on which application software is deployed. When the computer program is executed by the processor, it realizes a low-altitude patrol method for an unmanned aerial vehicle. The display screen of the electronic device is a liquid crystal display screen or an electronic ink display screen, and the input device of the electronic device is a touch layer covering the display screen, and is also a key, a trackball or a touchpad provided on the housing of the electronic device, or an external keyboard, touchpad or mouse, etc.

[0179] Arbitrarily combine the technical features of the above embodiments. For the sake of brevity in description, not all combinations of the technical features in the above embodiments are described. However, as long as there is no contradiction in the combination of these technical features, it should be considered as the scope recorded in this specification.

Claims

1. A linkage control method for display, lighting and sound effects based on an OLED display, characterized in that: include: Collect indoor images of the indoor singing room; Determining a corresponding interior style based on the recognition of the interior image; Determine the indoor scene based on the indoor style, the reception level of the indoor singing room and the corresponding indoor lighting status; Determine the display style of the OLED display based on the indoor scene, the current position of each microphone, and the volume of the speaker; The light show is determined according to the song title played by the speaker, the display style of the OLED display and the location of each microphone, and the light show is dynamically adjusted according to the resolution of the picture displayed by the OLED display; In the moving state of each microphone, a follow-up focus mode of the indoor singing room is constructed according to the moving position of each microphone, the indoor lighting state and the display style of the OLED display.

2. The method for controlling the display, lighting and sound effects of an OLED display according to claim 1, characterized in that: The collecting of the indoor image of the indoor singing room comprises: Collect the opening signal of the indoor singing room; The multi-directional shooting of the internal camera of the indoor singing room is triggered according to the opening signal of the indoor singing room; In the multi-directional shooting of the internal camera of the indoor singing room, the internal camera moves along a preset track and performs multi-directional shooting during the fixed-point movement to obtain multiple images in different directions; Image synthesis of multiple images in different directions and spatial positions of OLED displays; The indoor image of the indoor singing room is determined based on the synthesis of multiple images in different directions and the image of the spatial position of the OLED display, so as to collect the indoor image of the indoor singing room.

3. The linkage control method of display, lighting and sound effects based on OLED display according to claim 2 is characterized in that: The determining the corresponding interior style based on the recognition of the interior image includes: Acquire the indoor image; Marking a plurality of feature contours according to the traversal of the indoor image; Determining the corresponding object based on the recognition of multiple feature contours; Construct multiple areas to be identified based on the relative positions of the objects, the interaction relationships between the objects, and the boundary contours of the indoor image; Determining corresponding indoor features according to the identification of multiple areas to be identified; The interior style is determined based on the relative positions of the plurality of interior features, the types of the plurality of interior features, and the configuration model of the OLED display.

4. The method for controlling the linkage of display, lighting and sound effects based on an OLED display according to claim 3, characterized in that: The determining of the indoor scene based on the indoor style, the reception level of the indoor singing room and the corresponding indoor lighting state includes: Get this interior style; Collect the room number information of the indoor singing room, and determine the reception level of the indoor singing room according to the room number information of the indoor singing room and the reception level table; Based on the tracing of the room number information of the indoor singing room, the control space of the indoor singing room is collected; Determine the corresponding indoor lighting state according to the traversal of the control space of the indoor singing room; Multiple interactions are performed on the interior style, the reception level of the indoor singing room, and the corresponding indoor lighting status, and the indoor scene is determined according to the multiple interactions of the interior style, the reception level of the indoor singing room, and the corresponding indoor lighting status.

5. The linkage control method for display, lighting and sound effects based on an OLED display according to any one of claims 1 to 4, characterized in that: The method of determining the display style of the OLED display according to the indoor scene, the current position of each microphone and the volume of the sound system includes: Conduct real-time monitoring of the indoor singing room; Determine the current position of each microphone according to the real-time monitoring of the indoor singing room; Responding to the sound of the indoor singing room and detecting the sound of the indoor singing room; Determining the volume of the sound system according to the detection of the sound system of the indoor singing room; A multi-dimensional interaction is performed on the indoor scene, the current position of each microphone, and the volume of the audio, and the display style of the OLED display is determined according to the multi-dimensional interaction of the indoor scene, the current position of each microphone, and the volume of the audio.

6. The method for controlling the display, lighting and sound effects of an OLED display according to claim 5, characterized in that: The light show is determined according to the song title played by the speaker, the display style of the OLED display, and the location of each microphone, and the light show is dynamically adjusted according to the resolution of the picture presented by the OLED display, including: Collect the names of songs played by the speakers; Matching the picture presented by the OLED display based on the song title, the list of people in the indoor singing room, and the song database of the indoor singing room; When multiple microphones are activated, the location of each microphone is determined based on indoor detection of the indoor singing room; The light show presented is determined based on multiple interactions of the image presented by the OLED display, the display style of the OLED display, and the locations of the various microphones.

7. The linkage control method of display, lighting and sound effects based on an OLED display according to claim 6, characterized in that: The method of determining the light show presented according to the song title played by the speaker, the display style of the OLED display and the location of each microphone, and dynamically adjusting the light show presented according to the resolution of the picture presented by the OLED display, further includes: Performing resolution detection on the picture presented by the OLED display, and outputting the resolution of the picture presented by the OLED display; The effect level is determined based on the resolution of the image presented by the OLED display and a resolution matching table, and the presented light show is dynamically adjusted according to the effect level.

8. The linkage control method of display, lighting and sound effects based on OLED display according to claim 7, characterized in that: In the moving state of each microphone, a follow-up focus mode of the indoor singing room is constructed according to the moving position of each microphone, the indoor lighting state and the display style of the OLED display, including: In an indoor singing room, monitor the position of each microphone in real time; If the positions of the microphones change, it is confirmed that the microphones are in a moving state.

9. The linkage control method of display, lighting and sound effects based on OLED display according to claim 8, characterized in that: In the moving state of each microphone, the follow-up focus mode of the indoor singing room is constructed according to the moving position of each microphone, the indoor lighting state and the display style of the OLED display, and also includes: In the moving state of each microphone, collecting the moving position of each microphone; Multiple interactions with the moving positions of each microphone, the indoor lighting status, and the display style of the OLED display; The dynamic focus mode of the indoor singing room is constructed based on the multiple interactions of the moving positions of each microphone, the indoor lighting status and the display style of the OLED display; The directional presentation of the light show presented is triggered according to the follow-up focus mode of the indoor singing room.

10. A linkage control system for display, lighting and sound effects based on an OLED display, characterized in that: The linkage control system of display, light and sound effect based on the OLED display is applied to the linkage control method of display, light and sound effect based on the OLED display as claimed in any one of claims 1 to 9, and the linkage control system of display, light and sound effect based on the OLED display comprises: A collection module, used for collecting indoor images of the indoor singing room; A recognition module, used to determine a corresponding interior style based on the recognition of the interior image; A scene module, for determining an indoor scene based on the indoor style, the reception level of the indoor singing room and the corresponding indoor lighting status; A display module, used to determine the display style of the OLED display according to the indoor scene, the current position of each microphone and the volume of the speaker; A light show module, used to determine the light show presented according to the song name played by the speaker, the display style of the OLED display and the location of each microphone, and dynamically adjust the light show presented according to the resolution of the picture presented by the OLED display; The follow-up module is used to build a follow-up focus mode of the indoor singing room according to the moving position of each microphone, the indoor lighting status and the display style of the OLED display in the moving state of each microphone.

Images