A space-based sound reinforcement system control method, device and storage medium

Abstract

The present invention discloses a space-based sound reinforcement system control method, device and storage medium, which relates to the technical field of sound reinforcement control, and determines the use scene information of sound reinforcement, and constructs a sound reinforcement space model based on the use scene information of sound reinforcement; determines the required sound reinforcement information, determines multiple sound reinforcement setting points based on the sound reinforcement model, respectively sets corresponding preparation points corresponding to the multiple sound reinforcement setting points, and binds the sound reinforcement setting points with the corresponding preparation points as a sound reinforcement set; performs equipment settings in the use scene based on the sound reinforcement set, collects real-time sound reinforcement information in the use scene, and adjusts the real-time sound reinforcement information based on the sound reinforcement model. The present invention can facilitate the subsequent reception of the actually collected sound reinforcement information and accurately correspond to the sound reinforcement three-dimensional model for display, and can better adjust the sound reinforcement process, so that the adjustment process is clearer and more accurate.

Description

Technical Field

[0001] The present invention relates to the technical field of sound reinforcement control, and in particular to a space-based sound reinforcement system control method, device and storage medium. Background Art

[0002] With the increasing number of cultural, entertainment, conference and other activities, the frequency of use of large theaters, concert halls, stadiums, conference centers and other spaces has increased significantly. The audience and participants have higher and higher requirements for sound quality, not only requiring clear and loud sound, but also requiring the ability to restore the layering and three-dimensional sense of sound. These spaces and sound reinforcement needs place extremely high demands on the sound reinforcement system, which requires high-quality sound coverage and precise sound quality control.

[0003] Traditional sound reinforcement systems lack the ability to monitor and adjust in real time, and often require manual listening and adjustment to optimize sound quality. This approach is not only inefficient, but also difficult to ensure the accuracy and consistency of adjustment. Summary of the invention

[0004] The object of the present invention is to provide a space-based sound reinforcement system control method, device and storage medium to solve the deficiencies in the background technology.

[0005] In order to achieve the above object, the present invention provides the following technical solution: a space-based sound reinforcement system control method, comprising the following steps:

[0006] Determine the sound reinforcement usage scenario information, and build a sound reinforcement space model based on the sound reinforcement usage scenario information;

[0007] Determine required sound reinforcement information, wherein the sound reinforcement information includes a plurality of basic parameters of the required sound, and mark the sound reinforcement information in the sound reinforcement space model to obtain a sound reinforcement model;

[0008] Determine multiple sound reinforcement setting points based on the sound reinforcement model, set corresponding preparation points for each of the multiple sound reinforcement setting points, and bind the sound reinforcement setting points and the corresponding preparation points as a sound reinforcement set;

[0009] Based on the sound reinforcement set, equipment is set up in the usage scenario, real-time sound reinforcement information in the usage scenario is collected, and the real-time sound reinforcement information is adjusted based on the sound reinforcement model.

[0010] In a preferred embodiment, the step of determining the sound reinforcement usage scenario information and constructing the sound reinforcement space model based on the sound reinforcement usage scenario information includes:

[0011] Determine the spatial structure information and spatial dimension information used for sound reinforcement as the sound reinforcement use scene information;

[0012] Perform three-dimensional modeling according to the sound reinforcement usage scene information to obtain a three-dimensional sound reinforcement model;

[0013] Perform point processing in the three-dimensional sound reinforcement model to obtain multiple monitoring points, and connect adjacent monitoring points to form a spatial point frame;

[0014] The three-dimensional sound reinforcement model with the space point frame set up is used as the sound reinforcement space model.

[0015] In a preferred embodiment, the step of performing point processing in the sound reinforcement three-dimensional model to obtain a plurality of monitoring points and connecting the plurality of monitoring points to form a spatial point frame comprises:

[0016] The space in the sound reinforcement three-dimensional model is divided into a plurality of unit spaces, and corresponding monitoring points are respectively configured corresponding to the center points of the plurality of unit spaces;

[0017] A corresponding cloud server is configured corresponding to the sound reinforcement three-dimensional model, an information position is set in the cloud server, the position information is marked on the information position, and a mapping position of the monitoring point on the information position is determined as the mapping position;

[0018] Adjacent monitoring points are connected to form a spatial point frame, and corresponding mapping sites are connected based on the spatial point frame.

[0019] In a preferred embodiment, the steps of configuring a corresponding cloud server for the corresponding sound reinforcement three-dimensional model, setting an information position in the cloud server, and marking the position on the information position include:

[0020] Perform spatial settings in the cloud server corresponding to the three-dimensional sound reinforcement model to obtain a spatial storage area;

[0021] Based on the division of the spatial storage area, a plurality of storage position strips are obtained, and a plurality of sites are marked on the storage position strips according to the monitoring points in the spatial point rack to obtain information positions;

[0022] The plurality of storage position strips and the corresponding plurality of sites are encoded respectively, and the encodings of the plurality of storage position strips and the encodings of the corresponding sites are combined to obtain the site information.

[0023] In a preferred embodiment, the step of marking the sound reinforcement information in the sound reinforcement space model to obtain the sound reinforcement model includes:

[0024] Obtain multiple basic parameters of the sound required in the sound reinforcement usage scenario as sound reinforcement information;

[0025] The monitoring points in the sound reinforcement space model corresponding to the sound reinforcement information are spatially marked, the monitoring points corresponding to the sound reinforcement information that meets the preset difference conditions are range-divided to obtain multiple range spaces, and the sound reinforcement three-dimensional model of the marked range space is used as the sound reinforcement model.

[0026] In a preferred embodiment, the steps of determining a plurality of sound reinforcement setting points based on the sound reinforcement model, setting corresponding preparation points for the plurality of sound reinforcement setting points, and binding the sound reinforcement setting points with the corresponding preparation points as a sound reinforcement set include:

[0027] sorting multiple adjacent range spaces in the sound reinforcement model according to the numerical values ​​of the sound reinforcement information, taking multiple range spaces that do not meet the preset decreasing conditions as target spaces, and determining sound reinforcement setting points at positions between the target spaces;

[0028] Corresponding preparation points are respectively set within preset ranges of a plurality of sound reinforcement setting points, and the sound reinforcement setting points are bound to the corresponding preparation points as a sound reinforcement set.

[0029] In a preferred embodiment, the steps of performing device settings in a usage scenario based on a sound reinforcement set, collecting real-time sound reinforcement information in the usage scenario, and adjusting the real-time sound reinforcement information based on a sound reinforcement model include:

[0030] Sound reinforcement equipment is respectively provided for corresponding sound reinforcement sets, and sound reinforcement is performed through the sound reinforcement equipment in the usage scenario;

[0031] Collecting real-time sound reinforcement information of multiple range space boundaries in the use scenario and transmitting it to the mapping site of the cloud server to store multiple mapping site networks of the multiple range spaces, wherein the mapping site network includes mapping sites connected to the range space boundary positions;

[0032] The real-time sound reinforcement information of the mapped site network is matched to the mark in the sound reinforcement model, the real-time sound reinforcement information is compared with the sound reinforcement information in the sound reinforcement model to obtain difference information, and the range space corresponding to the difference information that does not meet the preset conditions is used as the adjustment space;

[0033] The real-time sound reinforcement information in the adjustment space is adjusted according to the sound reinforcement equipment until the difference information meets the preset conditions.

[0034] The present invention also provides a space-based sound reinforcement system control device, comprising:

[0035] A construction module, used to determine the sound reinforcement usage scenario information, and to construct a sound reinforcement space model based on the sound reinforcement usage scenario information;

[0036] A marking module, connected to the building module, is used to determine the required sound reinforcement information, wherein the sound reinforcement information includes a variety of basic parameters of the required sound, and marks the sound reinforcement information in the sound reinforcement space model to obtain a sound reinforcement model;

[0037] A setting module, connected to the marking module, for determining a plurality of sound reinforcement setting points based on the sound reinforcement model, respectively setting corresponding preparation points corresponding to the plurality of sound reinforcement setting points, and binding the sound reinforcement setting points with the corresponding preparation points as a sound reinforcement set;

[0038] The adjustment module is connected to the setting module, and is used to set the device in the use scenario based on the sound reinforcement set, collect the real-time sound reinforcement information in the use scenario, and adjust the real-time sound reinforcement information based on the sound reinforcement model.

[0039] In a preferred embodiment, the building blocks include:

[0040] An information determination unit, used to determine spatial structure information and spatial dimension information used for sound reinforcement as sound reinforcement use scene information;

[0041] A model building unit, used for performing three-dimensional modeling according to the sound reinforcement usage scene information to obtain a sound reinforcement three-dimensional model;

[0042] A processing unit, used for performing point processing in the sound reinforcement three-dimensional model to obtain a plurality of monitoring points, and connecting adjacent monitoring points to form a spatial point frame;

[0043] The management unit is used to use the three-dimensional sound reinforcement model with the space point frame set as the sound reinforcement space model.

[0044] In the above technical solution, the technical effects and advantages provided by the present invention are:

[0045] 1. The present invention needs to encode multiple storage position bars and corresponding multiple sites respectively, and combine the codes of the multiple storage position bars and the codes of the corresponding sites to obtain site information. The site information represents the position of the site in the storage position bar, which can facilitate the subsequent reception of the actually collected sound amplification information and accurately correspond to the sound amplification three-dimensional model for display, so as to better adjust the sound amplification process, making the adjustment process clearer and more accurate;

[0046] 2. The present invention adjusts the real-time sound reinforcement information in the adjustment space according to the sound reinforcement equipment until the difference information meets the preset conditions, which can ensure that the real-time adjusted sound reinforcement information is more closely matched with the required sound reinforcement information and has a better sound reinforcement system control effect. BRIEF DESCRIPTION OF THE DRAWINGS

[0047] In order to more clearly illustrate the embodiments of the present application or the technical solutions in the prior art, the drawings required for use in the embodiments will be briefly introduced below. Obviously, the drawings described below are only some embodiments recorded in the present invention. For ordinary technicians in this field, other drawings can also be obtained based on these drawings.

[0048] Figure 1 The figure is a flow chart of the method of the present invention.

[0049] Figure 2 It is a system block diagram of the present invention. DETAILED DESCRIPTION

[0050] In order to make the purpose, technical solution and advantages of the embodiments of the present invention clearer, the technical solution in the embodiments of the present invention will be clearly and completely described below in conjunction with the drawings in the embodiments of the present invention. Obviously, the described embodiments are part of the embodiments of the present invention, not all of the embodiments. Based on the embodiments of the present invention, all other embodiments obtained by ordinary technicians in this field without creative work are within the scope of protection of the present invention.

[0051] Example 1, please refer to Figure 1 As shown, the space-based sound reinforcement system control method described in this embodiment includes the following steps:

[0052] S1. Determine the sound reinforcement usage scenario information, and build a sound reinforcement space model based on the sound reinforcement usage scenario information;

[0053] S2. Determine required sound reinforcement information, wherein the sound reinforcement information includes a variety of basic parameters of the required sound, and mark the sound reinforcement information in the sound reinforcement space model to obtain a sound reinforcement model;

[0054] S3. Determine multiple sound reinforcement setting points based on the sound reinforcement model, set corresponding preparation points for each of the multiple sound reinforcement setting points, and bind the sound reinforcement setting points and the corresponding preparation points as a sound reinforcement set;

[0055] S4. Perform device settings in the usage scenario based on the sound reinforcement set, collect real-time sound reinforcement information in the usage scenario, and adjust the real-time sound reinforcement information based on the sound reinforcement model.

[0056] In one embodiment, the step S1 of determining the sound reinforcement usage scenario information and constructing the sound reinforcement space model based on the sound reinforcement usage scenario information includes:

[0057] S11, determining the spatial structure information and spatial size information used for sound reinforcement as the sound reinforcement scene information;

[0058] S12, performing three-dimensional modeling according to the sound reinforcement usage scenario information to obtain a sound reinforcement three-dimensional model;

[0059] S13, performing point processing in the sound reinforcement three-dimensional model to obtain multiple monitoring points, and connecting adjacent monitoring points to form a spatial point frame;

[0060] S14, using the three-dimensional sound reinforcement model with the spatial point frame set as the sound reinforcement space model;

[0061] As described in the above steps S11-S14, the control of the sound reinforcement system based on space needs to understand the operating space of the sound reinforcement control. Here, the spatial structure information and spatial size information used for sound reinforcement are used as the scene information for sound reinforcement. Then, the three-dimensional model of the sound reinforcement is obtained by three-dimensional modeling based on the scene information for sound reinforcement. The specific operation is as follows: according to the size of the spatial structure, a basic grid (such as a cube, a sphere, etc.) is created in the modeling software as the starting point for modeling; the basic grid is adjusted to a shape similar to the spatial structure by dragging, stretching, rotating, etc., and the model structure is refined: more details are added to the basic grid, such as structural elements such as walls, doors, windows, and roofs. Use tools in the modeling software (such as polygon editing tools, surface subdivision tools, etc.) to fine-tune the model to ensure the accuracy of the model. Apply materials and textures: Add appropriate materials and textures to different parts of the model to make it more realistic and lifelike. The material editor in the modeling software can be used to create and adjust material properties, such as color, glossiness, reflection, etc. Set lighting and rendering: According to the actual situation of the spatial structure, set appropriate lighting effects to simulate the influence of natural light or artificial light sources on the model. The model is rendered using a rendering tool to generate a high-quality three-dimensional model. Then, multiple monitoring points are obtained by point processing in the three-dimensional sound reinforcement model. The monitoring points are suspended points distributed in the three-dimensional sound reinforcement model space. Then, a space point frame is formed between adjacent monitoring points, which is used for subsequent monitoring and adjustment of the sound quality of the sound reinforcement in the space, which can greatly improve the control effect and control accuracy of the sound reinforcement system.

[0062] In one embodiment, the step S13 of performing point processing in the sound reinforcement three-dimensional model to obtain a plurality of monitoring points and connecting the plurality of monitoring points to form a spatial point frame includes:

[0063] S131, dividing the space in the sound reinforcement three-dimensional model into a plurality of unit spaces, and configuring corresponding monitoring points corresponding to the center points of the plurality of unit spaces respectively;

[0064] S132, configuring a corresponding cloud server corresponding to the sound reinforcement three-dimensional model, setting an information position in the cloud server, marking the position information on the information position, and determining a mapping position of the monitoring point on the information position as the mapping position;

[0065] S133, connecting adjacent monitoring points to form a spatial point frame, and connecting corresponding mapping sites based on the spatial point frame;

[0066] As described in the above steps S131-S133, the space in the sound reinforcement three-dimensional model is divided into multiple unit spaces, and corresponding monitoring points are respectively configured corresponding to the center points of the multiple unit spaces. The sound reinforcement three-dimensional model does not have the function of obtaining information, so it is necessary to configure a corresponding cloud server corresponding to the sound reinforcement three-dimensional model for receiving and storing information, and then set the information position in the cloud server, mark the site information on the information position, the information position and the site are used to receive and store the sound reinforcement information of the corresponding mapping site, and determine the mapping position of the monitoring point on the information position as the mapping site. The positions corresponding to the site information here are all mapping sites, and then connect adjacent monitoring points to form a space point frame. Here, the monitoring points are connected in the virtual sound reinforcement three-dimensional model to obtain the space point frame, and the corresponding mapping sites are also connected according to the connection structure between the monitoring points in the space point frame. The correspondence between the space point frame and the information position can be obtained, which is convenient for the subsequent corresponding display of information and can be better displayed in the sound reinforcement three-dimensional model.

[0067] In one embodiment, the corresponding sound reinforcement three-dimensional model configures a corresponding cloud server, sets an information position in the cloud server, and marks the position on the information position in step S132, including:

[0068] S1321, performing spatial setting corresponding to the sound reinforcement three-dimensional model in the cloud server to obtain a spatial storage area;

[0069] S1322, based on the spatial storage area division, a plurality of storage position bars are obtained, and a plurality of positions are marked on the storage position bars according to the monitoring points in the spatial point rack to obtain information positions;

[0070] S1323, respectively encode the plurality of storage position bars and the corresponding plurality of sites, and combine the codes of the plurality of storage position bars and the codes of the corresponding sites to obtain site information;

[0071] As described in the above steps S1321-S1323, storage virtualization technology abstracts physical storage devices (such as hard disks, SSDs, etc.) into an independent virtual storage resource pool, and storage space can be flexibly allocated and managed in this resource pool; through storage virtualization, centralized management of storage devices, data migration, snapshot backup and other functions can be realized, thereby improving the utilization and flexibility of storage space. In the present application, a virtual layout of storage space is set in the cloud server according to the spatial structure of the three-dimensional sound reinforcement model to obtain a spatial storage area. The spatial storage area has the same spatial structure as the three-dimensional sound reinforcement model. The spatial storage area is divided into multiple storage strips, which is equivalent to setting multiple storage layers in a horizontal state. On the storage position bar, multiple sites are marked corresponding to the monitoring points in the space point frame to obtain information positions. The information positions are multiple storage layers and the status of the sites is set. In order to clarify the exact position of the sites, multiple storage position bars and corresponding multiple sites need to be encoded respectively. The encodings of the multiple storage position bars and the encodings of the corresponding sites are combined to obtain the site information. The site information represents the position of the site in the storage position bar, which can facilitate the subsequent reception of the actually collected sound amplification information and accurately correspond to the sound amplification three-dimensional model for display, so as to better adjust the sound amplification process, making the adjustment process clearer and more accurate.

[0072] In one embodiment, the step S2 of marking the sound reinforcement information in the sound reinforcement space model to obtain the sound reinforcement model includes:

[0073] S21, obtaining multiple basic parameters of the sound required in the sound reinforcement usage scenario as sound reinforcement information;

[0074] S22, spatially marking the monitoring points in the sound reinforcement space model corresponding to the sound reinforcement information, dividing the monitoring points corresponding to the sound reinforcement information that meets the preset difference condition into a plurality of range spaces, and using the sound reinforcement three-dimensional model of the marked range space as the sound reinforcement model;

[0075] As described in the above steps S21-S22, a variety of basic parameters of the required sound in the sound reinforcement use scenario are obtained as sound reinforcement information. The basic parameters here include parameters such as pitch, loudness and spectrum. In order to better create the sound reinforcement information in the sound reinforcement use scenario, it is necessary to clarify the sound reinforcement information in the sound reinforcement use scenario space. For example, if there is a stage in a scene, then some parameters in the basic parameters close to the stage will have the largest value, and then decrease according to information such as distance. However, if the space of the occasion is large, in order to ensure the sound reinforcement demand, the intensity of the decrease of some parameters in the basic parameters according to the distance will be reduced to ensure the stability of the sound reinforcement quality in the occasion. The sound reinforcement information is parameterized according to the space in the sound reinforcement space model and marked in the solution space in the sound reinforcement space model to obtain the sound reinforcement model. The parameter expansion here is to set the spatial parameters of the sound reinforcement information. For example, the required sound reinforcement information is: the pitch is Xmel and The numerical range of loudness, here the detailed spatial distribution of parameters is performed according to the space of the sound reinforcement space model. The tone is the same in the entire sound reinforcement space model, but the loudness will change according to the distance from the sound source, so the loudness marked in the sound reinforcement space model is variable. Therefore, it is necessary to mark the monitoring points in the sound reinforcement space model corresponding to the required loudness, and the preset difference condition is the highest difference value of the sound reinforcement information corresponding to the monitoring point. For example, the space when the difference between the lowest loudness and the highest loudness meets the preset difference condition is used as a range and is divided and marked with other spaces to obtain multiple range spaces, and the sound reinforcement three-dimensional model of the marked range space is used as the sound reinforcement model; when the highest loudness and the lowest loudness corresponding to the monitoring points in the continuous space in the sound reinforcement space model meet the preset difference condition, the space occupied by the monitoring points between them is divided and marked, and the sound reinforcement three-dimensional model of the marked range space is used as the sound reinforcement model;

[0076] In one embodiment, a plurality of sound reinforcement setting points are determined based on the sound reinforcement model, corresponding preparation points are respectively set for the plurality of sound reinforcement setting points, and step S3 of binding the sound reinforcement setting points with the corresponding preparation points as a sound reinforcement set includes:

[0077] S31, sorting multiple adjacent range spaces in the sound reinforcement model according to the numerical values ​​of the sound reinforcement information, taking multiple range spaces that do not meet the preset decreasing condition as target spaces, and determining sound reinforcement setting points at positions between the target spaces;

[0078] S32, respectively setting corresponding preparation points within a preset range of the plurality of sound reinforcement setting points, and binding the sound reinforcement setting points and the corresponding preparation points as a sound reinforcement set;

[0079] As described in the above steps S31-S32, since it is the required sound reinforcement information, it is the sound reinforcement information that cannot be satisfied by a single sound reinforcement setting point. Then, after sorting the adjacent multiple range spaces in the sound reinforcement model according to the numerical value of the sound reinforcement information, the sound reinforcement information between the adjacent multiple range spaces must not be the decreasing intensity that can be achieved by setting the sound reinforcement equipment at a single sound reinforcement setting point. For example, under normal circumstances, the decreasing intensity of the sound reinforcement sound of a single sound reinforcement equipment from one spatial range to the next spatial range is T, and the decreasing intensity of the required loudness from one spatial range to the next spatial range must be greater than T, so other sound reinforcement equipment is needed to strengthen the loudness at the appropriate position, then it is necessary to add multiple sound reinforcement equipment, a necessary sound reinforcement setting point is located at the starting point of the range space on the stage, and the other multiple range spaces that do not meet the preset decreasing conditions are used as target spaces, and the sound reinforcement setting points are determined at the positions between the target spaces. In order to set the corresponding preparation points within the preset range of the sound reinforcement setting points in the subsequent scenes, the sound reinforcement setting points and the corresponding preparation points are bound as a sound reinforcement set, which can better control the sound reinforcement quality in the subsequent space occasions stably and better meet the required sound reinforcement information;

[0080] In one embodiment, the step S4 of performing device settings in a usage scenario based on a sound reinforcement set, collecting real-time sound reinforcement information in the usage scenario, and adjusting the real-time sound reinforcement information based on a sound reinforcement model includes:

[0081] S41, respectively setting a sound reinforcement device in the corresponding sound reinforcement set, and performing sound reinforcement in the use scenario through the sound reinforcement device;

[0082] S42, collecting real-time sound reinforcement information of multiple range space boundaries in the use scenario and correspondingly transmitting it to the mapping site of the cloud server for storage to obtain multiple mapping site networks of the multiple range spaces, wherein the mapping site network includes mapping sites connected to the boundary positions of the range spaces;

[0083] S43, corresponding the real-time sound reinforcement information of the mapped site network to the mark in the sound reinforcement model, comparing the real-time sound reinforcement information with the sound reinforcement information in the sound reinforcement model to obtain difference information, and using the range space corresponding to the difference information that does not meet the preset conditions as the adjustment space;

[0084] S44, adjusting the real-time sound reinforcement information in the adjustment space according to the sound reinforcement equipment until the difference information meets the preset condition;

[0085] As described in the above steps S41-S44, sound amplification equipment is set for the sound amplification setting points and preparation points in the corresponding sound amplification set. The sound amplification equipment here includes multiple devices required for sound amplification, such as a loudspeaker and a sound quality processor. Then, the sound amplification equipment is used to perform sound amplification in the use scene. In the process of sound amplification, real-time sound amplification information of multiple range space boundaries in the use scene is collected respectively and transmitted to the mapping sites of the cloud server accordingly for storage to obtain multiple mapping site networks of multiple range spaces. Among them, the mapping site network includes mapping sites connected to the range space boundary positions. What is collected here is the real-time sound amplification information of the range space boundary, which is then transmitted to the cloud server according to the correspondence between the monitoring points and the mapping sites to obtain the mapping site network. For example, if the range space is a square space, the mapping site network is the mapping sites connected on the frame of the square frame on the outer edge of the square space, and then the real-time sound amplification of the mapping site network is stored. The information is marked on the corresponding sound reinforcement model. The marking operation is to mark the real-time sound reinforcement information on the mapping site network corresponding to the monitoring point on the sound reinforcement model, and then compare the real-time sound reinforcement information with the sound reinforcement information in the sound reinforcement model to obtain difference information. The range space corresponding to the difference information that does not meet the preset conditions is used as the adjustment space. The preset condition is the limit difference information that limits the adjustment. Then, the real-time sound reinforcement information in the adjustment space is adjusted according to the sound reinforcement equipment until the difference information meets the preset conditions. The process is: if the real-time sound reinforcement information is less than the sound reinforcement information in the sound reinforcement model, the sound reinforcement equipment at the preparation point is used to assist in improving the sound reinforcement quality. If the real-time sound reinforcement information is less than the sound reinforcement information in the sound reinforcement model, the sound reinforcement equipment at the preparation point is turned off to reduce parameters such as loudness until the preset conditions are met. This can ensure that the real-time adjustment of the sound reinforcement information is more in line with the required sound reinforcement information, and has a better control effect on the sound reinforcement system.

[0086] Example 2, please refer to Figure 2 As shown, the space-based sound reinforcement system control device described in this embodiment includes:

[0087] A construction module, used to determine the use scenario information of the sound reinforcement, and to construct a sound reinforcement space model based on the use scenario information of the sound reinforcement;

[0088] A marking module, connected to the building module, is used to determine the required sound reinforcement information, wherein the sound reinforcement information includes a variety of basic parameters of the required sound, and marks the sound reinforcement information in the sound reinforcement space model to obtain a sound reinforcement model;

[0089] A setting module, connected to the marking module, for determining a plurality of sound reinforcement setting points based on the sound reinforcement model, respectively setting corresponding preparation points corresponding to the plurality of sound reinforcement setting points, and binding the sound reinforcement setting points with the corresponding preparation points as a sound reinforcement set;

[0090] The adjustment module is connected to the setting module, and is used to set the device in the use scenario based on the sound reinforcement set, collect the real-time sound reinforcement information in the use scenario, and adjust the real-time sound reinforcement information based on the sound reinforcement model.

[0091] The above is only a specific implementation of the present application, but the protection scope of the present application is not limited thereto. Any person skilled in the art who is familiar with the present technical field can easily think of changes or substitutions within the technical scope disclosed in the present application, which should be included in the protection scope of the present application. Therefore, the protection scope of the present application should be based on the protection scope of the claims.

Claims

1. A space-based sound reinforcement system control method, characterized in that: The following steps are involved: Determine the sound reinforcement usage scenario information, and build a sound reinforcement space model based on the sound reinforcement usage scenario information; Determine required sound reinforcement information, wherein the sound reinforcement information includes a plurality of basic parameters of the required sound, and mark the sound reinforcement information in the sound reinforcement space model to obtain a sound reinforcement model; Determine multiple sound reinforcement setting points based on the sound reinforcement model, set corresponding preparation points for each of the multiple sound reinforcement setting points, and bind the sound reinforcement setting points and the corresponding preparation points as a sound reinforcement set; Set up equipment in the usage scenario based on the sound reinforcement set, collect real-time sound reinforcement information in the usage scenario, and adjust the real-time sound reinforcement information based on the sound reinforcement model; The step of determining the sound reinforcement usage scenario information and constructing the sound reinforcement space model based on the sound reinforcement usage scenario information includes: Determine the spatial structure information and spatial dimension information used for sound reinforcement as the sound reinforcement use scene information; Perform three-dimensional modeling according to the sound reinforcement usage scene information to obtain a three-dimensional sound reinforcement model; Perform point processing in the three-dimensional sound reinforcement model to obtain multiple monitoring points, and connect adjacent monitoring points to form a spatial point frame; The three-dimensional sound reinforcement model with the spatial point frames set up is used as the sound reinforcement space model; The step of performing point processing in the sound reinforcement three-dimensional model to obtain a plurality of monitoring points and connecting the plurality of monitoring points to form a spatial point frame comprises: The space in the sound reinforcement three-dimensional model is divided into a plurality of unit spaces, and corresponding monitoring points are respectively configured corresponding to the center points of the plurality of unit spaces; A corresponding cloud server is configured corresponding to the sound reinforcement three-dimensional model, an information position is set in the cloud server, the position information is marked on the information position, and a mapping position of the monitoring point on the information position is determined as the mapping position; Connect adjacent monitoring points to form a spatial point frame, and connect corresponding mapping sites based on the spatial point frame; The steps of configuring a corresponding cloud server for the corresponding sound reinforcement three-dimensional model, setting an information position in the cloud server, and marking the position on the information position include: Perform spatial settings in the cloud server corresponding to the three-dimensional sound reinforcement model to obtain a spatial storage area; Based on the division of the spatial storage area, a plurality of storage position strips are obtained, and a plurality of sites are marked on the storage position strips according to the monitoring points in the spatial point rack to obtain information positions; Encode the plurality of storage position strips and the corresponding plurality of sites respectively, and combine the codes of the plurality of storage position strips and the codes of the corresponding sites to obtain site information; The steps of determining a plurality of sound reinforcement setting points based on the sound reinforcement model, setting corresponding preparation points respectively corresponding to the plurality of sound reinforcement setting points, and binding the sound reinforcement setting points with the corresponding preparation points as a sound reinforcement set include: sorting multiple adjacent range spaces in the sound reinforcement model according to the numerical values ​​of the sound reinforcement information, taking multiple range spaces that do not meet the preset decreasing conditions as target spaces, and determining sound reinforcement setting points at positions between the target spaces; respectively setting corresponding preparation points within preset ranges of a plurality of sound reinforcement setting points, and binding the sound reinforcement setting points and the corresponding preparation points as a sound reinforcement set; The steps of performing device settings in a usage scenario based on a sound reinforcement set, collecting real-time sound reinforcement information in the usage scenario, and adjusting the real-time sound reinforcement information based on a sound reinforcement model include: Sound reinforcement equipment is respectively provided for corresponding sound reinforcement sets, and sound reinforcement is performed through the sound reinforcement equipment in the usage scenario; Collecting real-time sound reinforcement information of multiple range space boundaries in the use scenario and transmitting it to the mapping site of the cloud server to store multiple mapping site networks of the multiple range spaces, wherein the mapping site network includes mapping sites connected to the range space boundary positions; The real-time sound reinforcement information of the mapped site network is matched to the mark in the sound reinforcement model, the real-time sound reinforcement information is compared with the sound reinforcement information in the sound reinforcement model to obtain difference information, and the range space corresponding to the difference information that does not meet the preset conditions is used as the adjustment space; The real-time sound reinforcement information in the adjustment space is adjusted according to the sound reinforcement equipment until the difference information meets the preset conditions.

2. The space-based sound reinforcement system control method according to claim 1, characterized in that: The step of marking the sound reinforcement information in the sound reinforcement space model to obtain the sound reinforcement model comprises: Obtain multiple basic parameters of the sound required in the sound reinforcement usage scenario as sound reinforcement information; The monitoring points in the sound reinforcement space model corresponding to the sound reinforcement information are spatially marked, the monitoring points corresponding to the sound reinforcement information that meets the preset difference conditions are range-divided to obtain multiple range spaces, and the sound reinforcement three-dimensional model of the marked range space is used as the sound reinforcement model.

3. A space-based sound reinforcement system control device, used to implement a space-based sound reinforcement system control method according to any one of claims 1 and 2, characterized in that: include: A construction module, used to determine the sound reinforcement usage scenario information, and to construct a sound reinforcement space model based on the sound reinforcement usage scenario information; A marking module, connected to the building module, is used to determine the required sound reinforcement information, wherein the sound reinforcement information includes a variety of basic parameters of the required sound, and marks the sound reinforcement information in the sound reinforcement space model to obtain a sound reinforcement model; A setting module, connected to the marking module, for determining a plurality of sound reinforcement setting points based on the sound reinforcement model, respectively setting corresponding preparation points corresponding to the plurality of sound reinforcement setting points, and binding the sound reinforcement setting points with the corresponding preparation points as a sound reinforcement set; The adjustment module is connected to the setting module, and is used to set the device in the use scenario based on the sound reinforcement set, collect the real-time sound reinforcement information in the use scenario, and adjust the real-time sound reinforcement information based on the sound reinforcement model.

4. The space-based sound reinforcement system control device according to claim 3, characterized in that: The building blocks include: An information determination unit, used to determine spatial structure information and spatial dimension information used for sound reinforcement as sound reinforcement use scene information; A model building unit, used for performing three-dimensional modeling according to the sound reinforcement usage scene information to obtain a sound reinforcement three-dimensional model; A processing unit, used for performing point processing in the sound reinforcement three-dimensional model to obtain a plurality of monitoring points, and connecting adjacent monitoring points to form a spatial point frame; The management unit is used to use the three-dimensional sound reinforcement model with the space point frame set as the sound reinforcement space model.

5. A computer readable medium having a computer program stored thereon, characterized in that: When the computer program is executed by a processor, the steps of the method according to any one of claims 1 and 2 are implemented.

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