Intelligent scheduling control method and system for photographing auxiliary equipment

Abstract

The present invention discloses an intelligent scheduling control method and system for a photographic auxiliary device, and relates to the field of image communication processing technology. The intelligent scheduling control method for a photographic auxiliary device comprises the following steps: judging a photographic selfie scene; monitoring the degree of delay in the photographic scene; and monitoring command and image transmission. The present invention performs a photographic selfie scene judgment to evaluate the eligibility of the photographic scene, and then, after the photographic selfie judgment data meets the photographic selfie scene judgment conditions, monitors the degree of delay in the photographic scene to determine whether to perform image capture delay optimization, and finally, after the photographic scene delay degree monitoring is qualified, monitors command and image transmission to determine whether to perform command and image transmission optimization, thereby achieving the effect of improving the real-time control performance of photographic auxiliary devices and mobile phones when performing touch information scheduling, and solves the problem of low real-time control performance of photographic auxiliary devices and mobile phones when performing touch information scheduling in the prior art.

Description

Technical Field

[0001] The present invention relates to the field of image communication processing technology, and in particular to an intelligent scheduling control method and system for photographing auxiliary equipment. Background Art

[0002] With the widespread adoption of digital photography and the rapid development of social media, photography has become a vital way for people to record their lives and share their experiences. However, in complex scenes or when shooting with multiple devices, traditional manual operation methods struggle to meet the demands for efficient and precise capture. Modern photography scenarios are becoming increasingly diverse, with features such as dynamic tracking, multi-angle composition, and panoramic stitching requiring the coordinated operation of multiple devices (e.g., drones, gimbals, tripods, and lighting equipment). The maturity of high-precision sensors and wireless communication technologies (e.g., Wi-Fi and Bluetooth) has enabled real-time data exchange between devices.

[0003] Existing methods are mainly based on extending channels in wireless screen projection protocols (such as Miracast) to transmit touch data in both directions. Miracast is a wireless display standard based on Wi-Fi Direct technology that allows devices (such as smartphones, tablets, and laptops) to wirelessly project screen content to display devices that support Miracast (such as smart TVs, projectors, and monitors).

[0004] For example, the photographing method, device, electronic device and storage medium disclosed in the invention patent announcement with announcement number CN109600547B include: receiving a request to start a photographing function; controlling each group of cameras to be electrically connected to an image processor in turn, and one camera to be electrically connected to a graphics processor, wherein the number of cameras is a first number, the number of image processors is a second number, and the first number is greater than the second number, and the first number of cameras is divided into multiple groups according to the second number, and the number of cameras in each group is less than or equal to the second number; controlling a group of cameras connected to the image processor to shoot at the same time, and transmitting the images shot by the group of cameras to the connected image processor for processing and saving the images.

[0005] For example, the invention patent announcement with announcement number: CN108833737B discloses a synchronous photography control method for a multi-camera array, which includes: 1) creating a server; 2) obtaining the number of cameras; 3) creating a process corresponding to the number of cameras; 4) establishing a connection between the process and the camera; 5) establishing a connection between the process and the server and listening for server instructions; 6) the process responds to the server instruction and sends a photography command to the corresponding camera; 7) the camera completes an independent photography operation after receiving the photography command, and multiple cameras simultaneously respond to the photography instructions of their respective sub-processes to achieve synchronous photography of the multi-camera array.

[0006] However, in the process of implementing the technical solutions of the invention in the embodiments of the present application, the present application found that the above technology has at least the following technical problems:

[0007] In the existing technology, existing mobile phone wireless screen projection products can only achieve simple button control through an external Bluetooth selfie remote control or integrating the selfie controller into the secondary screen. It is impossible to transmit the touch interface coordinates, finger clicks and other control information of the mobile phone secondary screen to the mobile phone. When taking selfies based on the mobile phone, the secondary screen mostly acts as an independent display unit, and the touch data cannot be synchronized to the main screen of the mobile phone in real time, which leads to the problem of low real-time control of the photo-taking auxiliary equipment and the mobile phone when performing touch information scheduling. Summary of the Invention

[0008] The embodiments of the present application solve the problem of low real-time control of photographing auxiliary devices and mobile phones when performing touch information scheduling in the prior art by providing an intelligent scheduling control method and system for photographing auxiliary devices, thereby improving the real-time control of photographing auxiliary devices and mobile phones when performing touch information scheduling.

[0009] An embodiment of the present application provides an intelligent scheduling and control method for a photographing auxiliary device, comprising the following steps: performing a photographing and selfie scene judgment in a preset photographing environment to evaluate the eligibility of the photographing scene; after the acquired photographing and selfie judgment data meets the photographing and selfie scene judgment conditions, performing a photographing scene delay degree monitoring to determine whether to perform image capture delay optimization, the photographing scene delay degree monitoring is used to evaluate the image capture delay situation; after the photographing scene delay degree monitoring is qualified, performing a command and image transmission monitoring to determine whether to perform command and image transmission optimization, the command and image transmission monitoring is used to evaluate the eligibility of the synchronous feedback between the mobile phone and the mobile phone sub-screen.

[0010] An embodiment of the present application provides an intelligent scheduling and control system for photo-taking auxiliary equipment, including a photo-taking and selfie scene judgment module, a photo-taking scene delay degree monitoring module, and a command and image transmission monitoring module: wherein the photo-taking and selfie scene judgment module is used to perform photo-taking and selfie scene judgment in a preset photo-taking environment to evaluate the eligibility of the photo-taking scene; the photo-taking scene delay degree monitoring module is used to perform photo-taking scene delay degree monitoring to determine whether to perform image capture delay optimization after the acquired photo-taking and selfie judgment data meets the photo-taking and selfie scene judgment conditions, and the photo-taking scene delay degree monitoring is used to evaluate the image capture delay situation; the command and image transmission monitoring module is used to perform command and image transmission monitoring to determine whether to perform command and image transmission optimization after the photo-taking scene delay degree monitoring is qualified, and the command and image transmission monitoring is used to evaluate the qualification of the synchronous feedback between the mobile phone and the mobile phone sub-screen.

[0011] One or more technical solutions provided in the embodiments of this application have at least the following technical effects or advantages:

[0012] 1. By performing photo and selfie scene judgment to evaluate the eligibility of the photo scene, and then after the photo and selfie judgment data meets the photo and selfie scene judgment conditions, monitoring the photo scene delay degree is performed to determine whether to perform image capture delay optimization, and finally after the photo scene delay degree monitoring is qualified, command and image transmission monitoring is performed to determine whether to perform command and image transmission optimization, thereby achieving an improvement in the accuracy of the mobile phone's secondary screen's return control of the mobile phone, and further achieving an improvement in the real-time control of the photo auxiliary device and the mobile phone when performing touch information scheduling, effectively solving the problem of low real-time control of the photo auxiliary device and the mobile phone when performing touch information scheduling in the existing technology.

[0013] 2. A touch response delay quantization value is obtained by performing anti-correlation quantization on the result of coupling processing of the touch response feature data. A difference comparison is performed based on the touch response delay quantization value and a preset touch response delay range. When the touch response delay quantization value is not within the preset touch response delay range, touch response optimization is performed, thereby improving the reliability of touch response optimization and further improving the effectiveness of touch response optimization.

[0014] 3. By comparing the difference between the quantified value of the touch response change degree and the preset average response change degree value from the database, when the quantified value of the touch response change degree is greater than the preset average response change degree value, a first-level expansion channel is set based on the first-level change data; when the quantified value of the touch response change degree is not greater than the preset average response change degree value, a second-level expansion channel is set based on the second-level change data, thereby improving the effectiveness of touch response optimization and further improving the accuracy of touch response optimization. BRIEF DESCRIPTION OF THE DRAWINGS

[0015] Figure 1 A flowchart of an intelligent scheduling control method for a photographing auxiliary device provided in an embodiment of the present application;

[0016] Figure 2 A schematic diagram of the structure of an intelligent scheduling control system for a photography auxiliary device provided in an embodiment of the present application;

[0017] Figure 3 A logical framework diagram provided for an embodiment of the present application;

[0018] Figure 4 This is a feedback logic diagram provided for an embodiment of the present application. DETAILED DESCRIPTION

[0019] The embodiments of the present application solve the problem of low real-time control of photographic auxiliary devices and mobile phones when performing touch information scheduling in the prior art by providing an intelligent scheduling control method and system for photographic auxiliary devices. By performing photographic and selfie scene judgment in a preset photographing environment to evaluate the eligibility of the photographic scene, when the photographing light intensity is within the preset light intensity range and the mobile phone posture angle is within the preset mobile phone posture angle range, the photographing scene delay degree is monitored to determine whether image capture delay optimization is performed. Finally, after the photographing scene delay degree monitoring is qualified, command and image transmission monitoring is performed to determine whether command and image transmission optimization is performed, thereby achieving improved real-time control of photographic auxiliary devices and mobile phones when performing touch information scheduling.

[0020] The technical solution in the embodiments of the present application is to solve the problem of low real-time control performance of the above-mentioned photography auxiliary device and mobile phone when performing touch information scheduling. The overall idea is as follows:

[0021] By performing photo and selfie scene judgment to evaluate the eligibility of the photo scene, and then after the photo and selfie judgment data meets the photo and selfie scene judgment conditions, monitoring the photo scene delay degree is performed to determine whether image capture delay optimization is performed, and finally after the photo scene delay degree monitoring is qualified, command and image transmission monitoring is performed to determine whether command and image transmission optimization is performed, thereby achieving the effect of improving the real-time control of photo auxiliary equipment and mobile phones when performing touch information scheduling.

[0022] In order to better understand the above technical solution, the above technical solution will be described in detail below with reference to the accompanying drawings and specific implementation methods.

[0023] like Figure 1 As shown, it is a flow chart of an intelligent scheduling control method for a photographing auxiliary device provided by an embodiment of the present application, the method comprising the following steps: photo selfie scene judgment: performing photo selfie scene judgment in a preset photo environment to evaluate the eligibility of the photo scene, and when the photo selfie judgment data meets the photo selfie scene judgment conditions, performing photo scene delay degree monitoring, and when the photo selfie judgment data does not meet the photo selfie scene judgment conditions, performing photo scene adjustment; photo scene delay degree monitoring: after the acquired photo selfie judgment data meets the photo selfie scene judgment conditions, performing photo scene delay degree monitoring to determine whether to perform image capture delay optimization, and photo scene delay degree monitoring is used to evaluate the image capture delay situation; command and image transmission monitoring: after the photo scene delay degree monitoring is qualified, performing command and image transmission monitoring to determine whether to perform command and image transmission optimization, and command and image transmission monitoring is used to evaluate the qualification of synchronous feedback between the mobile phone and the mobile phone sub-screen.

[0024] like Figure 2As shown, it is a structural schematic diagram of an intelligent scheduling and control system for a photographic auxiliary device provided by an embodiment of the present application. The embodiment of the present application provides an intelligent scheduling and control system for a photographic auxiliary device, including a photographic selfie scene judgment module, a photographic scene delay degree monitoring module and a command and image transmission monitoring module: wherein the photographic selfie scene judgment module is used to perform photographic selfie scene judgment in a preset photographing environment to evaluate the eligibility of the photographic scene; the photographic scene delay degree monitoring module is used to perform photographic scene delay degree monitoring to determine whether to perform image capture delay optimization after the acquired photographic selfie judgment data meets the photographic selfie scene judgment conditions, and the photographic scene delay degree monitoring is used to evaluate the image capture delay situation; the command and image transmission monitoring module is used to perform command and image transmission monitoring to determine whether to perform command and image transmission optimization after the photographic scene delay degree monitoring is qualified, and the command and image transmission monitoring is used to evaluate the qualification of the synchronous feedback between the mobile phone and the mobile phone sub-screen.

[0025] In this embodiment, if Figure 3 As shown, it is a logical framework diagram provided by the embodiment of the present application, such as Figure 4As shown, it is a feedback logic diagram provided by an embodiment of the present application; photo selfie judgment data is obtained through photo selfie scene judgment, and whether the photo selfie scene judgment condition is met based on the photo selfie judgment data; when the photo selfie judgment data meets the photo selfie scene judgment condition, the photo scene delay degree is monitored, otherwise the photo scene is adjusted; if the photo selfie judgment data re-acquired after the photo scene adjustment meets the photo selfie scene judgment condition, the photo scene delay degree monitoring is continued, otherwise an alarm prompt is sent; the image capture delay value of the mobile phone sub-screen is obtained through the photo scene delay degree monitoring, when the monitored mobile phone sub-screen image capture delay value is greater than the preset image capture delay value, image capture delay optimization is performed, otherwise command and image transmission monitoring is performed, if the image capture delay value of the mobile phone sub-screen re-acquired after the image capture delay optimization is still greater than the preset image capture delay value, an alarm prompt is sent. If the touch response delay quantization value is within the preset touch response delay range, the corresponding mobile phone sub-screen touch data is marked as qualified mobile phone sub-screen touch data and synchronously transmitted to the preset mobile phone terminal. Otherwise, command and image transmission optimization is performed. If the touch response delay quantization value after command and image transmission optimization is still not within the preset touch response delay range, an alarm prompt is sent. Otherwise, it indicates that the command and image transmission monitoring is qualified. The coordinated effect of photo and selfie scene judgment, photo scene delay degree monitoring and command and image transmission monitoring helps to ensure that the mobile phone sub-screen touch data (such as touch interface coordinates, finger clicks and other control information) can be synchronized to the preset mobile phone terminal in a timely and accurate manner, thereby improving the real-time control of photo auxiliary equipment and mobile phones when performing touch information scheduling.

[0026] Through progressive photo and selfie scene judgment, photo scene delay monitoring, and command and image transmission monitoring, the task execution order is allocated through intelligent scheduling, and the delay monitoring strategy is dynamically adjusted to ensure the efficient operation of the synchronization process between the mobile phone's secondary screen and the mobile phone. For example, a first-level expansion channel is set based on the first-level change data, and a second-level expansion channel is set based on the second-level change data, to achieve high real-time synchronization between the photo auxiliary device and the mobile phone's touch information.

[0027] Furthermore, a photo-selfie scene judgment is performed in a preset photo-taking environment to evaluate the eligibility of the photo-taking scene, and the specific process is as follows: based on the monitored photo-selfie judgment data, it is judged whether the photo-selfie scene judgment conditions are met; when the photo-selfie judgment data meets the photo-selfie scene judgment conditions, a photo-selfie scene judgment qualification prompt is sent, and the photo-taking scene delay degree is monitored; when the photo-selfie judgment data does not meet the photo-selfie judgment conditions, the corresponding photo-selfie judgment data is marked as unqualified photo-selfie judgment data, and the photo-taking scene is adjusted; the specific process of adjusting the photo-taking scene is as follows: when the photo-taking light intensity is not within the preset light intensity range obtained from the database, a photo-taking light adjustment prompt is sent and visualized through the mobile phone screen; when the mobile phone posture angle is not within the preset light intensity range obtained from the database, a photo-selfie light adjustment prompt is sent and visualized through the mobile phone screen; When the camera is within the preset mobile phone posture angle range obtained from the database, a photo angle adjustment prompt is sent and displayed visually on the mobile phone screen; if the photo selfie judgment data obtained again after the photo scene adjustment meets the photo selfie scene judgment conditions, the photo scene delay degree monitoring continues; if the photo selfie judgment data obtained again after the photo scene adjustment still does not meet the photo selfie scene judgment conditions, an alarm prompt is sent; the photo selfie judgment data includes the photo light intensity and the mobile phone posture angle; the photo selfie scene judgment condition indicates that the photo light intensity is within the preset light intensity range obtained from the database, and the mobile phone posture angle is within the preset mobile phone posture angle range obtained from the database, wherein the preset light intensity range and the preset mobile phone posture angle range are set in advance by the preset personnel.

[0028] After the acquired photo and selfie judgment data meets the photo and selfie scene judgment conditions, the photo scene delay degree is monitored to determine whether to perform image capture delay optimization. The specific process is as follows: the image capture delay value of the mobile phone's secondary screen is obtained. The image capture delay value of the mobile phone's secondary screen is represented by the average time interval from the start of photo shooting to the actual completion of image capture by the preset photo-taking auxiliary device, which is used to reflect the delay degree of image capture of the preset photo-taking auxiliary device; a difference comparison is performed based on the image capture delay value of the mobile phone's secondary screen and the preset image capture delay value obtained from the database (i.e., a difference operation is performed); when the image capture delay value of the mobile phone's secondary screen is greater than the preset image capture delay value obtained from the database, image capture delay optimization is performed, and the image capture delay optimization is used to reduce the delay of image capture; when the image capture delay value of the mobile phone's secondary screen is not greater than the preset image capture delay value obtained from the database, the photo mode is started and command and image transmission monitoring is performed.

[0029] It should be added that before the design of the intelligent scheduling and control method for photography auxiliary equipment provided in this application, a database for storing various setting data is established, which includes but is not limited to a preset average touch reporting rate, a preset average touch chip processing delay, and a preset average image refresh number, etc., and the various numerical values ​​are directly set by technical personnel; for example, the preset image capture delay value is represented by the average value of the image capture delay value of the mobile phone sub-screen in a historical time period.

[0030] Specifically, the specific process of image capture delay optimization is as follows: A1, perform image processing acceleration. If the image capture delay value of the mobile phone sub-screen reacquired after image processing acceleration is still greater than the preset image capture delay value, execute A2, otherwise perform command and image transmission monitoring; A2, set the image cache capacity. If the image capture delay value of the mobile phone sub-screen reacquired after setting the image cache capacity is still greater than the preset image capture delay value, send an alarm prompt, otherwise perform command and image transmission monitoring; performing image processing acceleration means reducing the image processing time based on the neural network acceleration algorithm; setting the image cache capacity means sending a prompt to the preset personnel to increase the cache capacity step by step with the amplitude corresponding to the ratio of the mobile phone sub-screen image capture delay value to the preset image capture delay value; setting the image cache capacity is used to expand the image processing buffer and reduce waiting time.

[0031] In this embodiment, by monitoring the light intensity and the phone posture angle, poor photo quality due to scene mismatch can be avoided. When it is detected that the photo selfie judgment data does not meet the photo selfie scene judgment conditions, a light or angle adjustment prompt is sent, and a visual display is made on the phone screen, which helps to improve the success rate of taking photos.

[0032] When a prompt for image processing acceleration is detected, a neural network acceleration algorithm, such as a pruning algorithm, is used to remove redundant parameters, reduce the network's computational workload and storage requirements, thereby achieving the purpose of acceleration and helping to reduce image processing time. When a prompt for setting the image cache capacity is detected, the cache capacity is increased step by step by the ratio of the mobile phone's secondary screen image capture delay value to the preset image capture delay value, reducing the image processing waiting time caused by insufficient cache, ensuring the continuity and stability of image processing, and thereby improving the real-time control of camera-assisted devices and mobile phones when performing touch information scheduling.

[0033] Furthermore, command and image transmission monitoring includes monitoring the accuracy of camera command control and the accuracy of synchronization between the mobile phone's secondary screen and the mobile phone's image. The specific process of monitoring the accuracy of camera command control is as follows:

[0034] S1, after performing a ratio analysis (i.e., performing a ratio operation) on the average touch reporting rate and the preset average touch reporting rate, a weighted operation is performed on the touch reporting response adjustment value to obtain the touch reporting response characteristic value; the touch reporting response characteristic value is used to reflect the impact of the average touch reporting rate on the unqualified touch response of the mobile phone's secondary screen. Specifically, the expression of the touch reporting response characteristic value is: , Indicates the average touch reporting rate in the Zth preset time period. Indicates the preset average touch reporting rate. Indicates the touch response adjustment value. , Z represents the number of the preset time period, Y represents the total number of preset time periods, The average touch reporting rate is the touch response characteristic value within the Zth preset time period. The average ratio of the number of touch points reported within the preset time period to the preset duration monitored by the Programmable Logic Controller (PLC) is used as the average touch reporting rate.

[0035] S2, after analyzing the proportion of the preset average touch chip processing delay and the average touch chip processing delay, a weighted operation is performed on the chip processing-touch response adjustment value to obtain the chip processing-touch response characteristic value; the chip processing-touch response characteristic value is used to reflect the impact of the average touch chip processing delay on the unqualified touch of the mobile phone sub-screen. Specifically, the expression of the chip processing-touch response characteristic value is: , Indicates the average touch chip processing delay in the Zth preset time period. Indicates the preset average touch chip processing delay. Indicates the chip processing-touch response adjustment value. The chip processing-touch response characteristic value within the Zth preset time period is represented by the average value of the duration between the trigger and response time points of the touch signal within the preset time period monitored by an oscilloscope and a signal generator as the average touch chip processing delay.

[0036] S3, after analyzing the proportion of the average image refresh times and the preset average image refresh times, a weighted operation is performed on the refresh-touch response adjustment value to obtain the refresh-touch response characteristic value; the refresh-touch response characteristic value is used to reflect the impact of the average image refresh times on the unqualified touch control of the mobile phone sub-screen. Specifically, the expression of the refresh-touch response characteristic value is: , Indicates the average number of image refreshes within the Zth preset time period. Indicates the average refresh times of the preset image. Indicates the refresh-touch response adjustment value. It represents the refresh-touch response characteristic value in the Zth preset time period. The number of image refreshes in the preset time period is monitored by a screen refresh rate tester, and the average value is taken as the average image refresh number.

[0037] S4, obtaining a touch response delay quantization value by performing anti-correlation quantization on the result of coupling processing of the touch response feature data; the touch response delay quantization value is used to reflect the comprehensive influence of the touch response feature parameters and the preset touch response feature parameters on the unqualified touch condition of the mobile phone's secondary screen.

[0038] The touch response delay quantization value is obtained by the following method:

[0039] ;

[0040] Where, Indicates the touch response delay quantization value within the Zth preset time period.

[0041] The touch response characteristic data includes the reporting point-touch response characteristic value, the chip processing-touch response characteristic value and the refresh-touch response characteristic value, and the touch response characteristic data all consider the case where it is greater than 0; the touch response characteristic parameters include the average touch reporting rate, the average touch chip processing delay and the average image refresh times; the preset touch response characteristic parameters include the preset average touch reporting rate, the preset average touch chip processing delay and the preset average image refresh times; among them, the units of the average touch reporting rate and the preset average touch reporting rate are both times / second; the units of the average touch chip processing delay and the preset average touch chip processing delay are both milliseconds; the average image refresh times and the preset average image refresh times have no units.

[0042] It should be noted that the preset touch response characteristic parameters are represented by the average value of the touch response characteristic parameters over a historical time period. This embodiment provides a mapping group containing a mapping set obtained from a database. The mapping group is used to reflect the mapping relationship between touch response characteristic data and corresponding touch response adjustment values. By inputting real-time touch response characteristic data into the corresponding mapping group, the corresponding touch response adjustment value can be obtained. The mapping relationship in the mapping set can be a one-to-one correspondence or a many-to-one relationship. For example, the touch response adjustment value ranges from 0 to 1. The touch response adjustment value includes the reporting point-touch response adjustment value, the chip processing-touch response adjustment value, and the refresh-touch response adjustment value, which are used to reflect the degree of influence of the touch response characteristic data on the touch response delay quantization value.

[0043] In this embodiment, a touch response delay quantification value is further obtained through analysis of touch response characteristic data. A larger touch response characteristic data value indicates a greater impact of the average touch reporting rate on touch failures on the mobile phone's secondary screen, a greater impact of the average touch chip processing delay on touch failures on the mobile phone's secondary screen, and a greater impact of the average image refresh rate on touch failures on the mobile phone's secondary screen, resulting in a smaller touch response delay quantification value. In summary, in this embodiment, the touch response characteristic data and the touch response delay quantification value are negatively correlated.

[0044] The touch response characteristic parameters monitored in this embodiment do not exist in isolation, but have interrelated characteristics, and require correlation analysis to describe their joint effects. The smaller the average touch reporting rate, the more resources other tasks may occupy, causing the touch chip to face stronger resource competition when processing touch events, which may lead to a greater average touch chip processing delay; the smaller the average image refresh times, the display on the mobile phone's secondary screen may be stuck after the touch operation, which in turn leads to a greater average touch chip processing delay; the larger the average image refresh times, the more sensitive the touch response, which may require a higher reporting rate to match it, which may lead to a greater average touch reporting rate. By analyzing the comprehensive impact of the parameters, an accurate assessment of the unqualified touch situation of the mobile phone's secondary screen is achieved, thereby achieving the effect of improving the real-time control of the camera-assisted equipment and the mobile phone when performing touch information scheduling.

[0045] Furthermore, the specific process of monitoring command and image transmission to determine whether to optimize command and image transmission is as follows: perform a difference comparison based on the touch response delay quantization value and the preset touch response delay range obtained from the database, wherein the preset touch response delay range is set in advance by a preset personnel; when the touch response delay quantization value is within the preset touch response delay range, mark the corresponding mobile phone sub-screen touch data as qualified mobile phone sub-screen touch data, and synchronously transmit it to the preset mobile phone end; when the touch response delay quantization value is not within the preset touch response delay range, perform touch response optimization; the touch response delay quantization value is used to reflect the unqualified touch of the mobile phone sub-screen touch operation; the specific process of monitoring the synchronization accuracy of the mobile phone sub-screen and the mobile phone image is as follows: on the mobile phone During the process of synchronously receiving the mobile phone screen image on the mobile phone and the secondary screen, the mobile phone image synchronization delay is monitored and judgment is made based on the mobile phone image synchronization delay; when the mobile phone image synchronization delay is greater than 0, a synchronization reception failure prompt is sent, and the mobile phone image synchronization delay is optimized; when the mobile phone image synchronization delay is not greater than 0, a synchronization reception qualification prompt is sent; the mobile phone image synchronization delay is represented by the difference between the actual time when the mobile phone secondary screen receives the preset image and the preset reception time, and the preset reception time is represented by the average time of the mobile phone secondary screen receiving the preset image in the historical time period, which is used to reflect the synchronization qualification of the mobile phone secondary screen receiving the mobile phone screen image; command and image transmission optimization includes touch response optimization and mobile phone image synchronization delay optimization, which is used to improve the qualification of the synchronization feedback between the mobile phone and the mobile phone secondary screen.

[0046] Specifically, the specific process of touch response optimization is as follows: based on the obtained touch response stability quantitative value and the preset average response change value from the database, a proportion analysis is performed to obtain a touch response stability control value, wherein the preset average response change value is represented by the average value of the touch response stability quantitative value of the historical time period; a prompt is sent to the preset personnel to gradually increase the compression rate with the amplitude corresponding to the touch response stability control value until the compression rate of the touch data of the mobile phone sub-screen is within the preset compression rate range obtained from the database, and then the touch level is set, wherein the preset compression rate range is set in advance by the preset personnel; the specific process of touch level setting is as follows: based on the touch response change quantitative value and the preset average response change value from the database, a difference comparison is performed, wherein the preset average response change value is represented by the average value of the touch response change quantitative value of the historical time period; when the touch response When the quantized value of the response change degree is greater than the preset average response change degree value, it indicates that the transmission stability of the mobile phone's secondary screen touch data when it is fed back to the mobile phone is high, and the corresponding mobile phone's secondary screen touch data is marked as first-level change data, and a first-level extension channel is set based on the first-level change data; setting a first-level extension channel means sending a prompt to the preset personnel to set the first-level change data and the mobile phone screen image to share the preset original projection channel, so as to avoid additional occupation of spectrum resources; when the quantized value of the touch response change degree is not greater than the preset average response change degree value, it indicates that the transmission stability of the mobile phone's secondary screen touch data when it is fed back to the mobile phone is low, and the corresponding mobile phone's secondary screen touch data is marked as second-level change data, and a second-level extension channel is set based on the second-level change data; setting a second-level extension channel means sending a prompt to the preset personnel to set the channel corresponding to the second-level change data as an independent channel, and the independent channel only transmits second-level change data, so as to reduce protocol stack processing delay.

[0047] In this embodiment, the compression rate is gradually increased with the amplitude corresponding to the touch response stable control value, which helps to reduce bandwidth occupancy and avoid touch data loss. When the compression rate of the touch data of the mobile phone's secondary screen is within the preset compression rate range obtained from the database, the touch level is set. Setting a first-level extension channel based on the first-level change data helps to reduce spectrum occupancy. Setting a second-level extension channel based on the second-level change data opens up an independent channel, avoids protocol stack competition, reduces protocol processing delay, and reduces the probability of touch freeze while keeping the main and secondary screens of the mobile phone synchronized. If the touch level is set first, the data volume may increase due to retaining more interaction details, resulting in transmission delay. Increasing the compression rate first and then setting the touch level can complete data synchronization faster, improve the response speed, and avoid the accuracy of noise interference area division, thereby achieving the effect of improving the real-time control of photo-taking auxiliary equipment and mobile phones when scheduling touch information.

[0048] Furthermore, the specific process of obtaining the quantitative value of the touch response stability is as follows: First, the preset average secondary screen touch sampling rate deviation value and the average secondary screen touch sampling rate deviation value are analyzed to obtain the sampling deviation-touch stability characteristic value, which is used to reflect the influence of the average secondary screen touch sampling rate deviation value on the feedback stability when the mobile phone secondary screen touch data is fed back to the mobile phone. Specifically, the expression of the sampling deviation-touch stability characteristic value is: , Indicates the average secondary screen touch sampling rate deviation value in the Zth preset time period. Indicates the preset average secondary screen touch sampling rate deviation value. , Z represents the number of the preset time period, Y represents the total number of preset time periods, It represents the sampling deviation-touch stability characteristic value within the Zth preset time period. The sampling rate tester monitors the ratio of the absolute value of the difference between the initial and final state sampling rates within the preset time period and the preset duration, and the average value is used as the average secondary screen touch sampling rate deviation value.

[0049] Then, the preset average touch frame loss rate and the average touch frame loss rate are analyzed to obtain the frame loss-touch stability characteristic value, which is used to reflect the impact of the average touch frame loss rate on the feedback stability when the touch data of the mobile phone's secondary screen is fed back to the mobile phone. Specifically, the expression of the frame loss-touch stability characteristic value is: , Indicates the average touch frame loss rate in the Zth preset time period. Indicates the preset average touch frame loss rate. This value represents the frame loss-touch stability characteristic value within the Zth preset time period. Use frame rate monitoring software (such as Fraps) to monitor the ratio of the number of lost frames to the total number of frames within the preset time period. The average of these ratios is used as the average touch frame loss rate.

[0050] Next, the preset average touch interruption rate and the average touch interruption rate are analyzed to obtain the touch interruption-touch stability characteristic value, which is used to reflect the impact of the average touch interruption rate on the feedback stability when the touch data of the mobile phone's secondary screen is fed back to the mobile phone. Specifically, the expression of the touch interruption-touch stability characteristic value is: , Indicates the average touch interruption rate in the Zth preset time period. Indicates the preset average touch interruption rate. It represents the touch interruption-touch stability characteristic value in the Zth preset time period. The average value of the ratio of the number of touch interruptions corresponding to the image in the preset time period to the total number of touches monitored by the touch tester is taken as the average touch interruption rate.

[0051] Finally, the touch response stability quantization data is combined with the corresponding preset touch response stability quantization adjustment value for weighted operation and then coupled to perform anti-correlation quantization to obtain the touch response stability quantization value; the touch response stability quantization value is used to reflect the comprehensive influence of the touch response stability quantization parameter and the preset touch response stability quantization parameter on the feedback stability when the touch data of the mobile phone's secondary screen is fed back to the mobile phone.

[0052] The touch response stability quantitative value is obtained by the following method:

[0053] ;

[0054] Where, Indicates the quantitative value of the touch response stability within the Zth preset time period. Indicates the preset sampling deviation-touch stability adjustment value. Indicates the preset frame loss-touch stability adjustment value, Indicates the preset touch interruption-touch stability adjustment value.

[0055] The touch response stability quantitative data includes sampling deviation-touch stability characteristic value, frame loss-touch stability characteristic value, and touch interruption-touch stability characteristic value, and the touch response stability quantitative data all consider the case where it is greater than 0; the preset touch response stability quantitative adjustment value includes the preset sampling deviation-touch stability adjustment value, the preset frame loss-touch stability adjustment value, and the preset touch interruption-touch stability adjustment value, which are used to reflect the impact of the touch response stability quantitative data on the touch response stability quantitative value; the touch response stability quantitative parameters include the average secondary screen touch sampling rate deviation value, the average touch frame loss rate, and the average touch interruption rate; the preset touch response stability quantitative parameters include the preset average secondary screen touch sampling rate deviation value, the preset average touch frame loss rate, and the preset average touch interruption rate; among which, the unit of the average secondary screen touch sampling rate deviation value and the preset average secondary screen touch sampling rate deviation value are both Hz / second; the average touch frame loss rate, the average touch interruption rate, the preset average touch frame loss rate, and the preset average touch interruption rate are all unitless.

[0056] It should be added that the preset touch response stability quantification parameter is represented by the average value of the touch response stability quantification parameter in a historical time period; this embodiment provides a mapping group containing a mapping set obtained from a database, which is used to reflect the mapping relationship between the touch response stability quantification data and the corresponding preset touch response stability quantification adjustment value; by inputting the real-time touch response stability quantification data into the corresponding mapping group, the corresponding preset touch response stability quantification adjustment value can be obtained; wherein the mapping relationship in the mapping set can be a one-to-one correspondence or a many-to-one relationship; for example, the value range of the preset touch response stability quantification adjustment value is 0-1.

[0057] In this embodiment, a touch response stability quantitative value is further obtained through analysis of the touch response stability quantitative data. A larger touch response stability quantitative data indicates a stronger impact of the average secondary screen touch sampling rate deviation on the feedback stability of the secondary screen touch data when the phone is fed back to the phone, a stronger impact of the average touch frame loss rate on the feedback stability of the secondary screen touch data when the phone is fed back to the phone, and a stronger impact of the average touch interruption rate on the feedback stability of the secondary screen touch data when the phone is fed back to the phone, resulting in a smaller touch response stability quantitative value. In summary, in this embodiment, the touch response stability quantitative data and the touch response stability quantitative value are negatively correlated.

[0058] The quantitative parameters for touch response stability monitored in this embodiment do not exist in isolation; they exhibit interrelated characteristics, requiring correlation analysis to describe their combined effects. A larger average secondary screen touch sampling rate deviation indicates an unstable touch sampling process, potentially leading to uneven touch data acquisition intervals and chaotic touch frame generation, which in turn increases the average touch frame loss rate. A larger average secondary screen touch sampling rate deviation may also cause touch signal anomalies. When processing unstable touch data, the touch chip may experience recognition errors or misjudgments (e.g., mapping raw data to the wrong area), resulting in touch interruptions and a higher average touch interruption rate. A higher average touch frame loss rate may prevent the touch chip from correctly identifying touch operations, increasing the probability of touch interruptions and leading to a higher average touch interruption rate. By analyzing the combined impact of these parameters, a precise assessment of the stability of feedback from the secondary screen of a mobile phone to the mobile phone is achieved, thereby improving the real-time control of touch information scheduling between the camera-assisted device and the mobile phone.

[0059] Furthermore, the specific process of optimizing the mobile phone image synchronization delay is as follows: obtaining the mobile phone image synchronization delay control value, the mobile phone image synchronization delay control value is represented by the result of the ratio operation between the unqualified mobile phone image synchronization delay and the preset image synchronization delay obtained from the database, the unqualified mobile phone image synchronization delay is represented by a mobile phone image synchronization delay greater than 0, wherein the preset image synchronization delay is represented by the average value of the mobile phone image synchronization delay in the historical time period; performing image resolution setting, performing image resolution setting means sending a prompt to the preset personnel to reduce the image resolution step by step according to the amplitude corresponding to the mobile phone image synchronization delay control value; performing image frame rate setting, performing image frame rate setting means sending a prompt to the preset personnel to reduce the image frame rate step by step according to the amplitude corresponding to the mobile phone image synchronization delay control value; if the image resolution is reduced to the preset minimum resolution or the image frame rate is reduced to the preset minimum frame rate, the re-acquired mobile phone image synchronization delay is still greater than 0, an alarm prompt is sent, otherwise a synchronization reception qualified prompt is sent, wherein the preset minimum resolution and the preset minimum frame rate are set in advance by the preset personnel.

[0060] In this embodiment, when a prompt for setting the image resolution is detected, the image resolution is gradually reduced by an amplitude corresponding to the mobile phone image synchronization delay control value, which helps to reduce the amount of image data and directly reduce the transmission load; when a prompt for setting the image frame rate is detected, the image frame rate is gradually reduced by an amplitude corresponding to the mobile phone image synchronization delay control value, and the bandwidth occupancy is further reduced by reducing the number of image frames transmitted per second; setting the image resolution and the image frame rate at the same time helps to quickly release bandwidth and avoid freezes or frame drops, thereby improving the real-time control of the camera auxiliary equipment and the mobile phone when performing touch information scheduling.

[0061] In summary, the embodiment of the present application performs photo and selfie scene judgment to evaluate the eligibility of the photo scene, and then monitors the photo scene delay degree to determine whether to perform image capture delay optimization after the photo scene judgment data meets the photo and selfie scene judgment conditions. Finally, after the photo scene delay degree monitoring is qualified, command and image transmission monitoring is performed to determine whether to perform command and image transmission optimization, thereby achieving an improvement in the return control accuracy of the mobile phone's secondary screen, and further achieving an improvement in the real-time control of the photo auxiliary device and the mobile phone when performing touch information scheduling, effectively solving the problem of low real-time control of the photo auxiliary device and the mobile phone when performing touch information scheduling in the prior art.

[0062] Those skilled in the art will appreciate that embodiments of the present invention may be provided as methods, systems, or computer program products. Thus, the present invention may take the form of an entirely hardware embodiment, an entirely software embodiment, or an embodiment combining software and hardware aspects. Furthermore, the present invention may take the form of a computer program product implemented on one or more computer-usable storage media (including but not limited to magnetic disk storage, CD-ROM, optical storage, etc.) containing computer-usable program code.

[0063] The present invention is described with reference to flowcharts and / or block diagrams of methods, devices (systems), and computer program products according to embodiments of the present invention. It should be understood that each process and / or block in the flowcharts and / or block diagrams, as well as combinations of processes and / or blocks in the flowcharts and / or block diagrams, can be implemented by computer program instructions. These computer program instructions can be provided to a processor of a general-purpose computer, a special-purpose computer, an embedded processor, or other programmable data processing device to produce a machine, so that the instructions executed by the processor of the computer or other programmable data processing device generate instructions for implementing the processes in the flowcharts and / or block diagrams. Figure 1 a process or multiple processes and / or boxes Figure 1 A device that provides the functions specified in a block or multiple blocks.

[0064] These computer program instructions may also be stored in a computer readable memory that can direct a computer or other programmable data processing device to work in a specific manner, so that the instructions stored in the computer readable memory produce an article of manufacture comprising an instruction device, which implements the process Figure 1 a process or multiple processes and / or boxes Figure 1 The function specified in one or more boxes.

[0065] These computer program instructions can also be loaded onto a computer or other programmable data processing device so that a series of operational steps are executed on the computer or other programmable device to produce a computer-implemented process, thereby providing the instructions executed on the computer or other programmable device for implementing the process. Figure 1 a process or multiple processes and / or boxes Figure 1 A step that specifies a function in one or more boxes.

[0066] Although the preferred embodiments of the present invention have been described, those skilled in the art may make additional changes and modifications to these embodiments once they have learned the basic creative concept. Therefore, the appended claims are intended to be interpreted as including the preferred embodiments and all changes and modifications that fall within the scope of the present invention.

[0067] Obviously, those skilled in the art may make various changes and modifications to the present invention without departing from the spirit and scope of the present invention. Thus, if such changes and modifications fall within the scope of the claims and their equivalents, the present invention is intended to include such changes and modifications.

Claims

1. An intelligent scheduling control method for a photographing auxiliary device, characterized in that: The following steps are involved: Perform photo and selfie scene judgment in a preset photo environment to evaluate the eligibility of the photo scene; After the acquired selfie determination data meets the selfie scene determination conditions, performing a selfie scene delay degree monitoring to determine whether to perform image capture delay optimization, wherein the selfie scene delay degree monitoring is used to evaluate the image capture delay; After the delay level monitoring of the photo-taking scene is qualified, command and image transmission monitoring is performed to determine whether command and image transmission optimization is performed. The command and image transmission monitoring is used to evaluate the qualification of the synchronous feedback between the mobile phone and the mobile phone's secondary screen.

2. The intelligent scheduling control method for a photographing auxiliary device according to claim 1, characterized in that: The specific process of judging the selfie scene in the preset photographing environment to evaluate the eligibility of the photographing scene is as follows: Determine whether the selfie scene determination conditions are met based on the monitored selfie determination data; When the selfie judgment data meets the selfie scene judgment conditions, a selfie scene judgment qualification prompt is sent to monitor the delay degree of the selfie scene; When the selfie judgment data does not meet the selfie scene judgment conditions, the corresponding selfie judgment data is marked as unqualified selfie judgment data, and the selfie scene is adjusted; The specific process of adjusting the photographing scene is as follows: When the light intensity for photographing is not within the preset light intensity range obtained from the database, a reminder to adjust the light intensity for photographing is sent and displayed visually on the phone screen; When the phone's posture angle is not within the preset phone posture angle range obtained from the database, a camera angle adjustment prompt is sent and displayed visually on the phone screen; If the photo-taking and self-portrait determination data obtained again after the photo-taking scene adjustment meets the photo-taking and self-portrait scene determination conditions, the photo-taking scene delay degree monitoring continues; If the newly acquired selfie judgment data still does not meet the selfie judgment conditions after adjusting the photo scene, an alarm prompt will be sent; The selfie judgment data includes the light intensity of the photo and the angle of the phone posture; The photo-taking and selfie scene determination condition indicates that the photo-taking light intensity is within a preset light intensity range obtained from a database, and the mobile phone posture angle is within a preset mobile phone posture angle range obtained from a database.

3. The intelligent scheduling control method for a photographing auxiliary device according to claim 1, characterized in that: After the acquired selfie determination data meets the selfie scene determination conditions, the delay degree of the photo scene is monitored to determine whether to perform image capture delay optimization. The specific process is as follows: Obtaining a delay value for capturing an image on a secondary screen of a mobile phone, where the delay value reflects a degree of delay in capturing an image on a preset photo assisting device; Compare the difference between the image capture delay value of the mobile phone's secondary screen and the preset image capture delay value obtained from the database; When the image capture delay value of the mobile phone secondary screen is greater than the preset image capture delay value obtained from the database, image capture delay optimization is performed, wherein the image capture delay optimization is used to reduce the delay of image capture; When the image capture delay value of the mobile phone's secondary screen is not greater than the preset image capture delay value obtained from the database, the photo mode is started and command and image transmission monitoring is performed.

4. The intelligent scheduling control method for a photographing auxiliary device according to claim 3, characterized in that: The specific process of image capture delay optimization is as follows: A1: Perform image processing acceleration. If the delay value of the secondary screen image captured by the mobile phone after image processing acceleration is still greater than the preset delay value, execute A2. Otherwise, perform command and image transmission monitoring. A2, set the image cache capacity. If the delay value of the secondary screen image captured by the mobile phone after setting the image cache capacity is still greater than the preset image capture delay value, send an alarm prompt. Otherwise, perform command and image transmission monitoring; The setting of the image cache capacity means sending a prompt to a preset person to gradually increase the cache capacity by an amplitude corresponding to the ratio of the mobile phone secondary screen image capture delay value to the preset image capture delay value.

5. The intelligent scheduling control method for a photographing auxiliary device according to claim 1, characterized in that: The command and image transmission monitoring includes monitoring the accuracy of the camera command control and the synchronization accuracy of the mobile phone sub-screen and the mobile phone image; The specific process of monitoring the accuracy of the photographing command control is as follows: S1, after analyzing the proportion of the average touch reporting rate and the preset average touch reporting rate, a weighted operation is performed on the reporting-touch response adjustment value to obtain a reporting-touch response characteristic value; The touch response characteristic value is used to reflect the influence of the average touch reporting rate on the touch failure of the mobile phone secondary screen; S2, after performing a ratio analysis on the preset average touch chip processing delay and the average touch chip processing delay, a weighted operation is performed on the chip processing-touch response adjustment value to obtain a chip processing-touch response characteristic value; The chip processing-touch response characteristic value is used to reflect the impact of the average touch chip processing delay on the touch failure of the mobile phone secondary screen; S3, after analyzing the proportion of the average image refresh times and the preset average image refresh times, a weighted operation is performed on the refresh-touch response adjustment value to obtain a refresh-touch response characteristic value; The refresh-touch response characteristic value is used to reflect the influence of the average number of image refresh times on the unqualified touch control of the mobile phone secondary screen; S4, obtaining a touch response delay quantization value by performing anti-correlation quantization on the result of the coupling processing of the touch response characteristic data; The touch response delay quantization value is used to reflect the comprehensive impact of the touch response characteristic parameters and the preset touch response characteristic parameters on the unqualified touch control of the mobile phone's secondary screen; The touch response characteristic data includes a reporting point-touch response characteristic value, a chip processing-touch response characteristic value, and a refresh-touch response characteristic value, and the touch response characteristic data are all greater than 0; The touch response characteristic parameters include an average touch reporting rate, an average touch chip processing delay, and an average image refresh times.

6. The intelligent scheduling control method for a photographing auxiliary device according to claim 5, characterized in that: The specific process of monitoring command and image transmission to determine whether to optimize command and image transmission is as follows: Performing a difference comparison based on the touch response delay quantization value and a preset touch response delay range obtained from a database; When the touch response delay quantization value is within the preset touch response delay range, the corresponding mobile phone secondary screen touch data is marked as qualified mobile phone secondary screen touch data and synchronously transmitted to the preset mobile phone terminal; When the touch response delay quantization value is not within the preset touch response delay range, touch response optimization is performed; The touch response delay quantification value is used to reflect the touch failure of the mobile phone secondary screen touch operation; The specific process of monitoring the synchronization accuracy between the mobile phone secondary screen and the mobile phone image is as follows: In the process of the mobile phone's secondary screen synchronously receiving the mobile phone screen image, the mobile phone image synchronization delay is monitored and judgment is made based on the mobile phone image synchronization delay; When the mobile phone image synchronization delay is greater than 0, a synchronization reception failure prompt is sent and the mobile phone image synchronization delay is optimized; When the mobile phone image synchronization delay is not greater than 0, a synchronization reception qualified prompt is sent; The mobile phone image synchronization delay is used to reflect the synchronization eligibility of the mobile phone's secondary screen receiving the mobile phone screen image; The command and image transmission optimization includes touch response optimization and mobile phone image synchronization delay optimization, which is used to improve the eligibility of synchronous feedback between the mobile phone and the mobile phone's secondary screen.

7. The intelligent scheduling control method for a photographing auxiliary device according to claim 6, characterized in that ,The specific process of touch response optimization is as follows: A touch response stability control value is obtained by performing a proportion analysis based on the acquired touch response stability quantitative value and the preset average response change value from the database; Send a prompt to the preset personnel to gradually increase the compression rate by the amplitude corresponding to the touch response stability control value until the compression rate of the touch data on the mobile phone's secondary screen is within the preset compression rate range obtained from the database, and then set the touch level; The specific process of setting the touch level is as follows: Performing a difference comparison based on the touch response change degree quantified value and the preset average response change degree value from the database; When the touch response change degree quantified value is greater than the preset average response change degree value, the corresponding mobile phone secondary screen touch data is marked as first-level change data, and a first-level expansion channel is set based on the first-level change data; Setting the first-level extension channel means sending a prompt to the preset personnel to set the first-level change data and the mobile phone screen image to share the preset original projection channel, so as to avoid additional occupation of spectrum resources; When the touch response change degree quantization value is not greater than the preset average response change degree value, it indicates that the transmission stability of the mobile phone's secondary screen touch data when it is fed back to the mobile phone is low. The corresponding mobile phone secondary screen touch data is marked as secondary change data, and a secondary extension channel is set based on the secondary change data. The setting of the secondary extension channel means sending a prompt to a preset person to set the channel corresponding to the secondary change data as an independent channel, so as to reduce the protocol stack processing delay.

8. The intelligent scheduling control method for a photographing auxiliary device according to claim 7, characterized in that: The specific process of obtaining the touch response stability quantitative value is as follows: The preset average secondary screen touch sampling rate deviation value and the average secondary screen touch sampling rate deviation value are analyzed for a certain percentage to obtain a sampling deviation-touch stability characteristic value, which is used to reflect the impact of the average secondary screen touch sampling rate deviation value on the feedback stability when the secondary screen touch data of the mobile phone is fed back to the mobile phone; The preset average touch frame loss rate and the average touch frame loss rate are analyzed for a certain percentage to obtain a frame loss-touch stability characteristic value, which reflects the impact of the average touch frame loss rate on the stability of the feedback when the touch data from the mobile phone's secondary screen is fed back to the mobile phone. The touch interruption-touch stability characteristic value is obtained by analyzing the proportion of the preset average touch interruption rate and the average touch interruption rate. This characteristic value is used to reflect the impact of the average touch interruption rate on the feedback stability when the touch data of the mobile phone's secondary screen is fed back to the mobile phone. The touch response stability quantization data is combined with the corresponding preset touch response stability quantization adjustment value, and then weighted and coupled to obtain the touch response stability quantization value by performing anti-correlation quantization. The touch response stability quantization value is used to reflect the comprehensive impact of the touch response stability quantization parameter and the preset touch response stability quantization parameter on the feedback stability when the touch data of the mobile phone secondary screen is fed back to the mobile phone; The touch response stability quantitative data includes sampling deviation-touch stability characteristic value, frame loss-touch stability characteristic value and touch interruption-touch stability characteristic value, and the touch response stability quantitative data are all greater than 0; The preset touch response stability quantitative adjustment value includes a preset sampling deviation-touch stability adjustment value, a preset frame loss-touch stability adjustment value and a preset touch interruption-touch stability adjustment value, which is used to reflect the degree of influence of the touch response stability quantitative data on the touch response stability quantitative value.

9. The intelligent scheduling control method for a photographing auxiliary device according to claim 6, characterized in that: The specific process of optimizing the mobile phone image synchronization delay is as follows: Obtaining a mobile phone image synchronization delay control value, where the mobile phone image synchronization delay control value is represented by a ratio calculation result of an unqualified mobile phone image synchronization delay and a preset image synchronization delay obtained from a database, where the unqualified mobile phone image synchronization delay is represented by a mobile phone image synchronization delay greater than 0; Setting the image resolution means sending a prompt to a preset person to gradually reduce the image resolution according to the amplitude corresponding to the mobile phone image synchronization delay control value; Setting the image frame rate, wherein setting the image frame rate means sending a prompt to a preset person to gradually reduce the image frame rate according to the amplitude corresponding to the mobile phone image synchronization delay control value; If the image resolution is reduced to the preset minimum resolution or the image frame rate is reduced to the preset minimum frame rate, and the synchronization delay of the re-acquired mobile phone image is still greater than 0, an alarm prompt will be sent, otherwise a synchronization reception qualified prompt will be sent.

10. An intelligent dispatching and control system for photographing auxiliary equipment, characterized in that: It includes a photo and selfie scene judgment module, a photo scene delay monitoring module, and a command and image transmission monitoring module: The photo and selfie scene judgment module is used to judge the photo and selfie scene in a preset photo environment to evaluate the eligibility of the photo scene; The photographing scene delay degree monitoring module is used to monitor the photographing scene delay degree to determine whether to perform image capture delay optimization after the acquired photographing and self-portrait judgment data meets the photographing and self-portrait scene judgment conditions. The photographing scene delay degree monitoring is used to evaluate the delay of image capture; The command and image transmission monitoring module is used to perform command and image transmission monitoring to determine whether to perform command and image transmission optimization after the delay degree monitoring of the photo-taking scene is qualified. The command and image transmission monitoring is used to evaluate the qualification of the synchronous feedback between the mobile phone and the mobile phone's secondary screen.

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