Intelligent terminal dynamic light effect prompting method, system and medium

Abstract

This application relates to the field of smart terminal technology, specifically to a method, system, and medium for dynamic light effect prompts on smart terminals. The method includes: acquiring a first type of real-time state data of the smart terminal and a second type of real-time state data associated with the first type of real-time state data; generating first visual feedback data corresponding to the first type of real-time state data according to a preset first mapping rule; determining whether the value of the first type of real-time state data meets the triggering condition for visual feedback to the second type of real-time state data; if the triggering condition is met, generating second visual feedback data corresponding to the second type of real-time state data according to a preset second mapping rule; and controlling the display system of the smart terminal to provide visual feedback based on the first visual feedback data and the optional second visual feedback data. This application can achieve dynamic, intelligent, and multi-dimensional visual prompting effects, effectively improving the accuracy and timeliness of visual feedback and significantly improving device interaction efficiency.

Description

Technical Field

[0001] This application relates to the field of smart terminal technology, specifically to a method, system, and medium for providing dynamic light effect prompts on smart terminals. Background Technology

[0002] The intelligent terminal dynamic light effect prompting method is a visual feedback system applied to mobile devices such as smartphones and tablets. It aims to prompt users about the real-time status of their devices, such as battery level or power consumption, through changes in light effects.

[0003] However, in existing technologies, visual feedback from smart terminals is usually based on a single state data to directly generate a fixed light effect, lacking comprehensive consideration of related state data, resulting in incomplete and inaccurate feedback information. At the same time, existing methods often cannot dynamically adjust the feedback content according to the real-time state, which may cause visual prompts to appear at inappropriate times or not match the user's current needs, thereby reducing the effectiveness of the prompts and the consistency of the user experience. Summary of the Invention

[0004] To overcome the shortcomings of the prior art, this application provides a method, system, and medium for dynamic light effect prompts on smart terminals, the specific technical solution of which is as follows:

[0005] A method for providing dynamic light effect prompts on smart terminals, comprising:

[0006] Acquire a first type of real-time status data of the smart terminal, and a second type of real-time status data associated with the first type of real-time status data;

[0007] According to the preset first mapping rule, the first visual feedback data corresponding to the first type of real-time status data is generated;

[0008] Determine whether the value of the first type of real-time status data meets the triggering condition for visual feedback to the second type of real-time status data;

[0009] If the triggering condition is met, then according to the preset second mapping rule, the second visual feedback data corresponding to the second type of real-time status data is generated;

[0010] Based on the first visual feedback data and the optional second visual feedback data, the display system of the smart terminal is controlled to provide visual feedback.

[0011] In one specific embodiment, the first type of real-time status data includes battery power data, and the second type of real-time status data includes power consumption data; the first visual feedback data includes data for controlling the global brightness of the smart terminal screen; and the second visual feedback data includes data for controlling the edge pulse light effect of the smart terminal screen.

[0012] In one specific embodiment, the method further includes:

[0013] Acquire ambient light data of the environment in which the smart terminal is located;

[0014] The first visual feedback data and / or the triggering conditions are adaptively adjusted based on the ambient light data.

[0015] In one specific embodiment, adaptively adjusting the first visual feedback data based on the ambient light data includes:

[0016] Based on the ambient light data, determine the illumination range in which the ambient light data is located;

[0017] The brightness gain coefficient of the first visual feedback data is determined based on the illumination range in which the ambient light data is located, with different illumination ranges corresponding to different brightness gain coefficients;

[0018] The first visual feedback data is adjusted based on the brightness gain coefficient.

[0019] In one specific embodiment, adaptively adjusting the triggering conditions based on the ambient light data includes:

[0020] Based on the ambient light data, determine the illumination range in which the ambient light data is located;

[0021] Based on the illumination range where the ambient light data is located, a numerical threshold for dynamically adjusting the triggering condition is determined, with different numerical thresholds corresponding to different illumination ranges;

[0022] The triggering conditions are adjusted based on the numerical threshold.

[0023] In one specific embodiment, controlling the display system of the smart terminal to provide visual feedback based on the first visual feedback data and optionally the second visual feedback data includes:

[0024] When the value of the first type of real-time status data does not meet the triggering condition for visual feedback to the second type of real-time status data, visual feedback is provided based on the first visual feedback data.

[0025] When the value of the first type of real-time status data meets the triggering condition for visual feedback to the second type of real-time status data, the first visual feedback data and the second visual feedback data are superimposed and calculated. When the superposition result exceeds the physical brightness limit of the display system, the second visual feedback data is limited so that the first visual feedback data has a higher display priority.

[0026] In one specific embodiment, the method further includes:

[0027] Receive user's custom setting instructions for the first mapping rule, the second mapping rule, or the triggering condition, and update the corresponding rules or conditions according to the custom setting instructions.

[0028] A smart terminal dynamic light effect prompting system includes:

[0029] The first acquisition module is used to acquire the first type and the second type of real-time status data of the smart terminal.

[0030] The first generation module is used to generate first visual feedback data corresponding to the first type of real-time status data according to a preset first mapping rule.

[0031] The judgment module is used to determine whether the value of the first type of real-time status data meets the triggering condition for visual feedback on the second type of real-time status data.

[0032] The second generation module is used to generate second visual feedback data corresponding to the second type of real-time status data according to a preset second mapping rule if the triggering condition is met.

[0033] The display module is used to control the display system of the smart terminal to provide visual feedback based on the first visual feedback data and the second visual feedback data when the triggering condition is met.

[0034] In one specific embodiment, it further includes:

[0035] The second acquisition module is used to acquire ambient light data of the environment in which the smart terminal is located.

[0036] An adjustment module is used to adaptively adjust the first visual feedback data and / or the triggering conditions based on the ambient light data.

[0037] A computer-readable storage medium storing a computer program that, when executed by a processor, implements the steps of the dynamic light effect prompting method for a smart terminal as described above.

[0038] This application has at least the following beneficial effects:

[0039] This application relates to the field of smart terminal technology, specifically to a method, system, and medium for providing dynamic light effect prompts on a smart terminal. The method includes: acquiring a first type of real-time state data of the smart terminal and a second type of real-time state data associated with the first type of real-time state data; generating first visual feedback data corresponding to the first type of real-time state data according to a preset first mapping rule; determining whether the value of the first type of real-time state data meets the triggering condition for visual feedback to the second type of real-time state data; if the triggering condition is met, generating second visual feedback data corresponding to the second type of real-time state data according to a preset second mapping rule; and controlling the display system of the smart terminal to provide visual feedback based on the first visual feedback data and the second visual feedback data when the triggering condition is met. This application acquires the first type of real-time state data and its associated second type of real-time state data of the smart terminal, generates first visual feedback data according to a preset first mapping rule, and simultaneously determines whether the first type of real-time state data meets the triggering condition for visual feedback to the second type of real-time state data. When the condition is met, second visual feedback data is generated according to the second mapping rule, thereby controlling the display system to provide comprehensive visual feedback. This method can achieve dynamic, intelligent and multi-dimensional visual cues, effectively improve the accuracy and timeliness of visual feedback, enhance users' ability to perceive device status, and optimize resource utilization through a conditional triggering mechanism to avoid unnecessary visual interference, thereby significantly improving user experience and device interaction efficiency. Attached Figure Description

[0040] To more clearly illustrate the technical solutions in the embodiments of this application, the accompanying drawings used in the description of the embodiments will be briefly introduced below. Obviously, the accompanying drawings described below are only some embodiments of this application. For those skilled in the art, other drawings can be obtained based on these drawings without creative effort.

[0041] Figure 1 This is a first flowchart of the intelligent terminal dynamic light effect prompting method provided in Embodiment 1;

[0042] Figure 2 This is a second flowchart of the intelligent terminal dynamic light effect prompting method provided in Example 1;

[0043] Figure 3 This is a schematic diagram of the module of the intelligent terminal dynamic light effect prompting system provided in Example 2.

[0044] Figure label:

[0045] 1-First acquisition module; 2-First generation module; 3-Judgment module; 4-Second generation module; 5-Display module. Detailed Implementation

[0046] The technical solutions of the embodiments of this application will be clearly and completely described below with reference to the accompanying drawings. Obviously, the described embodiments are only a part of the embodiments of this application, and not all of the embodiments. Based on the embodiments of this application, all other embodiments obtained by those of ordinary skill in the art without creative effort are within the scope of protection of this application.

[0047] Example 1

[0048] A method for providing dynamic light effect prompts on smart terminals, comprising:

[0049] S1: Obtain the first type of real-time status data of the smart terminal, and the second type of real-time status data associated with the first type of real-time status data;

[0050] S2: Generate the first visual feedback data corresponding to the first type of real-time status data according to the preset first mapping rule;

[0051] S3: Determine whether the value of the first type of real-time status data meets the triggering condition for visual feedback on the second type of real-time status data.

[0052] S4: If the triggering condition is met, then according to the preset second mapping rule, generate the second visual feedback data corresponding to the second type of real-time status data;

[0053] S5: Based on the first visual feedback data and the optional second visual feedback data, control the display system of the smart terminal to provide visual feedback.

[0054] This application acquires a first type of real-time status data and its associated second type of real-time status data from a smart terminal, generates first visual feedback data according to a preset first mapping rule, and simultaneously determines whether the first type of real-time status data meets the triggering conditions for visual feedback on the second type of real-time status data. If the conditions are met, second visual feedback data is generated according to the second mapping rule, thereby controlling the display system to provide comprehensive visual feedback. This method can achieve dynamic, intelligent, and multi-dimensional visual prompts, effectively improving the accuracy and timeliness of visual feedback, enhancing the user's perception of device status, and optimizing resource utilization through a conditional triggering mechanism to avoid unnecessary visual interference, thereby significantly improving user experience and device interaction efficiency.

[0055] The real-time status data includes two categories: a first category of battery power data and a second category of power consumption data. The first category of visual feedback data includes data for controlling the overall brightness of the smart terminal screen, and the second category includes data for controlling the pulsed light effect at the screen edges. This application achieves basic-level energy-saving control by dynamically adjusting the overall screen brightness based on battery power data. Furthermore, by associating power consumption data and triggering a pulsed light effect at the screen edges when specific conditions are met, a hierarchical intelligent visual prompting mechanism is achieved. This method allows users to perceive the approximate battery level simply by observing changes in overall brightness, without needing to view specific values. The unique dynamic light effect at the edges provides immediate and intuitive alerts to abnormally high power consumption states, such as background applications consuming excessive power or the user enabling high-power functions. This not only greatly enriches and refines the visual language of power and energy consumption management, enhancing the intuitiveness and richness of human-computer interaction, but more importantly, it provides crucial status warnings without interrupting the user's main tasks. This ensures a smooth user experience while effectively promoting energy-saving awareness and operations, extending the device's battery life.

[0056] Specifically, S1, "acquiring the first type of real-time status data of the smart terminal, and the second type of real-time status data associated with the first type of real-time status data," includes: acquiring the battery power data of the smart terminal, and the power consumption data associated with the battery power data. In this step, the system continuously or periodically acquires status data through the smart terminal's operating system interface or hardware sensors. Battery power data can be obtained through the system's battery management service and is expressed as the percentage of the current remaining power, such as 75% remaining. Power consumption data associated with the battery power can be obtained through the system's power consumption statistics module and is usually expressed as instantaneous power consumption or the rate of power consumption per unit time. For example, when a user launches a high-load game application, the power consumption data will increase significantly.

[0057] Specifically, S2, "generating first visual feedback data corresponding to the first type of real-time status data according to a preset first mapping rule," includes: generating data for controlling the global brightness of the smart terminal screen corresponding to the battery power data, according to the preset first mapping rule. In this step, the first mapping rule defines the correspondence between the battery power percentage and the screen's base brightness value.

[0058] In one embodiment, the first mapping rule is a preset linear mapping rule: when the battery level is 100%, the corresponding base brightness value is 80% of the maximum brightness value allowed by the system; when the battery level is 0%, the corresponding base brightness value is 20% of the maximum brightness value allowed by the system. Based on the currently acquired battery power data, the system can generate a corresponding first visual feedback data for setting the global screen brightness by querying or calculating this mapping rule.

[0059] Specifically, S3, "Determining whether the value of the first type of real-time status data meets the triggering condition for visual feedback on the second type of real-time status data," includes determining whether the value of the battery power data meets the triggering condition for visual feedback on power consumption data. In this step, the triggering condition is a logical condition set based on the battery power value, the purpose of which is to determine whether the current situation is a specific scenario that requires additional alerts to the user regarding power consumption.

[0060] In one embodiment, the trigger condition is set to compare the real-time battery power data with the preset threshold (30% of battery power) when the battery power is below 30%. If the current battery power is lower than or equal to the threshold, the trigger condition is determined to be met; otherwise, it is not met.

[0061] Specifically, S4, "If the triggering condition is met, then generate the second visual feedback data corresponding to the second type of real-time state data according to the preset second mapping rule," includes: If the triggering condition is met, then generate data corresponding to the power consumption data for controlling the pulse light effect at the edge of the smart terminal screen according to the preset second mapping rule. In this step, the second visual feedback data is data used to control the pulse light effect at the edge of the smart terminal screen, and may include parameters such as the color, flicker frequency, brightness, and luminous effect range of the pulse light. The second mapping rule defines the correspondence between the power consumption data and these pulse light parameters.

[0062] In one embodiment, the second mapping rule is: the higher the power consumption, the faster the pulse light flashes, and the color gradually changes from green to red. Based on the currently acquired power consumption data, the system generates corresponding second visual feedback data through this second mapping rule to intuitively alert the user to the high power consumption state of the current device.

[0063] S5, which "controls the display system of the smart terminal to provide visual feedback based on the first visual feedback data and optional second visual feedback data," includes:

[0064] S51: When the value of the first type of real-time status data does not meet the triggering condition for visual feedback to the second type of real-time status data, visual feedback is provided based on the first visual feedback data.

[0065] S52: When the value of the first type of real-time status data meets the triggering condition for visual feedback to the second type of real-time status data, the first visual feedback data and the second visual feedback data are superimposed and calculated. When the superimposed result exceeds the physical brightness limit of the display system, the second visual feedback data is limited so that the first visual feedback data has a higher display priority.

[0066] This application introduces an intelligent overlay and priority control mechanism to ensure that the visual feedback system can effectively fuse information when multiple state information needs to be presented simultaneously, thereby providing a richer and more three-dimensional prompting effect. More importantly, by setting a physical brightness upper limit and subsequent limiting processing, this method fundamentally avoids problems such as display overload, distortion, or color deviation that may be caused by data overlay, ensuring that the visual feedback conforms to the physical characteristics of the display system under any circumstances, maintaining the stability and reliability of the display. Crucially, this mechanism establishes the display priority of the first visual feedback data, ensuring that even in scenarios requiring complex prompts, the user's perception of the basic power level will not be masked or interfered with by secondary or additional instantaneous power consumption alarms. This ensures that the information transmission remains clear and accurate even in complex interactive situations, significantly improving the robustness of the system and the user experience.

[0067] Specifically, in step S51, "when the value of the first type of real-time status data does not meet the triggering condition for visual feedback to the second type of real-time status data, then visual feedback is only provided based on the first visual feedback data." In this step, when the value of the first type of real-time status data is higher than 30% of the battery level, the display system is controlled to adjust the overall brightness of the screen to the level specified by the first visual feedback data, without displaying any pulse light effects at the screen edges, thus providing the user with a clear and interference-free basic visual indication of battery power.

[0068] S52 "When the value of the first type of real-time status data meets the trigger condition for visual feedback to the second type of real-time status data, then a superposition calculation is performed based on the first visual feedback data and the second visual feedback data. If the superposition result exceeds the physical brightness limit of the display system, the second visual feedback data is limited to give the first visual feedback data a higher display priority." In this step, if the battery power of the smart terminal is less than or equal to 30%, the basic brightness effect and the pulse light effect need to be combined. Specifically, the superposition calculation can be to add the basic brightness value indicated by the first visual feedback data to the brightness value of the pulse light area indicated by the second visual feedback data. However, direct addition may cause the total brightness requirement of a local area of ​​the screen to exceed the physical brightness limit supported by the display hardware of the smart terminal, resulting in overexposure, distortion, or accelerated hardware aging.

[0069] To address this issue, this application introduces a priority control mechanism. The brightness requirement after superposition is calculated in real time and compared with the physical brightness limit. If the superposition result does not exceed the limit, both lighting effects are displayed normally. If the superposition result exceeds the limit, the brightness component in the second visual feedback data is compressed by multiplying it by a coefficient less than 1, ensuring that the superposition result does not exceed the physical brightness limit, while the first visual feedback data remains unchanged.

[0070] In one embodiment, the limiting process includes compressing the luminance component in the second visual feedback data by multiplying it by a coefficient of 0.9, so that the superimposed luminance does not exceed the physical luminance limit, while the first visual feedback data remains unchanged.

[0071] The methods for providing dynamic light effects prompts on smart terminals also include:

[0072] Acquire ambient light data of the environment in which the smart terminal is located;

[0073] Based on ambient light data, the first visual feedback data and / or triggering conditions are adaptively adjusted.

[0074] This application enables the entire dynamic light effect prompting system to possess environmental adaptability by sensing the light intensity of the environment in which the smart terminal is located. This method intelligently adjusts the first visual feedback data (such as the brightness or contrast of the basic light effect) according to changes in ambient light, ensuring clear and conspicuous visibility under different lighting conditions. It avoids glare from excessively bright feedback in low-light environments or difficulty in recognition from excessively dim feedback in bright light environments, thus significantly improving the reliability of visual prompts and the comfort of the user experience in different usage scenarios. Furthermore, by adaptively adjusting the threshold for triggering the second type of visual feedback based on ambient light data, the system can intelligently determine when to activate a higher level of alert based on the environmental context. For example, it can trigger a brighter alert effect earlier or more easily in bright light environments to ensure effective information delivery, while appropriately raising the trigger threshold in well-lit or dark environments to prevent unnecessary interference. This mechanism makes the entire prompting system more intelligent and user-friendly, upgrading from a static, fixed prompting strategy to a dynamic, context-aware prompting strategy, effectively enhancing the practicality and universality of the method.

[0075] Among them, "adaptively adjusting the first visual feedback data based on ambient light data" includes:

[0076] Based on the ambient light data, determine the illumination range in which the ambient light data is located;

[0077] Based on the illumination range of the ambient light data, the brightness gain coefficient of the first visual feedback data is determined, with different illumination ranges corresponding to different brightness gain coefficients;

[0078] The first visual feedback data is adjusted based on the brightness gain coefficient.

[0079] This application achieves a refined, step-by-step response to ambient lighting conditions by establishing discrete illumination ranges and precisely mapping them to different brightness gain coefficients. This range-based processing mechanism, compared to continuous adjustment, significantly reduces the system's computational complexity and power consumption, making the adaptive adjustment process more efficient and rapid, while enhancing the system's stability and robustness. By pre-setting the most suitable brightness gain for different illumination ranges (such as low light, normal light, and strong light), it ensures that the first visual feedback data achieves optimal display effects in various typical ambient light scenarios—applying a larger gain coefficient in strong light environments to improve visibility, and using a smaller gain or even attenuation coefficient in low light environments to avoid glare. This ensures that the prompts are clearly legible while maximizing visual comfort and reducing unnecessary screen power consumption. This method enables the visual feedback system to adapt to complex and changing usage environments in a more intelligent, energy-efficient, and user-friendly way.

[0080] Specifically, "determining the illumination interval of the ambient light data based on the ambient light data" includes: predefining several discrete illumination intervals to correspond to different usage scenarios, and determining the illumination interval of the ambient light data based on the ambient light data.

[0081] In one embodiment, the illumination range includes a dark light range, a normal light range, and a bright light range. The ambient illuminance in the dark light range is <100 Lux. The ambient illuminance in the normal light range is between 100 Lux and 1000 Lux. The ambient illuminance in the bright light range is >1000 Lux.

[0082] "Determine the brightness gain coefficient of the first visual feedback data based on the illumination range where the ambient light data is located, with different illumination ranges corresponding to different brightness gain coefficients" includes: presetting a brightness gain coefficient for each illumination range, and determining the brightness gain coefficient of the first visual feedback data based on the illumination range where the ambient light data is located.

[0083] In one embodiment, the gain factor can be set to 0.5 to 0.8 for the low-light range. For the normal light range, the gain factor can be set to 1.0. For the high-light range, the gain factor can be set to 1.2 to 1.5.

[0084] "Adjusting the first visual feedback data according to the brightness gain coefficient" includes: multiplying the brightness gain coefficient by the first visual feedback data generated in step S2 to obtain the adjusted first visual feedback data. For example, if the original mapped base brightness (i.e., the first visual feedback data generated in step S2) is 300 nits, and a gain coefficient of 1.3 is applied in a strong light environment, the adjusted target brightness becomes 390 nits.

[0085] Among them, adaptively adjusting the triggering conditions based on ambient light data includes:

[0086] Based on the ambient light data, determine the illumination range in which the ambient light data is located;

[0087] Based on the illumination range of the ambient light data, determine the numerical threshold for dynamically adjusting the triggering conditions; different illumination ranges correspond to different numerical thresholds.

[0088] The triggering conditions are adjusted based on the numerical threshold.

[0089] This application intelligently adjusts the threshold required to trigger secondary visual feedback under different lighting conditions. In bright light environments, the system appropriately lowers the trigger threshold, ensuring that important prompts are delivered to users promptly and effectively, avoiding omissions due to environmental interference. Simultaneously, in low-light environments, the trigger threshold is increased accordingly, effectively preventing unnecessary disturbances or light pollution in situations where users are more sensitive to visual stimuli, significantly improving the environmental adaptability and intelligence of the prompt system. This dynamic threshold adjustment mechanism based on ambient light allows the entire prompt system to better balance the relationship between prompt intensity and user experience while ensuring the timeliness of key information delivery, enhancing the practicality of the method and the friendliness of human-computer interaction.

[0090] "Determining the illumination range of the ambient light data based on the ambient light data" includes: when the ambient light illuminance is ≤100Lux, the illumination range of the ambient light data is determined to be the low light range; when 100Lux < ambient light illuminance ≤1000Lux, the illumination range of the ambient light data is determined to be the normal light range; when the ambient light illuminance >1000Lux, the illumination range of the ambient light data is determined to be the high light range.

[0091] "Determining a numerical threshold for dynamically adjusting triggering conditions based on the illumination range of the ambient light data, with different numerical thresholds corresponding to different illumination ranges" includes: when the ambient light data is in a strong light range, adjusting the numerical threshold to a first value; when the ambient light data is in a normal light range, adjusting the numerical threshold to a second value; when the ambient light data is in a weak light range, adjusting the numerical threshold to a third value; wherein the first value is greater than the second value, and the second value is greater than the third value.

[0092] The methods for providing dynamic light effects prompts on smart terminals also include:

[0093] Receive user-defined settings instructions for the first mapping rule, the second mapping rule, or the triggering condition, and update the corresponding rules or conditions according to the user-defined settings instructions.

[0094] This application introduces user-defined settings for the first mapping rule, second mapping rule, or triggering conditions, resulting in the following significant benefits: This solution breaks the limitations of fixed and rigid feedback rules in traditional prompting systems, allowing users to freely define the visual feedback format corresponding to different state data or adjust the sensitivity threshold for triggering additional prompts based on personal preferences and usage habits, thereby greatly enhancing the system's personalization and flexibility. This user-configurable mechanism enables visual prompts to better suit the cognitive needs and aesthetic preferences of different users, significantly enhancing the user-friendliness of human-computer interaction and user satisfaction. Simultaneously, this function also improves the method's adaptability to different application scenarios. Users can customize appropriate prompting strategies according to specific scenarios, ensuring effective information delivery while minimizing unnecessary interference, thus significantly optimizing the overall user experience and enhancing the product's market competitiveness and user stickiness.

[0095] Example 2

[0096] A smart terminal dynamic light effect prompting system includes:

[0097] The first acquisition module 1 is used to acquire the first type of real-time status data and the second type of real-time status data of the smart terminal.

[0098] The first generation module 2 is used to generate first visual feedback data corresponding to the first type of real-time status data according to the preset first mapping rule;

[0099] Judgment module 3 is used to determine whether the value of the first type of real-time status data meets the triggering condition for visual feedback on the second type of real-time status data.

[0100] The second generation module 4 is used to generate second visual feedback data corresponding to the second type of real-time status data according to the preset second mapping rule if the triggering condition is met.

[0101] Display module 5 is used to control the display system of the smart terminal to provide visual feedback based on the first visual feedback data and the second visual feedback data when the triggering condition is met.

[0102] This application constructs a clearly structured and well-defined hardware implementation foundation through the collaborative work of a first acquisition module 1, a first generation module 2, a judgment module 3, a second generation module 4, and a display module 5. This modular architecture solidifies the process of the dynamic light effect prompting method within the system, ensuring stable, efficient, and reliable operation of a series of operations, including state data acquisition, mapping rule execution, trigger condition judgment, and visual feedback control. Compared to purely method-level implementations, this system significantly improves the real-time performance of data processing and system response speed by distributing processing tasks through dedicated hardware modules, while reducing the computational load on the main processor of the smart terminal. Simultaneously, the modular design facilitates system maintenance, upgrades, and functional expansion, providing solid and optimized hardware support for the practical application and integration of the dynamic light effect prompting method in industry, thereby ensuring the overall smoothness, accuracy, and reliability of the final visual prompting effect.

[0103] The intelligent terminal dynamic light effect prompt system also includes:

[0104] The second acquisition module is used to acquire ambient light data of the environment in which the smart terminal is located.

[0105] An adjustment module is used to adaptively adjust the first visual feedback data and / or triggering conditions based on ambient light data.

[0106] This application adds a second acquisition module and an adjustment module to the dynamic light effect prompting system of a smart terminal, endowing the system with environmental adaptability. The second acquisition module is dedicated to collecting ambient light data, providing the system with key information for perceiving the external environment; the adjustment module, based on this data, intelligently and dynamically adjusts the first visual feedback data (such as basic light effect brightness) and / or the conditions triggering the second visual feedback. This modular design at the hardware level enables the environmental adaptability function to operate more efficiently and stably, significantly reducing the computational burden on the main processor. By introducing an ambient light perception and adaptive adjustment mechanism, the system can ensure that visual prompts maintain optimal visibility under different ambient lighting conditions—enhancing the display in strong light to ensure clear visibility, and suppressing brightness in dim light to avoid glare; simultaneously, by intelligently adjusting the triggering conditions, the system can provide more sensitive important prompts in complex ambient lighting conditions, while avoiding excessive interference in suitable lighting conditions. This fundamentally improves the practicality, environmental friendliness, and user comfort of dynamic light effect prompts at the system level.

[0107] It should be understood that the various variations and specific embodiments of the intelligent terminal dynamic light effect prompting method provided in the above embodiments are also applicable to the intelligent terminal dynamic light effect prompting system in this embodiment. Through the detailed description of the intelligent terminal dynamic light effect prompting method described above, those skilled in the art can clearly understand the implementation process of the intelligent terminal dynamic light effect prompting system in this embodiment. For the sake of brevity, it will not be described in detail here.

[0108] Example 3

[0109] A computer-readable storage medium stores a computer program, which, when executed by a processor, implements the steps of a method for dynamic light effect prompts on a smart terminal. This application enables dynamic, intelligent, and multi-dimensional visual prompts, effectively improving the accuracy and timeliness of visual feedback, enhancing the user's perception of device status, and optimizing resource utilization through a conditional triggering mechanism to avoid unnecessary visual interference, thereby significantly improving user experience and device interaction efficiency.

[0110] Those skilled in the art will understand that the modules or steps described above in this application can be implemented using general-purpose computing devices. They can be centralized on a single computing device or distributed across a network of multiple computing devices. Optionally, they can be implemented using computer-executable program code, thereby allowing them to be stored in a storage device for execution by a computing device, or they can be fabricated as separate integrated circuit modules, or multiple modules or steps can be fabricated as a single integrated circuit module. Thus, this application is not limited to any particular combination of hardware and software.

[0111] Note that the above description is merely a preferred embodiment and the technical principles employed in this application. Those skilled in the art will understand that this application is not limited to the specific embodiments described herein, and various obvious changes, readjustments, and substitutions can be made without departing from the scope of protection of this application. Therefore, although this application has been described in detail through the above embodiments, this application is not limited to the above embodiments. Many other equivalent embodiments may be included without departing from the concept of this application, and the scope of this application is determined by the scope of the appended claims.

[0112] The above description is only a preferred embodiment of this application and is not intended to limit this application. Any modifications, equivalent substitutions, improvements, etc., made within the spirit and principles of this application should be included within the protection scope of this application.

Claims

1. A method for providing dynamic light effect prompts on a smart terminal, characterized in that, include: Acquire a first type of real-time status data of the smart terminal, and a second type of real-time status data associated with the first type of real-time status data; According to the preset first mapping rule, the first visual feedback data corresponding to the first type of real-time status data is generated; Determine whether the value of the first type of real-time status data meets the triggering condition for visual feedback to the second type of real-time status data; If the triggering condition is met, then according to the preset second mapping rule, the second visual feedback data corresponding to the second type of real-time status data is generated; Based on the first visual feedback data and the second visual feedback data, control the display system of the smart terminal to provide visual feedback; The first type of real-time status data includes battery power data, and the second type of real-time status data includes power consumption data; the first visual feedback data includes data for controlling the global brightness of the smart terminal screen; the second visual feedback data includes data for controlling the edge pulse light effect of the smart terminal screen, wherein the data for controlling the edge pulse light effect of the smart terminal screen includes the color, flicker frequency, brightness, and luminous efficacy range parameters of the pulse light; the first mapping rule defines the correspondence between battery power percentage and the basic screen brightness value; the second mapping rule defines the correspondence between the power consumption data and the color, flicker frequency, brightness, and luminous efficacy range parameters of the pulse light; The step of controlling the display system of the smart terminal to provide visual feedback based on the first visual feedback data and the second visual feedback data includes: When the value of the first type of real-time status data does not meet the triggering condition for visual feedback to the second type of real-time status data, visual feedback is provided based on the first visual feedback data. When the value of the first type of real-time status data meets the triggering condition for visual feedback to the second type of real-time status data, the first visual feedback data and the second visual feedback data are superimposed and calculated. When the superposition result exceeds the physical brightness limit of the display system, the second visual feedback data is limited so that the first visual feedback data has a higher display priority.

2. The method for dynamic light effect prompting on a smart terminal according to claim 1, characterized in that, The method further includes: Acquire ambient light data of the environment in which the smart terminal is located; The first visual feedback data and / or the triggering conditions are adaptively adjusted based on the ambient light data.

3. The method for dynamic light effect prompting on a smart terminal according to claim 2, characterized in that, The step of adaptively adjusting the first visual feedback data based on the ambient light data includes: Based on the ambient light data, determine the illumination range in which the ambient light data is located; The brightness gain coefficient of the first visual feedback data is determined based on the illumination range in which the ambient light data is located, with different illumination ranges corresponding to different brightness gain coefficients; The first visual feedback data is adjusted based on the brightness gain coefficient.

4. The method for dynamic light effect prompting on a smart terminal according to claim 2, characterized in that, The step of adaptively adjusting the triggering conditions based on the ambient light data includes: Based on the ambient light data, determine the illumination range in which the ambient light data is located; Based on the illumination range where the ambient light data is located, a numerical threshold for dynamically adjusting the triggering condition is determined, with different numerical thresholds corresponding to different illumination ranges; The triggering conditions are adjusted based on the numerical threshold.

5. The method for dynamic light effect prompting on a smart terminal according to claim 1, characterized in that, The method further includes: Receive user's custom setting instructions for the first mapping rule, the second mapping rule, or the triggering condition, and update the corresponding rules or conditions according to the custom setting instructions.

6. A dynamic light effect prompting system for intelligent terminals, characterized in that, include: The first acquisition module is used to acquire the first type and the second type of real-time status data of the smart terminal. The first generation module is used to generate first visual feedback data corresponding to the first type of real-time status data according to a preset first mapping rule. The judgment module is used to determine whether the value of the first type of real-time status data meets the triggering condition for visual feedback on the second type of real-time status data. The second generation module is used to generate second visual feedback data corresponding to the second type of real-time status data according to a preset second mapping rule if the triggering condition is met. The display module is used to control the display system of the smart terminal to provide visual feedback based on the first visual feedback data and the second visual feedback data. The system also performs the following steps: The first type of real-time status data includes battery power data, and the second type of real-time status data includes power consumption data; the first visual feedback data includes data for controlling the global brightness of the smart terminal screen; the second visual feedback data includes data for controlling the edge pulse light effect of the smart terminal screen, wherein the data for controlling the edge pulse light effect of the smart terminal screen includes the color, flicker frequency, brightness, and luminous efficacy range parameters of the pulse light; the first mapping rule defines the correspondence between battery power percentage and the basic screen brightness value; the second mapping rule defines the correspondence between the power consumption data and the color, flicker frequency, brightness, and luminous efficacy range parameters of the pulse light; The step of controlling the display system of the smart terminal to provide visual feedback based on the first visual feedback data and the second visual feedback data includes: When the value of the first type of real-time status data does not meet the triggering condition for visual feedback to the second type of real-time status data, visual feedback is provided based on the first visual feedback data. When the value of the first type of real-time status data meets the triggering condition for visual feedback to the second type of real-time status data, the first visual feedback data and the second visual feedback data are superimposed and calculated. When the superposition result exceeds the physical brightness limit of the display system, the second visual feedback data is limited so that the first visual feedback data has a higher display priority.

7. The intelligent terminal dynamic light effect prompting system according to claim 6, characterized in that, Also includes: The second acquisition module is used to acquire ambient light data of the environment in which the smart terminal is located. An adjustment module is used to adaptively adjust the first visual feedback data and / or the triggering conditions based on the ambient light data.

8. A computer-readable storage medium storing a computer program, characterized in that, When the computer program is executed by the processor, it implements the steps of the intelligent terminal dynamic light effect prompting method as described in any one of claims 1-5.

Images