Design method of plectrum-triggered atmosphere lamp

Abstract

The invention relates to the technical field of illumination, and discloses a plectrum-triggered atmosphere lamp design method, which comprises the following steps: generating corresponding analog electric signals based on plectrum input of different pressing degrees, regulating and controlling light brightness according to the analog electric signals to realize gradual change, recording plectrum pressing duration, regulating and controlling the light brightness according to the analog electric signals to realize gradual change, and recording the plectrum pressing duration. And recording the pressing duration of the dialing piece, and regulating and controlling the light flicker rate according to the frequency. And responding to the combined operation of the plurality of plectrum to set a complex light effect mode and adjust the delay time after triggering to ensure the matched light response speed.The method and the device have at least one of the following beneficial technical effects that remarkable beneficial effects are shown in a plurality of key aspects. By accurately acquiring the pressing force of the dialing piece, mapping the pressing force to the predefined range and determining the brightness value through formula calculation, accurate regulation and control on gradual change of the light brightness are realized, and the requirement of a user on a fine illumination atmosphere is met.

Description

Technical Field

[0001] The present application relates to the technical field of lighting, and more particularly to a design method for a paddle-triggered atmosphere light. Background Art

[0002] With the improvement of people's quality of life, higher requirements are placed on the humanized design and interactive experience of various products. In the field of ambient lighting, as an important component to improve environmental comfort and aesthetics, it is widely used in many scenes such as car interior and home decoration. At present, the traditional ambient lighting control method is relatively single and cannot fully meet the diverse and personalized needs of users. As a simple control component, the paddle can bring novel interactive experience to users if it is used for ambient lighting control. However, the existing ambient lighting technology based on paddle control is not yet mature.

[0003] Specifically, there are two key issues in practical applications. First, how to accurately control the different degrees of pressing the paddle to achieve a natural gradient of light brightness has always been an unresolved problem. Current technology makes it difficult to accurately match the degree of pressing the paddle with the light brightness, resulting in abrupt changes in brightness and an inability to create a delicate lighting atmosphere. Second, there are also deficiencies in the duration control of the paddle trigger, which makes the light color transition unnatural, destroying the harmony and continuity of the overall lighting effect, and greatly affecting the user experience of the atmosphere light. Summary of the invention

[0004] In order to solve the problems raised by the above background technology, the present application provides a design method for a paddle-triggered atmosphere light.

[0005] This application provides a design method for a paddle-triggered atmosphere light, which adopts the following technical solutions: A design method for a paddle-triggered ambient light, comprising: S101, generating corresponding analog electrical signals based on the paddle inputs of different pressing degrees; S102, adjusting the light brightness to achieve gradual change according to the analog electrical signal, and recording the duration of the paddle being pressed; S103, adjusting the light color change rate based on the duration to achieve a natural transition, while monitoring the frequency of the paddle input signal; S104, regulating the light flashing rate according to the frequency, and responding to a plurality of paddle combination operations to set a complex light effect mode and adjust the delay time after triggering to ensure a matching light response speed.

[0006] Preferably, the pressing force F of the paddle is obtained, and the pressing force F is converted into an analog voltage value V by a sensing module; Map the obtained pressing force F to a predefined pressure range between Fmin and Fmax; The light brightness value B is determined based on the following formula: B = K1 * (F Fmin) / (Fmax Fmin), where K1 is the proportionality factor, Fmin is the minimum pressure threshold, and Fmax is the maximum pressure threshold; If the pressure F is between [Fmid, Fmax], the output range of B is set to [50%,100%] to ensure a gradual and continuous change in brightness.

[0007] Preferably, the continuous pressing time Td of the paddle is obtained, and the actual time length Ts is read and recorded from the timer module; The calculation starts when the pressing exceeds the set start delay Ti; By comparing the time difference Td between the current moment and the previous state, it is determined whether the color temperature W should be accelerated or moved smoothly: if D = |Td Tprev| > DeltaT, W += K2 * (DDeltaT), otherwise it remains unchanged, where K2 is the adjustment rate factor and DeltaT is the maximum allowed time deviation; Based on this difference, the RGB output value is adjusted to complete the color gradient, thereby improving the excessive harshness problem.

[0008] Preferably, the continuous high-frequency or low-frequency signal sequence Fq and its periodicity Tp generated by the plectrum are monitored; If the interval between consecutive pulses P <= Tmin indicates high activity, then switch the light rapidly S=1 / Max(5, P / Tp_min) times per second; On the contrary, P >= Tmax is regarded as a stationary state, in which case the flash speed S=S_min is reduced to provide a steady light source; The calculated S coefficient value is used to update the flicker interval I to ensure that the response is sensitive and does not cause eye fatigue.

[0009] Preferably, a set of programmable action set AC elements is defined to include multiple combination action codes {A, B}; Identify the unique ID number of each paddle and associate the corresponding function call Fcn(ID) in the key combination event C; Use recursive functions to parse the compound instruction Chain(Ci, Ci+..) and the result of the operation is a specific pattern Pattern_i sequence, which supports personalized programming without configuring one by one; Configure the automatic verification mechanism to check the logical integrity Verify(Seq, AC) to reduce the possibility of errors and enhance the maintainability of the system.

[0010] Preferably, the shortest time Dt_min between the first press and the release is recorded and used as the basic unit; Set the delay expectation target Trg to the buffer required for normal reaction; The following formula is used to determine the final effective delay D_final: D_final = Min(Dt_min + Trg, Delay_max), where Delay_max is the longest waiting time that the hardware can withstand; The self-learning optimization algorithm Adjust_Learning(Exp,D_actual) is executed for each effective trigger to adapt to user habits and improve interaction satisfaction.

[0011] Preferably, a linear increment Linc model is set, and the voltage increment V+= Linc*deltaF is gradually adjusted according to the pressure difference deltaF=(FnFp) / time_step; To ensure that there is no misjudgment when there is a small fluctuation, the error range V±= V± (Linc*Tol*Time_step) is controlled by adding the tolerance Tol parameter; Combined with the physical feedback system to confirm the current state State_valid to prevent overcharging risks; According to the above processing method, a stable analog magnitude signal Vou which changes in direct proportion to the pressure is obtained.

[0012] Preferably, an ideal transition duration Time_Ideal is set according to the initial brightness Level_base and the user preset preference Preference; Use the interpolation method Interpolation(L0,L1,Progress), where Progress is the color transition process measured in percentage; If a long stable state is detected, Color_Change_Cycle is extended to 2*Cycle_max; Introduce the smoothing factor SmoothingFactor to smooth out sudden changes Color_Rate = Max(CurRateSmoothingFactor, MinRate).

[0013] Preferably, the active window Window_Active is maintained, and N recent trigger counts N_hits are collected; If N > Threshold within the unit time interval Interval, it is considered to be in a high-intensity interaction state Flash_Intensity *= Scale_Factor_up; For the case where the abnormal low activity Low_activity < Threshold_low, slow down appropriately to maintain a comfortable environment Quality; Dynamically correct the refresh interval Refresh_Period according to the formula Refresh_Period_new = max(min_Refresh_Period, Freq_adjustment_ratio * (Avg_HR Avg resting heart rate)).

[0014] Preferably, identify valid concurrent signals from multiple sources (Source A, Source B...), and use a synchronization mechanism sync_events(Event_A, Event_B...); Record which paddles have been triggered through a bitmap BitMap and form a unique encoded string Encoded_IDs; The decoding process Decode(BitPattern) returns the operation name Name_cmd registered in the corresponding command table CmdTable; Implement an anti-shake technology debounce_process(Input, Delay) to improve reliability and accuracy and avoid repeated activation of the same mode.

[0015] In summary, the present application includes at least one of the following beneficial technical effects: by accurately obtaining the pressing force of the paddle, mapping it to a predefined range and determining the brightness value through formula calculation, the gradual change of the light brightness can be precisely controlled to meet the user's demand for a delicate lighting atmosphere; based on the acquisition and analysis of the continuous pressing time of the paddle, the color temperature and RGB can be adjusted in combination with the set delay and time difference. Output, to achieve a natural transition of light colors and enhance the harmony and ornamentalness of the overall lighting effect; by monitoring the signal sequence and periodicity of the paddles, the flashing rate is adjusted based on the pulse spacing to determine the activity, ensuring that the light flashes stably and meets the comfort requirements of the human eye; for multiple paddle combination operations, by defining action sets, associating function calls and recursively parsing compound instructions, the programming of complex lighting effects is simplified, and the functions and personalized customization space of the atmosphere light are expanded; in terms of light response speed, based on the shortest time from pressing the paddle to releasing it, the effective delay is determined in combination with the delay expectation target and the hardware time limit, and a self-learning optimization algorithm is used to perfectly match the light response speed with the user's operating habits, greatly improving the interaction satisfaction; in summary, this design method comprehensively solves the problems of the atmosphere light in terms of brightness gradient, color transition, flashing rate, complex effect programming and response speed, bringing users a better, more personalized and immersive atmosphere light experience. BRIEF DESCRIPTION OF THE DRAWINGS

[0016] Figure 1 A flow chart of a design method for a paddle-triggered ambient light. DETAILED DESCRIPTION

[0017] Embodiments of the present application are described in detail below, examples of which are shown in the accompanying drawings.

[0018] In the description of this specification, the description with reference to the terms "certain embodiments", "one embodiment", "some embodiments", "illustrative embodiments", "examples", "specific examples", or "some examples" means that the specific features, structures, materials, or characteristics described in conjunction with the embodiments or examples are included in at least one embodiment or example of the present application. In this specification, the schematic representations of the above terms do not necessarily refer to the same embodiment or example. Moreover, the specific features, structures, materials, or characteristics described may be combined in any one or more embodiments or examples in a suitable manner.

[0019] The present application embodiment discloses a design method for a paddle-triggered atmosphere light, referring to Figure 1 ,include: S101, generating corresponding analog electrical signals based on the paddle inputs of different pressing degrees; S102, adjusting the light brightness to achieve gradual change according to the analog electrical signal, and recording the duration of the paddle being pressed; S103, adjusting the light color change rate based on the duration to achieve a natural transition, while monitoring the frequency of the paddle input signal; S104, regulating the light flashing rate according to the frequency, and responding to a plurality of paddle combination operations to set a complex light effect mode and adjust the delay time after triggering to ensure a matching light response speed.

[0020] Furthermore, the pressing force F of the paddle is obtained, and the pressing force F is converted into an analog voltage value V through a sensing module; Map the obtained pressing force F to a predefined pressure range between Fmin and Fmax; The light brightness value B is determined based on the following formula: B = K1 * (F Fmin) / (Fmax Fmin), where K1 is the proportionality factor, Fmin is the minimum pressure threshold, and Fmax is the maximum pressure threshold; If the pressure F is between [Fmid, Fmax], the output range of B is set to [50%,100%] to ensure a gradual and continuous change in brightness.

[0021] Further, the continuous pressing time Td of the paddle is obtained, and the actual time length Ts is read and recorded from the timer module; The calculation starts when the pressing exceeds the set start delay Ti; By comparing the time difference Td between the current moment and the previous state, it is determined whether the color temperature W should be accelerated or moved smoothly: if D = |Td Tprev| > DeltaT, W += K2 * (DDeltaT), otherwise it remains unchanged, where K2 is the adjustment rate factor and DeltaT is the maximum allowed time deviation; Based on this difference, the RGB output value is adjusted to complete the color gradient, thereby improving the excessive harshness problem.

[0022] Further, the continuous high-frequency or low-frequency signal sequence Fq and its periodicity Tp generated by the plectrum are monitored; If the interval between consecutive pulses P <= Tmin indicates high activity, then switch the light rapidly S=1 / Max(5, P / Tp_min) times per second; On the contrary, P >= Tmax is regarded as a stationary state, in which case the flash speed S=S_min is reduced to provide a steady light source; The calculated S coefficient value is used to update the flicker interval I to ensure that the response is sensitive and does not cause eye fatigue.

[0023] Furthermore, a set of programmable action sets AC elements are defined, which contain multiple combination action codes {A, B}; Identify the unique ID number of each paddle and associate the corresponding function call Fcn(ID) in the key combination event C; Use recursive functions to parse the compound instruction Chain(Ci, Ci+..) and the result of the operation is a specific pattern Pattern_i sequence, which supports personalized programming without configuring one by one; Configure the automatic verification mechanism to check the logical integrity Verify(Seq, AC) to reduce the possibility of errors and enhance the maintainability of the system.

[0024] Furthermore, the shortest time Dt_min between the first press and the release is recorded and used as the basic unit; Set the delay expectation target Trg to the buffer required for normal reaction; The following formula is used to determine the final effective delay D_final: D_final = Min(Dt_min + Trg, Delay_max), where Delay_max is the longest waiting time that the hardware can withstand; The self-learning optimization algorithm Adjust_Learning(Exp,D_actual) is executed for each effective trigger to adapt to user habits and improve interaction satisfaction.

[0025] Furthermore, a linear incremental Linc model is set, and the voltage increment V+= Linc*deltaF is gradually adjusted according to the pressure difference deltaF=(FnFp) / time_step; To ensure that there is no misjudgment when there is a small fluctuation, the error range V±= V± (Linc*Tol*Time_step) is controlled by adding the tolerance Tol parameter; Combined with the physical feedback system to confirm the current state State_valid to prevent overcharging risks; According to the above processing method, a stable analog magnitude signal Vou which changes in direct proportion to the pressure is obtained.

[0026] Further, the ideal transition duration Time_Ideal is set according to the initial brightness Level_base and the user preset preference Preference; Use the interpolation method Interpolation(L0,L1,Progress), where Progress is the color transition process measured in percentage; If a long-term stable state is detected, extend Color_Change_Cycle to 2 * Cycle_max; Introduce a smoothing factor SmoothingFactor to suppress mutations. Color_Rate = Max(CurRate * SmoothingFactor, MinRate).

[0027] Furthermore, maintain an active window Window_Active and collect the number of recent triggers N_hits for N times; If N > Threshold within a unit time interval Interval, it is considered to be in a high-intensity interaction state. Flash_Intensity *= Scale_Factor_up; For the case where the abnormal low activity Low_activity < Threshold_low, slow down appropriately to maintain a comfortable environment Quality; Dynamically correct the refresh interval Refresh_Period according to the formula Refresh_Period_new = max(min_Refresh_Period, Freq_adjustment_ratio * (Avg_HR - Avg resting heart rate)).

[0028] Furthermore, identify valid concurrent signals from multiple sources (Source A, Source B...), and use a synchronization mechanism sync_events(Event_A, Event_B...); Record which paddles have been triggered through a bitmap BitMap and form a unique encoded string Encoded_IDs; The decoding process Decode(BitPattern) returns the operation name Name_cmd registered in the corresponding command table CmdTable; Implement anti-shake technology debounce_process(Input, Delay) to improve reliability and accuracy and avoid repeated activation of the same mode.

[0029] A method for designing a paddle-triggered atmosphere light according to the present invention includes: Through a series of innovative designs, this solution successfully solves multiple key problems such as paddle pressing control, duration control, signal frequency adjustment, and delay response matching, bringing a more intuitive, natural, and variable atmosphere light effect experience to users. Next, the specific implementation steps of this method will be described in detail, and how to address the above-mentioned technical challenges will be explained.

[0030] With the cooperation of hardware and software, the first problem is how to solve the problem of gradual change of light brightness by adjusting different pressing degrees. The present invention develops a unique signal conversion mechanism based on the principle of mechanical sensing. When the paddle is subjected to different degrees of pressure, the system will sense the pressure and convert it into a corresponding analog electrical signal. This electric pressure sensor can accurately feedback the continuously changing electrical signal strength value according to the different force application areas and sizes; these values ​​are then digitized by the analog / digital conversion module and sent to the main control unit for processing. Through a linear mapping algorithm or a table lookup, the electrical signal range is matched with the actual required light brightness range, and the drive circuit is used to update the light source output in real time, so as to achieve the purpose of uniform and smooth brightness changes with increasing or decreasing pressing pressure, avoid the phenomenon of sudden darkening or brightening, and make the transition smoother and more comfortable.

[0031] Next, let's look at the second item, which is about duration management. The original intention of the design for this problem is to ensure the smoothness and artistry of the light color transition. The present invention starts timing from the moment of initial sensing, and combines the method of interrupting detection to record the end time to obtain the time span data of the entire paddle pressing, and then uses a preset formula to convert this time parameter into a speed proportional factor of the specific color change. In the actual operation process, the rate of change of color from one tone to another is dynamically adjusted. For example, if the pressing is continued long enough, the elements such as color temperature and color saturation can be converted more slowly and softly to create a comfortable transition; otherwise, a shorter stay may bring more lively and lively results.

[0032] As for the third technical problem, which involves the connection between the input event frequency and the light flashing, the present invention adopts an effective means, that is, to establish a window monitoring function to continuously monitor and accumulate the number of key events within a certain period of time, and then calculate the ideal number of strobes based on this frequency, and periodically change the power supply state of the light-emitting device by setting PWM (pulse width modulation) to achieve the final visual effect of jumping. In this way, it can be ensured that whether it is fast tapping of keys to express passionate and energetic scenes, or steady rhythm lighting to create a static and warm atmosphere, there are reliable execution guidelines, thereby maintaining a good user experience consistency, and no longer having the irregular and random flashing of the past.

[0033] The fourth difficulty involves the support function of complex instruction combinations at the programming level, that is, how to simply and easily complete the creation of a multi-element interactive instruction set in order to better serve the diverse personalized needs of venue layout. The present invention introduces two parts: a configurable coding rule system framework and a script language definition specification to solve this dilemma. While allowing each individual control button to have its own attribute field for use as an identification code, it can also be combined with each other to form a sequence structure, and further associated with various pre-compiled and saved scenario styles. The user only needs to lightly touch the corresponding position to load and enable the specified pattern or animation flow mode with one click, which not only reduces the memory burden but also increases the freedom of choice, and greatly enriches the product gameplay and fun. In addition, it also provides a DIY customization interface for advanced players to meet the personalized creation wishes of professionals. Finally, there is some work on response lag correction. The main purpose here is to eliminate the slight deviation between the actual lighting performance and the human intuitive feeling caused by improper software and hardware coupling. On the one hand, it is necessary to optimize the running efficiency of the firmware code so that it takes up the least CPU cycle and makes feedback processing as soon as possible. On the other hand, it is also necessary to fully consider the impact of external conditions such as power supply fluctuations. Compensation and correction measures are taken in time. For example, the microsecond level ultra-short-term timer cyclically reads the current switch status to confirm the effective action moment. When it is determined that there is a continuous combination of instructions in the standby state, an appropriate buffer waiting interval strategy is initiated to ensure the synchronization accuracy, so that after each trigger, the expected best visual feedback quality can be quickly given according to the pre-planned time node, thereby improving the overall reliability of the system and customer satisfaction.

[0034] In summary, the above solutions are integrated into this design method, which comprehensively covers the solutions to various problems related to paddle operation, significantly improves product competitiveness, and also provides solid theoretical support for expanding more potential directions for future research and development.

[0035] Although the embodiments of the present application have been shown and described above, it can be understood that the above embodiments are exemplary and cannot be understood as limitations on the present application. Ordinary technicians in this field can change, modify, replace and modify the above embodiments within the scope of the present application.

Claims

1. A design method for a paddle-triggered atmosphere light, characterized in that: include: S101, generating corresponding analog electrical signals based on the paddle inputs of different pressing degrees; S102, adjusting the light brightness to achieve gradual change according to the analog electrical signal, and recording the duration of the paddle being pressed; S103, adjusting the light color change rate based on the duration to achieve a natural transition, while monitoring the frequency of the paddle input signal; S104, regulating the light flashing rate according to the frequency, and responding to a plurality of paddle combination operations to set a complex light effect mode and adjust the delay time after triggering to ensure a matching light response speed.

2. A paddle-triggered atmosphere light design method according to claim 1, characterized in that: Generating corresponding analog electrical signals based on the paddle input with different degrees of pressing further includes: Obtain the pressing force F of the paddle, and convert the pressing force F into an analog voltage value V through a sensing module; Map the obtained pressing force F to a predefined pressure range between Fmin and Fmax; The light brightness value B is determined based on the following formula: B = K1 * (F Fmin) / (Fmax Fmin), where K1 is the proportionality factor, Fmin is the minimum pressure threshold, and Fmax is the maximum pressure threshold; If the pressure F is between [Fmid, Fmax], the output range of B is set to [50%, 100%] to ensure a gradual and continuous change in brightness.

3. The method for designing a paddle-triggered atmosphere light according to claim 1, characterized in that: Adjusting the rate of light color change based on duration to achieve a natural transition further includes: Get the continuous pressing time Td of the paddle, read and record the actual time length Ts from the timer module; The calculation starts when the pressing exceeds the set start delay Ti; By comparing the time difference Td between the current moment and the previous state, it is determined whether the color temperature W should be accelerated or moved smoothly: if D = |Td Tprev| > DeltaT, W += K2 * (DDeltaT), otherwise it remains unchanged, where K2 is the adjustment rate factor and DeltaT is the maximum allowed time deviation; Based on this difference, the RGB output value is adjusted to complete the color gradient, thereby improving the excessive harshness problem.

4. The method for designing a paddle-triggered atmosphere light according to claim 1, characterized in that: Monitoring and controlling the light flashing rate based on the input signal frequency further includes: Monitor the continuous high or low frequency signal sequence Fq and its periodicity Tp generated by the pick; If the interval between consecutive pulses P <= Tmin indicates high activity, then switch the light quickly S=1 / Max times per second; On the contrary, P >= Tmax is regarded as a stationary state, in which case the flash speed S=S_min is reduced to provide a steady light source; The calculated S coefficient value is used to update the flicker interval I to ensure that the response is sensitive and does not cause eye fatigue.

5. The method for designing a paddle-triggered atmosphere light according to claim 1, characterized in that: The complex lighting effect mode set in response to the combination of multiple paddle operations further includes: Define a set of programmable action sets AC elements containing multiple combination action codes {A, B}; Identify the unique ID number of each paddle and associate the corresponding function call Fcn in the combination key event C; Use a recursive function to parse the operation result of the composite instruction Chain into a specific graphic Pattern_i sequence, supporting personalized programming without configuring one by one; Configure an automatic verification mechanism to check the logical integrity Verify, reducing the possibility of errors and enhancing the maintainability of the system at the same time.

6. The method for designing a paddle-triggered atmosphere light according to claim 1, characterized in that: Adjust the delay time after triggering to ensure the matching light response speed, further including: Record the shortest time Dt_min elapsed between the first press and release, and use this as the basic unit; Set the delay target Trg as the buffer required for normal response; Apply the following formula to judge the final effective delay D_final: D_final = Min, where Delay_max is the longest waiting time limit that the hardware can bear; Execute the self-learning optimization algorithm Adjust_Learning for each valid trigger to adapt to user habits and improve the interaction satisfaction.

7. The method for designing a paddle-triggered atmosphere light according to claim 1, characterized in that: Refine the specific steps of how to regulate and generate corresponding electrical signals based on different pressing degrees: Set a linear increment Linc model. According to the pressure difference deltaF=(FnFp) / time_step, gradually adjust the voltage increment V+= Linc*deltaF; Ensure that no misjudgment occurs during small fluctuations by adding a tolerance Tol parameter to control the error range V±= V ±; Combine the physical feedback system to confirm the current state State_valid and prevent the risk of overcharging; Obtain a stable analog magnitude signal Vou that changes in direct proportion to the pressure according to the above processing method.

8. The method for designing a paddle-triggered atmosphere light according to claim 1, characterized in that: Refine the specific implementation method of adjusting the color rate based on the duration: Set the ideal transition duration Time_Ideal according to the initial brightness Level_base and the user's preset preference Preference; Adopt the interpolation method Interpolation, where Progress is the color transition process measured by the percentage progress; If a long-term stable state is detected, extend Color_Change_Cycle to 2*Cycle_max; Introduce a smoothing factor SmoothingFactor to suppress sudden changes Color_Rate = Max.

9. The method for designing a paddle-triggered atmosphere light according to claim 1, characterized in that: Adjust the stroboscopic characteristic strategy for frequent and rapid triggering situations: Maintain the active window Window_Active and collect the number of recent trigger times N_hits for N times; If N>Threshold within the unit time interval Interval, it is considered to be in a high-intensity interaction state Flash_Intensity *= Scale_Factor_up; Appropriately decelerate in the case of abnormal low activity Low_activity<Threshold_low to maintain a comfortable environment Quality; Dynamically correct the refresh interval Refresh_Period according to the formula Refresh_Period_new=max.

10. The method for designing a paddle-triggered atmosphere light according to claim 1, characterized in that: The optimization plan for improving the response efficiency of the combination keys is: Identify valid concurrent signals from multiple sources and use the synchronization mechanism sync_events; Use the bitmap BitMap to record which paddles have been triggered and form a unique encoding string Encoded_IDs; The decoding process Decode returns the operation name Name_cmd registered in the corresponding command table CmdTable; Implemented debounce_process to improve reliability and accuracy and avoid repeated activation of the same pattern.

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