A standby mode control method based on magnetic wireless charging mobile power supply

Abstract

The invention discloses a standby mode control method based on a magnetic wireless charging mobile power supply, relates to the technical field of standby mode control, and solves the technical problem in the prior art that the execution time and end time of the standby mode cannot be accurately determined according to real-time operation analysis, thereby reducing the energy-saving efficiency of the standby mode. Specifically, the standby effect impact analysis is performed on the mobile power supply, and the standby effect impact analysis coefficient of the power supply subject is collected. The standby effect impact is inferred according to the standby effect impact analysis coefficient threshold comparison, and the standby mode control is performed according to the operation requirements of the mobile power supply. At the same time, after entering the standby mode, the consumption ratio data and duration increase data of the power supply subject are collected, and whether the power supply subject is released from the standby mode is inferred according to the data comparison; and the standby mode is accurately awakened according to the standby mode period environment analysis of the mobile power supply.

Description

Technical Field

[0001] The present invention relates to the technical field of standby mode control, and in particular to a standby mode control method based on a magnetic wireless charging mobile power source. Background Art

[0002] A mobile power source, also called a power bank, travel charger, etc., is a portable charger that integrates power supply and charging functions. It can charge digital devices such as mobile phones and tablets anytime and anywhere. It usually uses lithium (or dry cell batteries, which are less common) as the power storage unit and is easy and quick to use.

[0003] However, in the prior art, when the mobile power supply is running, it is unable to analyze and determine whether the standby mode is needed according to the real-time operation requirements, and it is also unable to accurately determine the execution time and end time of the standby mode according to the real-time operation analysis, thereby reducing the energy saving efficiency of the standby mode. In addition, it is unable to adjust and control the wrong operation during the standby mode period, thereby reducing the execution efficiency of the standby mode.

[0004] In view of the above technical defects, a solution is now proposed. Summary of the invention

[0005] The purpose of the present invention is to solve the above-mentioned problems and to propose a standby mode control method based on a magnetic wireless charging mobile power source.

[0006] The purpose of the present invention can be achieved through the following technical solutions:

[0007] A standby mode control method based on a magnetic wireless charging mobile power supply, the specific steps of the standby mode control method are as follows:

[0008] Step 1: Standby function evaluation: analyze the impact of standby function on the mobile power supply, mark the magnetic wireless charging mobile power supply as the power supply subject, collect the standby function parameters of the power supply subject and substitute them into the formula to calculate the standby function impact analysis coefficient, infer the standby function impact according to the standby function impact analysis coefficient threshold, and proceed to step 2;

[0009] Step 2: Standby command control: perform standby mode control according to the operation requirements of the mobile power supply, collect the overlapping time data and speed data of the power supply subject, and infer whether the current power supply subject has entered the standby mode based on data analysis. At the same time, after entering the standby mode, collect the consumption ratio data and time increase data of the power supply subject, and infer whether the power supply subject has released the standby mode based on data comparison; and divide the power supply subject into a real-time execution subject or an advance execution subject according to the analysis of the power supply subject releasing the standby mode;

[0010] Step 3: Standby wake-up control: accurately wake up the standby mode according to the standby mode period environment analysis of the mobile power supply, set the standby mode period of the power supply subject as the standby period, obtain the advance execution information and real-time execution information in the standby period, and compare the information to infer whether the current operation is an erroneous operation;

[0011] Step 4: Standby efficiency evaluation: conduct efficiency evaluation based on whether the standby mode is executed during the operation period of the mobile power supply, collect the saving information and consumption information of the power supply subject, and infer whether the standby mode efficiency is qualified based on information analysis.

[0012] As a preferred embodiment of the present invention, the standby action parameters include the peak value of the growth span ratio of the duration of the supply phase of the power supply subject and the corresponding phase of the power supply subject waiting for supply within the historical operation cycle of the power supply subject, the numerical deviation between the average power consumption of internal components in the supply phase of the power supply subject and the average power consumption in the waiting phase of the power supply subject within the historical operation cycle of the power supply subject, the duration of the ratio of the peak value of the power consumption of internal components in the supply phase to the corresponding peak value of the power consumption of internal components in the waiting phase is greater than one, and the numerical ratio of the delay time of the power supply subject instruction execution after the standby mode is executed within the historical operation cycle of the power supply subject.

[0013] As a preferred implementation of the present invention, the standby effect impact analysis coefficient threshold comparison process is as follows:

[0014] If the standby effect impact analysis coefficient exceeds the standby effect impact analysis coefficient threshold, a mode energy-saving signal is generated and the mode energy-saving signal is sent to the administrator terminal of the power supply subject;

[0015] If the standby effect impact analysis coefficient does not exceed the standby effect impact analysis coefficient threshold, a mode non-energy-saving signal is generated and sent to the administrator terminal of the power supply entity.

[0016] As a preferred embodiment of the present invention, the overlapping time data and the speed data are respectively the overlapping time of the natural consumption time of the real-time remaining power of the power supply subject when the power supply subject does not enter the standby mode during the supply period at any time and the power supply consumption time of the remaining power of the power supply subject, and the speed reduction speed of the ratio of the time when the internal components of the power supply subject are energized but not running to the time when they are energized and running when the power supply subject does not enter the standby mode during the supply period at any time.

[0017] As a preferred embodiment of the present invention, the data analysis process is as follows:

[0018] If the overlap duration data exceeds the consumed duration overlap duration threshold, and the speed data exceeds the duration ratio reduction speed threshold, a standby non-execution signal is generated and sent to the administrator terminal;

[0019] If the overlap duration data does not exceed the consumed duration overlap duration threshold, or the speed data does not exceed the duration ratio reduced speed threshold, a standby execution signal is generated and sent to the administrator terminal.

[0020] As a preferred embodiment of the present invention, the consumption ratio data and the duration increase data are respectively the corresponding numerical ratio of the accumulated power savings when the internal components stop powering when the power supply subject is in standby mode and the accumulated power consumption when the internal components start to power on corresponding to the charging cycle of the device to be charged by the power supply subject, and the increase in the buffer time of the internal components powering on after the internal components are released from standby mode when the power supply subject is in standby mode.

[0021] As a preferred embodiment of the present invention, the data comparison process is as follows:

[0022] If the consumption ratio data exceeds the cumulative value ratio threshold, and the duration increase data does not exceed the buffer duration increase threshold, a time-use and time-stop signal is generated and sent to the administrator terminal, and the power supply subject is marked as a real-time execution subject;

[0023] If the consumption ratio data does not exceed the cumulative value ratio threshold, or the duration increase data exceeds the buffer duration increase threshold, an interval advance signal is generated and sent to the administrator terminal, and the power supply subject is marked as an advance execution subject.

[0024] As a preferred embodiment of the present invention, the advance execution information and the real-time execution information are respectively the ratio of the remaining time interval between the charging task execution moments of the advance execution subject during the standby period to the corresponding time length of the execution time of the current standby mode, and the excess of the standby mode buffer release time of the real-time execution subject and the charging task execution wake-up time.

[0025] As a preferred embodiment of the present invention, the information comparison process is as follows:

[0026] If the advance execution information exceeds the duration value ratio threshold, and the real-time execution information does not exceed the time consumption excess output threshold, the standby mode will not be released;

[0027] If the advance execution information does not exceed the duration value ratio threshold, or the real-time execution information exceeds the time consumption excess threshold, the standby mode is released.

[0028] As a preferred embodiment of the present invention, the saving information and the consumption information are respectively the numerical deviation between the average of the electric energy saving amount of the internal components of the power supply subject in the simultaneous time periods of the standby mode and the average of the electric energy saving amount of the non-simultaneous time periods of the standby mode, the delay time of the internal components stopping the supply when the power supply subject enters the standby mode and the buffer time of the internal components resuming the supply when the standby mode ends, and the proportion of the corresponding cumulative time to the total operation cycle;

[0029] If the saving information exceeds the energy saving amount mean value deviation threshold, and the consumption information does not exceed the duration ratio threshold, an execution efficiency signal is generated and sent to the administrator terminal;

[0030] If the saving information does not exceed the energy saving amount mean value deviation threshold, or the consumption information exceeds the duration ratio threshold, an execution inefficiency signal is generated and sent to the administrator terminal.

[0031] Compared with the prior art, the present invention has the following beneficial effects:

[0032] 1. In the present invention, the impact of the standby function of the mobile power supply is analyzed. According to the historical use and operation process of the mobile power supply, it is determined whether the standby mode of the mobile power supply has a beneficial effect on the energy saving of the mobile power supply, so as to improve the energy saving performance of the standby mode on the operation of the mobile power supply and enhance the use efficiency of the mobile power supply. The real-time operation requirements of the mobile power supply and the operation of the mobile power charging device are analyzed to determine whether the current mobile power supply enters the standby mode, and the standby mode is executed and terminated in accordance with the operation cycle of the mobile power supply, so that the standby mode can minimize the energy consumption of the mobile power supply and ensure the rationality of the execution of the standby mode, and avoid the repeated execution and termination of the standby mode, which increases the energy consumption of the standby mode.

[0033] 2. In the present invention, accurate wake-up control of the standby mode is performed based on the environmental analysis of the mobile power supply during the standby mode period, combined with the analysis of the surrounding environment and the analysis of the execution instructions of the current mobile power supply, to avoid erroneous operation when the mobile power supply is in the standby mode, resulting in the end of the standby mode and the internal components being charged to increase energy consumption. At the same time, it also avoids the real-time operation of the standby mode cannot be excluded as erroneous operation, resulting in the internal components being charged inefficiently in time, which easily causes the charging efficiency of the mobile power supply to decrease.

[0034] 3. In the present invention, efficiency evaluation is performed based on whether the standby mode is executed during the operation period of the mobile power supply to determine the impact of the execution of the standby mode in the mobile power supply, thereby improving the accuracy of energy-saving and power-saving performance detection of the standby mode, and further confirming whether the execution of the standby mode is reasonable. If it is unreasonable, targeted regulation is performed to improve the feasibility of the execution of the standby mode. BRIEF DESCRIPTION OF THE DRAWINGS

[0035] In order to facilitate understanding by those skilled in the art, the present invention is further described below with reference to the accompanying drawings.

[0036] Figure 1 is a flow chart of the overall method of the present invention;

[0037] Figure 2 is a flow chart of the method for standby instruction control in the present invention;

[0038] Figure 3 This is a flow chart of the method for standby wake-up control in the present invention. DETAILED DESCRIPTION

[0039] In order to enable those skilled in the art to better understand the scheme of the present invention, the technical scheme in the embodiments of the present invention will be clearly and completely described below in conjunction with the drawings in the embodiments of the present invention. Obviously, the described embodiments are only part of the embodiments of the present invention, not all of the embodiments. Based on the embodiments of the present invention, all other embodiments obtained by ordinary technicians in this field without creative work are within the scope of protection of the present invention.

[0040] Reference to "embodiments" herein means that a particular feature, structure, or characteristic described in conjunction with the embodiments may be included in at least one embodiment of the present invention. The appearance of the phrase in various places in the specification does not necessarily refer to the same embodiment, nor is it an independent or alternative embodiment that is mutually exclusive with other embodiments. It is explicitly and implicitly understood by those skilled in the art that the embodiments described herein may be combined with other embodiments.

[0041] See also Figure 1 As shown, a standby mode control method based on a magnetic wireless charging mobile power supply, the specific steps of the standby mode control method are as follows:

[0042] Step 1: Standby effect evaluation: analyze the impact of the standby effect on the mobile power supply. According to the historical operation process of the mobile power supply, determine whether the standby mode of the mobile power supply has a beneficial effect on the energy saving of the mobile power supply, so as to improve the energy saving performance of the standby mode on the operation of the mobile power supply and enhance the use efficiency of the mobile power supply.

[0043] Step 2: Standby command control: control the standby mode according to the operation requirements of the mobile power supply, analyze the real-time operation requirements of the mobile power supply and the operation of the mobile power supply charging device to determine whether the current mobile power supply has entered the standby mode, and execute and end the standby mode in accordance with the operation cycle of the mobile power supply, so that the standby mode can minimize the energy consumption of the mobile power supply and ensure the rationality of the execution of the standby mode, and avoid repeated execution and termination of the standby mode, which increases the energy consumption of the standby mode.

[0044] Step 3, standby wake-up control, according to the standby mode period environment analysis of the mobile power supply, combined with the surrounding environment analysis and the current mobile power supply execution instruction analysis, the standby mode accurate wake-up control is performed to avoid erroneous operation when the mobile power supply is in standby mode, resulting in the end of the standby mode and the internal components being charged to increase energy consumption, and also to avoid the real-time operation of the standby mode cannot be ruled out as erroneous operation, so that the internal components are not charged in time, which easily causes the charging efficiency of the mobile power supply to decrease;

[0045] Step 4: Standby efficiency evaluation: Efficiency evaluation is performed to determine whether the standby mode is executed during the operation period of the mobile power supply, so as to determine the impact of the execution of the standby mode in the mobile power supply, improve the accuracy of energy-saving and power-saving performance detection of the standby mode, and further confirm whether the execution of the standby mode is reasonable. If it is unreasonable, targeted regulation is carried out to improve the feasibility of the execution of the standby mode;

[0046] The standby function evaluation process in step 1 is as follows:

[0047] The magnetic wireless charging mobile power supply is marked as the power supply subject, and the peak value of the growth span of the duration ratio of the power supply subject supply phase and the power supply subject waiting phase in the historical operation cycle of the power supply subject is collected. At the same time, the numerical deviation of the average power consumption of the internal components in the power supply phase of the power supply subject and the average power consumption in the power supply subject waiting phase in the historical operation cycle of the power supply subject is obtained, and the peak value of the growth span of the duration ratio of the power supply phase of the power supply subject and the power supply subject waiting phase in the historical operation cycle of the power supply subject and the numerical deviation of the average power consumption of the internal components in the power supply phase of the power supply subject and the average power consumption in the power supply subject waiting phase in the historical operation cycle of the power supply subject are marked as SSF and SZP respectively;

[0048] Obtain the value ratio of the duration of the time when the peak value ratio of the power consumption peak of the internal components in the supply phase to the corresponding peak value ratio of the power consumption peak of the internal components in the waiting phase is greater than one to the duration of the delay time of the power supply subject instruction execution after the standby mode is executed in the historical operation cycle of the power supply subject, and mark the value ratio of the duration of the time when the peak value ratio of the power consumption peak of the internal components in the supply phase to the corresponding peak value ratio of the power consumption peak of the internal components in the waiting phase is greater than one to the duration of the delay time of the power supply subject instruction execution after the standby mode is executed in the historical operation cycle of the power supply subject as SLB;

[0049] The above collected data are uniformly marked as the standby action parameters of the power supply subject, and substituted into the formula to calculate the standby action impact analysis coefficient of the power supply subject, where the formula is: , where G is the coefficient of standby effect analysis, e is a natural constant, fy1, fy2 and fy3 are the peak value of the growth span of the phase duration ratio, the numerical deviation of the mean power consumption and the preset proportional coefficient of the duration numerical ratio, and α is used as an error correction factor. When the standby mode is executed in the collected historical operation cycle, the value is 0.9; otherwise, when the standby mode is not executed in the collected historical operation cycle, the value is 1.2;

[0050] Compare the standby effect impact analysis factor to the standby effect impact analysis factor threshold:

[0051] If the standby effect impact analysis coefficient exceeds the standby effect impact analysis coefficient threshold, it is determined that the power supply subject is suitable for using the standby mode, that is, the standby mode is conducive to power saving of the power supply subject, and a mode energy-saving signal is generated and sent to the administrator terminal of the power supply subject; the administrator terminal receives the mode energy-saving signal, and executes the standby mode according to the operation requirements of the power supply subject during the current operation cycle of the power supply subject; and enters step 2;

[0052] If the standby effect impact analysis coefficient does not exceed the standby effect impact analysis coefficient threshold, it is determined that the power supply subject is not suitable for using the standby mode, that is, the standby mode is not conducive to the power saving of the power supply subject, and a mode non-energy-saving signal is generated and sent to the administrator terminal of the power supply subject; after receiving the mode non-energy-saving signal, the administrator terminal reduces the standby mode duration of the power supply subject and performs energy consumption analysis and monitoring on the internal components of the specific power supply of the standby mode, so as to adjust the component coverage of the standby mode; it can be understood that the internal components of the power supply subject are represented by chips, indicator lights, circuits and other components;

[0053] Please refer to Figure 1 and Figure 2 , the standby command control process in step 2 is as follows:

[0054] The power supply subject executes the standby mode and performs an execution decision analysis, marks the time period when the real-time remaining power of the power supply subject exceeds 10% as the anytime supply period, obtains the overlapping time of the natural consumption time of the real-time remaining power of the power supply subject when the standby mode is not entered during the anytime supply period and the power supply consumption time of the remaining power of the power supply subject, and at the same time obtains the reduction speed of the time when the internal components of the power supply subject are powered but not in operation and the time when they are powered in operation when the standby mode is not entered during the anytime supply period, and marks the overlapping time of the natural consumption time of the real-time remaining power of the power supply subject when the standby mode is not entered during the anytime supply period and the power supply consumption time of the remaining power of the power supply subject, and the reduction speed of the time when the internal components of the power supply subject are powered but not in operation and the time when they are powered in operation when the standby mode is not entered during the anytime supply period as overlapping time data and speed data, respectively, and compares them with the consumption time overlap time threshold and time ratio reduction speed threshold respectively: It can be understood that natural consumption refers to the power consumption of the power supply subject other than internal components, such as the natural power loss of the storage medium;

[0055] If the overlap time of the natural consumption time of the real-time remaining power of the power supply subject and the power supply consumption time of the remaining power of the power supply subject when the standby mode is not entered during the supply period at any time exceeds the consumption time overlap time threshold, and the time ratio of the time when the internal components of the power supply subject are powered but not in operation to the time when the standby mode is not entered during the supply period at any time exceeds the time ratio reduction speed threshold, it is determined that the power supply execution demand in the current supply period at any time is large, that is, the execution effect of the standby mode is not high, and a standby non-execution signal is generated and sent to the administrator terminal;

[0056] If the overlap time of the natural consumption time of the real-time remaining power of the power supply subject and the power supply consumption time of the remaining power of the power supply subject when the standby mode is not entered during the supply period at any time does not exceed the consumption time overlap time threshold, or the reduction speed of the time when the internal components of the power supply subject are powered but not in operation and the time when the power supply subject is powered in operation when the standby mode is not entered during the supply period at any time does not exceed the time ratio reduction speed threshold, it is determined that the power supply execution demand of the current supply period at any time is small, that is, the execution effect of the standby mode is high, and a standby execution signal is generated and sent to the administrator terminal;

[0057] After the power supply subject enters the standby mode, in addition to the power supply subject receiving the power supply instruction, the corresponding numerical ratio of the accumulated power saving amount of the internal components when the power supply subject is in the standby mode to the accumulated power consumption amount of the internal components corresponding to the charging cycle of the device to be charged by the power supply subject is collected, and at the same time, the increase in the buffer time of the internal components after the internal components are powered on and the standby mode is released is obtained, and the accumulated power saving amount of the internal components when the power supply subject is in the standby mode to the accumulated power consumption amount of the internal components corresponding to the charging cycle of the device to be charged by the power supply subject and the increase in the buffer time of the internal components after the internal components are powered on and the standby mode is released are marked as consumption ratio data and duration increase data, respectively, and compared with the accumulated value ratio threshold and the buffer time increase threshold, respectively:

[0058] If the accumulated power saving amount when the internal components stop supplying power when the power supply subject is in the standby mode and the accumulated power consumption amount when the internal components start to be powered on corresponding to the charging cycle of the device to be charged by the power supply subject exceed the accumulated value ratio threshold, and the increase in the buffer time of the internal components being powered on after the internal components are released from the standby mode when the power supply subject is in the standby mode does not exceed the buffer time increase threshold, it is determined that the standby mode does not affect the normal operation of the power supply subject, and a time-use and time-stop signal is generated and sent to the administrator terminal. After the administrator terminal receives the time-use and time-stop signal, the standby mode is ended when the power supply subject receives the power supply instruction; and the power supply subject is marked as a real-time execution subject;

[0059] If the accumulated power saving amount when the internal components stop supplying power when the power supply subject is in the standby mode does not exceed the accumulated value ratio threshold when the power supply subject starts to power on the power supply subject's charging cycle of the device to be charged, or if the increase in the buffer time of the internal components powering on after the internal components are released from the standby mode when the power supply subject is in the standby mode exceeds the buffer time increase threshold, then it is determined that the standby mode affects the normal operation of the power supply subject, and an interval advance signal is generated and sent to the administrator terminal. After the administrator terminal receives the interval advance signal, the execution time threshold of the standby mode is set when the power supply subject receives a power supply instruction or not, and the standby mode is released in advance when there is a power supply task; and the power supply subject is marked as an early execution subject;

[0060] See also Figure 1 and Figure 3 , Step 3: The standby wake-up control process is as follows:

[0061] The period of the standby mode of the power supply subject is set as the standby period, and the numerical ratio of the remaining time interval of the charging task execution time of the advance execution subject in the standby period to the corresponding time length of the execution time of the current standby mode is obtained, and at the same time, the excess of the standby mode buffer release time and the charging task execution wake-up time of the real-time execution subject is obtained, and the numerical ratio of the remaining time interval of the charging task execution time of the advance execution subject in the standby period to the corresponding time length of the execution time of the current standby mode, and the excess of the standby mode buffer release time and the charging task execution wake-up time of the real-time execution subject are marked as advance execution information and real-time execution information, respectively, and compared with the time value ratio threshold and the time excess threshold respectively: It can be understood that the operation of the power supply subject is represented by the pressing operation of the buttons and other components in the power supply subject in the standby mode. At the same time, when the operation of the power supply subject is continuously executed and continues to be executed at a certain interval after no response, it indicates that the power supply subject has a task that needs power supply, and actively generates an execution query instruction to the administrator terminal;

[0062] If the remaining time of the charging task execution time interval of the advance execution subject in the standby period and the corresponding time value ratio of the current standby mode execution time exceed the time value ratio threshold, and the excess of the standby mode release buffer time of the real-time execution subject and the charging task execution wake-up time does not exceed the time excess threshold, then the operation of the power supply subject in the current standby period is set as an erroneous operation, that is, the standby mode is not released;

[0063] If the remaining time of the charging task execution time interval of the advance execution subject in the standby period and the corresponding time value ratio of the current standby mode execution time do not exceed the time value ratio threshold, or the excess of the standby mode release buffer time of the real-time execution subject and the charging task execution wake-up time exceeds the time excess threshold, then the operation of the power supply subject in the current standby period is not set as an erroneous operation, that is, the standby mode is released;

[0064] The specific process of standby efficiency evaluation in step 4 is as follows:

[0065] Obtain the numerical deviation between the average value of the electric energy saving amount of the internal and external time periods of the standby mode of the internal components of the power supply subject during the operation cycle when the power supply subject enters the standby mode and the average value of the electric energy saving amount of the internal and external time periods of the standby mode that are not of the same length. It can be understood that the internal and external time periods of the same length represent two time periods in which the duration of the standby mode is consistent with the duration of the non-standby mode, and the internal and external time periods of not of the same length represent two time periods in which the duration of the standby mode exceeds the duration of the non-standby mode or the duration of the non-standby mode exceeds the duration of the standby mode. If the corresponding numerical deviation is smaller, it indicates that the electric energy saving efficiency is lower, and the effect of the standby mode is smaller.

[0066] At the same time, the accumulated time corresponding to the delay time when the internal components stop supplying when the power supply subject enters the standby mode and the buffer time when the internal components resume supplying when the standby mode ends are collected, and the ratio of the total operation cycle to the accumulated time, and the numerical deviation between the average value of the electric energy saving amount of the internal components of the power supply subject in the operation cycle when the power supply subject enters the standby mode and the average value of the electric energy saving amount of the non-simultaneous time inside and outside the standby mode, and the ratio of the accumulated time corresponding to the delay time when the internal components stop supplying when the power supply subject enters the standby mode and the buffer time when the internal components resume supplying when the standby mode ends are marked as saving information and consumption information, respectively, and compared with the numerical deviation threshold of the average value of the energy saving amount and the duration ratio threshold, respectively:

[0067] If the numerical deviation between the average value of the electric energy savings of the internal components of the power supply subject in the simultaneous internal and external time periods of the standby mode during the operation cycle of the power supply subject entering the standby mode and the average value of the electric energy savings of the non-simultaneous internal and external time periods of the standby mode exceeds the numerical deviation threshold of the average value of the energy savings, and the corresponding cumulative duration of the delay duration of the internal components stopping the supply when the power supply subject enters the standby mode and the buffer duration of the internal components resuming the supply when the standby mode ends does not exceed the duration ratio threshold to the total operation cycle, then it is determined that the execution efficiency of the standby mode of the power supply subject is qualified, an execution efficiency signal is generated and the execution efficiency signal is sent to the administrator terminal;

[0068] If the numerical deviation between the average value of the electric energy savings of the internal components of the power supply subject in the simultaneous time periods of the standby mode and the average value of the electric energy savings of the non-simultaneous time periods of the standby mode does not exceed the numerical deviation threshold of the average value of the energy savings, or the corresponding cumulative duration of the delay duration for the internal components to stop supply when the power supply subject enters the standby mode and the buffer duration for the internal components to resume supply when the standby mode ends exceeds the duration ratio threshold, then it is determined that the execution efficiency of the standby mode of the power supply subject is unqualified, an execution inefficiency signal is generated and sent to the administrator terminal. After receiving the execution inefficiency signal, the administrator terminal will adjust the standby mode of the corresponding power supply subject, adjust the execution delay duration and the buffer duration, and reduce the execution waiting time of the standby mode;

[0069] The above formulas are obtained by collecting a large amount of data and performing software simulation, and a formula close to the actual value is selected. The coefficients in the formula are set by technicians in this field according to actual conditions;

[0070] When the present invention is in use, the standby effect evaluation is performed, the standby effect impact analysis is performed on the mobile power supply, the magnetic wireless charging mobile power supply is marked as the power supply subject, the standby effect parameters of the power supply subject are collected and substituted into the formula to calculate the standby effect impact analysis coefficient, and the standby effect impact is inferred according to the standby effect impact analysis coefficient threshold comparison; the standby instruction control performs standby mode control according to the operation requirements of the mobile power supply, the overlapping time data and speed data of the power supply subject are collected, and whether the current power supply subject enters the standby mode is inferred according to the data analysis, and after entering the standby mode, the consumption ratio data and time increase data of the power supply subject are collected, and the power supply subject is inferred according to the data comparison. Whether the power supply subject is released from standby mode; and according to the analysis of whether the power supply subject is released from standby mode, the power supply subject is divided into a real-time execution subject or an advance execution subject; standby wake-up control, according to the standby mode period environment analysis of the mobile power supply, the standby mode period of the power supply subject is set as the standby period, the advance execution information and real-time execution information in the standby period are obtained, and the current operation is inferred whether it is an erroneous operation based on the information comparison; standby efficiency evaluation, based on whether the standby mode is executed during the operation period of the mobile power supply, the efficiency evaluation is performed, the saving information and consumption information of the power supply subject are collected, and the standby mode efficiency is inferred whether it is qualified based on the information analysis.

[0071] The preferred embodiments of the present invention disclosed above are only used to help explain the present invention. The preferred embodiments do not describe all the details in detail, nor do they limit the invention to only specific implementation methods. Obviously, many modifications and changes can be made according to the content of this specification. This specification selects and specifically describes these embodiments in order to better explain the principles and practical applications of the present invention, so that those skilled in the art can understand and use the present invention well. The present invention is limited only by the claims and their full scope and equivalents.

Claims

1. A standby mode control method based on a magnetic wireless charging mobile power source, characterized in that: The specific steps of the standby mode control method are as follows: Step 1: evaluate the standby effect. Analyze the impact of the standby effect on the mobile power supply. Mark the magnetic wireless charging mobile power supply as the power supply subject. Collect the standby effect parameters of the power supply subject and substitute them into the formula to calculate the standby effect impact analysis coefficient. Infer the standby effect impact according to the standby effect impact analysis coefficient threshold. Then proceed to step 2. The standby effect parameters include the peak value of the growth span of the ratio of the duration of the supply phase of the power supply subject to the corresponding phase of the waiting phase of the power supply subject in the historical operation cycle of the power supply subject, the numerical deviation of the average power consumption of the internal components of the power supply subject in the supply phase of the power supply subject in the historical operation cycle of the power supply subject and the average power consumption of the power supply subject in the waiting phase, the duration of the peak value of the internal component power consumption in the supply phase and the corresponding peak value of the internal component power consumption in the waiting phase greater than one, and the duration of the delay time of the power supply subject instruction execution after the execution of the standby mode in the historical operation cycle of the power supply subject, and set the labels SSF, SZP, and SLB respectively; the formula is: , where G is the coefficient of standby effect analysis, e is a natural constant, fy1, fy2 and fy3 are the peak value of the growth span of the phase duration ratio, the numerical deviation of the mean power consumption and the preset proportional coefficient of the duration numerical ratio, and α is used as an error correction factor. When the standby mode is executed in the collected historical operation cycle, the value is 0.9; otherwise, when the standby mode is not executed in the collected historical operation cycle, the value is 1.2; Step 2: Standby command control: perform standby mode control according to the operation requirements of the mobile power supply, collect the overlapping time data and speed data of the power supply subject, and infer whether the current power supply subject has entered the standby mode based on data analysis. At the same time, after entering the standby mode, collect the consumption ratio data and time increase data of the power supply subject, and infer whether the power supply subject has released the standby mode based on data comparison; And according to the analysis of the power supply subject releasing the standby mode, the power supply subject is divided into a real-time execution subject or an advance execution subject; The overlapping duration data is the overlapping duration of the natural consumption duration of the real-time remaining power of the power supply subject when the power supply subject does not enter the standby mode during the supply period at any time and the power supply consumption duration of the remaining power of the power supply subject; the speed data is the decreasing speed of the ratio of the corresponding duration of the energized non-operating time of the internal components of the power supply subject to the energized operating time when the power supply subject does not enter the standby mode during the supply period at any time; Step 3: Standby wake-up control: accurately wake up the standby mode according to the standby mode period environment analysis of the mobile power supply, set the standby mode period of the power supply subject as the standby period, obtain the advance execution information and real-time execution information in the standby period, and compare the information to infer whether the current operation is an erroneous operation; The advance execution information and the real-time execution information are respectively the ratio of the remaining time interval of the charging task execution time of the advance execution subject in the standby period to the corresponding time length of the execution time of the current standby mode, and the excess of the standby mode buffer release time of the real-time execution subject and the charging task execution wake-up time; Step 4: Standby efficiency evaluation: conduct efficiency evaluation based on whether the standby mode is executed during the operation period of the mobile power supply, collect the saving information and consumption information of the power supply subject, and infer whether the standby mode efficiency is qualified based on information analysis.

2. A standby mode control method based on a magnetic wireless charging mobile power supply according to claim 1, characterized in that: The comparison process of the threshold value of the standby effect analysis coefficient is as follows: If the standby effect impact analysis coefficient exceeds the standby effect impact analysis coefficient threshold, a mode energy-saving signal is generated and the mode energy-saving signal is sent to the administrator terminal of the power supply subject; If the standby effect impact analysis coefficient does not exceed the standby effect impact analysis coefficient threshold, a mode non-energy-saving signal is generated and sent to the administrator terminal of the power supply entity.

3. The standby mode control method based on magnetic wireless charging mobile power supply according to claim 1, characterized in that: The data analysis process is as follows: If the overlap duration data exceeds the consumed duration overlap duration threshold, and the speed data exceeds the duration ratio reduction speed threshold, a standby non-execution signal is generated and sent to the administrator terminal; If the overlap duration data does not exceed the consumed duration overlap duration threshold, or the speed data does not exceed the duration ratio reduced speed threshold, a standby execution signal is generated and sent to the administrator terminal.

4. A standby mode control method based on a magnetic wireless charging mobile power source according to claim 3, characterized in that: The consumption ratio data and the duration increase data are respectively the corresponding numerical ratio of the accumulated power savings when the internal components stop powering when the power supply subject is in standby mode and the accumulated power consumption when the internal components start to power on corresponding to the charging cycle of the device to be charged by the power supply subject, and the increase in the buffer time of the internal components powering on after the internal components are released from standby mode when the power supply subject is in standby mode.

5. A standby mode control method based on a magnetic wireless charging mobile power supply according to claim 4, characterized in that: The data comparison process is as follows: If the consumption ratio data exceeds the cumulative value ratio threshold, and the duration increase data does not exceed the buffer duration increase threshold, a time-use and time-stop signal is generated and sent to the administrator terminal, and the power supply subject is marked as a real-time execution subject; If the consumption ratio data does not exceed the cumulative value ratio threshold, or the duration increase data exceeds the buffer duration increase threshold, an interval advance signal is generated and sent to the administrator terminal, and the power supply subject is marked as an advance execution subject.

6. A method for controlling a standby mode of a mobile power source based on magnetic wireless charging according to claim 1, characterized in that: The information comparison process is as follows: If the advance execution information exceeds the duration value ratio threshold, and the real-time execution information does not exceed the time consumption excess output threshold, the standby mode will not be released; If the advance execution information does not exceed the duration value ratio threshold, or the real-time execution information exceeds the time consumption excess threshold, the standby mode is released.

7. A standby mode control method based on a magnetic wireless charging mobile power supply according to claim 1, characterized in that: The saving information and consumption information are respectively the numerical deviation between the average value of the electric energy saving amount of the internal components of the power supply subject in the standby mode during the operation cycle when the power supply subject enters the standby mode and the average value of the electric energy saving amount of the internal components of the standby mode during the non-simultaneous time periods, the delay time of the internal components stopping the supply when the power supply subject enters the standby mode and the buffer time of the internal components resuming the supply when the standby mode ends, and the proportion of the corresponding cumulative time to the total operation cycle; The simultaneous internal and external time periods refer to two time periods in which the duration of the standby mode is the same as the duration of the non-standby mode, and the non-simultaneous internal and external time periods refer to two time periods in which the duration of the standby mode exceeds the duration of the non-standby mode or the duration of the non-standby mode exceeds the duration of the standby mode; If the saving information exceeds the energy saving amount mean value deviation threshold, and the consumption information does not exceed the duration ratio threshold, an execution efficiency signal is generated and sent to the administrator terminal; If the saving information does not exceed the energy saving amount mean value deviation threshold, or the consumption information exceeds the duration ratio threshold, an execution inefficiency signal is generated and sent to the administrator terminal.

Images