Mobile power control method, system, intelligent terminal and storage medium

Abstract

The present application relates to a mobile power control method, system, intelligent terminal and storage medium, and relates to the field of battery technology, which includes obtaining the current wireless charging trigger information of the mobile power; comparing the wireless charging trigger information with the preset reference trigger information to continue to obtain the wireless charging trigger information or obtain the current volume value of the audio and the current electronic product model parameter of the electronic product; determining the current vibration waveform based on the volume value, the electronic product model parameter and the preset mobile power weight value; determining the current reference vibration waveform according to the electronic product model parameter and the preset placement area; comparing the vibration waveform with the reference vibration waveform to continue to obtain the volume value or indicate that the preset magnetic suction device sucks the electronic product tightly. The present application has the effect of improving the charging effect of the mobile power.

Description

Technical Field

[0001] The present application relates to the field of battery technology, and in particular to a mobile power control method, system, intelligent terminal and storage medium. Background Art

[0002] A mobile power bank is a portable charger that can be carried by an individual and can store electrical energy. It is mainly used to charge consumer electronic products such as handheld mobile devices, and is particularly used in situations where there is no external power supply.

[0003] In the related technology, mobile power supplies have developed rapidly. While ensuring the basic charging function, many additional functions have been added to the mobile power supplies. For example, wireless charging technology and Bluetooth audio technology have been applied to mobile power supplies. After people connect their mobile phones to the speakers of the mobile power supply via Bluetooth, they can place the mobile phones in the wireless charging area of ​​the mobile power supply and enjoy music while charging.

[0004] With respect to the above-mentioned related technologies, the inventor believes that: placing a mobile phone in a wireless charging area and playing music through a speaker while wireless charging is being performed, when the volume of the speaker is loud, the mobile power bank will vibrate, thereby vibrating the mobile phone off the mobile power bank and causing the mobile phone to leave the wireless charging area, resulting in poor charging effect of the mobile power bank. There is still room for improvement. Summary of the invention

[0005] In order to improve the charging effect of a mobile power supply, the present application provides a mobile power supply control method, system, intelligent terminal and storage medium.

[0006] In a first aspect, the present application provides a mobile power control method, which adopts the following technical solution:

[0007] A mobile power supply control method, comprising:

[0008] Get the current wireless charging trigger information of the mobile power supply;

[0009] Compare the wireless charging trigger information with the preset reference trigger information to continue to obtain the wireless charging trigger information or obtain the current volume value of the audio and the current electronic product model parameters of the electronic product;

[0010] Determine the current vibration waveform based on the volume value, the electronic product model parameter and the preset mobile power weight value;

[0011] Determine the current baseline vibration waveform according to the electronic product model parameters and the preset placement area;

[0012] The vibration waveform is compared with a reference vibration waveform to continue to obtain a volume value or to instruct a preset magnetic suction device to suck the electronic product tightly.

[0013] By adopting the above technical solution, the wireless charging trigger information is detected to determine whether the electronic product is in the wireless charging state. When the electronic product is in the wireless charging state, the volume value of the speaker is detected to determine the current vibration waveform, and the amplitude of the vibration waveform is compared with the amplitude of the reference vibration waveform. When the amplitude of the vibration waveform is greater than the amplitude of the reference vibration waveform, the magnetic suction device is controlled to suck the electronic product tightly, so as to avoid the sound vibration of the speaker from shaking the electronic product off the mobile power supply and causing the electronic product to leave the wireless charging area, thereby improving the charging effect of the mobile power supply.

[0014] Optionally, the method of instructing the magnetic suction device to suck the electronic product tightly includes:

[0015] Determine the current reference force value according to the vibration waveform and the reference vibration waveform;

[0016] Obtain the current basic pressure surface of the mobile power supply, and obtain the current basic pressure value of the basic pressure surface;

[0017] Determine the pressure value of the current pressure surface and the corresponding pressure surface according to the reference force value, the basic pressure value and the basic pressure surface;

[0018] Determine the current reference pressure value according to the electronic product model parameters and the weight value of the mobile power supply;

[0019] Determine the current placement surface of the mobile power supply according to the pressure value and the reference pressure value;

[0020] Determine the current normal placement or abnormal placement based on the placement surface of the mobile power supply and the preset reference placement surface;

[0021] Based on normal placement, the current suction force is determined according to the vibration waveform and the reference vibration waveform, and the magnetic suction device is instructed to suction the electronic product with the suction force;

[0022] Based on the abnormal placement, the preset supporting device is instructed to assist the magnetic suction device to firmly hold the electronic product.

[0023] By adopting the above technical solution, the reference force value is detected, and the basic pressure value is corrected according to the reference force value, so as to reduce the influence of vibration on the force-sensitive sensor on the mobile power supply, so as to obtain the pressure surface according to the basic pressure surface, and determine the pressure value corresponding to the pressure surface, and judge the placement surface of the mobile power supply according to the comparison between the pressure value and the reference pressure value, so as to judge whether the mobile power supply is placed normally or abnormally. When it is placed normally, the magnetic suction device is controlled to suck the electronic product with the suction force, and when it is placed abnormally, the support device is controlled to assist the magnetic suction device to suck the electronic product, thereby improving the stability of the electronic product on the mobile power supply in different placement methods, and improving the charging effect of the mobile power supply.

[0024] Optionally, the method of instructing the support device to assist the magnetic suction device in sucking the electronic product includes:

[0025] Based on determining the abnormal placement, obtaining a current gravity side of the electronic product;

[0026] Instruct the supporting device to support the electronic product with the gravity side, and determine the current gravity side area according to the gravity side and the electronic product model parameters;

[0027] Determine the current conflict area based on the gravity side area and the preset support area;

[0028] Determine the current away side of the electronic product according to the gravity side;

[0029] Determine the current adsorption force according to the contact area, electronic product type parameters, vibration waveform and reference vibration waveform;

[0030] The magnetic device adsorbs the electronic product according to the away side and the adsorption force indication.

[0031] By adopting the above technical solution, when it is determined that the mobile power supply is in an abnormal placement state, the current gravity side and the gravity side area of ​​the electronic product are detected, so as to control the supporting device to support the electronic product with the gravity side, and determine the away side, so that the magnetic suction device can suck the electronic product with adsorption force on the away side, thereby improving the stability of the electronic product on the mobile power supply when the mobile power supply is in an abnormal placement state, thereby improving the charging effect of the mobile power supply.

[0032] Optionally, the method for adjusting the position of the audio system relative to the electronic product includes:

[0033] Based on normal placement, obtain the current placement position of the electronic product;

[0034] Compare the placement position with the preset placement range to continue to obtain the placement position or determine the current offset direction and the current overlap area according to the placement position and the placement range;

[0035] Based on the determined offset direction and the overlap area, the current offset area is determined according to the preset charging area and the overlap area;

[0036] Determine the current vibration direction based on the offset direction, and determine the current vibration volume value based on the electronic product model parameters and the weight value of the mobile power supply;

[0037] Determine the current vibration time according to the vibration volume value and the offset area;

[0038] According to the vibration direction and the vibration volume value, the speaker is instructed to make a sound at a vibration time to adjust the position of the electronic product.

[0039] By adopting the above technical solution, the placement position and placement range of the electronic product are detected and compared, so as to determine whether the wireless charging area on the electronic product is completely located within the wireless charging range of the mobile power supply. If not, the offset direction and overlapping area are detected to determine the vibration direction, vibration volume value and vibration time, so that the audio is vibrated in the vibration direction, vibration volume value and vibration time, thereby driving the electronic product to vibrate and shift, so that the wireless charging area on the electronic product is completely located within the wireless charging range of the mobile power supply, thereby improving the charging effect of the mobile power supply.

[0040] Optionally, the adjustment method of the heat dissipation pipeline of the mobile power supply includes:

[0041] Get the current number of pressure surfaces of the pressure surface;

[0042] Compare the number of pressure surfaces with the preset reference pressure surface number to obtain the current pressure value of the preset charging surface or determine the current wind-receiving surface based on the pressure surface, the mobile power supply placement surface and the preset charging surface;

[0043] Based on the obtained pressure value, the pressure value is compared with the model parameter of the electronic product to continue to obtain the pressure value or determine that the charging surface is the current wind-receiving surface;

[0044] After the wind receiving surface is determined, the current wind inlet side is determined according to the wind receiving surface, and the current wind pressure value of the wind receiving surface is obtained;

[0045] Determine the current air outlet side based on the air inlet side, and determine the current air outlet area based on the wind pressure value;

[0046] Adjust the heat dissipation duct of the mobile power supply according to the air inlet side, air outlet area and air outlet side instructions.

[0047] By adopting the above technical scheme, the number of pressure surfaces is detected and compared with the reference number of pressure surfaces. When the number of pressure surfaces is greater than the reference number of pressure surfaces, it can be determined that the extra pressure surfaces are wind-receiving surfaces. When the number of pressure surfaces is equal to the reference number of pressure surfaces, the windless or charging surface is determined as the wind-receiving surface by comparing the pressure value with the model parameters of the electronic product. After the wind-receiving surface is determined, the wind inlet side and the wind outlet side are determined according to the wind-receiving surface, and the air outlet area is determined according to the wind pressure value. The heat dissipation duct is controlled according to the air inlet side, the air outlet area and the air outlet side, thereby improving the heat dissipation effect of the mobile power supply, and then improving the charging effect of the mobile power supply.

[0048] Optionally, the method for controlling the temperature of the electronic product by the heat dissipation pipeline includes:

[0049] Get the current temperature value of the electronic product;

[0050] Determine the current benchmark charging temperature range based on the electronic product model parameters;

[0051] Comparing the temperature value of the electronic product with the reference charging temperature range to continue to obtain the temperature value of the electronic product or calculating the difference between the temperature value of the electronic product and the corresponding endpoint value of the reference charging temperature range, and defining the calculated difference as a deviation temperature value;

[0052] Determine the current temperature increase value or the current temperature decrease value according to the deviation temperature value;

[0053] Based on the determination of the increased temperature value, the charging surface is determined to be the current air outlet side;

[0054] Based on the determined lowered temperature value, the current moving side is determined according to the windward surface, and the mobile power source is instructed to adjust the charging surface according to the moving side.

[0055] By adopting the above technical solution, the temperature value of the electronic product is compared with the reference charging temperature range, so as to determine whether the temperature of the electronic product is too low or too high. When the temperature is too low, the charging surface is determined as the air outlet side, so that the hot air passing through the air duct blows on the electronic product to heat the electronic product; when the temperature is too high, the mobile side is determined according to the wind receiving surface, and the mobile power supply is controlled to transfer the charging surface to the mobile side, so that cold air blows on the electronic product to cool the electronic product, so that the electronic product can be charged at the most suitable temperature, thereby improving the charging effect of the mobile power supply.

[0056] Optional cleaning methods for the heat dissipation pipe include:

[0057] Get the current air inlet pressure value on the air inlet side and the current air outlet pressure value on the air outlet side;

[0058] Determine the current reference air outlet pressure value according to the preset air duct and air inlet pressure value, and determine the current cleaning audio according to the air duct;

[0059] Compare the outlet air pressure value with the reference outlet air pressure value to continue to obtain the inlet air pressure value and the outlet air pressure value or calculate the difference between the reference outlet air pressure value and the outlet air pressure value, and define the calculated difference as the air pressure deviation value;

[0060] Based on the wind pressure deviation value, determine the current air duct blockage area;

[0061] Determine the current cleaning time based on the air duct blockage area and cleaning audio;

[0062] Clean the air duct according to the cleaning audio and cleaning time with an indicator sound.

[0063] By adopting the above technical scheme, a reference air outlet pressure value is determined according to the air inlet pressure value and the air duct, and the air outlet pressure value is compared with the reference air outlet pressure value to determine whether there is dust blockage in the air duct. When there is dust blockage in the air duct, the air pressure deviation value is obtained by calculating the difference between the air outlet pressure value and the reference air outlet pressure value, thereby obtaining the blockage area of ​​the air duct, and the cleaning time is determined according to the cleaning audio and the blockage area of ​​the air duct, and the audio is controlled to clean the air duct with the cleaning audio and the cleaning time, so as to avoid poor heat dissipation effect of the mobile power supply caused by air duct blockage as much as possible, thereby improving the charging effect of the mobile power supply.

[0064] In a second aspect, the present application provides a mobile power supply control system, which adopts the following technical solution:

[0065] A mobile power supply control system, comprising:

[0066] An acquisition module is used to obtain wireless charging trigger information, volume value, electronic product model parameters, basic pressure surface, basic pressure value, gravity side, placement position, number of pressure surfaces, pressure value, wind pressure value, electronic product temperature value, air inlet pressure value, and air outlet pressure value;

[0067] A memory, used to store a program of any one of the above-mentioned mobile power control methods;

[0068] The program in the processor memory can be loaded and executed by the processor to implement a mobile power control method as described in any one of the above items.

[0069] By adopting the above technical solution, a program of a mobile power control method stored in a memory is loaded and executed by a processor, so that the acquisition module is controlled to obtain a series of data related to the wireless charging of the mobile power, and the data is analyzed and processed, so as to control the mobile power to wirelessly charge electronic products, thereby improving the convenience of mobile power control.

[0070] In a third aspect, the present application provides a smart terminal, which adopts the following technical solution:

[0071] An intelligent terminal comprises a memory and a processor, wherein the memory stores a computer program which can be loaded by the processor and execute any one of the mobile power control methods described above.

[0072] By adopting the above technical solution, a person operates the intelligent terminal to issue an operation instruction, so that the processor loads and executes a computer program of a mobile power control method stored in the memory, thereby controlling the mobile power to wirelessly charge electronic products, thereby improving the convenience of wireless charging of electronic products by the mobile power.

[0073] In a fourth aspect, the present application provides a computer storage medium capable of storing corresponding programs, which is convenient for improving the charging effect of a mobile power source, and adopts the following technical solution:

[0074] A computer-readable storage medium stores a computer program that can be loaded by a processor and execute any one of the mobile power control methods described above.

[0075] By adopting the above technical solution, a computer program of a mobile power control method is stored in a storage medium. When a person operates a smart terminal to issue an operation instruction, the processor directly loads and executes the computer program in the memory, thereby analyzing and processing the acquired data, thereby controlling the mobile power to wirelessly charge electronic products, thereby improving the efficiency of wireless charging of the mobile power.

[0076] In summary, the present application includes at least one of the following beneficial technical effects:

[0077] 1. By detecting the wireless charging trigger information, it is determined whether the electronic product is in the wireless charging state. When the electronic product is in the wireless charging state, the volume value of the speaker is detected to determine the current vibration waveform, and the amplitude of the vibration waveform is compared with the amplitude of the reference vibration waveform. When the amplitude of the vibration waveform is greater than the amplitude of the reference vibration waveform, the magnetic suction device is controlled to suck the electronic product tightly, and the sound vibration of the speaker is avoided as much as possible to shake the electronic product off the mobile power supply and make the electronic product leave the wireless charging area, thereby improving the charging effect of the mobile power supply;

[0078] 2. When the mobile power source is determined to be in an abnormal placement state, the current gravity side and gravity side area of ​​the electronic product are detected, thereby controlling the support device to support the electronic product with the gravity side, and determining the away side, so that the magnetic suction device can suck the electronic product with adsorption force on the away side, thereby improving the stability of the electronic product on the mobile power source when the mobile power source is in an abnormal placement state, thereby improving the charging effect of the mobile power source;

[0079] 3. By detecting and comparing the placement position and placement range of the electronic product, it is determined whether the wireless charging area on the electronic product is completely within the wireless charging range of the mobile power supply. If not, the offset direction and overlapping area are detected to determine the vibration direction, vibration volume value and vibration time, so that the speaker vibrates in the vibration direction, vibration volume value and vibration time, thereby driving the vibration shift of the electronic product, so that the wireless charging area on the electronic product is completely within the wireless charging range of the mobile power supply, thereby improving the charging effect of the mobile power supply. BRIEF DESCRIPTION OF THE DRAWINGS

[0080] Figure 1It is a flow chart of a mobile power control method in an embodiment of the present application.

[0081] Figure 2 It is a flow chart of a method for instructing a magnetic suction device to suck up an electronic product in an embodiment of the present application.

[0082] Figure 3 It is a flow chart indicating a method in which a supporting device assists a magnetic suction device in sucking an electronic product in an embodiment of the present application.

[0083] Figure 4 It is a flow chart of a method for adjusting the position of an electronic product by a speaker in an embodiment of the present application.

[0084] Figure 5 It is a flow chart of a method for adjusting a heat dissipation pipe of a mobile power supply in an embodiment of the present application.

[0085] Figure 6 It is a flow chart of a method for controlling the temperature of an electronic product through a heat dissipation pipeline in an embodiment of the present application.

[0086] Figure 7 It is a flow chart of a method for cleaning a heat dissipation duct of an audio system in an embodiment of the present application. DETAILED DESCRIPTION

[0087] In order to make the purpose, technical solutions and advantages of this application more clear, the following Figure 1-7 It should be understood that the specific embodiments described herein are only used to explain the present application and are not used to limit the present application.

[0088] The present application determines that the mobile power supply is wirelessly charging the electronic product by detecting wireless charging trigger information and comparing the wireless charging trigger information with the reference trigger information, thereby detecting the volume value of the speaker installed on the mobile power supply, and determining the vibration waveform according to the volume value, the electronic product model parameters and the weight value of the mobile power supply. When the amplitude of the vibration waveform is greater than the amplitude of the reference vibration waveform, it indicates that the volume value of the speaker will vibrate the electronic product away from the mobile power supply, causing the wireless charging between the electronic product and the mobile power supply to be disconnected. Therefore, the magnetic suction device is controlled to tightly suck the electronic product, thereby improving the stability of the electronic product on the mobile power supply, and then improving the charging effect of the mobile power supply.

[0089] Reference Figure 1 , the embodiment of the present application discloses a mobile power supply control method, comprising the following steps:

[0090] Step S100: obtaining current wireless charging trigger information of the mobile power source.

[0091] Wireless charging trigger information is the energy data sent by an electronic product with wireless charging technology to a mobile power supply when the electronic product is placed in the wireless charging area on the mobile power supply. It is detected, identified, uploaded, and stored by computer programs and systems for future use. The mobile power supply is a portable power supply that has both Bluetooth audio and wireless charging functions. By detecting the wireless charging trigger information of the mobile power supply, data support can be provided for subsequent judgment of whether there is an electronic product triggering wireless charging.

[0092] Step S101: Compare the wireless charging trigger information with the preset reference trigger information to continue to obtain the wireless charging trigger information or obtain the current volume value of the audio and the current electronic product model parameter of the electronic product.

[0093] The reference trigger information is the energy data preset in the mobile power supply for the right electronic product to trigger wireless charging, which is set by those skilled in the art according to actual conditions and will not be elaborated here. The volume value is the current volume of the audio, which is detected, uploaded, and stored by the computer program and system for later use. Electronic products are electronic devices with wireless charging functions, such as mobile phones, tablets, computers, etc., which are specifically set by those skilled in the art according to actual conditions. In this application, mobile phones are taken as an example. The model parameters of electronic products are the data of the weight, size, category and protective cover of the electronic product, which are obtained, uploaded, and stored by the electronic product to the mobile power supply for later use by the computer program.

[0094] By comparing and analyzing the data corresponding to the wireless charging trigger information with the data corresponding to the reference trigger information, it is possible to determine whether the wireless charging trigger information is consistent with the reference trigger information, thereby determining whether an electronic product has triggered the wireless charging function of the mobile power supply for further analysis and processing.

[0095] If the wireless charging trigger information is inconsistent with the reference trigger information, it indicates that no electronic product currently triggers the wireless charging function of the mobile power supply or the current electronic product does not have the wireless charging function. Therefore, the wireless charging trigger information continues to be detected to continuously monitor changes in the wireless charging trigger information.

[0096] If the wireless charging trigger information is consistent with the reference trigger information, it indicates that an electronic product is currently triggering the wireless charging function of the mobile power supply. Therefore, the volume value of the audio and the current electronic product model parameters of the electronic product are detected to provide data support for subsequent adjustment of the charging of the electronic product on the mobile power supply.

[0097] Step S102: determining the current vibration waveform based on the volume value, the electronic product model parameter and the preset mobile power source weight value.

[0098] The weight value of the mobile power supply is the weight of the mobile power supply itself, which is set by technicians in this field according to actual conditions and will not be elaborated here. The vibration waveform is a waveform display of the vibration of the mobile power supply and the electronic product at the current volume value. The technicians in this field conduct a large number of experiments based on different volume values, electronic product model parameters and mobile power supply weight values ​​to summarize the rules and generate a database. The database stores volume values, electronic product model parameters and mobile power supply weight values ​​related to the vibration waveform, and has multiple volume values, electronic product model parameters and mobile power supply weight values ​​corresponding to the vibration waveform. According to the input volume value, electronic product model parameters and mobile power supply weight value, the output vibration waveform is matched for further analysis and processing. The electronic product model parameters in this step mainly use the overall weight and size of the electronic product.

[0099] Step S103: determining a current reference vibration waveform according to the electronic product model parameters and a preset placement area.

[0100] The placement area is the area value for placing electronic products on the mobile power supply, which is set by technicians in this field according to actual conditions and will not be elaborated here. The reference vibration waveform is a vibration waveform that can move the electronic product vibration corresponding to the electronic product model parameters. The technicians in this field conduct a large number of experiments based on different electronic product model parameters and placement areas to summarize the rules and generate a database. The database stores electronic product model parameters and placement areas related to the reference vibration waveform, and has multiple electronic product model parameters and placement areas corresponding to the reference vibration waveform. According to the input electronic product model parameters and placement area, the output reference vibration waveform is matched for further analysis and processing. The electronic product model parameters in this step mainly use the overall weight and size of the electronic product.

[0101] Step S104: Compare the vibration waveform with the reference vibration waveform to continue to obtain the volume value or instruct the preset magnetic attraction device to firmly attract the electronic product.

[0102] The magnetic device is an electromagnet device pre-installed in the mobile power supply and controlled by a computer program and system. By sorting and comparing the amplitude corresponding to the vibration waveform with the amplitude corresponding to the reference vibration waveform, it is determined whether the amplitude corresponding to the vibration waveform is greater than the amplitude corresponding to the reference vibration waveform, so as to determine whether the current volume value of the audio affects the wireless charging of electronic products on the mobile power supply.

[0103] If the amplitude corresponding to the vibration waveform is not greater than the amplitude corresponding to the reference vibration waveform, it indicates that the vibration corresponding to the current volume value cannot drive the electronic product to vibrate away from the mobile power supply. The current volume value of the audio system will not affect the wireless charging of the electronic product on the mobile power supply. Therefore, the volume value continues to be detected to continuously monitor changes in the volume value.

[0104] If the amplitude corresponding to the vibration waveform is greater than the amplitude corresponding to the reference vibration waveform, it indicates that the vibration corresponding to the current volume value can drive the electronic product to vibrate away from the mobile power supply. The current volume value of the audio system will affect the wireless charging of the electronic product on the mobile power supply. Therefore, the magnetic suction device is controlled to tightly suck the electronic product, so that the electronic product will not leave the wireless charging area due to vibration, thereby improving the charging effect of the mobile power supply.

[0105] Reference Figure 2 , indicating that the method for the magnetic suction device to suck the electronic product tightly includes the following steps:

[0106] Step S200: determining a current reference force value according to the vibration waveform and the reference vibration waveform.

[0107] The reference force value is the error pressure value caused by the vibration of the mobile power supply on the force sensitive sensor. Technical personnel in this field conduct a large number of experiments based on different vibration waveforms and reference vibration waveforms to summarize the rules and generate a database. The database stores vibration waveforms and reference vibration waveforms related to the reference force value, and has multiple vibration waveforms and reference vibration waveforms corresponding to the reference force value. According to the input vibration waveform and reference vibration waveform, the output reference force value is matched for further analysis and processing.

[0108] Step S201: obtaining the current basic pressure surface of the mobile power source, and obtaining the current basic pressure value of the basic pressure surface.

[0109] The basic pressure surface is the surface where the mobile power source currently reflects the pressure, which is detected, uploaded, and stored by the computer program for later use. The basic pressure value is the pressure value on the basic pressure surface, which is detected, uploaded, and stored by the force-sensitive sensor installed on the mobile power source for later use by the computer program. By detecting the basic pressure surface and the basic pressure value corresponding to the basic pressure surface, data support is provided for the subsequent determination of the pressure surface.

[0110] Step S202: determining the pressure values ​​of the current pressure surface and the corresponding pressure surface according to the reference force value, the basic pressure value and the basic pressure surface.

[0111] The pressure surface is the surface of the mobile power supply that does not have pressure due to vibration. After the computer program calls the reference force value and the basic pressure value, it is determined, uploaded, and stored for future use based on the basic pressure surface that still has pressure. The pressure value is the actual pressure value of the pressure surface minus the error pressure value caused by vibration. The computer program calls the reference force value and the basic pressure value corresponding to the pressure surface to obtain the difference, upload, and store it for future use. By determining the pressure surface and pressure value, data support is provided for subsequent detection of the mobile power supply placement surface.

[0112] Step S203: determining a current reference pressure value according to the electronic product model parameters and the weight value of the mobile power supply.

[0113] The reference pressure value is the pressure on the surface where the mobile power supply is placed, which is obtained by summing the electronic product model parameters and the mobile power supply weight value by the computer program, uploaded, and stored for later use. The electronic product model parameters in this step use the overall weight of the electronic product, including the weight of the protective film and the protective cover. The reference pressure value is determined by the electronic product model parameters and the mobile power supply weight value, thereby providing data support for the subsequent detection of the mobile power supply placement surface.

[0114] Step S204: determining the current placement surface of the mobile power supply according to the pressure value and the reference pressure value.

[0115] The mobile power supply placement surface is the surface of the mobile power supply that contacts the desktop when placed on the desktop. The pressure value corresponding to the pressure surface is matched with the reference pressure value by a computer program, uploaded, and stored for later use. The mobile power supply placement surface is determined by the pressure value and the reference pressure value, thereby providing data support for the subsequent determination of the placement method of the mobile power supply.

[0116] Step S205: determining whether the current normal placement or abnormal placement is performed based on the placement surface of the mobile power supply and a preset reference placement surface.

[0117] The reference placement surface is the surface that contacts the desktop when the wireless charging area of ​​the mobile power supply is located on the side away from the desktop. Normal placement is the placement mode when the wireless charging area of ​​the mobile power supply is located on the side away from the desktop, and abnormal placement is the placement mode when the wireless charging area of ​​the mobile power supply is not located on the side away from the desktop. The computer program calls the mobile power supply placement surface and the reference placement surface for comparison, determination, upload, and storage for future calls. The normal placement or abnormal placement is determined by the mobile power supply placement surface and the reference placement surface, thereby improving data support for subsequent fixing of electronic products.

[0118] Step S2051: Based on normal placement, determine the current suction force according to the vibration waveform and the reference vibration waveform, and instruct the magnetic suction device to suction the electronic product with the suction force.

[0119] The clamping force is the minimum force that the magnetic device can use to clamp the electronic product under the current vibration waveform. The technical personnel in this field conduct a large number of tests based on different vibration waveforms and reference vibration waveforms to summarize the rules and generate a database. The database stores vibration waveforms and reference vibration waveforms related to the clamping force, and has multiple vibration waveforms and reference vibration waveforms corresponding to the clamping force. The output clamping force is matched according to the input vibration waveform and the reference vibration waveform. When the mobile power supply is determined to be placed normally, the magnetic device is controlled to clamp the electronic product to the mobile power supply with the clamping force, thereby improving the charging effect of the mobile power supply.

[0120] Step S2052: Based on the abnormal placement, instruct the preset supporting device to assist the magnetic suction device in sucking the electronic product tightly.

[0121] The support device is a mechanical structure installed on the mobile power supply to assist the magnetic device in sucking electronic products, including a support plate hinged on the mobile power supply and a telescopic rod that controls the flipping of the support plate. After determining that the mobile power supply is placed abnormally, the support device is controlled to assist the magnetic device in sucking electronic products, thereby improving the charging effect of the mobile power supply.

[0122] Reference Figure 3 , a method for indicating that a supporting device assists a magnetic suction device in sucking an electronic product tightly, comprising the following steps:

[0123] Step S300: based on determining the abnormal placement, obtaining the current gravity side of the electronic product.

[0124] The gravity side is the side where the electronic product is in the direction of gravity. The computer program calls the mobile power placement surface to determine, upload, and store it for later use. After determining that the mobile power is placed abnormally, the gravity side of the electronic product is detected to provide data support for the subsequent fixation of the electronic product on the abnormally placed mobile power.

[0125] Step S301: instructing the supporting device to support the electronic product with the gravity side, and determining the current gravity side area according to the gravity side and the electronic product model parameters.

[0126] The gravity side area is the area value of the gravity side of the electronic product, which is determined by comparing the gravity side and the electronic product model parameters by the computer program, uploaded, and stored for later use. The support device is controlled to support the gravity side of the electronic product, and the gravity side area is determined based on the gravity side and the electronic product model parameters, thereby providing data support for the subsequent magnetic suction device to tighten the electronic product. The electronic product model parameters in this step use the overall size of the electronic product.

[0127] Step S302: determining the current interference area according to the gravity side area and the preset support area.

[0128] The support area is the area of ​​the support surface of the support plate in the support device. The specific size is set by the technicians in this field according to the actual situation and will not be elaborated here. The interference area is the area where the gravity side of the electronic product conflicts with the support device. The computer program calls the gravity side area and the support area for comparison, uploads, and stores them for future calls. When the gravity side area is larger than the support area, the interference area is the support area; when the gravity side area is smaller than the support area, the interference area is the gravity side area. The interference area is determined by the gravity side area and the support area, thereby providing data support for the subsequent magnetic suction device to tighten the electronic products.

[0129] Step S303: determining the current away side of the electronic product according to the gravity side.

[0130] The away side is the side of the electronic product away from the gravity side, and the computer program calls the gravity side for confirmation, uploading, and storage for future calls. The gravity side is used to determine the away side of the electronic product, thereby providing data support for the subsequent magnetic suction device to tighten the electronic product.

[0131] Step S304: determining the current adsorption force according to the contact area, the electronic product type parameter, the vibration waveform and the reference vibration waveform.

[0132] The adsorption force is the minimum force of the magnetic device to absorb the electronic product when the supporting device supports the electronic product. A large number of experiments are conducted by technicians in this field based on different contact areas, electronic product type parameters, vibration waveforms and reference vibration waveforms to summarize the rules and generate a database. The database stores the contact areas, electronic product type parameters, vibration waveforms and reference vibration waveforms related to the adsorption force, and has multiple contact areas, electronic product type parameters, vibration waveforms and reference vibration waveforms corresponding to the adsorption force. The output adsorption force is matched according to the input contact area, electronic product type parameters, vibration waveforms and reference vibration waveforms. The adsorption force is determined by the contact area, electronic product type parameters, vibration waveforms and reference vibration waveforms to provide data support for the magnetic device to absorb the electronic product. The electronic product type parameter in this step is the overall weight value of the electronic product.

[0133] Step S305: the magnetic device adsorbs the electronic product according to the away side and the adsorption force.

[0134] When the mobile power bank is abnormally placed, the support device is controlled to support the gravity side of the electronic product, and the magnetic device is controlled to suck the electronic product tightly according to the away side and the adsorption force, so as to fix the electronic product on the mobile power bank, and try to avoid the vibration of the audio causing the electronic product to be away from the mobile power bank, thereby improving the charging effect of the mobile power bank.

[0135] Reference Figure 4 The method for adjusting the position of the audio system to the electronic product comprises the following steps:

[0136] Step S400: based on normal placement, obtaining the current placement position of the electronic product.

[0137] The placement position is the position where the electronic product is placed on the charging surface of the mobile power bank, which is captured and uploaded by a camera, and detected, identified, uploaded, and stored by a computer program for later retrieval. When the mobile power bank is determined to be in a normal placement state, the placement position of the electronic product is detected to provide data support for subsequent adjustment of the position of the electronic product on the mobile power bank.

[0138] Step S401: Compare the placement position with the preset placement range to continue to obtain the placement position or determine the current offset direction and the current overlap area according to the placement position and the placement range.

[0139] The placement range is the area where the charging surface of the mobile power supply has the wireless charging function. The specific area size and position are set by the technicians in this field according to the actual situation, and will not be elaborated here. The offset direction is the direction in which the electronic product deviates from the placement range, and the overlap area is the size of the overlap range between the placement position of the electronic product and the placement range. The technicians in this field conduct a large number of experiments based on different placement positions and placement ranges to summarize the rules and generate a database. The database stores the placement positions and placement ranges related to the offset direction and overlap area, and has multiple placement positions and placement ranges corresponding to the offset direction and overlap area. According to the input placement position and placement range, the output offset direction and overlap area are matched for further analysis and processing.

[0140] By comparing and analyzing the position corresponding to the placement position with the position corresponding to the placement range, it is determined whether all the placement positions fall within the placement range, so as to determine whether the wireless charging area of ​​the mobile power supply is aligned with the wireless charging area of ​​the electronic product when the electronic product is placed on the mobile power supply, for further analysis and processing.

[0141] If all placement positions fall within the placement range, it means that when the electronic product is placed on the mobile power supply, the wireless charging area of ​​the mobile power supply is aligned with the wireless charging area of ​​the electronic product, so the placement position continues to be detected to continuously monitor changes in the placement position.

[0142] If the placement position does not all fall within the placement range, it means that when the electronic product is placed on the mobile power supply, the wireless charging area of ​​the mobile power supply is not completely aligned with the wireless charging area of ​​the electronic product. Therefore, the offset direction and overlapping area are determined according to the placement position and placement range, thereby providing data support for subsequent adjustment of the position of the electronic product.

[0143] Step S402: Based on the determined offset direction and overlap area, the current offset area is determined according to the preset charging area and overlap area.

[0144] The charging area is the size of the preset wireless charging area of ​​the electronic product. The specific size is set by the technicians in this field according to the actual situation and will not be elaborated here. The offset area is the area that needs to be moved for the wireless charging area of ​​the electronic product to fully enter the placement range. The computer program calls the charging area and the overlap area to obtain the difference, upload, and store it for future use. When it is determined that the wireless charging area of ​​the electronic product does not fully enter the placement range, the offset area is determined by the charging area and the overlap area to provide data support for the subsequent adjustment of the position of the electronic product.

[0145] Step S403: determining the current vibration direction according to the offset direction, and determining the current vibration volume value according to the electronic product model parameters and the weight value of the mobile power supply.

[0146] The vibration direction is the direction in which the sound emitted by the speaker causes the electronic product to vibrate and move into the placement range. A large number of experiments are conducted by technicians in this field according to different offset directions to summarize the rules, and a database is generated. The database stores the offset directions related to the vibration direction, and has multiple offset directions corresponding to the vibration direction. According to the input offset direction, the output vibration direction is matched. The vibration volume value is the volume of the sound emitted by the speaker causes the electronic product to vibrate and move into the placement range. A large number of experiments are conducted by technicians in this field according to different electronic product model parameters and mobile power supply weight values ​​to summarize the rules, and a database is generated. The database stores the electronic product model parameters and mobile power supply weight values ​​related to the vibration volume value, and has multiple electronic product model parameters and mobile power supply weight values ​​corresponding to the vibration volume value. According to the input electronic product model parameters and mobile power supply weight value, the output vibration volume value is matched. The vibration direction is determined by the offset direction, and the vibration volume value is determined according to the electronic product model parameters and mobile power supply weight value, providing data support for the subsequent adjustment of the position of the electronic product. The electronic product model parameter in this step adopts the overall weight value of the electronic product.

[0147] Step S404: determining the current vibration time according to the vibration volume value and the offset area.

[0148] The vibration time is the time required for the electronic product to completely enter the placement range under the vibration volume value and offset area. Technical personnel in this field conduct a large number of experiments based on different vibration volume values ​​and offset areas to summarize the rules and generate a database. The database stores the vibration volume values ​​and offset areas related to the vibration time, and has multiple vibration volume values ​​and offset areas corresponding to the vibration time. According to the input vibration volume value and offset area, the output vibration time is matched, thereby providing data support for the subsequent adjustment of the position of the electronic product.

[0149] Step S405: instructing the speaker to make a sound according to the vibration direction and the vibration volume value to adjust the position of the electronic product.

[0150] The sound of the speaker is controlled according to the vibration direction and the vibration volume value, and the sound is continued for the vibration time, so that the speaker drives the electronic product to vibrate and move into the placement range, so that the wireless charging area of ​​the electronic product is aligned with the wireless charging area of ​​the mobile power supply, thereby improving the charging effect of the mobile power supply.

[0151] Reference Figure 5 The method for adjusting the heat dissipation pipeline of a mobile power supply comprises the following steps:

[0152] Step S500: obtaining the current number of pressure-bearing surfaces of the pressure-bearing surface.

[0153] The number of pressure surfaces is the number of pressure surfaces, which is detected, counted, uploaded, and stored by a computer program for later use. By detecting the number of pressure surfaces, data support is provided for subsequent confirmation of wind direction.

[0154] Step S501: Compare the number of pressure surfaces with the preset reference pressure surface number to obtain the current pressure value of the preset charging surface or determine the current wind-receiving surface based on the pressure surface, the mobile power supply placement surface and the preset charging surface.

[0155] The number of reference pressure surfaces is the minimum number of pressure surfaces when the preset mobile power source eliminates vibration errors, which normally includes the ground placed on the table and the charging surface for electronic products. The charging surface is the surface of the mobile power source for wireless charging of electronic products, which is specifically set by technical personnel in this field according to actual conditions and will not be elaborated here. The pressure value is the current pressure value of the charging surface, which is detected, uploaded, and stored by the force-sensitive sensor on the charging surface for computer program call. The wind-receiving surface is the side of the mobile power source that is currently blown by the wind, and the computer program calls the pressure surface, the mobile power source placement surface, and the charging surface for detection, confirmation, upload, and storage for call.

[0156] By sorting and comparing the numerical values ​​corresponding to the number of pressure surfaces with the numerical values ​​corresponding to the reference number of pressure surfaces, it can be judged that the number of pressure surfaces is greater than or equal to the reference number of pressure surfaces, thereby determining the current wind direction for further analysis and processing.

[0157] If the number of pressure surfaces is equal to the number of reference pressure surfaces, it means that there may be no wind at present or the wind is blowing on one side of the charging surface. Therefore, the pressure value of the charging surface is tested to provide data support for further judgment of the wind direction.

[0158] If the number of pressure surfaces is greater than the number of reference pressure surfaces, it means that in addition to the mobile power placement surface and the charging surface, the extra pressure surfaces in the wind-receiving surface are the wind-receiving surfaces. Therefore, the wind-receiving surface is determined by the pressure surface, the mobile power placement surface and the charging surface, thereby providing data support for the subsequent adjustment of the heat dissipation duct.

[0159] Step S502: Based on the obtained pressure value, the pressure value is compared with the electronic product model parameter to continue to obtain the pressure value or determine that the charging surface is the current wind-receiving surface.

[0160] After obtaining the pressure value, the numerical value corresponding to the pressure value is compared with the numerical value corresponding to the electronic product model parameter to determine whether the pressure value is greater than the electronic product model parameter, so as to determine whether the wind is blowing on one side of the charging surface for further analysis and processing. The electronic product model parameter in this step adopts the overall weight value of the electronic product.

[0161] If the pressure value is not greater than the electronic product model parameter, it indicates that the wind is not blowing on the charging surface, so as to determine that there is no wind at present, and therefore continue to detect the pressure value to continuously monitor the change of the pressure value.

[0162] If the pressure value is greater than the electronic product model parameter, it means that the wind is blowing on the charging surface, so as to determine that the charging surface is the current wind-receiving surface, thereby providing data support for the subsequent adjustment of the heat dissipation duct.

[0163] Step S503: after the wind receiving surface is determined, the current wind inlet side is determined according to the wind receiving surface, and the current wind pressure value of the wind receiving surface is obtained.

[0164] The air inlet side is the side where the mobile power supply supplies air to the heat dissipation side. The computer calls the wind receiving surface to determine the air inlet side and uploads and stores it for later use. The wind pressure value is the pressure value of the wind on the wind receiving surface on the mobile power supply. When the wind receiving surface is inconsistent with the charging surface, it is detected by the force sensitive sensor, uploaded, and stored for later use by the computer program; when the wind receiving surface is consistent with the charging surface, the computer program calls the pressure value and the electronic product model parameters to obtain the difference, upload, and store it for later use. After determining the wind receiving surface, determine the air inlet side according to the wind receiving surface, and detect the wind pressure value, thereby providing data support for the subsequent adjustment of the heat dissipation pipeline.

[0165] Step S504: determine the current air outlet side according to the air inlet side, and determine the current air outlet area according to the wind pressure value.

[0166] The air outlet side is the side of the mobile power supply away from the air inlet side. The computer program calls the air inlet side to detect, determine, upload, and store for future use. The air outlet area is the opening size of the air outlet and the air inlet. The technical personnel in this field conduct a large number of experiments based on different wind pressure values ​​to summarize the rules and generate a database. The database stores wind pressure values ​​related to the air outlet area, and has multiple wind pressure values ​​corresponding to the air outlet area. According to the input wind pressure value, the output air outlet area is matched. The air outlet side is determined by the air inlet side, and the air outlet area is determined according to the wind pressure value, thereby providing data support for the subsequent adjustment of the heat dissipation duct.

[0167] Step S505: Instructing the mobile power supply to adjust the heat dissipation pipe according to the air inlet side, the air outlet area and the air outlet side.

[0168] The heat dissipation duct is adjusted by controlling the air inlet side, air outlet area and air outlet side so that the air inlet side faces the wind direction and the air outlet side is away from the air inlet side, so that the wind stays inside the mobile power supply as long as possible, thereby ensuring the heat dissipation effect of the mobile power supply and further improving the charging effect of the mobile power supply.

[0169] Reference Figure 6 , a method for controlling the temperature of electronic products by a heat dissipation pipeline, comprising the following steps:

[0170] Step S600: obtaining the current temperature value of the electronic product.

[0171] The temperature value of the electronic product is the temperature value of the electronic product when it is wirelessly charged. It is detected, uploaded, and stored by the temperature sensor and computer program for later use. By detecting the temperature value of the electronic product, data support is provided for the subsequent control of the temperature of the electronic product.

[0172] Step S601: Determine the current reference charging temperature range according to the electronic product model parameters.

[0173] The reference charging temperature range is the optimal charging temperature range for electronic products, which is obtained, uploaded, and stored by a computer program calling the electronic product model parameters for future use. By determining the reference charging temperature range based on the electronic product model parameters, data support is provided for subsequent temperature control of the electronic product.

[0174] Step S602: Compare the electronic product temperature value with the reference charging temperature range to continue to obtain the electronic product temperature value or calculate the difference between the electronic product temperature value and the corresponding endpoint value of the reference charging temperature range, and define the calculated difference as the deviation temperature value.

[0175] The deviation temperature value is the difference between the electronic product temperature value and the endpoint value of the reference charging temperature range close to the electronic product temperature value, which is obtained by the computer program by calling the difference between the electronic product temperature and the reference charging temperature range, uploaded, and stored for future use.

[0176] By sorting and comparing the numerical values ​​corresponding to the temperature value of the electronic product and the numerical values ​​corresponding to the benchmark charging temperature range, it is possible to determine whether the temperature value of the electronic product falls within the benchmark charging temperature range, thereby determining whether the effect of charging the electronic product at the current temperature value of the electronic product is the best charging effect, pending further analysis and processing.

[0177] If the temperature value of the electronic product falls within the reference charging temperature range, it indicates that the current charging effect of the electronic product at the current electronic product temperature value is the best charging effect. Therefore, the temperature value of the electronic product continues to be detected to continuously monitor the changes in the temperature value of the electronic product.

[0178] If the temperature value of the electronic product does not fall within the benchmark charging temperature range, it indicates that the charging effect of the current electronic product at the current electronic product temperature value is not the best charging effect. Therefore, the difference between the temperature value of the electronic product and the corresponding endpoint value of the benchmark charging temperature range is calculated to obtain the deviation temperature value, which provides data support for the subsequent control of the temperature of the electronic product.

[0179] Step S603: Determine the current temperature increase value or the current temperature decrease value according to the deviation temperature value.

[0180] Increasing the temperature value indicates that the temperature of the electronic product is low and needs to be increased. Decreasing the temperature value indicates that the temperature of the electronic product is high and needs to be decreased. The computer program calls the deviation temperature value to determine the positive and negative values, and then determines, uploads, and stores them for future calls. The deviation temperature value is used to determine whether to increase or decrease the temperature value, thereby providing an adjustment direction for subsequent adjustment of the temperature of the electronic product.

[0181] Step S6031: Based on the determination, the temperature value is increased to determine that the charging surface is the current air outlet side.

[0182] If it is determined that the temperature of the electronic product needs to be increased, the charging surface is determined as the current air outlet side, so that after the wind dissipates the heat of the mobile power supply, the hot air is blown onto the electronic product to increase the temperature of the electronic product, thereby making the temperature value of the electronic product suitable for wireless charging of the electronic product.

[0183] Step S6032: Based on the determined lower temperature value, the current moving side is determined according to the windward surface, and the mobile power source is instructed to adjust the charging surface according to the moving side.

[0184] After determining that the temperature of the electronic product needs to be lowered, the wind-receiving side is determined to be the moving side of the mobile power supply, so that the mobile power supply moves and the charging surface is adjusted to the moving side, so that the wind that is not dissipated blows on the electronic product to cool the electronic product, thereby making the temperature value of the electronic product suitable for wireless charging of the electronic product.

[0185] Reference Figure 7 The cleaning method of the heat dissipation pipe of the audio system includes the following steps:

[0186] Step S700: Acquire the current air inlet pressure value at the air inlet side and the current air outlet pressure value at the air outlet side.

[0187] The inlet pressure value is the pressure of the wind on the heat dissipation pipe on the inlet side, which is detected by the force-sensitive sensor, uploaded, and stored for computer program call. The outlet pressure value is the pressure of the wind on the outlet side on the heat dissipation pipe, which is detected by the force-sensitive sensor, uploaded, and stored for computer program call. By detecting the inlet pressure value and the outlet pressure value, data support is provided for the subsequent cleaning of the heat dissipation pipe.

[0188] Step S701: Determine the current reference air outlet pressure value according to the preset air duct and air inlet pressure value, and determine the current cleaning audio according to the air duct.

[0189] The air duct is a preset heat dissipation duct in the mobile power supply, which is specifically set by the technicians in this field according to the actual situation, and will not be elaborated here. The reference air outlet pressure value is the pressure value that the air outlet side should have under the conditions of the current air inlet pressure value and the air duct. The technicians in this field conduct a large number of experiments based on different air ducts and air inlet pressure values ​​to summarize the rules and generate a database. The database stores the air duct and air inlet pressure values ​​related to the reference air outlet pressure value, and has multiple air ducts and air inlet pressure values ​​corresponding to the reference air outlet pressure value. According to the input air duct and air inlet pressure values, the output reference air outlet pressure value is matched. The cleaning audio is a sound of a specific frequency emitted by the speaker when the current air duct is cleaned. The technicians in this field conduct a large number of experiments based on different air ducts to summarize the rules and generate a database. The database stores the air duct related to the cleaning audio, and has multiple air ducts corresponding to the cleaning audio. According to the input air duct, the output cleaning audio is matched. The reference air outlet pressure value is determined by the air duct and air inlet pressure value, and the cleaning audio is determined according to the air duct, thereby providing data support for the subsequent cleaning of the heat dissipation duct.

[0190] Step S702: Compare the outlet air pressure value with the reference outlet air pressure value to continue to obtain the inlet air pressure value and the outlet air pressure value or calculate the difference between the reference outlet air pressure value and the outlet air pressure value, and define the calculated difference as the air pressure deviation value.

[0191] The wind pressure deviation value is the difference between the outlet pressure value and the reference outlet pressure value. The computer program calls the reference outlet pressure value and the outlet pressure value to obtain the difference, upload, and store it for future use. By sorting and comparing the numerical values ​​corresponding to the outlet pressure value and the numerical values ​​corresponding to the reference outlet pressure value, it is determined that the outlet pressure value is less than or equal to the reference outlet pressure value, so as to determine whether the air duct is blocked by dust for further analysis and processing.

[0192] If the outlet pressure value is equal to the reference outlet pressure value, it indicates that the air duct is not blocked by dust, so the inlet pressure value and the outlet pressure value continue to be detected to continuously monitor the changes of the inlet pressure value and the outlet pressure value.

[0193] If the air outlet pressure value is less than the reference air outlet pressure value, it indicates that the air duct is blocked by dust. Therefore, the difference between the reference air outlet pressure value and the air outlet pressure value is calculated to obtain the air pressure deviation value, thereby providing data support for the subsequent cleaning of the heat dissipation duct.

[0194] Step S703: Determine the current air duct blockage area based on the wind pressure deviation value.

[0195] The air duct blockage area is the area of ​​the air duct blocked by dust. Technical personnel in this field conduct a large number of experiments based on different wind pressure deviation values ​​to summarize the rules and generate a database. The database stores wind pressure deviation values ​​related to the air duct blockage area, and has multiple wind pressure deviation values ​​corresponding to the air duct blockage area. According to the input wind pressure deviation value, the output air duct blockage area is matched, thereby providing data support for the subsequent cleaning of the heat dissipation duct.

[0196] Step S704: Determine the current cleaning time according to the air duct blockage area and the cleaning audio.

[0197] The cleaning time is the time required for the cleaning audio to clean the air duct corresponding to the air duct blockage area. The technicians in this field have conducted a large number of experiments based on different air duct blockage areas and cleaning audios to summarize the rules and generate a database. The database stores the air duct blockage areas and cleaning audios related to the cleaning time, and has multiple air duct blockage areas and cleaning audios corresponding to the cleaning time. The output cleaning time is matched according to the input air duct blockage area and cleaning audio. The cleaning time is determined by the air duct blockage area and cleaning audio, thereby providing data support for the subsequent cleaning of the heat dissipation duct.

[0198] Step S705: Clean the air duct according to the cleaning audio and cleaning time with the instruction sound.

[0199] The sound is controlled by the speaker according to the cleaning audio and cleaning time, so that the speaker drives the mobile power supply to vibrate to shake out the dust blocked in the air duct, thereby preventing the dust blockage from affecting the heat dissipation of the mobile power supply during charging, thereby improving the charging effect of the mobile power supply.

[0200] Based on the same inventive concept, an embodiment of the present invention provides a mobile power control system, including:

[0201] An acquisition module is used to obtain wireless charging trigger information, volume value, electronic product model parameters, basic pressure surface, basic pressure value, gravity side, placement position, number of pressure surfaces, pressure value, wind pressure value, electronic product temperature value, air inlet pressure value, and air outlet pressure value;

[0202] Memory, used to store Figure 1-7 A program of a mobile power control method according to any one of the items;

[0203] The program in the memory can be loaded and executed by the processor and implemented as follows Figure 1-7 A mobile power control method according to any one of the preceding claims.

[0204] Those skilled in the art can clearly understand that for the convenience and simplicity of description, only the division of the above-mentioned functional modules is used as an example. In actual applications, the above-mentioned functions can be assigned to different functional modules as needed, that is, the internal structure of the device is divided into different functional modules to complete all or part of the functions described above. The specific working process of the system, device and unit described above can refer to the corresponding process in the aforementioned method embodiment, and will not be repeated here.

[0205] An embodiment of the present invention provides a computer-readable storage medium storing a computer program capable of being loaded by a processor and executing a mobile power control method.

[0206] Computer storage media include, for example, various media that can store program codes, such as USB flash drives, mobile hard disks, read-only memories (ROM), random access memories (RAM), magnetic disks or optical disks.

[0207] Based on the same inventive concept, an embodiment of the present invention provides an intelligent terminal, including a memory and a processor, wherein the memory stores a computer program that can be loaded by the processor and execute a mobile power control method.

[0208] Those skilled in the art can clearly understand that for the convenience and simplicity of description, only the division of the above-mentioned functional modules is used as an example. In actual applications, the above-mentioned functions can be assigned to different functional modules as needed, that is, the internal structure of the device is divided into different functional modules to complete all or part of the functions described above. The specific working process of the system, device and unit described above can refer to the corresponding process in the aforementioned method embodiment, and will not be repeated here.

[0209] The above are all preferred embodiments of the present application, and are not intended to limit the protection scope of the present application. Any feature disclosed in this specification (including the abstract and drawings), unless otherwise stated, can be replaced by other equivalent or alternative features with similar purposes. That is, unless otherwise stated, each feature is only an example of a series of equivalent or similar features.

Claims

1. A mobile power control method, characterized in that: include: Get the current wireless charging trigger information of the mobile power supply; The wireless charging trigger information is characterized by energy data sent by the electronic product to the mobile power supply when the electronic product with wireless charging technology is placed in the wireless charging area of ​​the mobile power supply; Compare the wireless charging trigger information with the preset reference trigger information. If the wireless charging trigger information is inconsistent with the reference trigger information, continue to obtain the wireless charging trigger information. If the wireless charging trigger information is consistent with the reference trigger information, obtain the current volume value of the audio and the current electronic product model parameter of the electronic product. The reference trigger information is characterized by energy data of the electronic product triggering wireless charging in the mobile power supply. The audio is set in the mobile power supply and is a vibration source. Determine the current vibration waveform based on the volume value, the electronic product model parameter and the preset mobile power weight value; The vibration waveform is characterized by a waveform display of the vibration of the mobile power supply and the electronic product at the volume value of the audio; Determine the current baseline vibration waveform according to the electronic product model parameters and the preset placement area; The vibration waveform is compared with the reference vibration waveform. If the amplitude corresponding to the vibration waveform is not greater than the amplitude corresponding to the reference vibration waveform, the volume value is continued to be obtained. If the amplitude corresponding to the vibration waveform is greater than the amplitude corresponding to the reference vibration waveform, the preset magnetic suction device is instructed to firmly suck the electronic product. Methods for instructing the magnetic suction device to firmly hold the electronic product include: Determine the current reference force value according to the vibration waveform and the reference vibration waveform; Obtain the current basic pressure surface of the mobile power supply, and obtain the current basic pressure value of the basic pressure surface; Determine the pressure value of the current pressure surface and the corresponding pressure surface according to the reference force value, the basic pressure value and the basic pressure surface; Determine the current reference pressure value according to the electronic product model parameters and the weight value of the mobile power supply; Determine the current placement surface of the mobile power supply according to the pressure value and the reference pressure value; Determine the current normal placement or abnormal placement based on the placement surface of the mobile power supply and the preset reference placement surface; Based on normal placement, the current suction force is determined according to the vibration waveform and the reference vibration waveform, and the magnetic suction device is instructed to suction the electronic product with the suction force; Based on the abnormal placement, the preset supporting device is instructed to assist the magnetic suction device to firmly hold the electronic product.

2. A mobile power control method according to claim 1, characterized in that: The method for instructing the supporting device to assist the magnetic suction device in sucking the electronic product comprises: Based on determining the abnormal placement, obtaining a current gravity side of the electronic product; Instruct the supporting device to support the electronic product with the gravity side, and determine the current gravity side area according to the gravity side and the electronic product model parameters; Determine the current conflict area based on the gravity side area and the preset support area; Determine the current away side of the electronic product according to the gravity side; Determine the current adsorption force according to the contact area, electronic product type parameters, vibration waveform and reference vibration waveform; The magnetic device adsorbs the electronic product according to the away side and the adsorption force indication.

3. A mobile power control method according to claim 1, characterized in that: Methods for adjusting the position of the audio system to the electronic product include: Based on normal placement, obtain the current placement position of the electronic product; Compare the placement position with the preset placement range to continue to obtain the placement position or determine the current offset direction and the current overlap area according to the placement position and the placement range; Based on the determined offset direction and the overlap area, the current offset area is determined according to the preset charging area and the overlap area; Determine the current vibration direction based on the offset direction, and determine the current vibration volume value based on the electronic product model parameters and the weight value of the mobile power supply; Determine the current vibration time according to the vibration volume value and the offset area; According to the vibration direction and the vibration volume value, the speaker is instructed to make a sound at a vibration time to adjust the position of the electronic product.

4. A mobile power control method according to claim 1, characterized in that: The adjustment methods of the mobile power supply heat dissipation pipeline include: Get the current number of pressure surfaces of the pressure surface; Compare the number of pressure surfaces with the preset reference pressure surface number to obtain the current pressure value of the preset charging surface or determine the current wind-receiving surface based on the pressure surface, the mobile power supply placement surface and the preset charging surface; Based on the obtained pressure value, the pressure value is compared with the model parameter of the electronic product to continue to obtain the pressure value or determine that the charging surface is the current wind-receiving surface; When the charging surface is determined to be a wind-receiving surface, the current wind inlet side is determined according to the wind-receiving surface, and the current wind pressure value of the wind-receiving surface is obtained; Determine the current air outlet side based on the air inlet side, and determine the current air outlet area based on the wind pressure value; Adjust the heat dissipation duct of the mobile power supply according to the air inlet side, air outlet area and air outlet side instructions.

5. A mobile power control method according to claim 4, characterized in that: The methods for controlling the temperature of electronic products by heat dissipation pipelines include: Get the current temperature value of the electronic product; Determine the current benchmark charging temperature range based on the electronic product model parameters; Comparing the temperature value of the electronic product with the reference charging temperature range to continue to obtain the temperature value of the electronic product or calculating the difference between the temperature value of the electronic product and the corresponding endpoint value of the reference charging temperature range, and defining the calculated difference as a deviation temperature value; Determine the current temperature increase value or the current temperature decrease value according to the deviation temperature value; Based on the determination of the increased temperature value, the charging surface is determined to be the current air outlet side; Based on the determined lowered temperature value, the current moving side is determined according to the windward side, and the mobile power source is instructed to adjust the charging surface according to the moving side.

6. A mobile power control method according to claim 5, characterized in that: The cleaning methods of the sound system for the heat dissipation pipe include: Get the current air inlet pressure value on the air inlet side and the current air outlet pressure value on the air outlet side; Determine the current reference air outlet pressure value according to the preset air duct and air inlet pressure value, and determine the current cleaning audio according to the air duct; Compare the outlet air pressure value with the reference outlet air pressure value to continue to obtain the inlet air pressure value and the outlet air pressure value or calculate the difference between the reference outlet air pressure value and the outlet air pressure value, and define the calculated difference as the air pressure deviation value; Based on the wind pressure deviation value, determine the current air duct blockage area; Determine the current cleaning time based on the air duct blockage area and cleaning audio; Clean the air duct according to the cleaning audio and cleaning time with an indicator sound.

7. A mobile power supply control system, characterized in that: include: An acquisition module is used to obtain wireless charging trigger information, volume value, electronic product model parameters, basic pressure surface, basic pressure value, gravity side, placement position, number of pressure surfaces, pressure value, wind pressure value, electronic product temperature value, air inlet pressure value, and air outlet pressure value; A memory for storing a program of a mobile power control method according to any one of claims 1 to 6; The program in the memory can be loaded and executed by the processor to implement a mobile power control method as claimed in any one of claims 1 to 6.

8. An intelligent terminal, characterized in that: The invention comprises a memory and a processor, wherein the memory stores a computer program which can be loaded by the processor and executes any one of the mobile power control methods according to claims 1 to 6.

9. A computer-readable storage medium, characterized in that: A computer program is stored which can be loaded by a processor and executes the mobile power control method according to any one of claims 1 to 6.

Images