WO2017107562A1 - 一种移动终端智能开机系统及其方法 - Google Patents

一种移动终端智能开机系统及其方法 Download PDF

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Publication number
WO2017107562A1
WO2017107562A1 PCT/CN2016/098027 CN2016098027W WO2017107562A1 WO 2017107562 A1 WO2017107562 A1 WO 2017107562A1 CN 2016098027 W CN2016098027 W CN 2016098027W WO 2017107562 A1 WO2017107562 A1 WO 2017107562A1
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WIPO (PCT)
Prior art keywords
finger
user
booting
module
output
Prior art date
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Ceased
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PCT/CN2016/098027
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English (en)
French (fr)
Inventor
章金玉
黄树伟
Current Assignee (The listed assignees may be inaccurate. Google has not performed a legal analysis and makes no representation or warranty as to the accuracy of the list.)
Huizhou TCL Mobile Communication Co Ltd
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Huizhou TCL Mobile Communication Co Ltd
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Publication of WO2017107562A1 publication Critical patent/WO2017107562A1/zh
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Classifications

    • G—PHYSICS
    • G06—COMPUTING OR CALCULATING; COUNTING
    • G06F—ELECTRIC DIGITAL DATA PROCESSING
    • G06F3/00—Input arrangements for transferring data to be processed into a form capable of being handled by the computer; Output arrangements for transferring data from processing unit to output unit, e.g. interface arrangements
    • G06F3/01—Input arrangements or combined input and output arrangements for interaction between user and computer
    • G—PHYSICS
    • G06—COMPUTING OR CALCULATING; COUNTING
    • G06F—ELECTRIC DIGITAL DATA PROCESSING
    • G06F3/00—Input arrangements for transferring data to be processed into a form capable of being handled by the computer; Output arrangements for transferring data from processing unit to output unit, e.g. interface arrangements
    • G06F3/01—Input arrangements or combined input and output arrangements for interaction between user and computer
    • G06F3/011—Arrangements for interaction with the human body, e.g. for user immersion in virtual reality
    • H—ELECTRICITY
    • H04—ELECTRIC COMMUNICATION TECHNIQUE
    • H04M—TELEPHONIC COMMUNICATION
    • H04M1/00—Substation equipment, e.g. for use by subscribers
    • H04M1/72—Mobile telephones; Cordless telephones, i.e. devices for establishing wireless links to base stations without route selection
    • H04M1/725—Cordless telephones
    • G—PHYSICS
    • G06—COMPUTING OR CALCULATING; COUNTING
    • G06F—ELECTRIC DIGITAL DATA PROCESSING
    • G06F2203/00—Indexing scheme relating to G06F3/00 - G06F3/048
    • G06F2203/01—Indexing scheme relating to G06F3/01
    • G06F2203/011—Emotion or mood input determined on the basis of sensed human body parameters such as pulse, heart rate or beat, temperature of skin, facial expressions, iris, voice pitch, brain activity patterns

Definitions

  • the present invention relates to the field of mobile terminal technologies, and in particular, to a mobile terminal intelligent booting system and a method thereof.
  • the booting mode of the smart mobile terminal is singular.
  • the smart mobile terminal as a platform for the innovation technology display should provide the user with a richer and more convenient booting mode.
  • the button activation is a commonly used startup method for smart mobile terminals. It is singular and tedious, and cannot reflect the experience brought by the new technology to the user. The use of the power button for a long time is very easy to damage and cannot be adapted to the smart mobile terminal. rapid development.
  • an object of the present invention is to provide a smart terminal booting system and method thereof, which can detect a distance between a user's finger and a booting area of the mobile terminal and a user's finger in the booting area.
  • the time of internal control controls the mobile terminal to be powered on, without using the button to boot, which improves the life of the power button of the mobile terminal, and brings a brand new booting experience to the consumer.
  • the invention provides a smart booting method for a mobile terminal, which comprises the following steps:
  • the infrared sensing module detects that the user's finger is located in the booting area of the mobile terminal, outputting a digital level signal
  • the distance between the user's finger and the booting area is detected by the infrared ranging module, and the distance value is output;
  • the mobile terminal is controlled to enter a power on state.
  • the method further includes: receiving, by the infrared temperature detecting module, the output of the infrared sensing module The digital level signal detects the temperature of the user's finger.
  • the infrared temperature detecting module detects the temperature of the user's finger when receiving the digital level signal output by the infrared sensing module, including:
  • the infrared energy focusing unit detects the infrared energy radiated by the user's finger when receiving the high level output by the infrared sensing module;
  • the voltage signal is converted to temperature by a temperature conversion unit and output to the power-on control module.
  • the clock detection module detects the time that the user's finger is held in the boot area when receiving the digital level signal output by the infrared sensing module, including:
  • the clock detecting unit outputs a clock pulse signal when receiving the low level output by the infrared sensing module
  • the duration of the high level of the clock signal is recorded by the clock counting unit and output to the power-on control module.
  • the method before the outputting the digital level signal, when the infrared sensing module detects that the user's finger is located in the booting area of the mobile terminal, the method further includes:
  • the air pressure sensor module senses that the air pressure in the power-on area changes, the air pressure change in the power-on area is converted into a weak voltage signal, and is output to the voltage amplifier module;
  • the weak voltage signal is amplified by the voltage amplifier module, and then filtered by the voltage stabilization filter module to output a stable voltage to the infrared sensing module.
  • the invention also provides a smart booting method for a mobile terminal, which comprises the following steps:
  • the digital level signal is output
  • the infrared distance measuring module detects a distance between the user's finger and the booting area and outputs a distance value
  • the mobile terminal When the distance control value is received by the power-on control module, and the time that the user's finger is held in the power-on area is greater than the preset time, the mobile terminal is controlled to enter a power-on state.
  • the method further includes: receiving, by the infrared temperature detecting module, the output of the infrared sensing module The digital level signal detects the temperature of the user's finger.
  • the infrared temperature detecting module detects the temperature of the user's finger when receiving the digital level signal output by the infrared sensing module, including:
  • the infrared energy focusing unit detects the infrared energy radiated by the user's finger when receiving the high level output by the infrared sensing module;
  • the voltage signal is converted to temperature by a temperature conversion unit and output to the power-on control module.
  • the method further includes: determining, by the power-on control module Whether the temperature of the user's finger is within a preset temperature range, and whether the distance between the user's finger and the booting area is less than a preset distance, and if so, when the user's finger is held in the booting area for a longer time than the first preset
  • the mobile terminal is controlled to be powered on normally; if not, when the time that the user's finger is kept in the booting area is greater than the second preset time, the mobile terminal is controlled to be powered on.
  • the clock detection module detects the time that the user's finger is held in the boot area when receiving the digital level signal output by the infrared sensing module, including:
  • the clock detecting unit outputs a clock pulse signal when receiving the low level output by the infrared sensing module
  • the duration of the high level of the clock signal is recorded by the clock counting unit and output to the power-on control module.
  • the method before the outputting the digital level signal, when the infrared sensing module detects that the user's finger is located in the booting area of the mobile terminal, the method further includes:
  • the air pressure sensor module senses that the air pressure in the power-on area changes, the air pressure change in the power-on area is converted into a weak voltage signal, and is output to the voltage amplifier module;
  • the weak voltage signal is amplified by the voltage amplifier module, and then filtered by the voltage stabilization filter module to output a stable voltage to the infrared sensing module.
  • the invention also provides a smart terminal intelligent booting system, which comprises:
  • the infrared sensing module is configured to output a digital level signal when detecting that the user's finger is located in the booting area of the mobile terminal;
  • An infrared ranging module is configured to detect a distance between a user's finger and the booting area, and output a distance value
  • a clock detection module configured to detect a time that the user's finger is held in the boot area when receiving the digital level signal output by the infrared sensing module
  • the power-on control module is configured to control the mobile terminal to enter a power-on state when the distance value is received, and the time that the user's finger is held in the power-on area is greater than a preset time.
  • the method further includes: an infrared temperature detecting module, configured to detect a temperature of the user's finger when receiving the digital level signal output by the infrared sensing module.
  • an infrared temperature detecting module configured to detect a temperature of the user's finger when receiving the digital level signal output by the infrared sensing module.
  • the infrared temperature detecting module includes:
  • An infrared energy focusing unit configured to detect infrared energy radiated by a user's finger when receiving a high level output by the infrared sensing module
  • a voltage conversion unit for converting the infrared energy into a voltage signal
  • a temperature conversion unit configured to convert the voltage signal into a temperature and output to the power-on control module.
  • the boot control module is further configured to: determine whether the temperature of the user's finger is within a preset temperature range, and whether the distance between the user's finger and the booting area is less than a preset distance; if yes, when the user's finger is Controlling the mobile terminal to be normally turned on when the time held in the booting area is greater than the first preset time; if not, controlling the mobile terminal to force when the time held by the user's finger in the booting area is greater than the second preset time Boot up.
  • the clock detection module includes:
  • a clock detecting unit configured to output a clock pulse signal when receiving a low level output by the infrared sensing module
  • a clock counting unit for recording a duration of a high level of the clock signal.
  • the method further includes:
  • the air pressure sensing module is configured to convert the air pressure change in the booting area into a weak voltage signal when the air pressure of the booting area is sensed, and output the signal to the voltage amplifier module;
  • a voltage amplifier module configured to amplify the weak voltage signal, and output the amplified weak voltage signal to a voltage stabilization filter module;
  • the voltage stabilization filter module is configured to filter the amplified weak voltage signal and output a stable voltage to the infrared sensing module.
  • the smart terminal intelligent booting system and the method thereof provide the digital terminal outputting the digital level through the infrared sensing module when detecting that the user's finger is located in the booting area of the mobile terminal.
  • a signal the distance between the user's finger and the booting area is detected by the infrared ranging module, and the distance value is output; after receiving the digital level signal output by the infrared sensing module, the clock detecting module detects that the user's finger is in the The time that is maintained in the boot area; after the time value is received by the power-on control module, and the time that the user's finger is held in the boot area is greater than the preset time, the mobile terminal is controlled to enter the power-on state, by detecting the user's finger and The distance between the boot areas of the mobile terminal and the time held by the user's finger in the boot area control the mobile terminal to be turned on, without using the button to boot, thereby improving the life of the power button of the mobile terminal, and bringing a brand
  • FIG. 1 is a flowchart of a smart booting method of a mobile terminal provided by the present invention.
  • FIG. 2 is a flowchart of a smart booting method of a mobile terminal according to a preferred embodiment of the present invention.
  • FIG. 3 is a structural block diagram of a smart booting system for a mobile terminal provided by the present invention.
  • the object of the present invention is to provide a smart booting system and method thereof, which can detect the distance between the user's finger and the booting area of the mobile terminal and the user's finger.
  • the time kept in the boot area is controlled, and the mobile terminal is controlled to be powered on, without using a button to boot, thereby improving the life of the power button of the mobile terminal, and bringing a brand new boot experience to the consumer.
  • a smart booting method for a mobile terminal includes the following steps:
  • S200 The distance between the user's finger and the booting area is detected by the infrared ranging module, and the distance value is output;
  • the clock detection module detects a time that the user's finger is held in the boot area when receiving the digital level signal output by the infrared sensing module.
  • a booting area is set on the screen of the mobile terminal.
  • the air pressure sensing module senses the air pressure change of the booting area.
  • the air pressure change is converted into a weak voltage signal and output to the voltage amplifier module.
  • the weak voltage signal is amplified to 3V by a voltage amplifier module, and then filtered by the voltage regulator filter module to output a stable voltage to the infrared sensing module, which is an infrared sensor.
  • the module provides a stable operating voltage of 3V.
  • the invention outputs a digital level signal when detecting that the user's finger is located in the booting area of the mobile terminal by the infrared sensing module, and the distance between the user's finger and the booting area is detected by the infrared ranging module, and the distance value is output, and then
  • the clock detection module receives the digital level signal output by the infrared sensing module, detecting the time that the user's finger is held in the booting area, when the power-on control module receives the distance value, and the user's finger is in the booting area
  • the mobile terminal is controlled to enter a power-on state, so that the mobile terminal can be controlled to boot by detecting the distance between the user's finger and the booting area of the mobile terminal and the time that the user's finger is held in the booting area.
  • the state, without the user to use the physical button, or touch the screen can be turned on, bringing a new boot experience for consumers.
  • the method further includes the step S210, the digital level output by the infrared temperature detecting module is received by the infrared sensing module.
  • the digital level output by the infrared temperature detecting module is received by the infrared sensing module.
  • the signal is detected, the temperature of the user's finger is detected, and the temperature of the user's finger is detected in real time by the infrared temperature detecting module, so that the state of the user's finger in the booting area can be further determined, and the comprehensiveness of the booting detection is improved.
  • the step S210 includes: detecting, by the infrared energy focusing unit, the infrared energy radiated by the user's finger when receiving the high level output by the infrared sensing module; converting the infrared energy into a voltage signal by the voltage converting unit; The temperature conversion unit converts the voltage signal into temperature and outputs it to the power-on control module.
  • the infrared sensing module when the infrared sensing module detects that the user's finger is located in the booting area of the mobile terminal, the high-level signal is output to the infrared energy focusing unit, and the infrared energy of the user's finger is radiated by the infrared energy focusing unit. Gathering, then converting the infrared energy into a voltage signal through a voltage conversion unit, and converting the voltage signal into temperature by the temperature conversion unit, thereby real-time detecting the user's finger when detecting that the user's finger is located in the booting area The temperature provides a reliable basis for the startup control process.
  • the step S300 includes: outputting, by the clock detecting unit, a clock pulse signal when receiving the low level output by the infrared sensing module; recording, by the clock counting unit, the duration of the high level of the clock signal, and outputting To the boot control module.
  • the infrared sensing module When the infrared sensing module detects that the user's finger is located in the booting area of the mobile terminal, it outputs a low level signal to the clock detecting unit, and the clock detecting unit outputs a clock pulse signal to the clock counting unit, and the clock counting unit records the clock pulse.
  • the duration of the high level of the signal is output to the power-on control module, thereby detecting the time that the user's finger is held in the boot area, and the power-on control module receives the distance value output by the infrared ranging module, and the user's finger
  • the mobile terminal is controlled to enter the power-on state, and the user can start the booting without using the physical button, thereby greatly improving the life of the power button of the mobile terminal, and providing diversification for the consumer. Boot option.
  • the step S400 further includes: determining, by the booting control module, whether the temperature of the user's finger is within a preset temperature range, and whether the distance between the user's finger and the booting area is less than a preset distance, and if so, when When the time that the user's finger is held in the booting area is greater than the first preset time, the mobile terminal is controlled to be normally turned on; if not, when the time that the user's finger is held in the booting area is greater than the second preset time, the control is performed. The mobile terminal is forced to boot.
  • the infrared ranging module detects the distance between the user's finger and the booting area and outputs the distance value
  • the infrared temperature detecting module detects the temperature of the user's finger
  • the clock detecting module detects the time that the user's finger remains in the booting area.
  • the boot control module determines whether the temperature of the user's finger is within a preset temperature range, and whether the distance between the user's finger and the boot area is less than a preset distance. If the preset temperature range is set to [36 ° C, 37 ° C], the preset distance is set to 7 cm.
  • the temperature of the user's finger is greater than or equal to 36 ° C, less than or equal to 37 ° C, and the distance between the user's finger and the booting area is less than 7 cm, for example, the temperature of the user's finger is 36.5 ° C, which is between the booting area and the booting area.
  • the booting control module controls the mobile terminal to be normally turned on, and the first preset time can be set to 5s, reducing the mobile terminal. Boot time, improve boot efficiency.
  • the temperature of the user's finger is greater than or equal to 36 ° C and less than or equal to 37 ° C, but the distance between the user's finger and the booting area is greater than or equal to 7 cm, for example, the temperature of the user's finger is 36.5 ° C, which is between the booting area and the booting area.
  • the distance of the user is 10 cm, when the time that the user's finger is held in the booting area is greater than the second preset time, the power-on control module controls the mobile terminal to be powered on, and the second preset time can be set to 10s to extend Boot time, during which the user can further determine whether booting is required.
  • the distance between the user's finger and the booting area is less than 7 cm, but it is less than 36 ° C or greater than 37 ° C, for example, the distance between the user's finger and the booting area is 3 cm, and the temperature is 35.5 ° C or 37.5. °C
  • the power-on control module controls the mobile terminal to be powered on, and the second preset time may be set to 10s to extend the booting time. During this process, the user can further determine whether it is necessary to boot.
  • the preset temperature range, the preset distance, the first preset time, and the second preset time may be changed according to actual needs to meet the needs of different situations, which is not limited by the present invention.
  • the present invention further provides a smart terminal intelligent booting system, as shown in FIG. 3, the mobile terminal intelligent booting system includes an infrared sensing module 10, an air pressure sensing module 101, a voltage amplifier module 102, a voltage stabilizing filter module 103, The infrared ranging module 20, the clock detecting module 30 and the boot control module 40.
  • the air pressure sensing module 101, the voltage amplifier module 102 and the voltage stabilizing filter module 103 are connected in sequence; the voltage stabilizing filter module 103 is connected to the infrared sensing module 10, and the infrared sensing module 10 is detected by the clock.
  • the module 30 is connected to the boot control module 40, and the boot control module 40 is further connected to the infrared ranging module 20.
  • the infrared sensing module 10 is configured to output a digital level signal when detecting that the user's finger is located in the booting area of the mobile terminal.
  • the infrared ranging module 20 is configured to detect a distance between a user's finger and the booting area and output a distance value.
  • the clock detection module 30 is configured to detect a time that the user's finger is held in the boot area when receiving the digital level signal output by the infrared sensing module 10.
  • the power-on control module 40 is configured to control the mobile terminal to enter a power-on state when the distance value is received and the time that the user's finger is held in the power-on area is greater than a preset time.
  • a booting area is set on the screen of the mobile terminal, and the air pressure sensing module 101 senses a change in air pressure in the booting area.
  • the air pressure sensing module 101 turns on the booting area.
  • the change of the air pressure inside is converted into a weak voltage signal and output to the voltage amplifier module 102, and the weak voltage signal is amplified to 3V by the voltage amplifier mode, and then filtered by the voltage stabilization filter module 103 to output a stable voltage to
  • the infrared sensing module 10 provides the infrared sensing module 10 with a stable operating voltage of 3V.
  • the infrared sensing module 10 outputs a digital level signal when detecting that the user's finger is located in the booting area of the mobile terminal, and the infrared ranging module 20 detects the distance between the user's finger and the booting area at this time.
  • the mobile terminal is controlled to enter a power-on state, thereby being able to detect the distance between the user's finger and the booting area of the mobile terminal and the user's finger in the
  • the time kept in the boot area controls the mobile terminal to enter the power-on state, without the user using the physical button, or touching the screen to boot, bringing a brand new boot experience for the consumer.
  • the smart terminal intelligent booting system provided by the present invention further includes an infrared temperature detecting module 50.
  • the infrared temperature detecting module 50 is connected to the infrared sensing module 10 and the power-on control module 40.
  • the infrared temperature detecting module 50 is configured to detect the temperature of the user's finger when receiving the digital level signal output by the infrared sensing module 10, and detect the temperature of the user's finger in real time through the infrared temperature detecting module 50, which may further Determining the state of the user's finger in the boot area improves the comprehensiveness of the boot detection.
  • the infrared temperature detecting module 50 includes an infrared energy focusing unit 501, a voltage converting unit 502, and a temperature converting unit 503.
  • the infrared energy focusing unit 501, the voltage converting unit 502 and the temperature converting unit 503 are sequentially connected, the infrared energy focusing unit 501 is connected to the infrared sensing module 10, and the temperature converting unit 503 is connected to the powering control. Module 40.
  • the infrared energy focusing unit 501 is configured to detect infrared energy radiated by a user's finger when receiving the high level output by the infrared sensing module 10; the voltage converting unit 502 is configured to convert the infrared energy The voltage conversion unit 503 is configured to convert the voltage signal into temperature and output to the power-on control module 40.
  • the infrared sensing module 10 When the infrared sensing module 10 detects that the user's finger is located in the booting area of the mobile terminal, it outputs a high level signal to the infrared energy focusing unit 501, and the infrared energy focusing unit 501 aggregates the infrared energy radiated by the user's finger. Then, the infrared energy is converted into a voltage signal by the voltage conversion unit 502, and the voltage signal is converted into temperature by the temperature conversion unit 503, thereby realizing that when the user's finger is detected in the booting area, Real-time detection of the temperature of the user's finger provides a reliable basis for the startup control process.
  • the clock detection module 30 includes a clock detection unit 301 and a clock counting unit 302.
  • the clock detecting unit 301 is connected to the infrared sensing module 10 and the clock counting unit 302, and the clock counting unit 302 is further connected to the booting control module 40.
  • the clock detecting unit 301 is configured to output a clock pulse signal when receiving the low level output by the infrared sensing module 10; the clock counting unit 302 is configured to record the duration of the high level of the clock pulse signal.
  • the infrared sensing module 10 When the infrared sensing module 10 detects that the user's finger is located in the booting area of the mobile terminal, it outputs a low level signal to the clock detecting unit 301, and the clock detecting unit 301 outputs a clock pulse signal to the clock counting unit 302.
  • the clock counting unit 302 the duration of the high level of the clock signal, and outputting to the power-on control module 40, thereby realizing detecting the time that the user's finger is held in the booting area
  • the power-on control module 40 receives the distance value output by the infrared ranging module 20, and the time that the user's finger keeps in the power-on area is greater than the preset time, the mobile terminal is controlled to enter the power-on state, and the user does not need to use the physical button. It can realize the booting, greatly improving the life of the power button of the mobile terminal, and providing consumers with a variety of boot options.
  • the power-on control module 40 is further configured to determine whether the temperature of the user's finger is within a preset temperature range, and whether the distance between the user's finger and the booting area is less than a preset distance, and if so, when the user's finger Controlling the mobile terminal to be normally turned on when the time held in the booting area is greater than the first preset time; if not, controlling the mobile terminal when the time held by the user's finger in the booting area is greater than the second preset time Forced to boot.
  • the infrared temperature detecting module 50 detects the temperature of the user's finger
  • the clock detecting module 30 detects the user's finger.
  • the boot control module 40 determines whether the temperature of the user's finger is within a preset temperature range, and whether the distance between the user's finger and the boot area is less than a preset distance. If the preset temperature range is set to [36 ° C, 37 ° C], the preset distance is set to 7 cm.
  • the temperature of the user's finger is greater than or equal to 36 ° C, less than or equal to 37 ° C, and the distance between the user's finger and the booting area is less than 7 cm, for example, the temperature of the user's finger is 36.5 ° C, which is between the booting area and the booting area.
  • the distance is 3 cm, and when the time that the user's finger is held in the booting area is greater than the first preset time, the booting control module 40 controls the mobile terminal to be normally turned on, and the first preset time may be set to 5s. Reduce the time for the mobile terminal to boot and improve the boot efficiency.
  • the preset temperature range, the preset distance, the first preset time, and the second preset time may be changed according to actual needs to meet the needs of different situations, which is not limited by the present invention.
  • Other specific embodiments are described in detail in the foregoing specific embodiments of the smart terminal smart booting method, and are not described in detail herein.
  • the smart terminal intelligent booting system and the method thereof provide the digital terminal signal output by the infrared sensing module when the user's finger is located in the booting area of the mobile terminal;
  • the infrared ranging module detects a distance between the user's finger and the booting area and outputs a distance value; after receiving the digital level signal output by the infrared sensing module, the clock detecting module detects that the user's finger remains in the booting area.
  • the mobile terminal is controlled to enter the power-on state, and the user's finger and the mobile terminal are detected.
  • the distance between the boot areas and the time that the user's finger stays in the boot area controls the mobile terminal to boot up, and does not need to use the button to boot, thereby improving the life of the power button of the mobile terminal, and bringing a brand new boot experience to the consumer.

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Abstract

一种移动终端智能开机系统及其方法，方法包括：当检测用户手指位于移动终端的开机区域内时（S100）检测用户手指与所述开机区域之间的距离并输出距离值（S200），及检测用户手指在所述开机区域内保持的时间（S300），在接收到所述距离值，且用户手指在所述开机区域内保持的时间大于预设时间时，控制移动终端进入开机状态（S400）。

Description

一种移动终端智能开机系统及其方法 技术领域
本发明涉及移动终端技术领域，特别涉及一种移动终端智能开机系统及其方法。
 背景技术
目前智能移动终端的开机方式是单一性的，随着智能移动终端的发展，智能移动终端作为创新技术展现的一个平台，应为用户提供更加丰富，更加便利的开机方式。
而按键开机是目前智能移动终端普遍采用的一种开机方式，具有单一性，乏味性，不能体现新技术给用户带来的体验，且长时间使用开机键非常容易损坏，不能适应智能移动终端的高速发展。
因而现有技术还有待改进和提高。
 技术问题
鉴于上述现有技术的不足之处，本发明的目的在于提供一种移动终端智能开机系统及其方法，能通过检测用户手指与移动终端的开机区域之间的距离及用户手指在所述开机区域内保持的时间控制移动终端开机，无需使用按键开机，提高了移动终端开机键的寿命，且为消费者带来了全新的开机体验。
 技术解决方案
为了达到上述目的，本发明采取了以下技术方案：
本发明提供了一种移动终端智能开机方法，其包括如下步骤：
当红外感应模块检测用户手指位于移动终端的开机区域内时，输出数字电平信号；
由红外测距模块检测用户手指与所述开机区域之间的距离，并输出距离值；
由时钟检测模块在接收到红外感应模块输出的数字电平信号时，检测用户手指在所述开机区域内保持的时间；
由开机控制模块在接收到所述距离值和所述保持时间，当所述用户手指与所述开机区域之间的距离小于预设距离，且用户手指在所述开机区域内保持的时间大于预设时间时，控制移动终端进入开机状态。
优选的，在所述输出距离值之后，以及在所述由时钟检测模块在接收到红外感应模块输出的数字电平信号之前，还包括步骤：由红外温度检测模块在接收到红外感应模块输出的数字电平信号时，检测用户手指的温度。
优选的，所述由红外温度检测模块在接收到红外感应模块输出的数字电平信号时，检测用户手指的温度，包括：
由红外能量聚焦单元在接收到红外感应模块输出的高电平时，检测用户手指辐射的红外能量；
由电压转换单元将所述红外能量转换为电压信号；
由温度转换单元将所述电压信号转换为温度，并输出至开机控制模块。
优选的，所述由时钟检测模块在接收到红外感应模块输出的数字电平信号时，检测用户手指在所述开机区域内保持的时间，包括：
由时钟检测单元在接收到红外感应模块输出的低电平时输出时钟脉冲信号；
由时钟计数单元记录所述时钟脉冲信号的高电平的持续时间并输出至开机控制模块。
优选的，在所述当红外感应模块检测用户手指位于移动终端的开机区域内时，输出数字电平信号之前，还包括：
由空气压力传感模块感应到所述开机区域的空气压力变化时，将开机区域内的空气压力变化转化为弱电压信号，并输出至电压放大器模块；
由所述电压放大器模块将所述弱电压信号进行放大，再经稳压滤波模块滤波后输出稳定的电压至红外感应模块。
本发明还提供了一种移动终端智能开机方法，其包括如下步骤：
当红外感应模块检测用户手指位于移动终端的开机区域内时输出数字电平信号；
由红外测距模块检测用户手指与所述开机区域之间的距离并输出距离值；
由时钟检测模块在接收到红外感应模块输出的数字电平信号时检测用户手指在所述开机区域内保持的时间；
由开机控制模块在接收到所述距离值，且用户手指在所述开机区域内保持的时间大于预设时间时，控制移动终端进入开机状态。
优选的，在所述输出距离值之后，以及在所述由时钟检测模块在接收到红外感应模块输出的数字电平信号之前，还包括步骤：由红外温度检测模块在接收到红外感应模块输出的数字电平信号时检测用户手指的温度。
优选的，所述由红外温度检测模块在接收到红外感应模块输出的数字电平信号时，检测用户手指的温度，包括：
由红外能量聚焦单元在接收到红外感应模块输出的高电平时检测用户手指辐射的红外能量；
由电压转换单元将所述红外能量转换为电压信号；
由温度转换单元将所述电压信号转换为温度并输出至开机控制模块。
优选的，所述由开机控制模块在接收到所述距离值，且用户手指在所述开机区域内保持的时间大于预设时间时，控制移动终端进入开机状态，还包括：由开机控制模块判断用户手指的温度是否在预设温度范围内，且用户手指与所述开机区域之间的距离是否小于预设距离，若是，则当用户手指在所述开机区域内保持的时间大于第一预设时间时，控制移动终端正常开机；若否，则当用户手指在所述开机区域内保持的时间大于第二预设时间时，控制移动终端强制开机。
优选的，所述由时钟检测模块在接收到红外感应模块输出的数字电平信号时，检测用户手指在所述开机区域内保持的时间，包括：
由时钟检测单元在接收到红外感应模块输出的低电平时输出时钟脉冲信号；
由时钟计数单元记录所述时钟脉冲信号的高电平的持续时间并输出至开机控制模块。
优选的，在所述当红外感应模块检测用户手指位于移动终端的开机区域内时，输出数字电平信号之前，还包括：
由空气压力传感模块感应到所述开机区域的空气压力变化时，将开机区域内的空气压力变化转化为弱电压信号，并输出至电压放大器模块；
由所述电压放大器模块将所述弱电压信号进行放大，再经稳压滤波模块滤波后输出稳定的电压至红外感应模块。本发明还提供了一种移动终端智能开机系统，其包括：
红外感应模块，用于当检测用户手指位于移动终端的开机区域内时，输出数字电平信号；
红外测距模块，用于检测用户手指与所述开机区域之间的距离，并输出距离值；
时钟检测模块，用于在接收到红外感应模块输出的数字电平信号时，检测用户手指在所述开机区域内保持的时间；
开机控制模块，用于在接收到所述距离值，且用户手指在所述开机区域内保持的时间大于预设时间时，控制移动终端进入开机状态。
优选的，还包括：红外温度检测模块，用于在接收到红外感应模块输出的数字电平信号时，检测用户手指的温度。
所述的移动终端智能开机系统中，所述红外温度检测模块包括：
红外能量聚焦单元，用于在接收到红外感应模块输出的高电平时检测用户手指辐射的红外能量；
电压转换单元，用于将所述红外能量转换为电压信号；
温度转换单元，用于将所述电压信号转换为温度，并输出至开机控制模块。
优选的，所述开机控制模块还用于：判断用户手指的温度是否在预设温度范围内，且用户手指与所述开机区域之间的距离是否小于预设距离；若是，则当用户手指在所述开机区域内保持的时间大于第一预设时间时，控制移动终端正常开机；若否，则当用户手指在所述开机区域内保持的时间大于第二预设时间时，控制移动终端强制开机。
优选的，所述时钟检测模块包括：
时钟检测单元，用于在接收到红外感应模块输出的低电平时，输出时钟脉冲信号；
时钟计数单元，用于记录所述时钟脉冲信号的高电平的持续时间。
优选的，还包括：
空气压力传感模块，用于当感应到所述开机区域的空气压力变化时，将开机区域内的空气压力变化转化为弱电压信号，并输出至电压放大器模块；
电压放大器模块，用于将所述弱电压信号进行放大，并将所述被放大的弱电压信号输出至稳压滤波模块；
稳压滤波模块，用于将所述被放大的弱电压信号进行滤波，并输出稳定的电压至红外感应模块。
 有益效果
相较于现有技术，本发明提供的移动终端智能开机系统及其方法中，所述移动终端智能开机方法通过红外感应模块在检测到用户手指位于移动终端的开机区域内时，输出数字电平信号；之后由红外测距模块检测用户手指与所述开机区域之间的距离并输出距离值；之后由时钟检测模块在接收到红外感应模块输出的数字电平信号时，检测用户手指在所述开机区域内保持的时间；之后由开机控制模块在接收到所述距离值，且用户手指在所述开机区域内保持的时间大于预设时间时，控制移动终端进入开机状态，通过检测用户手指与移动终端的开机区域之间的距离及用户手指在所述开机区域内保持的时间控制移动终端开机，无需使用按键开机，提高了移动终端开机键的寿命，且为消费者带来了全新的开机体验。
附图说明
图1 为本发明提供的移动终端智能开机方法的流程图。
图2为本发明提供的较佳实施例中移动终端智能开机方法的流程图。
图3为本发明提供的移动终端智能开机系统的结构框图。
 本发明的最佳实施方式
鉴于现有技术中开机方式单一、乏味等缺点，本发明的目的在于提供一种移动终端智能开机系统及其方法，能通过检测用户手指与移动终端的开机区域之间的距离及用户手指在所述开机区域内保持的时间，控制移动终端开机，无需使用按键开机，提高了移动终端开机键的寿命，且为消费者带来了全新的开机体验。
为使本发明的目的、技术方案及效果更加清楚、明确，以下参照附图并举实施例对本发明进一步详细说明。应当理解，此处所描述的具体实施例仅用以解释本发明，并不用于限定本发明。
请参阅图1，本发明提供的移动终端智能开机方法包括如下步骤：
S100、当红外感应模块检测用户手指位于移动终端的开机区域内时输出数字电平信号；
S200、由红外测距模块检测用户手指与所述开机区域之间的距离并输出距离值；
S300、由时钟检测模块在接收到红外感应模块输出的数字电平信号时检测用户手指在所述开机区域内保持的时间；
S400、由开机控制模块在接收到所述距离值，且用户手指在所述开机区域内保持的时间大于预设时间时，控制移动终端进入开机状态。
具体实施时，在移动终端的屏幕设置一开机区域，在步骤S100之前，由空气压力传感模块感应所述开机区域的空气压力变化，当用户晃动手机时，空气压力传感模块将开机区域内的空气压力变化转化为弱电压信号并输出至电压放大器模块，由电压放大器模将所述弱电压信号放大至3V，之后经稳压滤波模块滤波后输出稳定的电压至红外感应模块，为红外感应模块提供3V的稳定工作电压。
本发明通过红外感应模块在检测到用户手指位于移动终端的开机区域时，输出数字电平信号，由红外测距模块检测此时用户手指与所述开机区域之间的距离并输出距离值，之后当时钟检测模块接收到红外感应模块输出的数字电平信号时，检测用户手指在所述开机区域内保持的时间，当开机控制模块接收到所述距离值，且用户手指在所述开机区域内保持的时间大于预设时间时，控制移动终端进入开机状态，从而能通过检测用户手指与移动终端的开机区域之间的距离以及用户手指在所述开机区域内保持的时间，控制移动终端进入开机状态，无需用户使用实体按键，或接触屏幕即能开机，为消费者带来了全新的开机体验。
进一步地，请参阅图2，本发明提供的较佳实施例中，在所述步骤S200之后，步骤S300之前，还包括步骤S210、由红外温度检测模块在接收到红外感应模块输出的数字电平信号时，检测用户手指的温度，通过红外温度检测模块实时检测用户手指的温度，可进一步确定用户手指处于开机区域内的状态，提高了开机检测的综合性。
更进一步地，所述步骤S210包括：由红外能量聚焦单元在接收到红外感应模块输出的高电平时，检测用户手指辐射的红外能量；由电压转换单元将所述红外能量转换为电压信号；由温度转换单元将所述电压信号转换为温度，并输出至开机控制模块。
本发明提供的较佳实施例中，当红外感应模块在检测到用户手指位于移动终端的开机区域时，输出高电平信号至红外能量聚焦单元，由红外能量聚焦单元将用户手指辐射的红外能量聚集，之后经过电压转换单元将所述红外能量转换为电压信号，并由温度转换单元将所述电压信号转换为温度，从而实现了在检测到用户手指位于所述开机区域时，实时检测用户手指的温度，为开机控制过程提供了可靠基础。
具体地，所述步骤S300包括：由时钟检测单元在接收到红外感应模块输出的低电平时，输出时钟脉冲信号；由时钟计数单元记录所述时钟脉冲信号的高电平的持续时间，并输出至开机控制模块。
当红外感应模块在检测到用户手指位于移动终端的开机区域时，输出低电平信号至时钟检测单元，时钟检测单元输出时钟脉冲信号至时钟计数单元，由所述时钟计数单元记录所述时钟脉冲信号的高电平的持续时间，并输出至开机控制模块，从而实现了检测用户手指在所述开机区域内保持的时间，开机控制模块在接收到红外测距模块输出的距离值，且用户手指在所述开机区域内保持的时间大于预设时间时，控制移动终端进入开机状态，用户无需使用实体按键即能实现开机，大大提高了移动终端开机键的寿命，且为消费者提供了多样化的开机选择。
具体实施时，所述步骤S400还包括：由开机控制模块判断用户手指的温度是否在预设温度范围内，且用户手指与所述开机区域之间的距离是否小于预设距离，若是，则当用户手指在所述开机区域内保持的时间大于第一预设时间时，控制移动终端正常开机；若否，则当用户手指在所述开机区域内保持的时间大于第二预设时间时，控制移动终端强制开机。
当红外测距模块检测了用户手指与所述开机区域之间的距离并输出距离值、红外温度检测模块检测了用户手指的温度、时钟检测模块检测了用户手指在所述开机区域内保持的时间后，开机控制模块判断用户手指的温度是否在预设温度范围内，且用户手指与所述开机区域之间的距离是否小于预设距离。如将预设温度范围设为[36℃，37℃]，将所述预设距离设为7cm。
当检测到用户手指的温度大于等于36℃、小于等于37℃，且其与所述开机区域之间的距离小于7cm时，例如此时用户手指的温度为36.5℃，其与开机区域之间的距离为3cm，则当用户手指在所述开机区域内保持的时间大于第一预设时间时，由开机控制模块控制移动终端正常开机，所述第一预设时间可设置为5s，减少移动终端开机的时间，提高开机效率。
当检测到用户手指的温度大于等于36℃、小于等于37℃，但其与所述开机区域之间的距离大于等于7cm时，例如此时用户手指的温度为36.5℃，其与开机区域之间的距离为10cm，则当用户手指在所述开机区域内保持的时间大于第二预设时间时，由开机控制模块控制移动终端强制开机，所述第二预设时间可设置为10s，以延长开机时间，在此过程中用户可进一步判断是否需要开机。
当检测到用户手指与所述开机区域之间的距离小于7cm，但其小于36℃或大于37℃时，例如此时用户手指与开机区域之间的距离为3cm，其温度为35.5℃或37.5℃，则当用户手指在所述开机区域内保持的时间大于第二预设时间时，由开机控制模块控制移动终端强制开机，所述第二预设时间可设置为10s，以延长开机时间，在此过程中用户可进一步判断是否需要开机。
当然，所述预设温度范围、预设距离、第一预设时间和第二预设时间均可根据实际需要改变，以满足不同情况的需要，本发明对此不作限定。
本发明还相应提供一种移动终端智能开机系统，如图3所示，所述移动终端智能开机系统包括红外感应模块10、空气压力传感模块101、电压放大器模块102、稳压滤波模块103、红外测距模块20、时钟检测模块30和开机控制模块40。所述空气压力传感模块101、所述电压放大器模块102及稳压滤波模块103依次连接；所述稳压滤波模块103连接所述红外感应模块10，所述红外感应模块10通过所述时钟检测模块30连接所述开机控制模块40，所述开机控制模块40还连接所述红外测距模块20。
其中，所述红外感应模块10，用于当检测用户手指位于移动终端的开机区域内时，输出数字电平信号。
所述红外测距模块20，用于检测用户手指与所述开机区域之间的距离并输出距离值。
所述时钟检测模块30，用于在接收到红外感应模块10输出的数字电平信号时检测用户手指在所述开机区域内保持的时间。
所述开机控制模块40，用于在接收到所述距离值，且用户手指在所述开机区域内保持的时间大于预设时间时，控制移动终端进入开机状态。
具体实施时，在移动终端的屏幕设置一开机区域，由所述空气压力传感模块101感应所述开机区域的空气压力变化，当用户晃动手机时，所述空气压力传感模块101将开机区域内的空气压力变化转化为弱电压信号并输出至电压放大器模块102，由所述电压放大器模将所述弱电压信号放大至3V，之后经所述稳压滤波模块103滤波后输出稳定的电压至红外感应模块10，为所述红外感应模块10提供3V的稳定工作电压。
本发明通过所述红外感应模块10在检测到用户手指位于移动终端的开机区域时，输出数字电平信号，由所述红外测距模块20检测此时用户手指与所述开机区域之间的距离并输出距离值，之后当所述时钟检测模块30接收到所述红外感应模块10输出的数字电平信号时检测用户手指在所述开机区域内保持的时间，当开机控制模块40接收到所述距离值，且用户手指在所述开机区域内保持的时间大于预设时间时，控制移动终端进入开机状态，从而能通过检测用户手指与移动终端的开机区域之间的距离以及用户手指在所述开机区域内保持的时间，控制移动终端进入开机状态，无需用户使用实体按键，或接触屏幕即能开机，为消费者带来了全新的开机体验。
进一步地，本发明提供的移动终端智能开机系统还包括红外温度检测模块50。所述红外温度检测模块50与所述红外感应模块10和开机控制模块40连接。
所述红外温度检测模块50，用于在接收到所述红外感应模块10输出的数字电平信号时，检测用户手指的温度，通过所述红外温度检测模块50实时检测用户手指的温度，可进一步确定用户手指处于开机区域内的状态，提高了开机检测的综合性。
更进一步地，所述红外温度检测模块50包括红外能量聚焦单元501、电压转换单元502和温度转换单元503。所述红外能量聚焦单元501、所述电压转换单元502和所述温度转换单元503依次连接，所述红外能量聚焦单元501连接所述红外感应模块10，所述温度转换单元503连接所述开机控制模块40。
其中，所述红外能量聚焦单元501，用于在接收到所述红外感应模块10输出的高电平时，检测用户手指辐射的红外能量；所述电压转换单元502，用于将所述红外能量转换为电压信号；所述温度转换单元503，用于将所述电压信号转换为温度，并输出至所述开机控制模块40。
当所述红外感应模块10在检测到用户手指位于移动终端的开机区域时，输出高电平信号至所述红外能量聚焦单元501，由所述红外能量聚焦单元501将用户手指辐射的红外能量聚集，之后经过所述电压转换单元502将所述红外能量转换为电压信号，并由所述温度转换单元503将所述电压信号转换为温度，从而实现了在检测到用户手指位于所述开机区域时，实时检测用户手指的温度，为开机控制过程提供了可靠基础。
请继续参阅图3，所述时钟检测模块30包括时钟检测单元301和时钟计数单元302。所述时钟检测单元301连接所述红外感应模块10和所述时钟计数单元302，所述时钟计数单元302还连接所述开机控制模块40。所述时钟检测单元301，用于在接收到所述红外感应模块10输出的低电平时输出时钟脉冲信号；所述时钟计数单元302用于记录所述时钟脉冲信号的高电平的持续时间。
当所述红外感应模块10在检测到用户手指位于移动终端的开机区域时，输出低电平信号至所述时钟检测单元301，所述时钟检测单元301输出时钟脉冲信号至所述时钟计数单元302，由所述时钟计数单元302记录所述时钟脉冲信号的高电平的持续时间，并输出至所述开机控制模块40，从而实现了检测用户手指在所述开机区域内保持的时间，所述开机控制模块40在接收到所述红外测距模块20输出的距离值，且用户手指在所述开机区域内保持的时间大于预设时间时，控制移动终端进入开机状态，用户无需使用实体按键即能实现开机，大大提高了移动终端开机键的寿命，且为消费者提供了多样化的开机选择。
具体实施时，所述开机控制模块40还用于判断用户手指的温度是否在预设温度范围内，且用户手指与所述开机区域之间的距离是否小于预设距离，若是，则当用户手指在所述开机区域内保持的时间大于第一预设时间时，控制移动终端正常开机；若否，则当用户手指在所述开机区域内保持的时间大于第二预设时间时，控制移动终端强制开机。
当所述红外测距模块20检测了用户手指与所述开机区域之间的距离并输出距离值、所述红外温度检测模块50检测了用户手指的温度、所述时钟检测模块30检测了用户手指在所述开机区域内保持的时间后，所述开机控制模块40判断用户手指的温度是否在预设温度范围内，且用户手指与所述开机区域之间的距离是否小于预设距离。如将预设温度范围设为[36℃，37℃]，将所述预设距离设为7cm。
当检测到用户手指的温度大于等于36℃、小于等于37℃，且其与所述开机区域之间的距离小于7cm时，例如此时用户手指的温度为36.5℃，其与开机区域之间的距离为3cm，则当用户手指在所述开机区域内保持的时间大于第一预设时间时，由所述开机控制模块40控制移动终端正常开机，所述第一预设时间可设置为5s，减少移动终端开机的时间，提高开机效率。当然，所述预设温度范围、预设距离、第一预设时间和第二预设时间均可根据实际需要改变，以满足不同情况的需要，本发明对此不作限定。其他具体实施例在上述移动终端智能开机方法的具体实施例中均有详细描述，此处不作详述。
综上所述，本发明提供的移动终端智能开机系统及其方法中，所述移动终端智能开机方法通过红外感应模块检测用户手指位于移动终端的开机区域内时，输出数字电平信号；之后由红外测距模块检测用户手指与所述开机区域之间的距离并输出距离值；之后由时钟检测模块在接收到红外感应模块输出的数字电平信号时，检测用户手指在所述开机区域内保持的时间；之后由开机控制模块在在接收到所述距离值，且用户手指在所述开机区域内保持的时间大于预设时间时，控制移动终端进入开机状态，通过检测用户手指与移动终端的开机区域之间的距离及用户手指在所述开机区域内保持的时间，控制移动终端开机，无需使用按键开机，提高了移动终端开机键的寿命，且为消费者带来了全新的开机体验。
可以理解的是，对本领域普通技术人员来说，可以根据本发明的技术方案及其发明构思加以等同替换或改变，而所有这些改变或替换都应属于本发明所附的权利要求的保护范围。

Claims (17)

  1. 一种移动终端智能开机方法，其包括如下步骤：
    当红外感应模块检测用户手指位于移动终端的开机区域内时，输出数字电平信号；
    由红外测距模块检测用户手指与所述开机区域之间的距离，并输出距离值；
    由时钟检测模块在接收到红外感应模块输出的数字电平信号时，检测用户手指在所述开机区域内保持的时间；
    由开机控制模块在接收到所述距离值和所述保持时间，当所述用户手指与所述开机区域之间的距离小于预设距离，且用户手指在所述开机区域内保持的时间大于预设时间时，控制移动终端进入开机状态。
  2. 根据权利要求1所述的移动终端智能开机方法，其中在所述输出距离值之后，以及在所述由时钟检测模块在接收到红外感应模块输出的数字电平信号之前，还包括步骤：由红外温度检测模块在接收到红外感应模块输出的数字电平信号时，检测用户手指的温度。
  3. 根据权利要求2所述的移动终端智能开机方法，其中所述由红外温度检测模块在接收到红外感应模块输出的数字电平信号时，检测用户手指的温度，包括：
    由红外能量聚焦单元在接收到红外感应模块输出的高电平时，检测用户手指辐射的红外能量；
    由电压转换单元将所述红外能量转换为电压信号；
    由温度转换单元将所述电压信号转换为温度，并输出至开机控制模块。
  4. 根据权利要求1所述的移动终端智能开机方法，其中所述由时钟检测模块在接收到红外感应模块输出的数字电平信号时，检测用户手指在所述开机区域内保持的时间，包括：
    由时钟检测单元在接收到红外感应模块输出的低电平时输出时钟脉冲信号；
    由时钟计数单元记录所述时钟脉冲信号的高电平的持续时间并输出至开机控制模块。
  5. 根据权利要求1所述的移动终端智能开机方法，其中在所述当红外感应模块检测用户手指位于移动终端的开机区域内时，输出数字电平信号之前，还包括：
    由空气压力传感模块感应到所述开机区域的空气压力变化时，将开机区域内的空气压力变化转化为弱电压信号，并输出至电压放大器模块；
    由所述电压放大器模块将所述弱电压信号进行放大，再经稳压滤波模块滤波后输出稳定的电压至红外感应模块。
  6. 一种移动终端智能开机方法，其包括如下步骤：
    当红外感应模块检测用户手指位于移动终端的开机区域内时，输出数字电平信号；
    由红外测距模块检测用户手指与所述开机区域之间的距离，并输出距离值；
    由时钟检测模块在接收到红外感应模块输出的数字电平信号时，检测用户手指在所述开机区域内保持的时间；
    由开机控制模块在接收到所述距离值，且用户手指在所述开机区域内保持的时间大于预设时间时，控制移动终端进入开机状态。
  7. 根据权利要求6所述的移动终端智能开机方法，其中在所述输出距离值之后，以及在所述由时钟检测模块在接收到红外感应模块输出的数字电平信号之前，还包括步骤：由红外温度检测模块在接收到红外感应模块输出的数字电平信号时，检测用户手指的温度。
  8. 根据权利要求7所述的移动终端智能开机方法，其中所述由红外温度检测模块在接收到红外感应模块输出的数字电平信号时，检测用户手指的温度，包括：
    由红外能量聚焦单元在接收到红外感应模块输出的高电平时，检测用户手指辐射的红外能量；
    由电压转换单元将所述红外能量转换为电压信号；
    由温度转换单元将所述电压信号转换为温度，并输出至开机控制模块。
  9. 根据权利要求7所述的移动终端智能开机方法，其中所述由开机控制模块在接收到所述距离值，且用户手指在所述开机区域内保持的时间大于预设时间时，控制移动终端进入开机状态，还包括：由开机控制模块判断用户手指的温度是否在预设温度范围内，且用户手指与所述开机区域之间的距离是否小于预设距离；若是，则当用户手指在所述开机区域内保持的时间大于第一预设时间时，控制移动终端正常开机；若否，则当用户手指在所述开机区域内保持的时间大于第二预设时间时，控制移动终端强制开机。
  10. 根据权利要求6所述的移动终端智能开机方法，其中所述由时钟检测模块在接收到红外感应模块输出的数字电平信号时，检测用户手指在所述开机区域内保持的时间，包括：
    由时钟检测单元在接收到红外感应模块输出的低电平时输出时钟脉冲信号；
    由时钟计数单元记录所述时钟脉冲信号的高电平的持续时间并输出至开机控制模块。
  11. 根据权利要求6所述的移动终端智能开机方法，其中在所述当红外感应模块检测用户手指位于移动终端的开机区域内时，输出数字电平信号之前，还包括：
    由空气压力传感模块感应到所述开机区域的空气压力变化时，将开机区域内的空气压力变化转化为弱电压信号，并输出至电压放大器模块；
    由所述电压放大器模块将所述弱电压信号进行放大，再经稳压滤波模块滤波后输出稳定的电压至红外感应模块。
  12. 一种移动终端智能开机系统，其包括：
    红外感应模块，用于当检测用户手指位于移动终端的开机区域内时，输出数字电平信号；
    红外测距模块，用于检测用户手指与所述开机区域之间的距离，并输出距离值；
    时钟检测模块，用于在接收到红外感应模块输出的数字电平信号时，检测用户手指在所述开机区域内保持的时间；
    开机控制模块，用于在接收到所述距离值，且用户手指在所述开机区域内保持的时间大于预设时间时，控制移动终端进入开机状态。
  13. 根据权利要求12所述的移动终端智能开机系统，其中还包括：红外温度检测模块，用于在接收到红外感应模块输出的数字电平信号时检测用户手指的温度。
  14. 根据权利要求13所述的移动终端智能开机系统，其特征在于，所述红外温度检测模块包括：
    红外能量聚焦单元，用于在接收到红外感应模块输出的高电平时，检测用户手指辐射的红外能量；
    电压转换单元，用于将所述红外能量转换为电压信号；
    温度转换单元，用于将所述电压信号转换为温度，并输出至开机控制模块。
  15. 根据权利要求14所述的移动终端智能开机系统，其中所述开机控制模还用于：判断用户手指的温度是否在预设温度范围内，且用户手指与所述开机区域之间的距离是否小于预设距离；若是，则当用户手指在所述开机区域内保持的时间大于第一预设时间时，控制移动终端正常开机；若否，则当用户手指在所述开机区域内保持的时间大于第二预设时间时，控制移动终端强制开机。
  16. 根据权利要求12所述的移动终端智能开机系统，其中所述时钟检测模块包括：
    时钟检测单元，用于在接收到红外感应模块输出的低电平时，输出时钟脉冲信号；
    时钟计数单元，用于记录所述时钟脉冲信号的高电平的持续时间。
  17. 根据权利要求12所述的移动终端智能开机系统，其中还包括：
    空气压力传感模块，用于当感应到所述开机区域的空气压力变化时，将开机区域内的空气压力变化转化为弱电压信号，并输出至电压放大器模块；
    电压放大器模块，用于将所述弱电压信号进行放大，并将所述被放大的弱电压信号输出至稳压滤波模块；
    稳压滤波模块，用于将所述被放大的弱电压信号进行滤波，并输出稳定的电压至红外感应模块。
PCT/CN2016/098027 2015-12-25 2016-09-05 一种移动终端智能开机系统及其方法 Ceased WO2017107562A1 (zh)

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