WO2016197886A1 - 一种实现对智能移动设备进行控制的方法及装置 - Google Patents

一种实现对智能移动设备进行控制的方法及装置 Download PDF

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Publication number
WO2016197886A1
WO2016197886A1 PCT/CN2016/084790 CN2016084790W WO2016197886A1 WO 2016197886 A1 WO2016197886 A1 WO 2016197886A1 CN 2016084790 W CN2016084790 W CN 2016084790W WO 2016197886 A1 WO2016197886 A1 WO 2016197886A1
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human body
smart device
mobile smart
absorption ratio
mobile
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PCT/CN2016/084790
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English (en)
French (fr)
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沈少武
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中兴通讯股份有限公司
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Publication of WO2016197886A1 publication Critical patent/WO2016197886A1/zh

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    • G—PHYSICS
    • G06—COMPUTING; CALCULATING OR 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

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  • This document relates to, but is not limited to, intelligent device control technology, and more particularly to a method and device for implementing control of a smart mobile device.
  • Intelligent mobile devices are developing in the extreme direction of miniaturization and interface enlargement.
  • miniaturized devices such as smart bracelets and smart watches
  • the screen interface is too small or has no interface, which brings inconvenience to the user operating the device.
  • large-size mobile phones such as smartphones or tablets (PAD, portable android device) larger than 5 inches
  • PAD portable android device
  • the mobile phone unlocking scheme is generally used to activate the mobile phone interface: the unlocking of the mobile terminal and the smart wearable device is generally implemented by a password, a sliding unlocking, a long press unlocking, a fingerprint unlocking, a drawing unlocking, and the like.
  • the above unlocking method requires the finger to directly touch the screen to complete the screen, that is to say, the non-contact operation, that is, the air gap operation, cannot be performed; at the same time, the implementation site is mainly limited to the finger or the touch pen, and the other parts of the human body cannot be used to unlock the space.
  • the mobile phone control scheme is generally used to activate the mobile phone interface, and the manipulation of the mobile phone function: the mobile phone control is also based on a direct touch resistance or a capacitive screen, or a physical button to achieve a corresponding operation.
  • the manipulation of the mobile terminal it is generally done by directly touching the physical button with the finger, or the finger touches the UI interface button corresponding to the screen of the mobile phone to perform the manipulation, and the non-contact manipulation cannot be performed.
  • the outer sensor receives a structured light pattern that is reflected by the human body.
  • the processing chip calculates spatial information of the human body of the object according to the position and the degree of deformation of the receiving pattern on the camera, that is, through screen and graphic capture to provide functions such as gesture recognition.
  • the above method requires an additional infrared sensor or camera, and requires a specific dot matrix model, which is also limited to finger manipulation, and cannot be manipulated by other parts of the human body.
  • the embodiment of the invention provides a method and a device for implementing control on an intelligent mobile device, which can realize the control of the smart mobile device through the preset part of the human body.
  • An embodiment of the present invention provides a method for implementing control on a mobile smart device, including:
  • the absorption ratio information of the mobile smart device to the human body sensing is determined according to the detected parameters of the human body approaching the mobile smart device;
  • the control command is selected and the mobile intelligent device is controlled according to the selected control command.
  • the determining, according to the detected parameters of the human body approaching the mobile smart device, determining the absorption ratio information of the mobile smart device to the human body sensing comprises:
  • Collecting parameters of the human body close to the mobile intelligent device selecting the most sensitive acquisition value, corresponding to the antenna position, the frequency point and the human body part; the most sensitive acquisition value is the most sensitive value;
  • the collected parameters are corrected on the original parametric model and converted into information on the absorption ratio of the human body sensing by the mobile smart device at the antenna position.
  • the method further includes:
  • the parameter of the human body that needs to be detected to approach the mobile smart device is preset through a user interface, including: a body part and a distance that requires human body control, and/or a rate of approaching or moving away from, And/or corresponding antenna position or angle;
  • the parameter of the human body that needs to be detected to approach the mobile smart device is a preset fixed parameter, including: a body part and a distance that requires human body control, and a corresponding antenna position.
  • the method before the determining, by the mobile smart device, the absorption ratio information of the human body sensing, the method further includes:
  • the absorption ratio information is converted.
  • controlling the mobile smart device includes:
  • control instruction is selected and the mobile smart device boot interface is unlocked according to the selected control command, including:
  • the process of generating the plurality of control instructions includes:
  • the plurality of control commands are generated according to different absorption ratio information and a correspondence relationship between the absorption ratio information of the human body sensing and the control command set by the mobile smart device.
  • An embodiment of the present invention further provides an apparatus for controlling a mobile smart device, including a detecting module, an acquiring module, a setting storage module, and a control module;
  • the detecting module is configured to detect a parameter of the human body approaching the mobile smart device when starting to control the mobile smart device by using human body sensing;
  • the acquiring module is configured to determine, according to the detected parameter that the human body approaches the mobile smart device, the absorption ratio information of the mobile smart device to the human body sensing, and output the information to the control module;
  • the control module is configured to select a control instruction according to the determined absorption ratio information of the mobile smart device to the human body sensing and a preset relationship corresponding to the setting storage module, and control the mobile smart device according to the selected control instruction.
  • the detecting module is configured to detect a parameter of the human body approaching the mobile smart device by collecting parameters of the user's human body approaching the mobile smart device, selecting the most sensitive acquisition value, corresponding to the antenna position, the frequency point, and Body parts.
  • the detecting module is further configured to: detect whether the collecting is successful, and if the collecting is successful and the collected parameters are identifiable, continue to select the most sensitive collected value.
  • the acquiring module is configured to: determine, according to the detected parameters of the human body approaching the mobile smart device, the absorption ratio information of the mobile smart device to the human body sensing: according to the collected human body, the parameter of the mobile smart device is approached Correction on the original parametric model and conversion to the absorption ratio information of the human body sensing by the mobile smart device at the antenna position.
  • the acquiring module is configured to: determine, according to the detected parameter of the human body approaching the mobile smart device, the absorption ratio information of the mobile smart device to the human body sensing: the collected magnetocaloric signal or the electromagnetic field After the signal is subjected to external interference parameter filtering and amplification processing, the absorption ratio information is converted.
  • the technical solution of the present application includes: when starting to control the mobile smart device by using human body sensing, determining the absorption ratio information of the mobile smart device to the human body sensing according to the detected parameter of the human body approaching the mobile smart device; The determined absorption ratio information of the mobile smart device to the human body sensing and the corresponding relationship between the absorption information of the mobile smart device and the human body sensing and the control command are selected, the control command is selected, and the mobile smart device is controlled according to the selected control command.
  • the control of the smart mobile device is realized intelligently, conveniently, and quickly.
  • FIG. 1 is a flowchart of a method for implementing control on an intelligent mobile device according to an embodiment of the present invention
  • FIG. 2 is a schematic structural diagram of a device for implementing control on an intelligent mobile device according to an embodiment of the present invention.
  • terminals such as mobile terminals and smart wearable devices will have cellular communications such as second-generation mobile communications (2G), third-generation mobile communications (3G), and fourth-generation mobile communications (4G).
  • Multi-mode multi-frequency antenna for short-distance data transmission and audio transmission, mobile terminals and smart wearable devices will have Bluetooth, Wi-Fi antenna 2.4G/5G industrial, scientific, medical (ISM, Industrial Scientific Medical) ) Band antennas; mobile terminals and smart wearable devices will have global positioning system (GPS), global navigation system (GLONASS, GLOBAL NAVIGATION SATELLITE SYSTEM), Beidou, Galileo and other antennas due to satellite positioning requirements;
  • GPS global positioning system
  • GLONASS global navigation system
  • GLONASS global navigation system
  • Galileo Galileo and other antennas due to satellite positioning requirements
  • NFC Near-field communication
  • the human body affects the radiation characteristics of the antenna due to the effect of its own antenna effect in the region near the magnetic field of the antenna. That is to say, the antenna will have a certain induction to the human body, and the distance between the different parts of the human body and the mobile terminal and the smart wearable device, the motion state, and the different antenna types will cause different antenna sensing parameters.
  • FIG. 1 is a flowchart of a method for implementing control on an intelligent mobile device according to an embodiment of the present invention. As shown in FIG. 1 , the method includes the following steps:
  • Step 101 When starting to control the mobile smart device by using human body sensing, determining the absorption ratio of the mobile smart device to the human body sensing according to the detected parameter of the human body approaching the mobile smart device information.
  • the absorption ratio information of the mobile intelligent device to the human body is used to identify the electromagnetic energy absorbed by the human body tissue per unit time unit mass.
  • the absorption of the human body by the mobile smart device is related to the distance between the information and the body part of the human body and the distance of the body part from the mobile smart device; the absorption ratio information, the body part of the human body, and the distance between the body part of the human body and the mobile smart device are three The relationship establishes the original parametric model.
  • the human body approaching the mobile smart device may include the action or posture of the human body.
  • the parameters of the human body that need to be collected in this step to approach the mobile smart device may be preset through a user interface, such as: a body part and distance that requires human body control, and/or a rate of approaching or moving away from the human body, and/or a corresponding antenna position. Or angle, etc., and then collect according to the parameters set this time. It may also be a fixed parameter set in advance, such as a body part and a distance required by the human body, and a corresponding antenna position. At this time, when the mobile smart device is controlled by using the human body induction, the human body is automatically brought into proximity to the mobile smart device.
  • the parameters can be collected. among them,
  • the method for collecting body parts and distances that need to be controlled by the human body includes: comparing the inductive absorption ratio corresponding to the collected human body parts of the mobile smart device with a known original parameter model, and determining the specific proximity of the mobile smart device. The body part and the distance from the part to the mobile smart device.
  • the manner of collecting the rate of approaching or moving away from the human body includes: calculating a rate of change of the absorption ratio of the mobile smart device to the human body during a preset time, the rate of change being a rate of approaching or moving away from the human body.
  • the sensing part of the antenna that needs the human body to control the moving smart device may be, for example, a finger, a palm, an arm, a face, a head, a chest, a stomach, a waist, a hip, a thigh, etc.; the sensing distance may be, for example, 0 -15 cm, the movement rate is 3 cm / unit time, etc.; if you need to test the gradient control, you can further set the rate of movement of the human body relative to the mobile smart device, such as slow speed, medium speed, fast, etc., and also choose whether to approach or keep away.
  • the position of the antenna of the mobile smart device corresponding to different control commands may be, for example, the LTE main antenna in the lower left corner, the CDMA main antenna in the lower right corner, the diversity antenna in the upper left corner, the GPS antenna in the upper right corner, the WIFI Bluetooth antenna on the right side, the central NFC antenna, and the like.
  • the control instruction can be preset to, For example, power on, power off, LCD screen lighting, LCD screen off, unlock, lock, etc., can also be set to open a function such as Bluetooth, GPS, WiFi, etc., or set to display the screen up and down, front and back page.
  • control command may be a single fixed setting, or may be a plurality of combined settings, such as setting the human face to a mobile smart device such as a mobile phone center NFC antenna 5CM to illuminate the mobile phone screen. It may also be a sequential combination of a plurality of actions in order to complete a complicated operation such as unlocking that requires encryption.
  • the absorption ratio information of the human body after approaching or contacting is obtained, which is specifically divided into the collection of the magnetocaloric parameters and the electromagnetic field parameters, and is converted into corresponding absorption ratio information.
  • the absorption ratio information of the mobile intelligent device to the human body sensing it is necessary to collect the parameters of the human body close to the mobile intelligent device that reflect the information of the absorption ratio, and then convert the corresponding mobile smart device to the human body according to the collected parameters. Inductive absorption ratio information.
  • the absorption ratio information of the antenna for determining the mobile smart device in this step includes:
  • the user's own absorption ratio parameter is personalizedly collected according to the original parameter model. After the acquisition is successful, the original parameter data model is used to update and correct the data. This method is slightly complicated to use, but the encryption and the differentiation are strong. Because different people's height, weight, and weight are different, the media content and conductivity of a certain tissue part of the human body are different. Therefore, the data collection of the independent part is different from the original parameter data model, and the inductive recognition action is difficult to be cracked and imitated.
  • the user personalizes the settings and the higher level of instruction operation settings.
  • the parameters of the human body approaching the mobile smart device include information such as the temperature rise information of the sensitive part of the human body such as the head or the eye, and the amplitude of the electromagnetic field after the human body approaches the antenna of the mobile phone.
  • the most sensitive acquisition value is the most sensitive value of the change. Specifically, it can collect and test multiple sets of values, and the parameters that are sensitive to the human body proximity distance, sensitive to the relevant parts of the human body, and sensitive regions of the antenna are taken as effective values.
  • the human body When the human body is close to the built-in antenna of the mobile phone, it is affected by the electromagnetic radiation of the working antenna. Each of the polar molecules moves under the action of an electromagnetic field and collides with each other, thereby forming a temperature rise of the body. At this time, through the built-in high-precision temperature acquisition device of the mobile phone, the temperature rise of the sensitive part of the human body such as the head or the eye is collected, and the specific heat coefficient of the human tissue material can be obtained to obtain the absorption ratio of the corresponding part.
  • the conversion to an absorption ratio is 2.5 W/kg, wherein W is the unit of electromagnetic energy, kg is the mass unit of human body; if the temperature rise of the eye changes to 0.1 °C, and the relevant method is used to convert the absorption ratio to 5.2 W/kg.
  • the absorption ratio is obtained by the magnetic field collector built in the mobile phone: since the absorption ratio is proportional to the body tissue density and the electric field strength, and inversely proportional to the human tissue conductivity, the amplitude of the electromagnetic field after the human body is approached to the mobile phone antenna can be calculated. Corresponding absorption ratio.
  • the magnetic field detection circuit built in the mobile phone converts the changed magnetic field signal into a voltage signal, and when there is a spatial magnetic field change around the terminal, the magnetic field change on the corresponding direction axis is collected, and then converted into an equal proportional change voltage signal.
  • the NFC coil of the sampling terminal the multiple sets of winding FPC coils built in the back case of the mobile phone or the battery case, and the multiple sets of FPC coils built in the front end or the back end of the mobile phone. Achieves magnetic flux for measuring the vertical direction of the phone.
  • the principle of electromagnetic correlation induction when the magnetic field passing through the NFC coil changes, a corresponding induced electromotive force and current are generated on the coil, and different resonant frequency detection is realized by adjusting the area of the coil and the variable resistance value in series. Then calculate the magnetic field value by testing the voltage.
  • the detection is implemented by a micro magnetoresistive device or a Hall effect device built in the mobile phone, and the magnetoresistive devices are connected in series through the multi-directional form.
  • the magnetoresistance is affected by the external magnetic field, and its magnetization direction and current direction will change.
  • the resistivity and resistance of the magnetoresistor will change.
  • the human body touches the corresponding antenna of the mobile phone the direction of the wireless magnetic field will change.
  • the reluctance bridge balance will change, the resistance value in the corresponding direction will increase, and the resistance value in the opposite direction will decrease. After the difference conversion, the corresponding magnetic field change can be converted into a voltage signal.
  • the method further includes: detecting whether the collection is successful, and if the collection is successful and identifiable, the step of selecting the most sensitive collection value may be continued; if the collection fails, the re-acquisition may be prompted. Wherein, if the collected value is valid, that is, within the inductive detection range, or close to the original parameter model value, the acquisition is considered successful.
  • the step further includes: performing external interference parameter filtering and amplification processing on the collected magnetocaloric or electromagnetic field signals, and then performing conversion of the absorption ratio information.
  • the specific implementation of the filtering, the amplifying, and the absorbing ratio parameter is a common technical means for those skilled in the art, and the specific implementation is not limited to the scope of protection of the present invention, and details are not described herein again.
  • This step also includes:
  • Step 100 Acquire and set a correspondence between the absorption ratio information of the human body sensing and the control instruction of the mobile smart device in advance.
  • the correspondence between the absorption ratio information of the acquired antenna of the mobile smart device and the control command may be set through a preset user interface.
  • the information about the absorption ratio of the mobile intelligent device to the human body in this step includes: collecting the parameters of the human body close to the mobile intelligent device, selecting the most sensitive acquisition value, corresponding to the antenna position, the frequency point and the human body part, and collecting the collected parameters in the original
  • the parametric model is modified and converted to the absorption ratio information of the human body sensing by the mobile smart device at the antenna position.
  • the parameters of the human body approaching the mobile intelligent device include information such as the temperature rise information of the sensitive part of the human body such as the head or the eye, and the amplitude of the electromagnetic field after the human body approaches the antenna of the mobile phone.
  • the most sensitive acquisition value is the most sensitive value of the change.
  • the method for obtaining the absorption ratio information of the antenna of the mobile smart device in this step is completely consistent with the information of the absorption ratio of the antenna of the mobile smart device in step 101, and details are not described herein again.
  • This step emphasizes that the mobile smart device obtains the absorption ratio information of the corresponding mobile smart device to the human body induction by collecting the change of the parameter caused by the human body approaching the mobile smart device; and setting corresponding to different absorption ratio information Different control commands.
  • this sensing relationship between the antenna and the human body can be utilized to determine different controls for mobile smart devices such as mobile terminals and smart wearable devices.
  • Step 102 Select a control instruction according to the determined absorption ratio information of the mobile smart device to the human body sensing and a preset corresponding relationship, and control the mobile smart device according to the selected control instruction.
  • controlling the mobile smart device includes:
  • control command is selected and the mobile smart device boot interface is unlocked according to the selected control command, including:
  • the process of generating the plurality of control instructions includes:
  • the plurality of control commands are generated according to different absorption ratio information and a correspondence relationship between the absorption ratio information of the human body sensing and the control command set by the mobile smart device.
  • the different antennas of the mobile phone can be and number them according to the sequence, such as LTE main antenna A, LTE diversity antenna B, CDMA main antenna C, CDMA sub-antenna D, WIFI antenna E.
  • the user can set the unlocking sequence ABCDE or AEBCD, or set the distance to the antenna to 0-15CM, or set the human body sensing parts such as hands and arms.
  • different distances, different sensing parts or a combination thereof can form an unlocking password of any difficulty.
  • the absorption ratio of the mobile phone antennas in different frequency bands is different, and the absorption ratio is used to identify the electromagnetic energy absorbed by human tissue per unit time unit mass.
  • the change of the absorption ratio of the mobile intelligent device to the human body is mainly affected by the electrical conductivity of the human body, the density of the human tissue, the transmission frequency, and the time.
  • the absorption value is the absorption ratio, some frequency bands are sensitive, and some frequency bands are not sensitive. Since the human body is a conductor when it is close to the antenna of the mobile phone, the body will form a current under the action of the magnetic field, and the electrical conductivity of the human body is proportional to the antenna frequency.
  • GSM, WCDMA, LTE, WIFI, BT and NFC antennas on mobile phones the antenna frequencies are different, for human body The absorption ratio is not the same.
  • the absorption ratio of each antenna is collected, and the sensitive and widely different frequency band is selected as the identification frequency band.
  • the body absorbs the position and area of different mobile phone antennas to collect or test the absorption ratio of the corresponding antenna: at the same distance, the absorption ratio of the human hand relative to the lower left LTE PRX antenna is 0.6 W/kg, and the relative The absorption ratio of the CDMA PRX antenna in the lower right corner is 1.1.
  • Different human tissue parts are close to the antenna, and their absorption ratio is different.
  • human head, human hand, arm, chest, waist, buttocks, thighs, different tissues are presented due to different contents of muscle, tissue fluid, bones, fat, etc.
  • the dielectric constant is different, so the absorption ratio for the antenna magnetic field is different.
  • the user can first select the human body part to be identified through the preset user interface, or perform automatic identification and collection.
  • the detected absorption ratio can be automatically tested according to the test.
  • the absorption ratio is compared with a parameter value stored in advance to determine which part of the human body corresponds to the induction control.
  • the electrical conductivity of human scalp, muscle and fat are 0.6, 1.2 and 0.1 respectively, and the corresponding dielectric constants are 34, 58 and 11, respectively. Then, different human body parts are close to or contact with a certain mobile phone at the same distance. After the antenna area, the measured absorption ratio is different, for example, the absorption ratio of the human hand is 0.9, and the absorption ratio of the waist is 1.3.
  • the absorption ratio is sensitive to the relative distance, when the relative distance between the human body and the mobile phone antenna changes, the absorption ratio will change proportionally. For example, at a distance of 0CM, 5CM, 10CM, 15CM, the distance is larger. The smaller the absorption ratio, although not linear, there will be an order of magnitude change.
  • the different sensing distances can be set in advance, and after the corresponding parameters are collected, when the corresponding antenna of the human body and the mobile phone are in contact with the same distance, the absorbed absorption ratio can be passed, and the corresponding pre-stored or The collected parameter values are compared to achieve human body sensing control at a corresponding distance.
  • different angles of sensing can be achieved by setting different sensing angles in a preset user interaction interface. For example, you can set the palm and mobile phone vertical (90 degrees), horizontal (0 degrees), oblique 45 degrees, 30 degrees angle control, and then by comparing the corresponding parameter values with the preset values, you can achieve different orientations and angles.
  • Suspension sensing recognition control That is to say, as the human body approaches the cell phone antenna at different angles, the main radiation direction of the absorption ratio of the inductive antenna changes.
  • the phone In night mode, the phone enters silent or airplane mode if it is close to the face;
  • the mobile phone When the mobile phone is grasped by the hand and close to the thigh, the mobile phone enters the off-screen standby mode;
  • the sensor of the mobile phone antenna will be different due to the different muscle tissue of the human body, and the mobile phone enters the burglar alarm mode.
  • the alarm is sounded, or 110 is automatically dialed.
  • the combination of different human sensing operating modes can be used to achieve non-contact control of terminal locking and unlocking.
  • the serial number of the LTE main antenna is A
  • the serial number of the LTE diversity antenna is B
  • the serial number of the CDMA main antenna is C
  • CDMA CDMA
  • the serial number of the sub-antenna is D
  • the serial number of the WIFI antenna is E.
  • the user can preset the unlocking order to ABCDE or AEBCD, and set the distance to the antenna to be 0-15CM, or set the part close to the human body such as the hand and arm. Wait. Through this department The action of the column, the combination of the distance and the sensing part, can form an unlocking password of any difficulty.
  • the multi-gesture combination can minimize the problem of mis-locking or unlocking insensitivity.
  • the state or rate of different human sensing operations can also be used to implement other command operation controls of the terminal. such as:
  • the palm is approaching slowly at a certain rate, which can control the screen display of the mobile phone to zoom in, and zoom out when it is far away;
  • the palm is approaching slowly at a certain rate, which can control the sound of the mobile phone to increase, and decrease when it is far away;
  • the antenna near the lower left indicates that the display goes to the previous page
  • the antenna near the lower right indicates that the display goes to the next page.
  • the embodiment of the invention further provides a computer storage medium, wherein the computer storage medium stores computer executable instructions, and the computer executable instructions are used to execute the above method.
  • the method includes a detection module, an acquisition module, a storage module, and a control module.
  • the detecting module is configured to detect a parameter of the human body approaching the mobile smart device when starting to control the mobile smart device by using human body sensing;
  • the acquiring module is configured to determine, according to the detected parameter that the human body approaches the mobile smart device, the absorption ratio information of the mobile smart device to the human body sensing, and output the information to the control module;
  • the storage module is set to set the correspondence between the absorption ratio information of the mobile smart device and the control command.
  • the control module is configured to select a control instruction according to the determined absorption ratio information of the mobile smart device to the human body sensing and the corresponding relationship of setting the storage module, and control the mobile smart device according to the selected control instruction.
  • the detection module is configured to detect the proximity of the human body to the mobile smart device by the following means Number: Collect the parameters of the user's human body close to the mobile smart device, select the most sensitive acquisition value, corresponding to the antenna position, frequency point and body part. Optionally, it is further configured to: detect whether the acquisition is successful, if the acquisition is successful and identifiable, continue to select the most sensitive collection value, and if the collection fails, may prompt to re-acquisition;
  • the obtaining module is configured to determine, according to the detected parameters of the human body approaching the mobile smart device, the absorption ratio information of the mobile smart device to the human body sensing: according to the collected parameters of the human body approaching the mobile smart device, on the original parameter model The correction is made and converted to the absorption ratio information of the human body sensing by the mobile smart device at the antenna position.
  • the obtaining module is configured to: determine, according to the detected parameters of the human body approaching the mobile smart device, the absorption ratio information of the mobile smart device to the human body sensing: externally disturbing the collected magnetocaloric or electromagnetic field signals After the parameter filtering and amplification processing, the absorption ratio information is converted.
  • control module is configured to implement control on the mobile smart device by:
  • control module is configured to implement the selection control instruction by using the selected control instruction to unlock the mobile smart device boot interface according to the selected control instruction:
  • the process of generating the plurality of control instructions includes:
  • the plurality of control commands are generated according to different absorption ratio information and a correspondence relationship between the absorption ratio information of the human body sensing and the control command set by the mobile smart device.
  • the above technical solution can realize the control of the smart mobile device through the space of the preset part of the human body.

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Abstract

一种实现对智能移动设备进行控制的方法及装置，包括当启动利用人体感应对移动智能设备进行控制时，根据检测到的人体接近移动智能设备的参数，确定移动智能设备对人体感应的吸收比信息（101）；根据确定的移动智能设备对人体感应的吸收比信息以及预先设置的移动智能设备对人体感应的吸收比信息与控制指令之间的对应关系，选择控制指令并按照选择出的控制指令对移动智能设备进行控制（102）。通过上述技术方案，智能、便捷、快速地实现了对智能移动设备的控制。

Description

一种实现对智能移动设备进行控制的方法及装置 技术领域
本文涉及但不限于智能设备控制技术，尤指一种实现对智能移动设备进行控制的方法及装置。
背景技术
智能移动设备向微型化和界面大型化两个极端方向发展，对于微型化的设备，比如智能手环、智能手表等，存在屏幕界面太小或无界面的情况，给用户操作设备带来不便。对于大尺寸手机，比如大于5寸以上的智能手机或者平板电脑(PAD，portable android device)，存在界面太大，用户手太小，界面无法单手覆盖的情况，也会给用户操作设备带来不便。
再者，人们在开车或者吃饭的过程中，可能会存在双手手指无法释放或者油污而无法操作智能移动设备的问题，或存在手指残缺的残疾人士无法操作智能移动设备的问题，或存在双手或单手不方便操作智能移动设备的其他情况，从而给用户正常使用智能移动设备带来了不便。
当前在智能移动设备上进行的操控，主要包括如下几种：
一种是，手机解锁方案，一般用于激活手机界面：移动终端及智能穿戴设备的解锁，一般通过密码、滑动解锁、长按解锁、指纹解锁、绘图解锁等来实现。上述解锁方式需要手指直接触屏屏幕完成，也就是说，无法进行非接触操作即隔空操作；同时，实施部位主要局限于手指或者触摸笔，不能用人体其他部位来隔空解锁。
另一种是，手机操控方案，一般用于激活手机界面后，对手机功能的操控：手机操控也是基于直接触摸电阻或电容屏，或者实体按键来实现对应的操作。在移动终端的操控上，一般是通过手指直接接触实体按键来完成，或者手指接触手机屏幕对应的UI界面按钮来进行操控，无法进行非接触操控。
还有一种是，通过激光发射器将结构光投射至前方的人体表面；使用红 外传感器接收人体反射的结构光图案。或者处理芯片根据接收图案在摄像机上的位置和形变程度来计算物体人体的空间信息，即通过画面和图形捕捉以提供手势识别等功能。上述方式需要额外借助于红外传感器或摄像机，需要具体的点阵模型，同样也局限于手指操控，同样不能用人体其他部位来隔空操控。
发明内容
以下是对本文详细描述的主题的概述。本概述并非是为了限制权利要求的保护范围。
本发明实施例提供一种实现对智能移动设备进行控制的方法及装置，能够实现通过人体的预设部位隔空控制智能移动设备。
本发明实施例提供了一种实现对移动智能设备进行控制的方法，包括：
当启动利用人体感应对移动智能设备进行控制时，根据检测到的人体接近移动智能设备的参数，确定移动智能设备对人体感应的吸收比信息；
根据确定的移动智能设备对人体感应的吸收比信息以及预先设置的移动智能设备对人体感应的吸收比信息与控制指令的对应关系，选择控制指令并按照选择出的控制指令对移动智能设备进行控制。
可选地，所述根据检测到的人体接近移动智能设备的参数，确定移动智能设备对人体感应的吸收比信息包括：
对人体接近所述移动智能设备的参数进行采集，选择最敏感采集值，对应天线位置、频点及人体部位；所述最敏感采集值即为变化最灵敏的值；
将采集到的参数在原始参数模型上进行修正，并将其转换为天线位置的移动智能设备对人体感应的吸收比信息。
可选地，在所述对人体接近移动智能设备的参数进行采集之后，还包括：
检测所述采集是否成功，如果所述采集成功且采集的参数可识别，继续执行所述选择最敏感采集值的步骤。
可选地，需要检测的所述人体接近移动智能设备的参数通过用户界面预先设置，包括：需要人体控制的身体部位和距离、和/或接近或者远离速率、 和/或对应天线位置或角度；
或者，
需要检测的所述人体接近移动智能设备的参数为预先设置的固定的参数，包括：需要人体控制的身体部位和距离、对应天线位置。
可选地，所述确定移动智能设备对人体感应的吸收比信息之前，还包括：
对所述采集到的磁热信号或者电磁场信号进行外接干扰参数过滤及放大处理后，再进行吸收比信息的转换。
可选地，所述对移动智能设备进行控制包括：
对移动智能设备开机界面进行解锁、对移动智能设备的应用功能进行操作。
可选地，选择控制指令并按照选择出的控制指令对移动智能设备开机界面进行解锁，包括：
选择多种控制指令，并依次执行完所述多种控制指令后完成对移动智能设备开机界面的的解锁；
其中，所述多种控制指令的产生过程包括：
检测人体接近移动智能设备中做出的一系列的动作，与所述移动智能设备的不同距离、不同人体感应部位或其组合，确定所述一系列的动作，不同距离、不同人体感应部位或其组合对应的不同吸收比信息，根据不同的吸收比信息以及预先设置的移动智能设备对人体感应的吸收比信息与控制指令的对应关系，产生所述多种控制指令。
本发明实施例还提供了一种对移动智能设备进行控制的装置，包括检测模块、获取模块、设置存储模块，及控制模块；其中，
检测模块，设置为当启动利用人体感应对移动智能设备进行控制时，检测人体接近移动智能设备的参数；
获取模块，设置为根据检测到的人体接近移动智能设备的参数，确定移动智能设备对人体感应的吸收比信息，并输出给控制模块；
设置存储模块，设置为设置移动智能设备对人体感应的吸收比信息与控制指令的对应关系；
控制模块，设置为根据确定的移动智能设备对人体感应的吸收比信息以及设置存储模块预先设置的对应关系，选择控制指令并按照选择出的控制指令对移动智能设备进行控制。
可选地，所述检测模块是设置为通过如下方式实现检测人体接近移动智能设备的参数：对用户的人体接近移动智能设备的参数进行采集，选择最敏感采集值，对应天线位置、频点及人体部位。
可选地，所述检测模块还设置为：检测所述采集是否成功，如果所述采集成功且采集的参数可识别，继续选择最敏感采集值。
可选地，所述获取模块是设置为通过如下方式实现根据检测到的人体接近移动智能设备的参数，确定移动智能设备对人体感应的吸收比信息：根据采集到的人体接近移动智能设备的参数，在原始参数模型上进行修正，并将其转换为天线位置的移动智能设备对人体感应的吸收比信息。
可选地，所述获取模块是设置为通过如下方式实现根据检测到的人体接近移动智能设备的参数，确定移动智能设备对人体感应的吸收比信息：对所述采集到的磁热信号或者电磁场信号进行外接干扰参数过滤及放大处理后，再进行吸收比信息的转换。
与相关技术相比，本申请技术方案包括：当启动利用人体感应对移动智能设备进行控制时，根据检测到的人体接近移动智能设备的参数，确定移动智能设备对人体感应的吸收比信息；根据确定的移动智能设备对人体感应的吸收比信息以及预先设置的移动智能设备对人体感应的吸收比信息与控制指令的对应关系，选择控制指令并按照选择出的控制指令对移动智能设备进行控制。通过本发明实施例提供的技术方案，智能、便捷、快速地实现了对智能移动设备的控制。
在阅读并理解了附图和详细描述后，可以明白其他方面。
附图概述
图1为本发明实施例实现对智能移动设备进行控制的方法的流程图；
图2为本发明实施例实现对智能移动设备进行控制的装置的组成结构示意图。
本发明的实施方式
下文中将结合附图对本发明的实施例进行详细说明。需要说明的是，在不冲突的情况下，本申请中的实施例及实施例中的特征可以相互任意组合。
由于远距离通话及数据传输的需要，终端，比如移动终端及智能穿戴设备会拥有蜂窝通讯如第二代移动通讯(2G)、第三代移动通讯(3G)、第四代移动通讯(4G)的多模多频天线；由于中短距离数据传输及音频传输的需要，移动终端及智能穿戴设备会有蓝牙、Wi-Fi天线的2.4G/5G的工业、科学、医学(ISM，Industrial Scientific Medical)频段天线；移动终端及智能穿戴设备由于卫星定位的需要，会拥有全球定位系统(GPS)、全球卫星导航系统(GLONASS，GLOBAL NAVIGATION SATELLITE SYSTEM)、北斗、伽利略等天线；由于短距离射频识别及传输的需要，移动终端及智能穿戴设备会拥有近场通讯(NFC，Near Field Communication)低频天线。这些天线在自由空间和接近、接触人体过程中，由于人体本身介电值、电阻特性的影响，人体在天线近磁场的区域内由于自身天线效应的作用，会影响到天线辐射特性。也就是说，天线对人体会产生一定的感应，而人体不同部位与移动终端及智能穿戴设备的距离、运动状态，以及不同的天线种类，均会造成不同的天线感应参数。
本发明实施例提供的技术方案正是基于天线与人体之间的这种感应关系来确定对终端比如移动终端及智能穿戴设备的不同控制。图1为本发明实施例实现对智能移动设备进行控制的方法的流程图，如图1所示，包括以下步骤：
步骤101：当启动利用人体感应对移动智能设备进行控制时，根据检测到的人体接近移动智能设备的参数，确定移动智能设备对人体感应的吸收比 信息。
其中，移动智能设备对人体感应的吸收比信息，用于标识单位时间单位质量的人体组织所吸收的电磁能量。移动智能设备对人体感应的吸收比信息与人体身体部位以及所述人体身体部位距离移动智能设备的距离有关；所述吸收比信息、人体身体部位、以及人体身体部位离移动智能设备的距离三者的关系可建立原始参数模型。
本步骤中，人体接近移动智能设备可以包括人体的动作或姿态。
本步骤中的需要采集的人体接近移动智能设备的参数可以预先通过用户界面设置，比如：可以是需要人体控制的身体部位和距离、和/或接近或者远离人体的速率、和/或对应天线位置或角度等，然后按照此次设置的参数进行采集。也可以是预先设置好的固定的参数，比如需要人体控制的身体部位和距离、对应天线位置，此时，当启动利用人体感应对移动智能设备进行控制时，自动进入对人体接近移动智能设备的参数的采集即可。其中，
采集需要人体控制的身体部位和距离的实现方式包括：将采集到的接近移动智能设备的人体部位对应的感应吸收比与已知的原始参数模型进行对比，可判断出具体的接近移动智能设备的人体部位以及该部位接近移动智能设备的距离。
采集接近或远离人体的速率的实现方式包括：计算预设时间内移动智能设备对人体感应的吸收比的变化速率，所述变化速率即为接近或远离人体的速率。
需要人体控制的身体部位即感应移动智能设备的天线的感应部位可以是，比如手指、手掌、胳膊、面部、头部、胸部、肚子、腰部、臀部、大腿等；感应的距离可以是，比如0-15公分，移动速率为3公分/单位时间等；如果需要测试渐变控制，可以进一步设置人体相对移动智能设备的移动的速率，如慢速、中等速率、快速等，同时还可以选择是接近还是远离。
关于不同控制指令对应的移动智能设备的天线的位置可以是，比如左下角LTE主天线、右下角CDMA主天线、左上角分集天线、右上角GPS天线、右侧边WIFI蓝牙天线、中部NFC天线等。其中，控制指令可以预先设置为， 比如开机、关机、LCD屏幕点亮、LCD屏幕熄灭、解锁、加锁等，还可以设置为打开某个功能如蓝牙、GPS、WiFi等，或者设置为进行显示画面上下移动、前后翻页等。需要说明的是，上述控制指令可以是单个固定的设置，也可以是多个组合的设置，比如设置为人体面部接近移动智能设备如手机中心NFC天线5CM处为点亮手机屏幕等。也可以是多个动作的顺序组合，以便于完成如解锁等需要加密的复杂操作等。
本步骤中获取人体接近或者接触后的吸收比信息，具体分为对磁热参数和电磁场参数的采集，并将其转换为对应的吸收比信息。要想获得移动智能设备对人体感应的吸收比信息，就需要对体现吸收比值的信息的人体接近移动智能设备的参数进行采集，然后再根据采集到的参数来转换为对应的移动智能设备对人体感应的吸收比信息。
本步骤中的确定移动智能设备的天线的吸收比信息包括：
对人体接近移动智能设备的参数进行采集，选择最敏感采集值，对应天线位置、频点及人体部位，将采集的参数在原始参数模型上进行修正，并将其转换为天线位置的移动智能设备对人体感应的吸收比信息。本发明实施例根据原始参数模型对用户自身的吸收比参数进行个性化采集，采集成功后会结合原始参数数据模型进行数据更新和修正，这种方式使用起来略微复杂，但是加密性和差异化强，由于不同人的高矮胖瘦不一样，人体某个组织部位的介质含量及电导率不一样，因此独立部位的数据采集，不同于原始参数数据模型，感应识别动作难以被破解和模仿，适用于用户个性化定义设置和安全级别比较高的指令操作设置。
其中，
人体接近移动智能设备的参数包括人体敏感部位如头部或眼部的温升信息、人体接近手机天线后的电磁场振幅等信息。最敏感采集值即为变化最灵敏的值，具体可以通过采集测试多组值，将其中对人体接近距离敏感，人体相关部位敏感，天线对应区域敏感的参数作为有效值。
举例来看：
人体在接近手机内置天线时，由于受到工作天线电磁辐射的影响，体内 的各个极性分子在电磁场作用下会运动而相互碰撞，从而形成机体升温。此时，通过手机内置高精度温度采集器件，采集人体敏感部位如头部或眼部的温升变化，再加上人体组织材料的比热系数，即可得到对应部位的吸收比值。比如：在同样感应时间下，距离头部0.5CM下：假设头部温升变化为0.05℃，并采用相关方法，如热感应转换计算算法，转换为吸收比值即为2.5W/kg，其中，W为电磁能量单位，kg为人体质量单位；如果眼部的温升变化为0.1℃，并采用相关方法转换为吸收比值为5.2W/kg。
或者，通过手机内置的磁场采集器来获取吸收比值：由于吸收比值和人体组织密度及电场强度成正比，而与人体组织电导率成反比，通过采集人体接近手机天线后的电磁场振幅即可计算出对应的吸收比值。可选地：通过手机内置的磁场检测电路，将变化的磁场信号转化为电压信号，当终端周围有空间磁场变化时，采集对应方向轴上的磁场变化，进而转化为等比例的变化电压信号。其中，可以通过采样终端自带的NFC线圈，内置于手机后壳或电池壳的多组绕线FPC线圈来实现用于测试水平方向的磁通量，通过内置于手机前端或后端的多组FPC线圈来实现用于测量手机垂直方向的磁通量。通过电磁相关感应的原理，当通过NFC线圈的磁场发生改变时，线圈上会产生对应的感生电动势及电流，通过调整线圈的面积，以及串联的可变电阻值来实现不同的谐振频率检测，然后通过测试到电压计算出磁场值。可选地，如果检测到是远距离人体感应，或是高频的人体感应，则通过内置于手机的微型磁阻器件或霍尔效应器件来实现检测，磁阻器件通过多向形式相互串联在一起，磁电阻由于受到外界磁场的影响，其磁化方向和电流方向都会发生变化，进而磁阻器的电阻率及阻值会发生改变，当人体接触手机对应天线后，无线磁场方向会发生变化，磁阻电桥平衡会发生改变，对应方向上的电阻值会发增加，而相反方向上的电阻值会减小，经过差值转换后，对应的磁场变化即可转换为电压信号。
可选地，还包括：检测是否采集成功，如果采集成功且可识别，可以继续执行选择最敏感采集值的步骤；如果采集失败，可以提示重新采集。其中，如果采集的值有效，即在可感应检测范围内，或者与原始参数模型值接近，则认为采集成功。
可选地，本步骤还包括：可以对采集到的磁热信号或者电磁场信号进行外接干扰参数过滤及放大处理后，再进行吸收比信息的转换。其中，具体如何实现过滤、放大，以及吸收比参数的转换属于本领域技术人员的惯用技术手段，其具体实现并不用于限定本发明的保护范围，这里不再赘述。
本步骤之前还包括：
步骤100：预先获取并设置移动智能设备对人体感应的吸收比信息与控制指令之间的对应关系。
本步骤中，可以通过预先设置的用户界面设置获取的移动智能设备的天线的吸收比信息与控制指令之间的对应关系。
本步骤中的获取移动智能设备对人体感应的吸收比信息包括：对人体接近移动智能设备的参数进行采集，选择最敏感采集值，对应天线位置、频点及人体部位，将采集的参数在原始参数模型上进行修正，并将其转换为天线位置的移动智能设备对人体感应的吸收比信息。其中，人体接近移动智能设备的参数包括人体敏感部位如头部或眼部的温升信息、人体接近手机天线后的电磁场振幅等信息。最敏感采集值即为变化最灵敏的值，具体可以通过采集测试多组值，将其中对人体接近距离敏感，人体相关部位敏感，天线对应区域敏感的参数作为有效值。本步骤中的获取移动智能设备的天线的吸收比信息的具体实现方法与步骤101中的确定移动智能设备的天线的吸收比信息完全一致，这里不再赘述。
本步骤强调的是，移动智能设备通过对由于人体接近移动智能设备而引起的参数的改变的采集，获得了对应的移动智能设备对人体感应的吸收比信息；并且对不同的吸收比信息对应设置了不同的控制指令。这样，在移动智能设备的后续使用中，就可以利用天线与人体之间的这种感应关系来确定对移动智能设备比如移动终端及智能穿戴设备的不同控制。
步骤102：根据确定的移动智能设备对人体感应的吸收比信息以及预先设置的对应关系，选择控制指令并按照选择出的控制指令对移动智能设备进行控制。
可选的，所述对移动智能设备进行控制包括：
对移动智能设备开机界面进行解锁、对移动智能设备的应用功能进行操作。
可选的，选择控制指令并按照选择出的控制指令对移动智能设备开机界面进行解锁，包括：
选择多种控制指令，并依次执行完所述多种控制指令后完成对移动智能设备开机界面的的解锁；
其中，所述多种控制指令的产生过程包括：
检测人体接近移动智能设备中做出的一系列的动作，与所述移动智能设备的不同距离、不同人体感应部位或其组合，确定所述一系列的动作，不同距离、不同人体感应部位或其组合对应的不同吸收比信息，根据不同的吸收比信息以及预先设置的移动智能设备对人体感应的吸收比信息与控制指令的对应关系，产生所述多种控制指令。
如，要实现一个手机解锁的过程，可以让人手靠近或贴近手机不同的天线，并按照序列编号，如LTE主天线A,LTE分集天线B,CDMA主天线C，CDMA分天线D,WIFI天线E,用户可以设置好解锁顺序ABCDE或者AEBCD,或者设置好接近天线的距离0-15CM,或者设置好人体感应部位如手，胳膊等。通过这一系列的动作，不同距离、不同感应部位或其组合，可以形成任意难度的解锁密码。
下面结合几个实施例对本发明方法进行详细描述。
不同频段的手机天线的吸收比不同，吸收比用于标识单位时间单位质量的人体组织所吸收的电磁能量。移动智能设备对人体感应的吸收比的改变主要受到人体各器官电导率，人体组织密度，传输频率，时间等几个方面的影响。当人体在接近移动终端天线时，人体组织会对电磁波产生吸收，此吸收值即为吸收比，有的频段敏感，有的频段不敏感。由于人体在靠近手机天线时，人体本身就是一个导体，在磁场的作用下体内会形成电流，而人体的电导率和天线频率成正比，频点越低，电导率越小，人体内高频电流就越大，电磁辐射及场强吸收就越大，因此吸收比值就越高。比如：手机上GSM、WCDMA、LTE、WIFI、BT和NFC天线，其天线频率各不相同，对人体形 成的吸收比就不一样。在进行天线人体感应参数采集时，再采集到每个天线的吸收比后，会选择敏感且差异大的频段为识别频段。比如：通过人体接触不同的手机天线所在的位置和区域，来采集或测试对应该天线的吸收比值：在同一个距离下，人手相对于左下LTE PRX天线的吸收比值为0.6W/kg，而相对于右下角CDMA PRX天线的吸收比值为1.1。
不同的人体组织部位靠近天线后，其吸收比也不一样，比如人头，人手，胳膊，胸部，腰部，臀部，大腿，不同的组织由于肌肉，组织液，骨骼，脂肪等含量的不同，呈现出来的介电常数不一样，因此对于天线磁场的吸收比就不同。此时，用户首先可以通过预先设置的用户界面，选择需要识别的人体部位，或者进行自动识别采集，当手机靠近这些选择出的人体部位时，通过检测到的吸收比值，即可自动根据测试出的吸收比值，在与预先存储的参数值相比较，从而判断出是人体对应的哪个部位在进行感应控制。比如：人体头皮、肌肉、脂肪的电导率分别是0.6、1.2和0.1，对应的介电常数分别是34、58和11，那么，不同的人体部位在同一个距离下，接近或者接触某一个手机天线区域后，所测试出来的吸收比不一样，比如人手的吸收比为0.9，而腰部的吸收比则为1.3。
由于吸收比对相对距离很敏感，因此，当人体和手机天线的相对距离发生改变时，其吸收比值会有成比例的改变，比如在距离人体0CM、5CM、10CM、15CM下，距离越大，吸收比值越小，虽然不是线性关系，但还是会有数量级的改变。本发明实施例中，可以通过预先设置的不同的感应识别距离，在采集到对应的参数后，当人体和手机对应天线接触相同的距离后，即可通过测试到的吸收比值，与对应预存或者采集到的参数值相比较，从而实现对应距离下的人体感应控制。
由于不同人体相对手机天线不同方位的吸收比不一样，因此当手机和人体相对位置改变时，或者当人机成不同夹角时，呈现出的吸收比会不一样。如表1所示，显示了两种频段即GSM900和GSM1900，四种角度位置分别相对于人体头部的吸收比值：
  90° 60° 30° 0°
GSM900 1.2 0.9 0.6 0.4
GSM1900 0.4 0.6 0.2 0.3
表1
本发明实施例提供的具体实施例中，可以通过在预先设置的用户交互界面设置不同的感应角度，即可实现不同角度的感应操控。比如：可以设置手掌和手机垂直(90度)、水平(0度)、斜45度、30度角度操控，再通过采集对应的参数值和预设值相比较，即可实现不同方位和角度的悬浮感应识别控制。也就是说，随着人体以不同的角度接近手机天线，感应天线的吸收比的主要辐射方向改变。
举例来看：
不同的人体感应操作或不同的人体感应部位对应不同的行为模式，同时开启或关闭不同的移动终端或智能穿戴设备对应的相关功能。比如：
在夜间模式下，如果贴近人脸时，手机进入静音或飞机模式；
手机靠近胸部5cm达到对应时长时，手机进而会议静音模式；
在手掌握住手机且贴近大腿时，手机进入灭屏待机模式；
在手掌握住手机且贴近脸部10cm，时间达到5S设定值时，手机自动点亮屏幕；
手机放入裤子后口袋(这里强调的是手机靠近了人体的不同部位如臀部)时，由于人体肌肉组织的不同，对手机天线的感应会不同，手机进入防盗报警模式。当手机被拿出且在预先设定的时间内没有解锁时，鸣叫报警，或自动拨打110。
不同的人体感应操作模式的组合，可以用来实现终端加锁及解锁的非接触控制。比如：
要实现一个手机解锁的过程，可以让人手靠近或贴近手机不同的天线，并按照序列编号，如LTE主天线的序号为A，LTE分集天线的序号为B，CDMA主天线的序号为C，CDMA分天线的序号为D，WIFI天线的序号为E，用户可以预先设置好解锁顺序为A-B-C-D-E或者A-E-B-C-D，并设置好接近天线的距离为0-15CM，或者是设置好接近人体的部位如手，胳膊等。通过这一系 列的动作，距离和感应部位的组合，可以形成任意难度的解锁密码。
可选地，由于磁场感应存在一定的距离误差，所以通过多手势组合可以最大限度的降低误解锁或解锁不灵敏问题。
不同的人体感应操作的状态或者速率，也可以用来实现终端的其他指令操作控制。比如：
手掌以一定速率慢速靠近，可以控制手机屏幕显示放大，远离则缩小；
手掌以一定速率慢速靠近，可以控制手机声音增大，远离则减小；
靠近位于左下方的天线表示显示进入上一页，靠近位于右下方的天线表示显示进入下一页。
本发明实施例还提供了一种计算机存储介质，所述计算机存储介质中存储有计算机可执行指令，所述计算机可执行指令用于执行上述方法。
图2为本发明实施例实现对移动智能设备进行控制的装置的组成结构示意图，如图2所示，包括检测模块、获取模块、设置存储模块，及控制模块；其中，
检测模块，设置为当启动利用人体感应对移动智能设备进行控制时，检测人体接近移动智能设备的参数；
获取模块，设置为根据检测到的人体接近移动智能设备的参数，确定移动智能设备对人体感应的吸收比信息，并输出给控制模块；
设置存储模块，设置为设置移动智能设备对人体感应的吸收比信息与控制指令的对应关系。
控制模块，设置为根据确定的移动智能设备对人体感应的吸收比信息以及设置存储模块设置的对应关系，选择控制指令并按照选择出的控制指令对移动智能设备进行控制。
其中，
检测模块是设置为通过如下方式实现检测人体接近移动智能设备的参 数：对用户的人体接近移动智能设备的参数进行采集，选择最敏感采集值，对应天线位置、频点及人体部位。可选地，还设置为：检测是否采集成功，如果采集成功且可识别，继续选择最敏感采集值，如果采集失败，可以提示重新采集；
获取模块是设置为通过如下方式实现根据检测到的人体接近移动智能设备的参数，确定移动智能设备对人体感应的吸收比信息：根据采集到的人体接近移动智能设备的参数，在原始参数模型上进行修正，并将其转为天线位置的移动智能设备对人体感应的吸收比信息。
可选地，获取模块是设置为通过如下方式实现根据检测到的人体接近移动智能设备的参数，确定移动智能设备对人体感应的吸收比信息：对采集到的磁热信号或者电磁场信号进行外接干扰参数过滤及放大处理后，再进行吸收比信息的转换。
可选地，所述控制模块是设置为通过如下方式实现对移动智能设备进行控制：
对移动智能设备开机界面进行解锁、对移动智能设备的应用功能进行操作。
可选地，所述控制模块是设置为通过如下方式实现选择控制指令并按照选择出的控制指令对移动智能设备开机界面进行解锁：
选择多种控制指令，并依次执行完所述多种控制指令后完成对移动智能设备开机界面的的解锁；
其中，所述多种控制指令的产生过程包括：
检测人体接近移动智能设备中做出的一系列的动作，与所述移动智能设备的不同距离、不同人体感应部位或其组合，确定所述一系列的动作，不同距离、不同人体感应部位或其组合对应的不同吸收比信息，根据不同的吸收比信息以及预先设置的移动智能设备对人体感应的吸收比信息与控制指令的对应关系，产生所述多种控制指令。
工业实用性
上述技术方案能够实现通过人体的预设部位隔空控制智能移动设备。

Claims (14)

  1. 一种实现对移动智能设备进行控制的方法，包括：
    当启动利用人体感应对移动智能设备进行控制时，根据检测到的人体接近移动智能设备的参数，确定移动智能设备对人体感应的吸收比信息；
    根据确定的移动智能设备对人体感应的吸收比信息以及预先设置的移动智能设备对人体感应的吸收比信息与控制指令的对应关系，选择控制指令并按照选择出的控制指令对移动智能设备进行控制。
  2. 根据权利要求1所述的方法，其中，所述根据检测到的人体接近移动智能设备的参数，确定移动智能设备对人体感应的吸收比信息包括：
    对人体接近所述移动智能设备的参数进行采集，选择最敏感采集值，对应天线位置、频点及人体部位；所述最敏感采集值即为变化最灵敏的值；
    将采集到的参数在原始参数模型上进行修正，并将其转换为所述天线位置的移动智能设备对人体感应的吸收比信息。
  3. 根据权利要求2所述的方法，还包括：
    在所述对人体接近移动智能设备的参数进行采集之后，检测所述采集是否成功，如果所述采集成功且采集的参数可识别，继续执行所述选择最敏感采集值的步骤。
  4. 根据权利要求1～3任一项所述的方法，其中，需要检测的所述人体接近移动智能设备的参数通过用户界面预先设置，包括：需要人体控制的身体部位和距离、和/或接近或者远离速率、和/或对应天线位置或角度；
    或者，
    需要检测的所述人体接近移动智能设备的参数为预先设置的固定的参数，包括：需要人体控制的身体部位和距离、对应天线位置。
  5. 根据权利要求2或3所述的方法，还包括：
    所述确定移动智能设备对人体感应的吸收比信息之前，对所述采集到的磁热信号或者电磁场信号进行外接干扰参数过滤及放大处理后，再进行吸收比信息的转换。
  6. 根据权利要求1所述的方法，其中，所述对移动智能设备进行控制包括：
    对移动智能设备开机界面进行解锁、对移动智能设备的应用功能进行操作。
  7. 根据权利要求6所述的方法，其中，选择控制指令并按照选择出的控制指令对移动智能设备开机界面进行解锁，包括：
    选择多种控制指令，并依次执行完所述多种控制指令后完成对移动智能设备开机界面的的解锁；
    其中，所述多种控制指令的产生过程包括：
    检测人体接近移动智能设备中做出的一系列的动作，与所述移动智能设备的不同距离、不同人体感应部位或其组合，确定所述一系列的动作，不同距离、不同人体感应部位或其组合对应的不同吸收比信息，根据不同的吸收比信息以及预先设置的移动智能设备对人体感应的吸收比信息与控制指令的对应关系，产生所述多种控制指令。
  8. 一种对移动智能设备进行控制的装置，包括检测模块、获取模块、设置存储模块，及控制模块；其中，
    检测模块，设置为当启动利用人体感应对移动智能设备进行控制时，检测人体接近移动智能设备的参数；
    获取模块，设置为根据检测到的人体接近移动智能设备的参数，确定移动智能设备对人体感应的吸收比信息，并输出给控制模块；
    设置存储模块，设置为设置移动智能设备对人体感应的吸收比信息与控制指令的对应关系；
    控制模块，设置为根据确定的移动智能设备对人体感应的吸收比信息以及设置存储模块设置的对应关系，选择控制指令并按照选择出的控制指令对移动智能设备进行控制。
  9. 根据权利要求8所述的装置，其中，所述检测模块是设置为通过如下方式实现检测人体接近移动智能设备的参数：对用户的人体接近移动智能设备的参数进行采集，选择最敏感采集值，对应天线位置、频点及人体部位。
  10. 根据权利要求9所述的装置，所述检测模块还设置为：检测所述采集是否成功，如果所述采集成功且采集的参数可识别，继续选择最敏感采集值。
  11. 根据权利要求8所述的装置，其中，所述获取模块是设置为通过如下方式实现根据检测到的人体接近移动智能设备的参数，确定移动智能设备对人体感应的吸收比信息：根据采集到的人体接近移动智能设备的参数，在原始参数模型上进行修正，并将其转换为所述天线位置的移动智能设备对人体感应的吸收比信息。
  12. 根据权利要求9～11任一项所述的装置，所述获取模块是设置为通过如下方式实现根据检测到的人体接近移动智能设备的参数，确定移动智能设备对人体感应的吸收比信息：对所述采集到的磁热信号或者电磁场信号进行外接干扰参数过滤及放大处理后，再进行吸收比信息的转换。
  13. 根据权利要求8所述的装置，其中，所述控制模块是设置为通过如下方式实现对移动智能设备进行控制：
    对移动智能设备开机界面进行解锁、对移动智能设备的应用功能进行操作。
  14. 根据权利要求13所述的方法，其中，所述控制模块是设置为通过如下方式实现选择控制指令并按照选择出的控制指令对移动智能设备开机界面进行解锁：
    选择多种控制指令，并依次执行完所述多种控制指令后完成对移动智能设备开机界面的的解锁；
    其中，所述多种控制指令的产生过程包括：
    检测人体接近移动智能设备中做出的一系列的动作，与所述移动智能设备的不同距离、不同人体感应部位或其组合，确定所述一系列的动作，不同距离、不同人体感应部位或其组合对应的不同吸收比信息，根据不同的吸收比信息以及预先设置的移动智能设备对人体感应的吸收比信息与控制指令的对应关系，产生所述多种控制指令。
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