WO2014079279A1 - 对信号进行处理的方法及电子设备 - Google Patents

对信号进行处理的方法及电子设备 Download PDF

Info

Publication number
WO2014079279A1
WO2014079279A1 PCT/CN2013/084800 CN2013084800W WO2014079279A1 WO 2014079279 A1 WO2014079279 A1 WO 2014079279A1 CN 2013084800 W CN2013084800 W CN 2013084800W WO 2014079279 A1 WO2014079279 A1 WO 2014079279A1
Authority
WO
WIPO (PCT)
Prior art keywords
electronic device
pressing
pressure value
value data
pressing operations
Prior art date
Application number
PCT/CN2013/084800
Other languages
English (en)
French (fr)
Inventor
陈建江
阚玉伦
肖其虎
Original Assignee
中兴通讯股份有限公司
Priority date (The priority date is an assumption and is not a legal conclusion. Google has not performed a legal analysis and makes no representation as to the accuracy of the date listed.)
Filing date
Publication date
Application filed by 中兴通讯股份有限公司 filed Critical 中兴通讯股份有限公司
Publication of WO2014079279A1 publication Critical patent/WO2014079279A1/zh

Links

Classifications

    • GPHYSICS
    • G06COMPUTING; CALCULATING OR COUNTING
    • G06FELECTRIC DIGITAL DATA PROCESSING
    • G06F3/00Input 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
    • G06F3/01Input arrangements or combined input and output arrangements for interaction between user and computer
    • G06F3/048Interaction techniques based on graphical user interfaces [GUI]
    • G06F3/0487Interaction techniques based on graphical user interfaces [GUI] using specific features provided by the input device, e.g. functions controlled by the rotation of a mouse with dual sensing arrangements, or of the nature of the input device, e.g. tap gestures based on pressure sensed by a digitiser
    • GPHYSICS
    • G06COMPUTING; CALCULATING OR COUNTING
    • G06FELECTRIC DIGITAL DATA PROCESSING
    • G06F3/00Input 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
    • G06F3/01Input arrangements or combined input and output arrangements for interaction between user and computer
    • G06F3/03Arrangements for converting the position or the displacement of a member into a coded form
    • G06F3/041Digitisers, e.g. for touch screens or touch pads, characterised by the transducing means
    • G06F3/0414Digitisers, e.g. for touch screens or touch pads, characterised by the transducing means using force sensing means to determine a position
    • GPHYSICS
    • G06COMPUTING; CALCULATING OR COUNTING
    • G06FELECTRIC DIGITAL DATA PROCESSING
    • G06F3/00Input 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
    • G06F3/01Input arrangements or combined input and output arrangements for interaction between user and computer
    • G06F3/03Arrangements for converting the position or the displacement of a member into a coded form
    • G06F3/041Digitisers, e.g. for touch screens or touch pads, characterised by the transducing means
    • G06F3/0416Control or interface arrangements specially adapted for digitisers
    • G06F3/04166Details of scanning methods, e.g. sampling time, grouping of sub areas or time sharing with display driving

Definitions

  • the present invention relates to electronic technology, and more particularly to a method of processing a signal and an electronic device. Background technique
  • the electronic device can display video, images and text for the user's eyes to perceive, and the electronic device can obtain images through the camera for analysis and processing.
  • the electronic device transmits sound to the ear through the earpiece, and the human voice is acquired by the communication device through the microphone of the electronic device.
  • the speaker of the electronic device emits a prompt, or voice, or music for the ear to perceive.
  • the motor in the electronic device generates and transmits vibration to the human hand after receiving and executing the vibration command.
  • the electronic device in the related art cannot detect the pressure of holding the electronic device, which results in the inability to generate an operation instruction to operate the electronic device according to the detected pressure value and/or the number of pressing; since the electronic device in the related art cannot be based on Press the operation to generate an operation command and execute Therefore, there are also problems of complicated processing and long processing time, for example: When answering a call, usually only when the electronic device detects the user's operation for answering the call, the answering operation can be realized by responding to the operation, and the processing is complicated. And the processing time is long. Summary of the invention
  • a main object of the embodiments of the present invention is to provide a method for processing a signal and an electronic device, so as to at least solve the problem that the electronic device cannot automatically detect the pressure of holding the electronic device in the related art, and thus can be based on the detected pressure value and / or the number of presses to generate an operating command to operate the electronic device.
  • an embodiment of the present invention provides a protective cover, which is disposed on an electronic device, and the protective cover includes:
  • a first power supply unit disposed on the casing
  • M pressure sensors are disposed on the casing and connected to the first power supply unit, and when the N pressure sensors of the M pressure sensors detect N pressing operations, respond to the N pressing Operation, generating N pressing signals, where M is an integer greater than or equal to 1, and N is a positive integer less than or equal to M;
  • a signal processor connected to the M pressure sensors and the power supply unit, configured to receive the N pressing signals, and process the N pressing signals to obtain N pressure value data;
  • a signal transmission module coupled to the signal processor and the first power supply unit, configured to transmit the N pressure value data to the electronic device, so that the electronic device is based on the N pressure value data
  • An operation instruction is generated, and a function corresponding to the N pressing operations is implemented by executing the operation instruction.
  • the first power supply unit is: a battery or a rectifying device that converts alternating current into direct current.
  • the signal transmission module is a first wired data transmission module with a first data interface, and the first data interface and the electronic device are connected to the first wired data transmission module by a connection.
  • the second wired data transmission module transmits the N pressure value data to the electronic device in a wired manner;
  • the signal transmission module is a first wireless transmission module
  • the N pressure value data is wirelessly matched by cooperation with a second wireless transmission module on the electronic device that matches the first wireless transmission module. Transmitted to the electronic device.
  • the signal processor comprises:
  • a signal amplifying unit connected to the M pressure sensors, configured to: after receiving the N pressing signals, amplify the N pressing signals to obtain the amplified N pressing signals; and an analog to digital conversion unit,
  • the signal amplifying unit is connected to be configured to perform analog-to-digital conversion on the amplified N pressing signals to obtain the N pressure value data.
  • an embodiment of the present invention further provides an electronic device, including:
  • a second power supply unit disposed in the casing
  • M pressure sensors are disposed on the casing and connected to the second power supply unit, and when the N pressure sensors of the M pressure sensors detect N pressing operations, respond to the N pressing Operation, generating N pressing signals, where M is an integer greater than or equal to 1, and N is a positive integer less than or equal to M;
  • a data processor connected to the M pressure sensors and the second power supply unit, configured to receive the N pressing signals, and process the N pressing signals to obtain N pressure value data, and An operation instruction is generated based on the N pressure value data, and a function corresponding to the N pressing operations is implemented by executing the operation instruction.
  • the second power supply unit is: a battery or a rectifying device that converts alternating current into direct current.
  • the data processor comprises: a signal amplifying unit connected to the M pressure sensors, configured to: after receiving the N pressing signals, amplify the N pressing signals to obtain the amplified N pressing signals; and an analog to digital conversion unit, The signal amplifying unit is connected to be configured to perform analog-to-digital conversion on the amplified N pressing signals to obtain the N pressure value data;
  • the instruction processing module is coupled to the analog to digital conversion unit, configured to generate an operation instruction based on the N pressure value data, and implement a function corresponding to the N pressing operations by executing the operation instruction.
  • the electronic device further includes:
  • a location sensor coupled to the data processor, configured to detect location information of the electronic device
  • a distance sensor coupled to the data processor, is configured to detect information about the distance between the electronic device and the user's ear.
  • the data processor is further configured to:
  • the data processor is further configured to:
  • the lighting command is executed to cause the display unit of the electronic device to be in a lighting state.
  • the data processor is further configured to:
  • the display unit of the electronic device displays the unprocessed incoming call request
  • the display unit After the display unit displays the unprocessed incoming call request, determining whether the N pressing operations are pressing operations on both sides of the electronic device;
  • the embodiment of the present invention further provides a signal processing method, which is applied to a protective sleeve, and the protective sleeve is disposed on an electronic device, and the method includes:
  • N is an integer greater than or equal to 1
  • N is a positive integer equal to or less than M
  • the transmitting the N pressure value data to the electronic device includes: or transmitting the N pressure value data to the electronic device in a wireless manner.
  • the processing the N pressing signals to obtain N pressure value data includes:
  • an embodiment of the present invention further provides a signal processing method, which is applied to an electronic device, where the method includes:
  • N is an integer greater than or equal to 1
  • N is a positive integer equal to or less than M
  • An operation instruction is generated based on the N pieces of pressure value data, and the operation instruction is executed to implement a function corresponding to the N pressing operations.
  • the processing the N pressing signals to obtain the N pressure value data includes: amplifying the N pressing signals to obtain the amplified N pressing signals; and the enlarged N pieces The signal is subjected to analog-to-digital conversion to obtain the N pressure value data.
  • the generating an operation instruction based on the N pressure value data, and executing the operation instruction includes: When the electronic device has an incoming call request as the called terminal, determining whether the N pressing operations corresponding to the N pressure value data are pressing operations on both sides of the electronic device;
  • the generating an operation instruction based on the N pressure value data, and executing the operation instruction includes:
  • the lighting command is executed to cause the display unit of the electronic device to be in a lighting state.
  • the generating an operation instruction based on the N pressure value data, and executing the operation instruction includes:
  • the display unit of the electronic device displays the unprocessed incoming call request
  • the display unit After the display unit displays the unprocessed incoming call request, determining the N pressing operations Whether it is a pressing operation on both sides of the electronic device;
  • the utility model can effectively detect the pressing operation and obtain the pressure value data corresponding to the pressing operation, and can generate the corresponding operation instruction based on the pressure value data, and implement the corresponding function by executing the operation instruction, thereby effectively solving the related technology.
  • the electronic device has a problem that the pressure of holding the electronic device cannot be automatically detected, and an operation instruction can be generated according to the detected pressure value and/or the number of pressing to operate the electronic device, thereby realizing automatic detection of the holding electronic device.
  • the pressure is generated, and an operation command is generated based on the detected pressure value and/or the number of presses to operate the technical effect of the electronic device.
  • the pressure value data corresponding to the pressing operation can be automatically detected, and the corresponding operation instruction can be generated based on the pressure value data, and the corresponding function is realized by executing the operation instruction, that is, the whole process is automatic.
  • the process does not involve detecting and responding to other operations of the user. Therefore, the related art has effectively solved the problem that the electronic device has a complicated processing and a long processing time due to the inability to generate and execute an operation instruction based on the pressing operation.
  • the problem further realizes that the pressure of the holding electronic device can be automatically detected, and the operation command is generated according to the detected pressure value and/or the number of pressing, and the technical effect of the electronic device is simply and quickly operated.
  • FIG. 1 is a structural view of a protective cover according to Embodiment 1 of the present invention.
  • FIG. 2 is a structural diagram of a signal processor in a protective cover according to Embodiment 1 of the present invention
  • FIG. 3 is a flowchart of a signal processing method applied to a protective cover according to Embodiment 1 of the present invention
  • FIG. 4 is a structural diagram of an electronic device according to Embodiment 2 of the present invention
  • FIG. 5 is a flowchart of a signal processing method applied to an electronic device according to Embodiment 2 of the present invention
  • FIG. FIG. 6 is a schematic diagram of a protective cover according to Embodiment 1 of the present invention. detailed description
  • the embodiment of the present invention provides a method for processing a signal and an electronic device, which solves the problem that the electronic device in the related art cannot automatically detect the pressure of holding the electronic device, and according to the detected pressure value and/or pressing
  • the number of operational instructions is generated to operate the technical problems of the electronic device. Further, automatic detection of the pressure of holding the electronic device is performed, and an operation command is generated according to the detected pressure value and/or the number of pressing to operate the technical effect of the electronic device.
  • the technical solution in the embodiment of the present invention is to solve the above technical problem.
  • the general idea is as follows: detecting whether there are N pressing operations performed on N pressure sensors of the M pressure sensors on the electronic device, where M is greater than An integer equal to 1, and N is a positive integer less than or equal to M;
  • An operation instruction is generated based on the N pieces of pressure value data, and the operation instruction is executed to implement a function corresponding to the N pressing operations.
  • a protective cover is provided on the electronic device.
  • the protective cover in the embodiment of the present invention includes:
  • the casing 10 is placed on an electronic device to be protected, and the electronic device is an electronic device that needs to be operated by hand, including a mobile phone, a computer, and a game machine.
  • the sleeve 10 is made of a deformable material such as elastic and deformable rubber, and may also be made of elastic and deformable silicone, which is not exemplified here.
  • the first power supply unit 104 is disposed on the casing 10. In practical applications, the first power supply unit 104 may be implemented by a lithium battery, an alkaline battery, or a rectifying device configured to convert alternating current to direct current, such as a rectifier.
  • M pressure sensors 101 are disposed on the casing 10, and the pressure sensor 101 may be disposed on an inner surface or an outer surface of the casing 10.
  • the pressure sensor 101 may be a film-shaped pressure sensor, and may have any shape, such as a square, a triangle, etc., and the pressure sensor may be mounted on the outer or inner surface of the sleeve 10, and may be installed according to requirements. In any part of the case, such as: front, back or ⁇ face.
  • the pressure sensor 101 When the pressure sensor 101 is disposed on the outer surface, when the pressing operation of the user acts on the pressure sensor 101, the pressure sensor 101 detects the pressing operation and responds to generate a pressing signal; when the pressure sensor 101 is disposed on the inner surface, when the user When the pressing operation acts on the outer surface of the casing 10, the force is transmitted to the pressure sensor 101 through the casing 10, and accordingly, the pressure sensor 101 detects the pressing operation and responds to generate a pressing signal.
  • M is an integer greater than or equal to 1, and may be 1, 2 or 10. Since the pressure sensor 101 is in a power supply state, each of the M pressure sensors 101 is connected to the first power supply unit 104.
  • N of the pressure sensors 101 When the M pressure sensors 101 are in an operating state, if N of the pressure sensors detect N pressing operations, then N pressing signals are generated in response to the N pressing operations. For example, when M is 10 and N is 2, that is, when two pressure sensors disposed on both sides of the casing 10 of the ten pressure sensors detect that there are two pressing operations, then in response to the two pressing operations, Two press signals are generated.
  • the pressing operation includes a direct pressing operation of directly pressing the protective cover, a sliding pressing operation of the sliding protective cover, and the like, so that the M pressure sensors 101 can detect the corresponding pressure, which is not specific in this embodiment. limited.
  • the signal processor 102 is connected to the M pressure sensors 101 and the power supply unit 104, and is configured to receive the N pressing signals, and process the N pressing signals to obtain N pressure value data.
  • the signal processor 102 is a chip device of any shape realized by a microprocessor, a digital signal processor (DSP) or a Field Programmable Gate Array (FPGA), the shape Including: square, triangular, signal processor 102 can be mounted on any part of the casing 10, such as: front, back or side.
  • DSP digital signal processor
  • FPGA Field Programmable Gate Array
  • the signal transmission module 103 is connected to the signal processor 102 and the first power supply unit 104, and configured to transmit the N pressure value data to the electronic device, so that the electronic device is based on the N
  • the pressure value data generates an operation instruction, and implements a function corresponding to the N pressing operations by executing the operation instruction.
  • the signal transmission module 103 can be a transmission device such as a data line or a wireless device, and the signal transmission module 103 can be installed in the Any part of the casing 10, for example: front, back or side, the signal transmission module 103 can be any shape of the module, such as: square, triangle, and the like.
  • the first power supply unit 104 can supply power to the M pressure sensors 101, the signal processor 102, and the signal transmission module 103 to make them in a normal working state.
  • the signal transmission module 103 can transmit the N pressure value data to the electronic device in a wired or wireless manner, for example:
  • the signal transmission module 103 When the signal transmission module 103 is transmitted in a wired manner, the signal transmission module is a first wired data transmission module with a first data interface, and is connected to the first data interface and the electronic device by a connection. And a second data interface on the second wired data transmission module matched with the first wired data transmission module, and transmitting the N pressure value data to the electronic device in a wired manner.
  • the first wired data transmission module corresponding to the signal transmission module 103 can be transmitted through a universal serial bus (USB, Universal Serial Bus).
  • USB Universal Serial Bus
  • the block implementation can also be implemented by a fiber transmission module, which is no longer in the embodiment.
  • the signal transmission module 103 When the signal transmission module 103 is wirelessly transmitted, the signal transmission module may be a first wireless transmission module, by using a second wireless transmission module on the electronic device that matches the first wireless transmission module. In cooperation, the N pressure value data can be wirelessly transmitted to the electronic device.
  • the first wireless data transmission module corresponding to the signal transmission module 103 can be implemented by using an infrared transmission module or a Bluetooth transmission module, which is not exemplified in this embodiment.
  • the signal processor 102 includes: a signal amplifying unit 1021 connected to the M pressure sensors, configured to receive the N pressing signals, and then amplify the The N pressing signals obtain the amplified N pressing signals, and the signal amplifying unit 1021 may be a low power signal amplifying unit or a high power signal amplifying unit. Accordingly, in practical applications, the signal amplifying unit 1021 may pass Low-power signal amplifier or high-power signal amplifier implementation.
  • the analog-to-digital conversion unit 1022 is connected to the signal amplifying unit 1021, and configured to perform analog-to-digital conversion on the enlarged N pressing signals to obtain the N pressure value data.
  • analog to digital conversion unit 1022 can be implemented by an analog to digital converter.
  • the analog-to-digital conversion unit 1022 performs the analog-to-digital conversion process as follows: First, the N-pressed signals that are amplified are collected to obtain corresponding acquisition signals; secondly, the corresponding acquired signals are performed. Maintaining process operations to keep the respective acquisition signals digitized;
  • the quantized digital signal is encoded into a binary code output to obtain the N pressure value data.
  • the utility model can effectively detect the pressing operation and obtain the pressure value data corresponding to the pressing operation, and can generate the corresponding operation instruction based on the pressure value data, and implement the corresponding function by executing the operation instruction, thereby effectively solving the related technology.
  • the electronic device cannot automatically detect the pressure of holding the electronic device, and can generate an operation command according to the detected pressure value and/or the number of pressing, thereby operating the technical problem of the electronic device, thereby realizing automatic detection.
  • the pressure of the electronic device is held, and an operation command is generated according to the detected pressure value and/or the number of pressing to operate the technical effect of the electronic device.
  • the pressure value data corresponding to the pressing operation can be automatically detected, and the corresponding operation instruction can be generated based on the pressure value data, and the corresponding function is realized by executing the operation instruction, that is, the whole process is automatic.
  • the process does not involve detecting and responding to other operations of the user. Therefore, the related art has effectively solved the problem that the electronic device has a complicated processing and a long processing time due to the inability to generate and execute an operation instruction based on the pressing operation.
  • the problem further realizes that the pressure of the holding electronic device can be automatically detected, and the operation command is generated according to the detected pressure value and/or the number of pressing, and the technical effect of the electronic device is simply and quickly operated.
  • the first embodiment further provides a signal processing method corresponding to the protective cover.
  • the signal processing method in the embodiment of the present invention includes the following steps:
  • the pressing operation includes the user touching the protective cover, the direct pressing operation of directly pressing the protective cover, the sliding pressing operation of the sliding protective cover, and the like, so that the M pressure sensors can be
  • the operation of detecting the corresponding pressure in 101 is not specifically limited in this embodiment.
  • the pressure sensor is a film-shaped pressure sensor, and may have any shape, such as a square, a triangle, etc., and the pressure sensor is mounted on the outer surface or the inner surface of the sleeve 10, and can be installed according to requirements.
  • the protective cover such as: front, back or side Face.
  • the pressure sensor When the pressure sensor is disposed on the outer surface, when the pressing operation of the user acts on the pressure sensor, the pressure sensor detects the pressing operation, and generates a pressing signal in response to the pressing operation; when the pressure sensor is disposed on the inner surface, when the user presses When the operation is applied to the outer surface of the casing 10, the force is transmitted to the pressure sensor through the casing 10, and accordingly, the pressure sensor detects the pressing operation, and generates a pressing signal in response to the pressing operation.
  • M is an integer greater than or equal to 1, for example, M may be 1, 2 or 10. Since the pressure sensor is in the power supply state, each of the M pressure sensors 101 is connected to the first power supply unit 104, and when the M pressure sensors 101 are in operation, if there are N pressures therein When the sensor detects that there are N pressing operations, the N pressing signals are generated in response to the N pressing operations. For example: When M is 10 and N is 2, that is, when two pressure sensors disposed on both sides of the casing 10 of the ten pressure sensors detect that there are two pressing operations, then in response to the two pressing operations, Two press signals are generated.
  • step S10 the method of the embodiment of the present invention proceeds to step S20, that is, when the N pressing operations are detected, N pressing signals are generated in response to the N pressing operations.
  • the pressing signal may be a weak electrical signal generated by pressure of the pressure sensor.
  • the pressure value data may be a pressure magnitude value or a relationship between a pressure magnitude and a time.
  • the pressing operation generates a pressing signal, which is not the actual desired operation of the user.
  • the pressure sensor is only larger than A pressing operation equal to a preset pressure value continues to be greater than or equal to a preset time to respond.
  • step S40 the N pressure value data is transmitted to the electronic device, so that the electronic device is based on the N pressures.
  • the value data generates an operation instruction, and implements a function corresponding to the N pressing operations by executing the operation instruction.
  • the electronic device performs a corresponding operation to implement a corresponding function, and the functions include: the mobile phone answers the call, the screen is lit, and the automatic callback is performed.
  • a wired transmission mode is adopted, that is, the N pressure value data is transmitted to the electronic device in a wired manner.
  • a wireless transmission mode is adopted, that is, the N pressure value data is wirelessly transmitted to the electronic device, such as through infrared, or Bluetooth, etc. transfer method.
  • step S30 in the embodiment of the present invention the implementation process is as follows:
  • the signal amplifying unit 1021 amplifies the signals transmitted from the M pressure sensors 101.
  • the signal amplifying unit may be a low power signal amplifying unit or a high power signal amplifying unit;
  • the amplified N pressed signals are subjected to analog-to-digital conversion by the analog-to-digital conversion unit 1022 to obtain the N pressure value data.
  • the analog-to-digital conversion unit 1022 performs the analog-to-digital conversion process as follows: First, the N-pressed signals that are amplified are collected to obtain corresponding acquisition signals; secondly, the corresponding acquired signals are performed. Maintaining process operations to keep the respective acquisition signals digitized;
  • the utility model can effectively detect the pressing operation and obtain the pressure value data corresponding to the pressing operation, and can generate the corresponding operation instruction based on the pressure value data, and implement the corresponding function by executing the operation instruction, thereby effectively solving the related technology.
  • the electronic device in the electronic device cannot automatically detect the pressure of holding the electronic device, and can generate an operation command according to the detected pressure value and/or the number of pressing to operate the electronic device, thereby realizing automatic detection of the holding electronic device.
  • the pressure of the device, and an operational command is generated based on the detected pressure value and/or the number of presses to operate the technical effects of the electronic device.
  • the pressure value data corresponding to the pressing operation can be automatically detected, and the corresponding operation instruction can be generated based on the pressure value data, and the corresponding function is realized by executing the operation instruction, that is, the whole process is automatic.
  • the process does not involve detecting and responding to other operations of the user. Therefore, the electronic device in the related art can effectively solve the problem that the processing is complicated and the processing time is long because the operation instruction cannot be generated and executed based on the pressing operation.
  • the technical problem further realizes the technical effect that the pressure of the holding electronic device can be automatically detected, and the operation command is generated according to the detected pressure value and/or the number of pressing, and the electronic device is operated simply and quickly.
  • an electronic device is provided.
  • the electronic device includes:
  • the second power supply unit 201 is disposed in the casing 20.
  • M pressure sensors are disposed on the casing 20.
  • Fig. 4 there are three pressure sensors, namely: pressure sensor 1, pressure sensor 2, pressure sensor 3, M pressure sensing
  • Each pressure sensor in the device is connected to the second power supply unit 201, and when N pressure sensors of the M pressure sensors detect N pressing operations, generate N in response to the N pressing operations Pressing a signal, where M is an integer greater than or equal to 1, and N is a positive integer equal to or less than M, wherein the pressing operation includes: a user touching the electronic device, directly pressing the electronic device, and sliding the pressing operation of the sliding electronic device
  • the operation of causing the M pressure sensors to sense the corresponding pressure is not specifically limited in this embodiment.
  • the pressure sensor can be a film-like pressure sensor, and can be in any shape, such as: square, triangular, etc., whether installed on the outer surface or the inner surface of the casing 20, can be installed in the casing according to requirements. Any part of it, such as: front, back or side.
  • the casing 20 may be a metal material, an engineering plastic material, or the like, such as: an aluminum-magnesium alloy and a titanium alloy, carbon fiber, etc., and the shape of the casing 20 may also be any shape, such as: square, triangle, etc. .
  • the pressure sensor When the pressure sensor is disposed on the outer surface, when the pressing operation of the user acts on the pressure sensor, the pressure sensor can detect, and in response to the pressing operation, generate a pressing signal; when the pressure sensor is disposed on the inner surface, When the user press operation acts on the outer surface of the casing 20, the force is transmitted to the pressure sensor through the casing 20, so that the pressure sensor can also be detected, and in response to the pressing operation, a pressing signal is generated.
  • M is an integer greater than or equal to 1, and may be 1, or may be 2, or may be 10 or the like. Since the pressure sensor is in a power supply state, each of the M pressure sensors is connected to the second power supply unit 201, and when the M pressure sensors are in operation, if there are N pressures therein When the sensor detects that there are N pressing operations, it generates N pressing signals in response to the N pressing operations. For example: When M is 10 and N is 2, that is, when two pressure sensors disposed on both sides of the casing 20 of the ten pressure sensors detect two pressing operations, they will respond to the two pressing operations. Generate 2 press signals.
  • the data processor 202 is connected to the M pressure sensors and the second power supply unit 201, configured to receive the N pressing signals, and process the N pressing signals to obtain N pressure value data. And generating an operation instruction based on the N pressure value data, and implementing a function corresponding to the N pressing operations by executing the operation instruction.
  • the data processor 202 is a chip device of any shape implemented by a microprocessor, a DSP or an FPGA.
  • the shape includes: a square, a triangle, and the data processor 202 can be installed at any position of the casing 20, such as: Front, back, inner surface, etc.
  • the second power supply unit 201 can be implemented by a lithium battery, an alkaline battery, or a rectifying device that converts alternating current into direct current, such as a rectifier, the second power supply unit 201 and the casing 20, the M pressure sensors, and the data processor.
  • the 202 is connected and powers the housing 20, the M pressure sensors, and the data processor 202 to enable them to function properly.
  • the second power supply unit 201 and the first power supply unit 104 in the first embodiment may be the same power supply unit, that is, the second power supply unit 201 is independent of the electronic device, and only the casing 20, M
  • the pressure sensor and the data processor 202 are powered;
  • the second power supply unit 201 can also be a power supply unit of the electronic device, that is, the power supply unit of the electronic device is also a casing 20, M pressure sensors, and data processing.
  • the device 202 is powered.
  • the data processor 202 includes:
  • the signal amplifying unit connected to the M pressure sensors, configured to: after receiving the N pressing signals, amplify the N pressing signals to obtain the amplified N pressing signals, because the M pressures
  • the sensor generates a weak electrical signal due to the pressure, so it needs to be amplified by the signal amplification unit before the next processing can be performed.
  • the signal amplifying unit may be a low power signal amplifying unit or a high power signal amplifying unit. Accordingly, in practical applications, the signal amplifying unit may be implemented by a low power signal amplifier or a high power signal amplifier.
  • the analog to digital conversion unit is connected to the signal amplifying unit and configured to perform analog-to-digital conversion on the amplified N pressing signals to obtain the N pressure value data.
  • modulus can be implemented by an analog to digital converter.
  • the analog-to-digital conversion unit performs analog-to-digital conversion as follows: First, the N-pressed signals that are amplified are collected to obtain corresponding acquisition signals; and then, the corresponding acquired signals are maintained. Process operation to keep the corresponding acquisition signal digitized;
  • the quantized digital signal is encoded into a binary code output to obtain the N pressure value data.
  • the instruction processing module is coupled to the analog to digital conversion unit, configured to generate an operation instruction based on the N pressure value data, and implement a function corresponding to the N pressing operations by executing the operation instruction.
  • the electronic device includes a smart phone, a computer, a game machine, and the like. In the embodiment of the present invention, the electronic device further includes:
  • a position sensor coupled to the data processor 202, configured to detect and obtain location information of the electronic device, such as when the user takes the electronic device to operate, the position sensor generates location information, and the location sensor The location information is transmitted to the data processor 202.
  • a distance sensor coupled to the data processor 202, is configured to detect and obtain distance information between the electronic device and the user's ear, and transmit the distance information to the data processor 202.
  • the electronic device in the embodiment of the present invention can apply the pressure sensor, the position sensor, and the distance sensor in a plurality of application scenarios to implement a plurality of functions.
  • Application scenario 1 When the electronic device is a mobile phone and there is a call request.
  • the data processor 202 is configured to have the electronic device as the called terminal.
  • the request is made by electricity, it is determined whether the N pressing operations corresponding to the N pressure value data are pressing operations on both sides of the electronic device.
  • the preset position condition may be: a position at the user's ear.
  • the preset distance condition may be: a distance from the user's ear is less than or equal to 10 cm.
  • the above process is: when there is an incoming call request, when the mobile phone detects that the user has a pressing operation on both sides of the mobile phone, and the position of the mobile phone is at the user's ear position, and the distance of the mobile phone from the ear is less than or equal to At 10 cm, an answering command is generated and a call is established with the calling terminal by executing the answering command.
  • Application scenario 2 When the electronic device is a mobile phone, the user needs to watch the time.
  • the data processor 202 is further configured to:
  • the preset position condition may be: a position on the chest of the user .
  • a lighting instruction is generated when the position information satisfies the preset position condition.
  • the lighting command is executed to cause the display unit of the electronic device to be in a lighting state.
  • the above process is: When the user needs to watch the time displayed by the mobile phone, When the mobile phone detects that the user has a pressing operation on both sides of the mobile phone, and the position of the mobile phone is in the chest position of the user, a lighting instruction is generated, and the display unit of the mobile phone is placed by executing the lighting instruction Lights up.
  • Application scenario 3 When the electronic device is a mobile phone, and the mobile phone has an unhandled incoming call request.
  • the data processor 202 is further configured to:
  • the display unit of the electronic device displays the unprocessed incoming call request.
  • the display unit After the display unit displays the unprocessed incoming call request, it is determined whether the N pressing operations are pressing operations on both sides of the electronic device.
  • a call instruction is generated when the N pressing operations are pressing operations on both sides of the electronic device.
  • Executing the call instruction initiating a call to the calling terminal corresponding to the unprocessed incoming call request.
  • the above process is: when the user needs to view the unprocessed incoming call request of the mobile phone, when the mobile phone detects that the user has a pressing operation on both sides of the mobile phone, the display unit of the mobile phone displays the unprocessed incoming call. Requesting, after the mobile phone displays the unprocessed incoming call request, when the mobile phone detects that the user has a pressing operation on both sides of the mobile phone, the mobile phone generates a call instruction, and the corresponding main request is sent to the unprocessed incoming call. Call the terminal to initiate a call.
  • the pressing operation can be automatically detected and the pressure value data corresponding to the pressing operation is obtained, and the corresponding operation instruction can be generated based on the pressure value data, and the corresponding function is realized by executing the operation instruction, the correlation can be effectively solved.
  • the electronic device in the technology cannot automatically detect the pressure of holding the electronic device, and generates according to the detected pressure value and/or the number of pressing
  • the operation instruction in order to operate the technical problem of the electronic device, thereby realizing the automatic detection of the pressure of holding the electronic device, and generating an operation instruction according to the detected pressure value and/or the number of pressing, to operate the technical effect of the electronic device .
  • the pressure value data corresponding to the pressing operation can be automatically detected, and the corresponding operation instruction can be generated based on the pressure value data, and the corresponding function is realized by executing the operation instruction, that is, the whole process is automatic.
  • the process does not involve detecting and responding to other operations of the user. Therefore, the electronic device in the related art can effectively solve the problem that the processing is complicated and the processing time is long because the operation instruction cannot be generated and executed based on the pressing operation.
  • the technical problem further realizes the technical effect that the pressure of the holding electronic device can be automatically detected, and the operation command is generated according to the detected pressure value and/or the number of pressing, and the electronic device is operated simply and quickly.
  • the second embodiment further provides a signal processing method for the corresponding electronic device. As shown in FIG. 5, the method includes:
  • N is an integer greater than or equal to 1, and N is a positive integer less than M.
  • the pressing operation may be an operation in which the user touches the electronic device, directly presses the electronic device, and the sliding pressing operation of the sliding electronic device enables the M pressure sensors to sense the corresponding pressure. Make specific limits.
  • the electronic device in the embodiment of the present invention includes a smart phone, a computer, a game machine, etc., which are not specifically limited in this embodiment.
  • the pressure sensor is a film-shaped pressure sensor, and may have any shape, such as: square, triangle, etc., the pressure sensor is installed on the outer surface or the inner surface of the electronic device, and can be installed on the electronic device according to requirements. Any part of it, such as: front, back or side.
  • the pressure sensor When the pressure sensor is placed on the outer surface, when the user's pressing operation acts on the pressure sensor When the upper pressure sensor is detected, and the pressing signal is generated in response to the pressing operation, when the pressure sensor is disposed on the inner surface, when the user presses the operation on the outer surface of the electronic device, the force is transmitted through the electronic device. To the pressure sensor, the pressure sensor can also detect and generate a press signal in response to the pressing operation.
  • step S60 that is, when the N pressing operations are detected, N pressing signals are generated in response to the N pressing operations, wherein, in the embodiment of the present invention,
  • M is an integer greater than or equal to 1, and may be 1, or 2, or 10 or the like. Since the pressure sensor is in a power supply state, each of the M pressure sensors is connected to the second power supply unit 201, and when the M pressure sensors are in operation, if there are N pressures therein When the sensor detects that there are N pressing operations, it generates N pressing signals in response to the N pressing operations. For example: When M is 10 and N is 2, that is, when two pressure sensors disposed on both sides of the casing 10 of the 10 pressure sensors detect two pressing operations, they will respond to the two pressing operations. Two press signals are generated.
  • step S60 the method of the embodiment of the present invention proceeds to a step S70, that is, the N pressed signals are processed to obtain N pressure value data.
  • step S70 the method of the embodiment of the present invention proceeds to a step S80, that is, generating an operation command based on the N pressure value data, and executing the operation command to implement a function corresponding to the N pressing operations.
  • the processing the N compression signals in the S70 in the embodiment of the present invention to obtain the N pressure value data includes:
  • the N pressing signals are amplified to obtain the amplified N pressing signals.
  • the signal amplifying unit may be a low-power signal amplifying unit or a high-power signal amplifying unit; and performing analog-to-digital conversion on the amplified N pressing signals to obtain the N pressure value data.
  • the specific working process of the analog-to-digital conversion unit performing the analog-to-digital conversion is as follows: First, the N pressed signals that are amplified are collected to obtain corresponding acquisition signals; and then, the corresponding collected signals are performed. Maintaining process operations to keep the respective acquisition signals digitized;
  • the quantized digital signal is encoded into a binary code output to obtain the N pressure value data.
  • the electronic device in the embodiment of the present invention can apply the pressure sensor, the position sensor, and the distance sensor in many specific application scenarios to implement a plurality of functions.
  • Scenario 1 When the electronic device is a mobile phone and there is a call request.
  • the preset position condition may be: in the user's ear s position.
  • the preset distance condition may be: a distance from the user's ear. Less than or equal to 10 cm.
  • the above process is: When there is a call request, when the mobile phone detects the user The mobile phone has a pressing operation on both sides, and the mobile phone is located at the user's ear position, and when the distance of the mobile phone from the ear is less than or equal to 10 cm, an answering instruction is generated, and the calling terminal is established by executing the answering instruction. call.
  • Scenario 2 when the electronic device is a mobile phone, the user needs to watch the time.
  • the preset position condition may be: a position on the chest of the user .
  • the lighting command is executed to cause the display unit of the electronic device to be in a lighting state.
  • the above process is: when the user needs to watch the time displayed by the mobile phone, when the mobile phone detects that the user has a pressing operation on both sides of the mobile phone, and the location of the mobile phone is in the chest position of the user, A lighting command is generated, and by executing the lighting command, the display unit of the mobile phone is in a lighting state.
  • Scenario 3 when the electronic device is a mobile phone, and the mobile phone has an unhandled incoming call request.
  • the display unit of the electronic device displays the unprocessed incoming call request.
  • the display unit After the display unit displays the unprocessed incoming call request, it is determined whether the N pressing operations are pressing operations on both sides of the electronic device. A call instruction is generated when the N pressing operations are pressing operations on both sides of the electronic device.
  • Executing the call instruction initiating a call to the calling terminal corresponding to the unprocessed incoming call request.
  • the above process is: when the user needs to view the unprocessed incoming call request of the mobile phone, when the mobile phone detects that the user has a pressing operation on both sides of the mobile phone, the display unit of the mobile phone displays the unprocessed incoming call. Requesting, after the mobile phone displays the unprocessed incoming call request, when the mobile phone detects that the user has a pressing operation on both sides of the mobile phone, the mobile phone generates a call instruction, and the corresponding main request is sent to the unprocessed incoming call. Call the terminal to initiate a call.
  • the utility model can effectively detect the pressing operation and obtain the pressure value data corresponding to the pressing operation, and can generate the corresponding operation instruction based on the pressure value data, and implement the corresponding function by executing the operation instruction, thereby effectively solving the related technology.
  • the electronic device cannot automatically detect the pressure of holding the electronic device, and can generate an operation command according to the detected pressure value and/or the number of pressing, thereby operating the technical problem of the electronic device, thereby realizing automatic detection.
  • the pressure of the electronic device is held, and an operation command is generated according to the detected pressure value and/or the number of pressing to operate the technical effect of the electronic device.
  • the pressure value data corresponding to the pressing operation can be automatically detected, and the corresponding operation instruction can be generated based on the pressure value data, and the corresponding function is realized by executing the operation instruction, that is, the whole process is automatic.
  • the process does not involve detecting and responding to other operations of the user. Therefore, the electronic device in the related art can effectively solve the problem that the processing is complicated and the processing time is long because the operation instruction cannot be generated and executed based on the pressing operation.
  • the technical problem further realizes the technical effect that the pressure of the holding electronic device can be automatically detected, and the operation command is generated according to the detected pressure value and/or the number of pressing, and the electronic device is operated simply and quickly.
  • the protective sleeve provided by the embodiment of the present invention is disposed on an electronic device, and the protective cover comprises: a sleeve body, M pressure sensors, a signal processor and a signal transmission module, and N pressure sensors of the M pressure sensors When it is detected that there are N pressing operations, generating N pressing signals in response to the N pressing operations; processing the N pressing signals to obtain N pressure value data, and transmitting the data to the electronic device, so that The electronic device is capable of generating an operation instruction based on the N pressure value data, and implementing a function corresponding to the N pressing operations by executing the operation instruction.

Landscapes

  • Engineering & Computer Science (AREA)
  • General Engineering & Computer Science (AREA)
  • Theoretical Computer Science (AREA)
  • Human Computer Interaction (AREA)
  • Physics & Mathematics (AREA)
  • General Physics & Mathematics (AREA)
  • Telephone Function (AREA)

Abstract

本发明实施例公开了一种对信号进行处理的方法及电子设备,一种保护套能套设于一电子设备上,所述保护套包括:套体;第一供电单元,设置在所述套体上;M个压力传感器,设置在所述套体上,当所述M个压力传感器中的N个压力传感器检测到有N个按压操作时,响应所述N个按压操作,生成N个按压信号;信号处理器,与所述M个压力传感器连接,配置为接收所述N个按压信号,并对所述N个按压信号进行处理,获得N个压力值数据;信号传输模块,与所述信号处理器连接,配置为将所述N个压力值数据传输给所述电子设备,以使所述电子设备能够基于所述N个压力值数据生成操作指令,并通过执行所述操作指令实现与所述N个按压操作对应的功能。

Description

对信号进行处理的方法及电子设备 技术领域
本发明涉及电子技术, 尤其涉及一种对信号进行处理的方法及电子设 备。 背景技术
随着电子技术的迅猛发展, 相关技术中的很多电子设备都具有了通讯, 娱乐, 信息获取等强大的功能, 已成为人们日常生活的必须品。 在人与电 子设备的交互过程中, 视觉方面, 电子设备能显示视频, 图像及文字供用 户人眼感知, 电子设备能通过摄像头获取图片进行分析处理。 听觉方面, 电子设备通过听筒传递声音给人耳, 人的语音则通过电子设备的话筒被通 讯设备采集获得。 电子设备的扬声器发出提示, 或语音, 或音乐供人耳朵 感知。 触觉方面, 电子设备中的马达在接收并执行震动指令后, 产生并传 递震动给人手。
可见, 在相关技术中, 当用户在使用电子设备的过程中, 就会需要和 电子设备间进行各种各样的交互, 在交互过程中, 就需要用户对电子设备 进行各种操作, 例如: 通过按电源键或者滑动屏幕对电子设备进行解锁; 通过按键或者触摸屏幕进行接听操作; 通过触摸屏幕点亮屏幕, 以观看时 间。
发明人在实现本发明实施例技术方案的过程中, 发现上述技术至少存 在如下技术问题:
相关技术中的电子设备不能检测握持电子设备的压力, 这就导致不能 根据检测到的压力值和 /或按压的个数来生成操作指令来操作电子设备; 由于相关技术中的电子设备不能基于按压操作而生成操作指令并执 行, 因此还存在处理复杂及处理时间长的问题, 例如: 在接听电话时, 通 常只有电子设备在检测到用户的用于接听电话的操作时, 才能通过响应该 操作而实现接听电话, 处理复杂且处理时间长。 发明内容
本发明实施例的主要目的在于提供一种对信号进行处理的方法及电子 设备, 以至少解决相关技术中电子设备不能自动检测握持电子设备的压力 的问题, 从而能够根据检测到的压力值和 /或按压的个数来生成操作指令, 以操作电子设备。
为解决上述技术问题, 本发明实施例一方面提供了一种保护套, 套设 于电子设备上, 所述保护套包括:
套体;
第一供电单元, 设置在所述套体上;
M 个压力传感器, 设置在所述套体上, 与所述第一供电单元连接, 当 所述 M个压力传感器中的 N个压力传感器检测到有 N个按压操作时,响应 所述 N个按压操作, 生成 N个按压信号, 其中, M为大于等于 1的整数, N为小于等于 M的正整数;
信号处理器, 与所述 M个压力传感器连接及所述供电单元连接, 配置 为接收所述 N个按压信号, 并对所述 N个按压信号进行处理, 获得 N个压 力值数据;
信号传输模块, 与所述信号处理器及所述第一供电单元连接, 配置为 将所述 N个压力值数据传输给所述电子设备, 以使所述电子设备基于所述 N个压力值数据生成操作指令, 并通过执行所述操作指令实现与所述 N个 按压操作对应的功能。
优选地, 所述第一供电单元为: 电池或将交流电转换为直流电的整流 装置。 优选地, 所述信号传输模块为带有第一数据接口的第一有线数据传输 模块 , 通过连线连接所述第一数据接口及所述电子设备上的与所述第一有 线数据传输模块匹配的第二有线数据传输模块, 将所述 N个压力值数据以 有线方式传输给所述电子设备;
或者所述信号传输模块为第一无线传输模块, 通过与所述电子设备上 的与所述第一无线传输模块匹配的第二无线传输模块的配合, 将所述 N个 压力值数据以无线方式传输给所述电子设备。
优选地, 所述信号处理器包括:
信号放大单元, 与所述 M个压力传感器连接, 配置为在接收所述 N个 按压信号后, 放大所述 N个按压信号, 获得放大后的所述 N个按压信号; 模数转换单元, 与所述信号放大单元连接, 配置为将所述放大后的所 述 N个按压信号进行模数转换, 获得所述 N个压力值数据。
另一方面, 本发明实施例还提供一种电子设备, 包括:
机壳;
第二供电单元, 设置在所述机壳内;
M 个压力传感器, 设置在所述机壳上, 与所述第二供电单元连接, 当 所述 M个压力传感器中的 N个压力传感器检测到有 N个按压操作时,响应 所述 N个按压操作, 生成 N个按压信号, 其中, M为大于等于 1的整数, N为小于等于 M的正整数;
数据处理器, 与所述 M个压力传感器连接及所述第二供电单元连接, 配置为接收所述 N个按压信号, 并对所述 N个按压信号进行处理, 获得 N 个压力值数据, 并基于所述 N个压力值数据生成操作指令, 并通过执行所 述操作指令实现与所述 N个按压操作对应的功能。
其中所述第二供电单元为: 电池或将交流电转换为直流电的整流装置。 其中所述数据处理器包括: 信号放大单元, 与所述 M个压力传感器连接, 配置为在接收所述 N个 按压信号后, 放大所述 N个按压信号, 获得放大后的所述 N个按压信号; 模数转换单元, 与所述信号放大单元连接, 配置为将所述放大后的所 述 N个按压信号进行模数转换, 获得所述 N个压力值数据;
指令处理模块, 与所述模数转换单元连接, 配置为基于所述 N个压力 值数据生成操作指令, 并通过执行所述操作指令实现与所述 N个按压操作 对应的功能。
优选地, 所述电子设备还包括:
位置传感器, 与所述数据处理器连接, 配置为检测获得所述电子设备 的位置信息;
距离传感器, 与所述数据处理器连接, 配置为检测获得所述电子设备 与用户耳朵间的距离信息。
优选地, 所述数据处理器还配置为:
当所述电子设备作为被叫终端有来电请求时, 判断所述 N个压力值数 据对应的所述 N个按压操作是否为对所述电子设备两侧的按压操作;
当所述 N个按压操作为对所述电子设备两侧的按压操作时, 判断所述 位置信息是否满足预设位置条件;
当所述位置信息满足所述预设位置条件时, 判断所述距离信息是否满 足预设距离条件;
在所述距离信息满足所述预设距离条件时, 生成接听指令;
执行所述接听指令, 处理所述来电请求, 在所述电子设备与所述来电 请求对应的主叫终端间建立通话。
优选地, 所述数据处理器还配置为:
判断所述 N个压力值数据对应的所述 N个按压操作是否为对所述电子 设备两侧的按压操作; 当所述 N个按压操作为对所述电子设备两侧的按压操作时, 判断所述 位置信息是否满足预设位置条件;
在所述位置信息满足所述预设位置条件时, 生成点亮指令;
执行所述点亮指令, 使所述电子设备的显示单元处于点亮状态。
优选地, 所述数据处理器还配置为:
当检测到所述电子设备作为被叫终端有未处理来电请求时,判断所述 N 个压力值数据对应的所述 N个按压操作是否为对所述电子设备两侧的按压 操作;
当所述 N个按压操作为对所述电子设备两侧的按压操作时, 所述电子 设备的显示单元显示所述未处理来电请求;
在所述显示单元在显示所述未处理来电请求后, 判断所述 N个按压操 作是否为对所述电子设备两侧的按压操作;
当所述 N个按压操作为对所述电子设备两侧的按压操作时, 生成呼叫 指令;
执行所述呼叫指令, 向所述未处理来电请求对应的主叫终端发起呼叫。 另一方面, 本发明实施例还提供一种信号处理方法, 应用在保护套上, 所述保护套套设在电子设备上, 所述方法包括:
检测是否有对所述保护套上的 M个压力传感器中的 N个压力传感器进 行的 N个按压操作, 其中, M为大于等于 1的整数, N为小于等于 M的正 整数;
在检测到所述 N个按压操作时, 响应所述 N个按压操作, 生成 N个按 压信号;
对所述 N个按压信号进行处理, 获得 N个压力值数据;
将所述 N个压力值数据传输给所述电子设备, 以使所述电子设备基于 所述 N个压力值数据生成操作指令, 并通过执行所述操作指令实现与所述 N个按压操作对应的功能。
所述将所述 N个压力值数据传输给所述电子设备, 包括: 或者将所述 N个压力值数据以无线方式传输给所述电子设备。
优选地, 所述对所述 N个按压信号进行处理, 获得 N个压力值数据, 包括:
放大所述 N个按压信号, 获得放大后的所述 N个按压信号; 将所述放大后的所述 N个按压信号进行模数转换, 获得所述 N个压力 值数据。
另一方面, 本发明实施例还提供一种信号处理方法, 应用在电子设备 上, 所述方法包括:
检测是否有对所述电子设备上的 M个压力传感器中的 N个压力传感器 进行的 N个按压操作, 其中, M为大于等于 1的整数, N为小于等于 M的 正整数;
在检测到所述 N个按压操作时, 响应所述 N个按压操作, 生成 N个按 压信号;
对所述 N个按压信号进行处理, 获得 N个压力值数据;
基于所述 N个压力值数据生成操作指令, 并执行所述操作指令, 以实 现与所述 N个按压操作对应的功能。
所述对所述 N个按压信号进行处理, 获得 N个压力值数据, 包括: 放大所述 N个按压信号, 获得放大后的所述 N个按压信号; 将所述放大后的所述 N个按压信号进行模数转换, 获得所述 N个压力 值数据。
优选地, 所述基于所述 N个压力值数据生成操作指令, 并执行所述操 作指令, 包括: 当所述电子设备作为被叫终端有来电请求时, 判断所述 N个压力值数 据对应的所述 N个按压操作是否为对所述电子设备两侧的按压操作;
当所述 N个按压操作为对所述电子设备两侧的按压操作时, 判断所述 电子设备的位置信息是否满足预设位置条件;
当所述位置信息满足所述预设位置条件时, 判断所述电子设备与用户 耳朵间的距离信息是否满足预设距离条件;
在所述距离信息满足所述预设距离条件时, 生成接听指令;
执行所述接听指令, 处理所述来电请求, 在所述电子设备与所述来电 请求对应的主叫终端间建立通话。
优选地, 所述基于所述 N个压力值数据生成操作指令, 并执行所述操 作指令, 包括:
判断所述 N个压力值数据对应的所述 N个按压操作是否为对所述电子 设备两侧的按压操作;
当所述 N个按压操作为对所述电子设备两侧的按压操作时, 判断所述 位置信息是否满足预设位置条件;
在所述位置信息满足所述预设位置条件时, 生成点亮指令;
执行所述点亮指令, 使所述电子设备的显示单元处于点亮状态。
优选地, 所述基于所述 N个压力值数据生成操作指令, 并执行所述操 作指令, 包括:
当检测到所述电子设备作为被叫终端有未处理来电请求时,判断所述 N 个压力值数据对应的所述 N个按压操作是否为对所述电子设备两侧的按压 操作;
当所述 N个按压操作为对所述电子设备两侧的按压操作时, 所述电子 设备的显示单元显示所述未处理来电请求;
在所述显示单元在显示所述未处理来电请求后, 判断所述 N个按压操 作是否为对所述电子设备两侧的按压操作;
当所述 N个按压操作为对所述电子设备两侧的按压操作时, 生成呼叫 指令;
执行所述呼叫指令, 向所述未处理来电请求对应的主叫终端发起呼叫。 本发明实施例中提供的一个或多个技术方案, 至少具有如下有益效果:
1、 由于能自动检测按压操作及获得与按压操作对应的压力值数据, 且 能够基于压力值数据来生成对应的操作指令, 并通过执行该操作指令实现 对应的功能, 所以, 有效解决了相关技术中的电子设备存在不能自动检测 握持电子设备的压力的问题, 能够根据检测到的压力值和 /或按压的个数来 生成操作指令以操作电子设备, 进而实现了能自动检测握持电子设备的压 力, 并根据检测到的压力值和 /或按压的个数来生成操作指令, 以操作电子 设备的技术效果。
2、 由于能自动检测按压操作及获得与按压操作对应的压力值数据, 且 能够基于压力值数据来生成对应的操作指令, 并通过执行该操作指令实现 对应的功能, 即: 整个过程都是自动的过程, 不涉及到去检测和响应用户 其它的操作, 所以, 有效解决了相关技术中电子设备还存在由于不能基于 按压操作而生成并执行操作指令, 而导致的处理复杂及处理时间长的技术 问题, 进而实现了能自动检测握持电子设备的压力, 并根据检测到的压力 值和 /或按压的个数来生成操作指令,简单快捷地操作电子设备的技术效果。 附图说明
图 1为本发明实施例一中保护套的结构图;
图 2为本发明实施例一中保护套中信号处理器的结构图;
图 3为本发明实施例一中应用于保护套的一种信号处理方法的流程图; 图 4为本发明实施例二中电子设备的结构图;
图 5为本发明实施例二应用于电子设备的一种信号处理方法的流程图; 图 6为本发明实施例一中保护套的示意图。 具体实施方式
本发明实施例通过提供一种对信号进行处理的方法及电子设备, 解决 了相关技术中的电子设备存在不能自动检测握持电子设备的压力, 并根据 检测到的压力值和 /或按压的个数来生成操作指令, 以操作电子设备的技术 问题。 进而实现自动检测握持电子设备的压力, 并根据检测到的压力值和 / 或按压的个数来生成操作指令, 以操作电子设备的技术效果。
本发明实施例中的技术方案为解决上述技术问题, 总体思路如下: 检测是否有对所述电子设备上的 M个压力传感器中的 N个压力传感器 进行的 N个按压操作, 其中, M为大于等于 1的整数, N为小于等于 M的 正整数;
在检测到所述 N个按压操作时, 响应所述 N个按压操作, 生成 N个按 压信号;
对所述 N个按压信号进行处理, 获得 N个压力值数据;
基于所述 N个压力值数据生成操作指令, 并执行所述操作指令, 以实 现与所述 N个按压操作对应的功能。
为了更好的理解上述技术方案, 下面将结合说明书附图以及具体的实 施方式对上述技术方案进行详细的说明。
实施例一
在实施例一中, 提供了一种保护套, 套设于电子设备上, 请参考图 1、 图 2以及图 6, 本发明实施例中的保护套包括:
套体 10, 套在需要保护的电子设备上, 所述电子设备为需要手持进行 操作的电子设备, 包括手机、 电脑、 以及游戏机。
本实施例中,套体 10由可变形的材料如具有弹性且可变形的橡胶制成, 也可以由具有弹性且可变形的硅胶制成, 这里不再——举例。 第一供电单元 104, 设置在所述套体 10上。 实际应用中, 第一供电单 元 104可以由锂电池、 碱性电池或配置为将交流电转换为直流电的整流装 置例如整流器实现。
M个压力传感器 101, 设置在所述套体 10上, 所述压力传感器 101可 以设置在所述套体 10的内表面或者是外表面。
实际应用中, 压力传感器 101 可以采用薄膜状的压力传感器, 且可以 呈任意形状, 如: 正方形、 三角形等, 所述压力传感器可安装在套体 10的 外表面或内表面, 并可根据需求安装在保护套的任意部位, 如: 正面、 背 面或^ ^面。
当压力传感器 101设置在外表面时, 当用户的按压操作作用在压力传 感器 101上时, 压力传感器 101检测到该按压操作并进行响应, 生成按压 信号; 当压力传感器 101设置在内表面时, 当用户按压操作作用在套体 10 的外表面时, 作用力通过套体 10传递到压力传感器 101, 相应地, 压力传 感器 101检测到按压操作并进行响应, 生成按压信号。
在本发明实施例中, M为大于等于 1的整数, 可以为 1、 2或 10。 由于 压力传感器 101在处于供电状态才能工作, 所以, M个压力传感器 101 中 每个压力传感器均与第一供电单元 104连接。
当所述 M个压力传感器 101处于工作状态时, ^^如其中的 N个压力传 感器检测到有 N个按压操作时, 则响应所述 N个按压操作, 生成 N个按压 信号。 例如: 当 M为 10, N为 2时, 即当 10个压力传感器中的设置在套 体 10两侧的 2个压力传感器检测到有 2个按压操作时, 则响应所述 2个按 压操作, 生成 2个按压信号。
在本发明实施例中, 按压操作包括直接按压保护套的直接按压操作、 滑动保护套的滑动按压操作等能使所述 M个压力传感器 101检测到相应压 力的操作, 本实施例中不做具体限定。 信号处理器 102, 与所述 M个压力传感器 101、 以及所述供电单元 104 连接, 配置为接收所述 N个按压信号, 并对所述 N个按压信号进行处理, 获得 N个压力值数据。
实际应用中, 信号处理器 102为由微处理器、 数字信号处理器 (DSP, Digital Signal Processor )或现场可编程门阵列 ( FPGA, Field Programmable Gate Array )实现的任意形状的芯片装置, 所述形状包括: 正方形, 三角形, 信号处理器 102可以安装在套体 10上的任意部位,如: 正面、 背面或侧面。
信号传输模块 103,与所述信号处理器 102及所述第一供电单元 104连 接, 配置为将所述 N个压力值数据传输给所述电子设备, 以使所述电子设 备基于所述 N个压力值数据生成操作指令, 并通过执行所述操作指令实现 与所述 N个按压操作对应的功能, 例如, 信号传输模块 103可以为数据线 或者无线装置等传输装置, 信号传输模块 103可以安装在套体 10上的任意 部位, 例如: 正面、 背面或侧面, 信号传输模块 103 可以是任意形状的模 块, 如: 正方形、 三角形等。
其中, 通过所述第一供电单元 104能够为所述 M个压力传感器 101、 信号处理器 102以及信号传输模块 103供电, 使它们处于正常工作状态。
其中, 所述信号传输模块 103可以将所述 N个压力值数据以有线或者 无线的方式传输给所述电子设备, 例如:
当所述信号传输模块 103 以有线方式传输时, 所述信号传输模块为带 有第一数据接口的第一有线数据传输模块, 通过连线连接所述第一数据接 口及所述电子设备上的与所述第一有线数据传输模块匹配的第二有线数据 传输模块上的第二数据接口, 将所述 N个压力值数据以有线方式传输给所 述电子设备。
实际应用中, 所述信号传输模块 103 以有线方式传输时所对应的第一 有线数据传输模块可以通过通用串行总线(USB, Universal Serial Bus )模 块实现, 也可以通过光纤传输模块实现, 本实施例中不再——举例。
当所述信号传输模块 103 以无线方式传输时, 所述信号传输模块可以 为第一无线传输模块, 通过与所述电子设备上的与所述第一无线传输模块 匹配的第二无线传输模块的配合, 能将所述 N个压力值数据以无线方式传 输给所述电子设备。
实际应用中, 所述信号传输模块 103 以无线方式传输时所对应的第一 无线数据传输模块可以通过红外传输模块或蓝牙传输模块实现, 本实施例 中不再——举例。
参考附图 2所示, 在本发明实施例中, 所述信号处理器 102包括: 信号放大单元 1021, 与所述 M个压力传感器连接, 配置为接收所述 N 个按压信号, 然后放大所述 N个按压信号, 获得放大后的所述 N个按压信 号, 信号放大单元 1021可以为低倍信号放大单元, 也可以是高倍信号放大 单元, 相应地, 在实际应用中, 信号放大单元 1021可以通过低倍信号放大 器或高倍信号放大器实现。
模数转换单元 1022, 与所述信号放大单元 1021连接, 配置为将所述放 大后的所述 N个按压信号进行模数转换, 获得所述 N个压力值数据。
实际应用中, 模数转换单元 1022可以通过模数转换器实现。
在本发明实施例中,模数转换单元 1022进行模数转换的工作过程如下: 首先, 对经过放大的所述 N个按压信号进行采集, 获得相应采集信号; 其次, 对所述相应采集信号进行保持过程操作, 以保持所述相应采集 信号数字化;
再次, 将连续幅度的所述相应采集信号转换成离散时间、 离散幅度的 数字信号;
最后, 将量化后的所述数字信号编码成二进制代码输出, 获得所述 N 个压力值数据。 本发明实施例中的技术方案, 至少具有如下的有益效果:
1、 由于能自动检测按压操作及获得与按压操作对应的压力值数据, 且 能够基于压力值数据来生成对应的操作指令, 并通过执行该操作指令实现 对应的功能, 所以, 有效解决了相关技术中的电子设备存在不能自动检测 握持电子设备的压力的问题, 能够根据检测到的压力值和 /或按压的个数来 生成操作指令, 以操作电子设备的技术问题, 进而实现了能自动检测握持 电子设备的压力,并根据检测到的压力值和 /或按压的个数来生成操作指令, 以操作电子设备的技术效果。
2、 由于能自动检测按压操作及获得与按压操作对应的压力值数据, 且 能够基于压力值数据来生成对应的操作指令, 并通过执行该操作指令实现 对应的功能, 即: 整个过程都是自动的过程, 不涉及到去检测和响应用户 其它的操作, 所以, 有效解决了相关技术中电子设备还存在由于不能基于 按压操作而生成并执行操作指令, 而导致的处理复杂及处理时间长的技术 问题, 进而实现了能自动检测握持电子设备的压力, 并根据检测到的压力 值和 /或按压的个数来生成操作指令,简单快捷地操作电子设备的技术效果。
对应实施例一中的保护套, 实施例一还提供一种对应保护套的一种信 号处理方法, 请参考图 3, 本发明实施例中的信号处理方法包括以下步骤:
S10, 检测是否有对所述保护套上的 M个压力传感器 101中的 N个压 力传感器进行的 N个按压操作, 其中, M为大于等于 1的整数, N为小于 等于 M的正整数。 其中, 按压操作包括用户触摸保护套、 直接按压保护套 的直接按压操作、 滑动保护套的滑动按压操作等能使所述 M个压力传感器
101检测到相应压力的操作, 本实施例中不^:具体限定。
在本发明实施例中, 压力传感器为薄膜状的压力传感器, 且可以呈任 意形状, 如: 正方形, 三角形等, 所述压力传感器安装在套体 10的外表面 或内表面, 且可根据需求安装在保护套的任意部位, 如: 正面、 背面或侧 面。
当压力传感器设置在外表面时, 当用户的按压操作作用在压力传感器 上时, 压力传感器检测到该按压操作, 并响应该按压操作, 生成按压信号; 当压力传感器设置在内表面时,当用户按压操作作用在套体 10的外表面时, 作用力通过套体 10传递到压力传感器, 相应地, 压力传感器检测到该按压 操作, 并响应该按压操作, 生成按压信号。
本发明实施例中, M为大于等于 1的整数, 例如 M可为 1、 2或 10。 由于压力传感器在处于供电状态才能工作, 所以, M个压力传感器 101 中 每个压力传感器均与第一供电单元 104连接, 当所述 M个压力传感器 101 处于工作状态时, 假如其中的 N个压力传感器检测到有 N个按压操作时, 则响应所述 N个按压操作, 生成 N个按压信号。 例如: 当 M为 10, N为 2 时, 即当 10个压力传感器中的设置在套体 10两侧的 2个压力传感器检测 到有 2个按压操作时, 则响应所述 2个按压操作, 生成 2个按压信号。
在步骤 S10之后, 本发明实施例的方法便进入步骤 S20, 即: 在检测到 所述 N个按压操作时,响应所述 N个按压操作,生成 N个按压信号。其中, 所述按压信号可以为压力传感器受压产生的微弱电信号。
在步骤 S20之后, 本发明实施例的方法便进入步骤 S30, 即: 对所述 N 个按压信号进行处理, 获得 N个压力值数据。 其中, 所述压力值数据可以 为压力大小值或者压力大小与时间的变化关系。
另外, 考虑到有时用户会无意间碰到保护套, 形成按压操作产生按压 信号, 而这不是用户的实际期望操作, 为避免用户的误操作, 在本发明实 施例中, 压力传感器只对以大于等于预设压力值的压力持续大于等于预设 时间的按压操作进行响应。
在步骤 S30之后, 本发明实施例的方法便进入步骤 S40, 即: 将所述 N 个压力值数据传输给所述电子设备, 以使所述电子设备基于所述 N个压力 值数据生成操作指令, 并通过执行所述操作指令实现与所述 N个按压操作 对应的功能。
其中, 电子设备执行对应的操作实现相应的功能, 所述功能包括: 手 机接听电话、 点亮屏幕和自动回拨。
其中,对于步骤 S40中的将所述 N个压力值数据传输给所述电子设备, 在一个优选的实施方式采用有线传输方式, 即将所述 N个压力值数据以有 线方式传输给所述电子设备, 如: 通过 USB模块、 或光纤传输模块等; 在另一个优选的实施方式采用无线传输方式, 即将所述 N个压力值数 据以无线方式传输给所述电子设备, 如通过红外、 或蓝牙等传输方式。
其中, 对于本发明实施例中的 S30步骤, 实现过程如下:
放大所述 N个按压信号, 获得放大后的所述 N个按压信号;
将所述放大后的所述 N个按压信号进行模数转换, 获得所述 N个压力 值数据。
下面再结合图 2, 对上述实现过程进行详细描述:
信号放大单元 1021将由 M个压力传感器 101传来的信号进行放大。在 实际应用中, 信号放大单元可以是低倍信号放大单元也可以是高倍信号放 大单元;
将所述放大后的 N个按压信号通过模数转换单元 1022进行模数转换, 获得所述 N个压力值数据。
在本发明实施例中,模数转换单元 1022进行模数转换的工作过程如下: 首先, 对经过放大的所述 N个按压信号进行采集, 获得相应采集信号; 其次, 对所述相应采集信号进行保持过程操作, 以保持所述相应采集 信号数字化;
再次, 将连续幅度的所述相应采集信号转换成离散时间、 离散幅度的 数字信号; 最后, 将量化后的所述数字信号编码成二进制代码输出, 获得所述 N 个压力值数据。
本发明实施例中的技术方案, 至少具有如下的有益效果:
1、 由于能自动检测按压操作及获得与按压操作对应的压力值数据, 且 能够基于压力值数据来生成对应的操作指令, 并通过执行该操作指令实现 对应的功能, 所以, 有效解决了相关技术中的电子设备存在不能自动检测 握持电子设备的压力的问题, 能够根据检测到的压力值和 /或按压的个数来 生成操作指令, 以操作电子设备, 进而实现了能自动检测握持电子设备的 压力, 并根据检测到的压力值和 /或按压的个数来生成操作指令, 以操作电 子设备的技术效果。
2、 由于能自动检测按压操作及获得与按压操作对应的压力值数据, 且 能够基于压力值数据来生成对应的操作指令, 并通过执行该操作指令实现 对应的功能, 即: 整个过程都是自动的过程, 不涉及到去检测和响应用户 其它的操作, 所以, 能够有效解决了相关技术中电子设备还存在由于不能 基于按压操作而生成并执行操作指令, 而导致的处理复杂及处理时间长的 技术问题, 进而实现了能自动检测握持电子设备的压力, 并根据检测到的 压力值和 /或按压的个数来生成操作指令, 简单快捷地操作电子设备的技术 效果。
实施例二
在实施例二中, 提供了一种电子设备, 参考图 4所示, 所述电子设备 包括:
机壳 20;
第二供电单元 201, 设置在所述机壳 20内。
M个压力传感器, 设置在所述机壳 20上, 在图 4中, 为三个压力传感 器, 分别为: 压力传感器 1, 压力传感器 2, 压力传感器 3, M个压力传感 器中每个压力传感器都与所述第二供电单元 201连接, 当所述 M个压力传 感器中的 N个压力传感器检测到有 N个按压操作时,响应所述 N个按压操 作, 生成 N个按压信号, 其中, M为大于等于 1的整数, N为小于等于 M 的正整数, 其中按压操作包括: 用户触摸电子设备、 直接按压电子设备的 直接按压操作、 滑动电子设备的滑动按压操作等能使所述 M个压力传感器 能感应到相应的压力的操作, 本实施例中不做具体限定。
实际应用中, 压力传感器可以采用薄膜状的压力传感器, 且可以呈任 意形状, 如: 正方形, 三角形等等, 无论是安装在机壳 20的外表面还是内 表面, 都可以根据需求安装在机壳的任意部位, 如: 正面、 背面或侧面。
实际应用中, 所述机壳 20可以是金属材料, 工程塑料材料等, 如: 铝 镁合金与钛合金, 碳纤维等, 所述机壳 20的形状也可以为任意形状, 如: 正方形, 三角形等。
当所述压力传感器设置在外表面时, 当用户的按压操作作用在压力传 感器上时, 压力传感器就能检测到, 并响应该按压操作, 生成按压信号; 当所述压力传感器设置在内表面时, 当用户按压操作作用在机壳 20的外表 面时, 作用力就会通过机壳 20传递到压力传感器, 这样, 压力传感器同样 能检测到, 并响应该按压操作, 生成按压信号。
在本发明实施例中, M为大于等于 1的整数,如可以为 1,也可以为 2, 也可以为 10等等。 由于压力传感器在处于供电状态才能工作, 所以, M个 压力传感器中每个压力传感器都是和第二供电单元 201连接的, 当所述 M 个压力传感器处于工作状态时, 假如其中的 N个压力传感器检测到有 N个 按压操作时, 就会响应所述 N个按压操作, 生成 N个按压信号。 例如: 当 M为 10, N为 2时, 即当 10个压力传感器中的设置在机壳 20两侧的 2个 压力传感器检测到有 2个按压操作时, 就会响应该 2个按压操作, 生成 2 个按压信号。 数据处理器 202,与所述 M个压力传感器连接及所述第二供电单元 201 连接, 配置为接收所述 N个按压信号, 并对所述 N个按压信号进行处理, 获得 N个压力值数据, 并基于所述 N个压力值数据生成操作指令, 并通过 执行所述操作指令实现与所述 N个按压操作对应的功能。
实际应用中, 数据处理器 202为由微处理器、 DSP或 FPGA实现的任 意形状的芯片装置, 所述形状包括: 正方形, 三角形, 数据处理器 202可 安装在机壳 20的任意位置, 如: 正面, 背面, 内表面等。
实际应用中, 所述第二供电单元 201 可以通过锂电池、 碱性电池或将 交流电转换为直流电的整流装置例如整流器实现, 第二供电单元 201 与机 壳 20、 M个压力传感器以及数据处理器 202连接, 并为机壳 20、 M个压力 传感器以及数据处理器 202供电, 使它们能正常工作。
还需要说明的是, 所述第二供电单元 201 与实施例一中的第一供电单 元 104可以为同一供电单元, 即第二供电单元 201独立于所述电子设备, 只为机壳 20、 M个压力传感器、 以及数据处理器 202供电; 所述第二供电 单元 201 也可为所述电子设备的供电单元, 即所述电子设备的供电单元还 为机壳 20、 M个压力传感器以及数据处理器 202供电。
其中, 所述数据处理器 202包括:
信号放大单元, 与所述 M个压力传感器连接, 配置为在接收所述 N个 按压信号后, 放大所述 N个按压信号, 获得放大后的所述 N个按压信号, 因为所述 M个压力传感器因受压生成的是微弱的电信号, 所以需要经信号 放大单元放大后才能进行下一步处理。 信号放大单元可以是低倍信号放大 单元也可以是高倍信号放大单元, 相应地, 在实际应用中, 信号放大单元 可以通过低倍信号放大器或高倍信号放大器实现。
模数转换单元, 与所述信号放大单元连接, 配置为将放大后的所述 N 个按压信号进行模数转换, 获得所述 N个压力值数据。 实际应用中, 模数 转换单元可以通过模数转换器实现。
在本发明实施例中, 模数转换单元进行模数转换的工作过程如下: 首先, 对经过放大的所述 N个按压信号进行采集, 获得相应采集信号; 然后, 对所述相应采集信号进行保持过程操作, 以保持所述相应采集 信号数字化;
然后, 将连续幅度的所述相应采集信号转换成离散时间、 离散幅度的 数字信号;
最后, 将量化后的所述数字信号编码成二进制代码输出, 获得所述 N 个压力值数据。
指令处理模块, 与所述模数转换单元连接, 配置为基于所述 N个压力 值数据生成操作指令, 并通过执行所述操作指令实现与所述 N个按压操作 对应的功能。
在本发明实施例中, 所述电子设备包括智能手机、 电脑、 游戏机等。 在本发明实施例中, 所述电子设备还包括:
位置传感器, 与所述数据处理器 202连接, 配置为检测并获得所述电 子设备的位置信息, 如当用户将电子设备拿到眼前进行操作, 这时位置传 感器就会生成位置信息, 并将所述位置信息传输给数据处理器 202。
距离传感器, 与所述数据处理器 202连接, 配置为检测并获得所述电 子设备与用户耳朵间的距离信息, 并将所述距离信息传输给数据处理器 202。
其中, 在实际应用中, 本发明实施例中电子设备可以将压力传感器, 位置传感器, 距离传感器应用在很多应用场景中发挥作用, 实现很多功能, 下面本发明实施例将举例进行说明:
应用场景一: 当电子设备为手机, 且有来电请求时。
例如, 所述数据处理器 202 配置为当所述电子设备作为被叫终端有来 电请求时, 判断所述 N个压力值数据对应的所述 N个按压操作是否为对所 述电子设备两侧的按压操作。
当所述 N个按压操作为对所述电子设备两侧的按压操作时, 判断所述 位置信息是否满足预设位置条件, 在场景一中, 预设位置条件可以为: 在 用户耳朵的位置。
当所述位置信息满足所述预设位置条件时, 判断所述距离信息是否满 足预设距离条件, 在场景一中, 预设距离条件可以为: 离用户耳朵的距离 小于等于 10厘米。
在所述距离信息满足所述预设距离条件时, 生成接听指令; 执行所述 接听指令, 处理所述来电请求, 在所述电子设备与所述来电请求对应的主 叫终端间建立通话。
上述过程, 综合来讲, 即为: 在有来电请求时, 当手机检测到用户对 所述手机的两侧有按压操作, 且手机的位置在用户的耳朵位置, 且手机距 离耳朵的距离小于等于 10厘米时, 就会生成接听指令, 并通过执行该接听 指令, 与主叫终端建立通话。
应用场景二: 当电子设备为手机, 用户需要观看时间时。
例如, 所述数据处理器 202还配置为:
判断所述 N个压力值数据对应的所述 N个按压操作是否为对所述电子 设备两侧的按压操作。
当所述 N个按压操作为对所述电子设备两侧的按压操作时, 判断所述 位置信息是否满足预设位置条件, 在场景二中, 预设位置条件可以为: 在 用户胸前的位置。 在所述位置信息满足所述预设位置条件时, 生成点亮指 令。
执行所述点亮指令, 使所述电子设备的显示单元处于点亮状态。
上述过程, 综合来讲, 即为: 在用户需要观看手机所显示的时间时, 当手机检测到用户对所述手机的两侧有按压操作, 且手机的位置在用户的 胸前位置, 就会生成点亮指令, 并通过执行该点亮指令, 使所述手机的显 示单元处于点亮状态。
应用场景三: 当电子设备为手机, 且所述手机有未处理来电请求时。 例如, 所述数据处理器 202还配置为:
当检测到所述电子设备作为被叫终端有未处理来电请求时,判断所述 N 个压力值数据对应的所述 N个按压操作是否为对所述电子设备两侧的按压 操作。
当所述 N个按压操作为对所述电子设备两侧的按压操作时, 所述电子 设备的显示单元显示所述未处理来电请求。
在所述显示单元在显示所述未处理来电请求后, 判断所述 N个按压操 作是否为对所述电子设备两侧的按压操作。
当所述 N个按压操作为对所述电子设备两侧的按压操作时, 生成呼叫 指令。
执行所述呼叫指令, 向所述未处理来电请求对应的主叫终端发起呼叫。 上述过程, 综合来讲, 即为: 在用户需要观看手机的未处理来电请求 时, 当手机检测到用户对所述手机的两侧有按压操作, 所述手机的显示单 元显示所述未处理来电请求, 在所述手机显示所述未处理来电请求后, 当 手机检测到用户对所述手机的两侧有按压操作, 所述手机就会生成呼叫指 令, 向所述未处理来电请求对应的主叫终端发起呼叫。
本发明实施例中的技术方案, 至少具有如下的有益效果:
1、 由于能自动检测按压操作及获得与按压操作对应的压力值数据, 且 能够基于压力值数据来生成对应的操作指令, 并通过执行该操作指令实现 对应的功能, 所以, 能够有效解决了相关技术中的电子设备存在不能自动 检测握持电子设备的压力, 并根据检测到的压力值和 /或按压的个数来生成 操作指令, 以操作电子设备的技术问题, 进而实现了能自动检测握持电子 设备的压力, 并根据检测到的压力值和 /或按压的个数来生成操作指令, 以 操作电子设备的技术效果。
2、 由于能自动检测按压操作及获得与按压操作对应的压力值数据, 且 能够基于压力值数据来生成对应的操作指令, 并通过执行该操作指令实现 对应的功能, 即: 整个过程都是自动的过程, 不涉及到去检测和响应用户 其它的操作, 所以, 能够有效解决了相关技术中电子设备还存在由于不能 基于按压操作而生成并执行操作指令, 而导致的处理复杂及处理时间长的 技术问题, 进而实现了能自动检测握持电子设备的压力, 并根据检测到的 压力值和 /或按压的个数来生成操作指令, 简单快捷地操作电子设备的技术 效果。
对应实施例二中的电子设备, 实施例二还提供一种对应电子设备的一 种信号处理方法, 如图 5所示, 所述方法包括:
S50, 检测是否有对所述电子设备上的 M个压力传感器中的 N个压力 传感器进行的 N个按压操作, 其中, M为大于等于 1的整数, N为小于等 于 M的正整数。 其中, 所述按压操作可以是用户触摸电子设备、 直接按压 电子设备的直接按压操作、 滑动电子设备的滑动按压操作能使所述 M个压 力传感器感应到相应的压力的操作, 本实施例中不做具体限定。
本发明实施例中所述电子设备包括智能手机, 电脑, 游戏机等, 本实 施例中不做具体限定。
在本发明实施例中, 压力传感器为薄膜状的压力传感器, 且可以呈任 意形状, 如: 正方形, 三角形等, 压力传感器安装在电子设备的外表面或 内表面, 并可根据需求安装在电子设备的任意部位, 如: 正面、 背面或侧 面。
当压力传感器设置在外表面时, 当用户的按压操作作用在压力传感器 上时, 压力传感器就能检测到, 并响应该按压操作, 生成按压信号; 当压 力传感器设置在内表面时, 当用户按压操作作用在电子设备的外表面时, 作用力就会通过电子设备传递到压力传感器, 这样, 压力传感器同样能检 测到, 并响应该按压操作, 生成按压信号。
在步骤 S50之后, 本发明实施例的方法便进入步骤 S60, 即: 在检测到 所述 N个按压操作时,响应所述 N个按压操作,生成 N个按压信号,其中, 在本发明实施例中, M为大于等于 1的整数, 如可以为 1, 也可以为 2, 也 可以为 10等等。 由于压力传感器在处于供电状态才能工作, 所以, M个压 力传感器中每个压力传感器都是和第二供电单元 201连接的, 当所述 M个 压力传感器处于工作状态时, 假如其中的 N个压力传感器检测到有 N个按 压操作时, 就会响应所述 N个按压操作, 生成 N个按压信号。 例如: 当 M 为 10, N为 2时, 即当 10个压力传感器中的设置在套体 10两侧的 2个压 力传感器检测到有 2个按压操作时, 就会响应该 2个按压操作, 生成 2个 按压信号。
在步骤 S60之后, 本发明实施例的方法便进入步骤 S70, 即: 对所述 N 个按压信号进行处理, 获得 N个压力值数据。
在步骤 S70之后, 本发明实施例的方法便进入步骤 S80, 即: 基于所述 N个压力值数据生成操作指令, 并执行所述操作指令, 以实现与所述 N个 按压操作对应的功能。
其中, 对于本发明实施例中的 S70中所述对所述 N个按压信号进行处 理, 获得 N个压力值数据, 包括:
放大所述 N个按压信号, 获得放大后的所述 N个按压信号。 在实际应 用中, 信号放大单元可以是低倍信号放大单元也可以是高倍信号放大单元; 将所述放大后的 N个按压信号进行模数转换, 获得所述 N个压力值数 据。 在本发明实施例中, 模数转换单元进行模数转换的具体工作过程如下: 首先, 对经过放大的所述 N个按压信号进行采集, 获得相应采集信号; 然后, 对所述相应采集信号进行保持过程操作, 以保持所述相应采集 信号数字化;
然后, 将连续幅度的所述相应采集信号转换成离散时间、 离散幅度的 数字信号;
最后, 将量化后的所述数字信号编码成二进制代码输出, 获得所述 N 个压力值数据。
其中, 在实际应用中, 本发明实施例中电子设备可以将压力传感器, 位置传感器, 距离传感器应用在很多具体应用场景中发挥作用, 实现很多 功能, 下面本发明实施例将举例进行说明:
场景一: 当电子设备为手机, 且有来电请求时。
对于场景一可以采用如下的实施方式:
判断所述 N个压力值数据对应的所述 N个按压操作是否为对所述电子 设备两侧的按压操作。
当所述 N个按压操作为对所述电子设备两侧的按压操作时, 判断所述 电子设备的位置信息是否满足预设位置条件, 在场景一中, 预设位置条件 可以为: 在用户耳朵的位置。
当所述位置信息满足所述预设位置条件时, 判断所述电子设备与用户 耳朵间的距离信息是否满足预设距离条件, 在场景一中, 预设距离条件可 以为: 离用户耳朵的距离小于等于 10厘米。
在所述距离信息满足所述预设距离条件时, 生成接听指令。
执行所述接听指令, 处理所述来电请求, 在所述电子设备与所述来电 请求对应的主叫终端间建立通话。
上述过程, 综合来讲, 即为: 在有来电请求时, 当手机检测到用户对 所述手机的两侧有按压操作, 且手机的位置在用户的耳朵位置, 且手机距 离耳朵的距离小于等于 10厘米时, 就会生成接听指令, 并通过执行该接听 指令, 与主叫终端建立通话。
场景二, 当电子设备为手机, 用户需要观看时间时。
对于场景二可以采用如下的实施方式:
判断所述 N个压力值数据对应的所述 N个按压操作是否为对所述电子 设备两侧的按压操作。
当所述 N个按压操作为对所述电子设备两侧的按压操作时, 判断所述 位置信息是否满足预设位置条件, 在场景二中, 预设位置条件可以为: 在 用户胸前的位置。
在所述位置信息满足所述预设位置条件时, 生成点亮指令;
执行所述点亮指令, 使所述电子设备的显示单元处于点亮状态。
上述过程, 综合来讲, 即为: 在用户需要观看手机所显示的时间时, 当手机检测到用户对所述手机的两侧有按压操作, 且手机的位置在用户的 胸前位置, 就会生成点亮指令, 并通过执行该点亮指令, 使所述手机的显 示单元处于点亮状态。
场景三, 当电子设备为手机, 且所述手机有未处理来电请求时。
对于场景三, 可以采用如下的实施方式:
当检测到所述电子设备作为被叫终端有未处理来电请求时,判断所述 N 个压力值数据对应的所述 N个按压操作是否为对所述电子设备两侧的按压 操作。
当所述 N个按压操作为对所述电子设备两侧的按压操作时, 所述电子 设备的显示单元显示所述未处理来电请求。
在所述显示单元在显示所述未处理来电请求后, 判断所述 N个按压操 作是否为对所述电子设备两侧的按压操作。 当所述 N个按压操作为对所述电子设备两侧的按压操作时, 生成呼叫 指令。
执行所述呼叫指令, 向所述未处理来电请求对应的主叫终端发起呼叫。 上述过程, 综合来讲, 即为: 在用户需要观看手机的未处理来电请求 时, 当手机检测到用户对所述手机的两侧有按压操作, 所述手机的显示单 元显示所述未处理来电请求, 在所述手机显示所述未处理来电请求后, 当 手机检测到用户对所述手机的两侧有按压操作, 所述手机就会生成呼叫指 令, 向所述未处理来电请求对应的主叫终端发起呼叫。
上述本发明实施例中的技术方案, 至少具有如下的有益效果:
1、 由于能自动检测按压操作及获得与按压操作对应的压力值数据, 且 能够基于压力值数据来生成对应的操作指令, 并通过执行该操作指令实现 对应的功能, 所以, 有效解决了相关技术中的电子设备存在不能自动检测 握持电子设备的压力的问题, 能够根据检测到的压力值和 /或按压的个数来 生成操作指令, 以操作电子设备的技术问题, 进而实现了能自动检测握持 电子设备的压力,并根据检测到的压力值和 /或按压的个数来生成操作指令, 以操作电子设备的技术效果。
2、 由于能自动检测按压操作及获得与按压操作对应的压力值数据, 且 能够基于压力值数据来生成对应的操作指令, 并通过执行该操作指令实现 对应的功能, 即: 整个过程都是自动的过程, 不涉及到去检测和响应用户 其它的操作, 所以, 能够有效解决了相关技术中电子设备还存在由于不能 基于按压操作而生成并执行操作指令, 而导致的处理复杂及处理时间长的 技术问题, 进而实现了能自动检测握持电子设备的压力, 并根据检测到的 压力值和 /或按压的个数来生成操作指令, 简单快捷地操作电子设备的技术 效果。
尽管已描述了本发明的优选实施例, 但本领域内的技术人员一旦得知 了基本创造性概念, 则可对这些实施例作出另外的变更和修改。 所以, 所 附权利要求意欲解释为包括优选实施例以及落入本发明范围的所有变更和 修改。 本发明的精神和范围。 这样, 倘若本发明的这些修改和变型属于本发明权 利要求及其等同技术的范围之内, 则本发明也意图包含这些改动和变型在 内。 工业实用性
本发明实施例所提供的保护套套设于电子设备上, 所述保护套包括: 套体、 M个压力传感器、 信号处理器和信号传输模块, 当所述 M个压力传 感器中的 N个压力传感器检测到有 N个按压操作时,响应所述 N个按压操 作, 生成 N个按压信号; 对所述 N个按压信号进行处理, 获得 N个压力值 数据, 并传输给所述电子设备, 以使所述电子设备能够基于所述 N个压力 值数据生成操作指令, 并通过执行所述操作指令实现与所述 N个按压操作 对应的功能。

Claims

权利要求书
1、 一种保护套, 套设于电子设备上, 所述保护套包括:
套体;
第一供电单元, 设置在所述套体上;
M 个压力传感器, 设置在所述套体上, 与所述第一供电单元连接, 当 所述 M个压力传感器中的 N个压力传感器检测到有 N个按压操作时,响应 所述 N个按压操作, 生成 N个按压信号, 其中, M为大于等于 1的整数, N为小于等于 M的正整数;
信号处理器, 与所述 M个压力传感器连接及所述供电单元连接, 配置 为接收所述 N个按压信号, 并对所述 N个按压信号进行处理, 获得 N个压 力值数据;
信号传输模块, 与所述信号处理器及所述第一供电单元连接, 配置为 将所述 N个压力值数据传输给所述电子设备, 以使所述电子设备能够基于 所述 N个压力值数据生成操作指令, 并通过执行所述操作指令实现与所述 N个按压操作对应的功能。
2、 如权利要求 1所述的保护套, 其中, 所述第一供电单元为: 电池或 将交流电转换为直流电的整流装置。
3、 如权利要求 1所述的保护套, 其中, 所述信号传输模块为带有第一 数据接口的第一有线数据传输模块, 通过连线连接所述第一数据接口及所 述电子设备上的与所述第一有线数据传输模块匹配的第二有线数据传输模 块, 将所述 N个压力值数据以有线方式传输给所述电子设备。
4、 如权利要求 1所述的保护套, 其中, 所述信号传输模块为第一无线 传输模块, 通过与所述电子设备上的与所述第一无线传输模块匹配的第二 无线传输模块的配合, 将所述 N个压力值数据以无线方式传输给所述电子 设备。
5、 如权利要求 1-4任一项所述的保护套, 其中, 所述信号处理器包括: 信号放大单元, 与所述 M个压力传感器连接, 配置为在接收所述 N个 按压信号后, 放大所述 N个按压信号, 获得放大后的所述 N个按压信号; 模数转换单元, 与所述信号放大单元连接, 配置为将所述放大后的所 述 N个按压信号进行模数转换, 获得所述 N个压力值数据。
6、 一种电子设备, 包括:
机壳;
第二供电单元, 设置在所述机壳内;
M 个压力传感器, 设置在所述机壳上, 与所述第二供电单元连接, 当 所述 M个压力传感器中的 N个压力传感器检测到有 N个按压操作时,响应 所述 N个按压操作, 生成 N个按压信号, 其中, M为大于等于 1的整数, N为小于等于 M的正整数;
数据处理器, 与所述 M个压力传感器连接及所述第二供电单元连接, 配置为接收所述 N个按压信号, 并对所述 N个按压信号进行处理, 获得 N 个压力值数据, 并基于所述 N个压力值数据生成操作指令, 并通过执行所 述操作指令实现与所述 N个按压操作对应的功能。
7、 如权利要求 6所述的电子设备, 其中, 所述第二供电单元为: 电池 或将交流电转换为直流电的整流装置。
8、 如权利要求 6或 7所述的电子设备, 其中, 所述数据处理器包括: 信号放大单元, 与所述 M个压力传感器连接, 配置为在接收所述 N个 按压信号后, 放大所述 N个按压信号, 获得放大后的所述 N个按压信号; 模数转换单元, 与所述信号放大单元连接, 配置为将所述放大后的所 述 N个按压信号进行模数转换, 获得所述 N个压力值数据;
指令处理模块, 与所述模数转换单元连接, 配置为基于所述 N个压力 值数据生成操作指令, 并通过执行所述操作指令实现与所述 N个按压操作 对应的功能。
9、 如权利要求 8所述的电子设备, 其中, 所述电子设备还包括: 位置传感器, 与所述数据处理器连接, 配置为检测获得所述电子设备 的位置信息;
距离传感器, 与所述数据处理器连接, 配置为检测获得所述电子设备 与用户耳朵间的距离信息。
10、 如权利要求 9所述的电子设备, 其中, 所述数据处理器还配置为: 当所述电子设备作为被叫终端有来电请求时, 判断所述 N个压力值数 据对应的所述 N个按压操作是否为对所述电子设备两侧的按压操作;
当所述 N个按压操作为对所述电子设备两侧的按压操作时, 判断所述 位置信息是否满足预设位置条件;
当所述位置信息满足所述预设位置条件时, 判断所述距离信息是否满 足预设距离条件;
在所述距离信息满足所述预设距离条件时, 生成接听指令;
执行所述接听指令, 处理所述来电请求, 在所述电子设备与所述来电 请求对应的主叫终端间建立通话。
11、 如权利要求 8所述的电子设备, 其中, 所述数据处理器还配置为: 判断所述 N个压力值数据对应的所述 N个按压操作是否为对所述电子 设备两侧的按压操作;
当所述 N个按压操作为对所述电子设备两侧的按压操作时, 判断所述 位置信息是否满足预设位置条件;
在所述位置信息满足所述预设位置条件时, 生成点亮指令;
执行所述点亮指令, 使所述电子设备的显示单元处于点亮状态。
12、 如权利要求 8所述的电子设备, 其中, 所述数据处理器还配置为: 当检测到所述电子设备作为被叫终端有未处理来电请求时,判断所述 N 个压力值数据对应的所述 N个按压操作是否为对所述电子设备两侧的按压 操作;
当所述 N个按压操作为对所述电子设备两侧的按压操作时, 所述电子 设备的显示单元显示所述未处理来电请求;
在所述显示单元在显示所述未处理来电请求后, 判断所述 N个按压操 作是否为对所述电子设备两侧的按压操作;
当所述 N个按压操作为对所述电子设备两侧的按压操作时, 生成呼叫 指令;
执行所述呼叫指令, 向所述未处理来电请求对应的主叫终端发起呼叫。
13、 一种信号处理方法, 应用在保护套上, 所述保护套套设在电子设 备上, 其中, 所述方法包括:
检测是否有对所述保护套上的 M个压力传感器中的 N个压力传感器进 行的 N个按压操作, 其中, M为大于等于 1的整数, N为小于等于 M的正 整数;
在检测到所述 N个按压操作时, 响应所述 N个按压操作, 生成 N个按 压信号;
对所述 N个按压信号进行处理, 获得 N个压力值数据;
将所述 N个压力值数据传输给所述电子设备, 以使所述电子设备基于 所述 N个压力值数据生成操作指令, 并通过执行所述操作指令实现与所述
N个按压操作对应的功能。
14、 如权利要求 13所述的方法, 其中, 所述将所述 N个压力值数据传 输给所述电子设备, 包括:
15、 如权利要求 13所述的方法, 其中, 所述将所述 N个压力值数据传 输给所述电子设备, 包括: 将所述 N个压力值数据以无线方式传输给所述 电子设备。
16、 如权利要求 13-15任一项所述的方法, 其中, 所述对所述 N个按 压信号进行处理, 获得 N个压力值数据, 包括:
放大所述 N个按压信号, 获得放大后的所述 N个按压信号; 将所述放大后的所述 N个按压信号进行模数转换, 获得所述 N个压力 值数据。
17、 一种信号处理方法, 应用在电子设备上, 所述方法包括: 检测是否有对所述电子设备上的 M个压力传感器中的 N个压力传感器 进行的 N个按压操作, 其中, M为大于等于 1的整数, N为小于等于 M的 正整数;
在检测到所述 N个按压操作时, 响应所述 N个按压操作, 生成 N个按 压信号;
对所述 N个按压信号进行处理, 获得 N个压力值数据;
基于所述 N个压力值数据生成操作指令, 并执行所述操作指令, 以实 现与所述 N个按压操作对应的功能。
18、 如权利要求 17所述的方法, 其中, 所述对所述 N个按压信号进行 处理, 获得 N个压力值数据, 包括:
放大所述 N个按压信号, 获得放大后的所述 N个按压信号; 将所述放大后的所述 N个按压信号进行模数转换, 获得所述 N个压力 值数据。
19、 如权利要求 17所述的方法, 其中, 所述基于所述 N个压力值数据 生成操作指令, 并执行所述操作指令, 包括:
当所述电子设备作为被叫终端有来电请求时, 判断所述 N个压力值数 据对应的所述 N个按压操作是否为对所述电子设备两侧的按压操作;
当所述 N个按压操作为对所述电子设备两侧的按压操作时, 判断所述 电子设备的位置信息是否满足预设位置条件;
当所述位置信息满足所述预设位置条件时, 判断所述电子设备与用户 耳朵间的距离信息是否满足预设距离条件;
在所述距离信息满足所述预设距离条件时, 生成接听指令;
执行所述接听指令, 处理所述来电请求, 在所述电子设备与所述来电 请求对应的主叫终端间建立通话。
20、 如权利要求 17所述的方法, 其中, 所述基于所述 N个压力值数据 生成操作指令, 并执行所述操作指令, 包括:
判断所述 N个压力值数据对应的所述 N个按压操作是否为对所述电子 设备两侧的按压操作;
当所述 N个按压操作为对所述电子设备两侧的按压操作时, 判断所述 位置信息是否满足预设位置条件;
在所述位置信息满足所述预设位置条件时, 生成点亮指令;
执行所述点亮指令, 使所述电子设备的显示单元处于点亮状态。
21、 如权利要求 17所述的方法, 其中, 所述基于所述 N个压力值数据 生成操作指令, 并执行所述操作指令, 包括:
当检测到所述电子设备作为被叫终端有未处理来电请求时,判断所述 N 个压力值数据对应的所述 N个按压操作是否为对所述电子设备两侧的按压 操作;
当所述 N个按压操作为对所述电子设备两侧的按压操作时, 所述电子 设备的显示单元显示所述未处理来电请求;
在所述显示单元在显示所述未处理来电请求后, 判断所述 N个按压操 作是否为对所述电子设备两侧的按压操作;
当所述 N个按压操作为对所述电子设备两侧的按压操作时, 生成呼叫 指令; 执行所述呼叫指令, 向所述未处理来电请求对应的主叫终端发起呼叫
PCT/CN2013/084800 2012-11-20 2013-09-30 对信号进行处理的方法及电子设备 WO2014079279A1 (zh)

Applications Claiming Priority (2)

Application Number Priority Date Filing Date Title
CN201210472046.4 2012-11-20
CN201210472046.4A CN102999277B (zh) 2012-11-20 2012-11-20 一种对信号进行处理的方法及电子设备

Publications (1)

Publication Number Publication Date
WO2014079279A1 true WO2014079279A1 (zh) 2014-05-30

Family

ID=47927902

Family Applications (1)

Application Number Title Priority Date Filing Date
PCT/CN2013/084800 WO2014079279A1 (zh) 2012-11-20 2013-09-30 对信号进行处理的方法及电子设备

Country Status (2)

Country Link
CN (1) CN102999277B (zh)
WO (1) WO2014079279A1 (zh)

Families Citing this family (21)

* Cited by examiner, † Cited by third party
Publication number Priority date Publication date Assignee Title
CN102999277B (zh) * 2012-11-20 2019-04-23 中兴通讯股份有限公司 一种对信号进行处理的方法及电子设备
CN103442284B (zh) * 2013-08-21 2017-06-09 京东方科技集团股份有限公司 控制方法、控制装置及电视系统
CN103945061B (zh) * 2014-04-15 2016-03-02 努比亚技术有限公司 移动终端、保护套以及二者的匹配方法
CN104883439A (zh) * 2015-05-04 2015-09-02 努比亚技术有限公司 终端的操作方法和移动终端
CN104898838B (zh) * 2015-05-25 2018-01-16 广东欧珀移动通信有限公司 手持设备的来电响应方法及装置
CN104954559A (zh) * 2015-05-26 2015-09-30 努比亚技术有限公司 一种通话管理方法及智能通话终端
CN105224224B (zh) * 2015-09-09 2019-03-29 魅族科技(中国)有限公司 一种终端设备及模式切换的方法
CN105760087A (zh) * 2016-01-29 2016-07-13 广东欧珀移动通信有限公司 信号处理方法和相关装置
CN106873868A (zh) * 2016-12-30 2017-06-20 努比亚技术有限公司 一种实现应用控制的方法及终端
CN106775419A (zh) * 2016-12-30 2017-05-31 努比亚技术有限公司 一种实现应用切换的方法及终端
CN106873867A (zh) * 2016-12-30 2017-06-20 努比亚技术有限公司 一种移动终端和控制屏幕的方法
CN106843680A (zh) * 2016-12-30 2017-06-13 努比亚技术有限公司 一种实现分页处理的方法及终端
CN107071140A (zh) * 2016-12-30 2017-08-18 努比亚技术有限公司 一种移动终端和控制屏幕的方法
CN106843679A (zh) * 2016-12-30 2017-06-13 努比亚技术有限公司 一种实现分屏切换的方法及终端
CN106936984A (zh) * 2017-01-23 2017-07-07 努比亚技术有限公司 一种移动终端和控制方法
CN106886382A (zh) * 2017-01-23 2017-06-23 努比亚技术有限公司 一种实现分屏处理的方法及终端
CN106909248A (zh) * 2017-01-23 2017-06-30 努比亚技术有限公司 一种实现应用交互的方法及终端
CN106682469A (zh) * 2017-02-06 2017-05-17 努比亚技术有限公司 一种实现锁屏处理的方法及终端
CN106899759A (zh) * 2017-02-06 2017-06-27 努比亚技术有限公司 一种实现图像拍摄的方法及终端
CN106933476A (zh) * 2017-02-06 2017-07-07 努比亚技术有限公司 一种实现终端控制的方法及终端
CN109714475A (zh) * 2018-12-18 2019-05-03 芯海科技(深圳)股份有限公司 一种压阻式传感器使用新贴合实现新功能的装置及方法

Citations (6)

* Cited by examiner, † Cited by third party
Publication number Priority date Publication date Assignee Title
US20110096633A1 (en) * 2009-10-25 2011-04-28 Underwater Technologies Center Ltd. Portable diver apparatus, comprising a portable computing device and an add on diver device
CN102523324A (zh) * 2011-12-04 2012-06-27 东华大学 一种具有智能侧键的手持式智能设备
JP2012173842A (ja) * 2011-02-18 2012-09-10 Nec Casio Mobile Communications Ltd 入力装置、入力制御方法及びプログラム
CN102694906A (zh) * 2011-02-18 2012-09-26 微软公司 移动电话的自动接听
CN102801835A (zh) * 2012-09-07 2012-11-28 江苏物联网研究发展中心 具有按压输入功能的手机套
CN102999277A (zh) * 2012-11-20 2013-03-27 中兴通讯股份有限公司 一种对信号进行处理的方法及电子设备

Family Cites Families (2)

* Cited by examiner, † Cited by third party
Publication number Priority date Publication date Assignee Title
US20100231530A1 (en) * 2009-03-13 2010-09-16 Sentrend Corporation Touch pad for multiple sensing
US9047006B2 (en) * 2010-09-29 2015-06-02 Sony Corporation Electronic device system with information processing mechanism and method of operation thereof

Patent Citations (6)

* Cited by examiner, † Cited by third party
Publication number Priority date Publication date Assignee Title
US20110096633A1 (en) * 2009-10-25 2011-04-28 Underwater Technologies Center Ltd. Portable diver apparatus, comprising a portable computing device and an add on diver device
JP2012173842A (ja) * 2011-02-18 2012-09-10 Nec Casio Mobile Communications Ltd 入力装置、入力制御方法及びプログラム
CN102694906A (zh) * 2011-02-18 2012-09-26 微软公司 移动电话的自动接听
CN102523324A (zh) * 2011-12-04 2012-06-27 东华大学 一种具有智能侧键的手持式智能设备
CN102801835A (zh) * 2012-09-07 2012-11-28 江苏物联网研究发展中心 具有按压输入功能的手机套
CN102999277A (zh) * 2012-11-20 2013-03-27 中兴通讯股份有限公司 一种对信号进行处理的方法及电子设备

Also Published As

Publication number Publication date
CN102999277B (zh) 2019-04-23
CN102999277A (zh) 2013-03-27

Similar Documents

Publication Publication Date Title
WO2014079279A1 (zh) 对信号进行处理的方法及电子设备
US9891719B2 (en) Impact and contactless gesture inputs for electronic devices
US9838522B2 (en) Information processing device
WO2019062242A1 (zh) 无线耳机及无线耳机的控制方法
WO2017101047A1 (zh) 控制充电的方法、装置、电源适配器和移动终端
CN107968492B (zh) 一种无线充电装置、系统、移动终端及充电终端
TW200937279A (en) Portable device, method of operating the portable device, and computer program
JP6951526B1 (ja) 体温モニタリング装置、マスクアセンブリ、入退室制御方法、装置及びシステム
CN112334860B (zh) 一种可穿戴设备的触控方法、可穿戴设备及系统
KR20180038073A (ko) 적어도 하나의 보청기의 작동을 제어하기 위한 애플리케이션 소프트웨어를 갖는 개인 통신 디바이스
WO2019047862A1 (zh) 一种指纹采集方法及终端设备、存储介质
JP2012034263A (ja) 携帯端末装置
CN110691165A (zh) 一种导航操作方法及电子设备
CN115695620A (zh) 智能眼镜及其控制方法和系统
US20180359556A1 (en) Pairing of wireless earpiece to selected device based on head movement to identify device
US8755748B2 (en) Wireless telephone system with headset-handset assembly
CN103795843A (zh) 一种接听电话的方法以及一种电子设备
WO2022247324A1 (zh) 马达阻尼的测算方法和系统
CN113115151B (zh) 一种无线耳机的控制方法及装置、设备、存储介质
CN105491482B (zh) 语音传送方法和语音传送装置
JP2013168715A (ja) 携帯電話機
JP2013168715A5 (zh)
WO2021103999A1 (zh) 一种触摸操作的识别方法及穿戴设备
CN113411702B (zh) 一种声道配置方法及电子设备
CN112952929A (zh) 充电方法以及装置、智能穿戴设备、移动终端、充电系统

Legal Events

Date Code Title Description
121 Ep: the epo has been informed by wipo that ep was designated in this application

Ref document number: 13856767

Country of ref document: EP

Kind code of ref document: A1

NENP Non-entry into the national phase

Ref country code: DE

122 Ep: pct application non-entry in european phase

Ref document number: 13856767

Country of ref document: EP

Kind code of ref document: A1