WO2013177998A1 - Operation and control component, information processing system using same and information processing method thereof - Google Patents

Operation and control component, information processing system using same and information processing method thereof Download PDF

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Publication number
WO2013177998A1
WO2013177998A1 PCT/CN2013/074775 CN2013074775W WO2013177998A1 WO 2013177998 A1 WO2013177998 A1 WO 2013177998A1 CN 2013074775 W CN2013074775 W CN 2013074775W WO 2013177998 A1 WO2013177998 A1 WO 2013177998A1
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WO
WIPO (PCT)
Prior art keywords
grip
mode
module
component
mouse
Prior art date
Application number
PCT/CN2013/074775
Other languages
French (fr)
Chinese (zh)
Inventor
张伟明
Original Assignee
Zhang Weiming
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 Zhang Weiming filed Critical Zhang Weiming
Publication of WO2013177998A1 publication Critical patent/WO2013177998A1/en

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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
    • G06F3/03Arrangements for converting the position or the displacement of a member into a coded form
    • G06F3/033Pointing devices displaced or positioned by the user, e.g. mice, trackballs, pens or joysticks; Accessories therefor
    • G06F3/0354Pointing devices displaced or positioned by the user, e.g. mice, trackballs, pens or joysticks; Accessories therefor with detection of 2D relative movements between the device, or an operating part thereof, and a plane or surface, e.g. 2D mice, trackballs, pens or pucks
    • G06F3/03543Mice or pucks
    • 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
    • G06F3/033Pointing devices displaced or positioned by the user, e.g. mice, trackballs, pens or joysticks; Accessories therefor
    • G06F3/0346Pointing devices displaced or positioned by the user, e.g. mice, trackballs, pens or joysticks; Accessories therefor with detection of the device orientation or free movement in a 3D space, e.g. 3D mice, 6-DOF [six degrees of freedom] pointers using gyroscopes, accelerometers or tilt-sensors

Definitions

  • Control unit information processing system using the same, and information processing method thereof
  • the present invention relates to the field of remote control, and more particularly to a control unit having a horizontal grip operation mode and a vertical grip operation mode, an information processing system using the same, and an information processing method thereof. Background technique
  • the K91 smart TV released by Lenovo at the 2012 CES show is equipped with dual remote controls, one is a traditional long strip remote control, the interface is basically the same as the ordinary remote control; the other is a wireless game controller for the gaming entertainment experience. This greatly increases the cost of the product, causes unnecessary waste, and more importantly, brings inconvenience to the user's interactive entertainment. Summary of the invention
  • the technical problem to be solved by the present invention is to provide a control component having a horizontal grip working mode and a vertical grip working mode, in view of the problems of a large number of control components, high cost, and inconvenient user operation in the prior art.
  • a control unit you can control the electronic components in different working modes.
  • an embodiment of the present invention provides a control component, where the control component includes: a grip control module, configured to control whether the manipulation component is in a horizontal grip operation mode or a vertical grip operation mode; the input module, the input module includes at least one of a keyboard module or a mouse module, the keyboard module includes a button, and the mouse module includes A mouse coordinate generation component for generating mouse coordinates.
  • the grip control module is configured to receive an external grip command, and the manipulation component is determined to adopt a horizontal grip or a vertical grip operation mode according to an external grip command.
  • the keys in the keyboard module have corresponding definitions, or in the horizontal grip working mode and the vertical grip working mode, the mouse module generates corresponding coordinate data.
  • the above-mentioned manipulation component wherein the manipulation component housing is provided with one or more touch sensing areas for sensing the outer surface area of the manipulation component that the user's hand touches, and identifying the horizontal grip or vertical grip working mode.
  • the touch sensing area generates a touch sensing signal through a capacitive touch sensing, a pressure touch sensing, or a mechanical touch button.
  • control component wherein the control component is provided with a grip switch for switching between the traverse working mode and the vertical grip working mode.
  • control component wherein the control component is provided with an electronic compass module for automatically recognizing the geomagnetic orientation change of the manipulation component, identifying the horizontal grip operation mode or the vertical grip operation mode.
  • mouse coordinate generation component comprises: one of a gyroscope, an acceleration sensor, a touchpad, a trackball, or an optical finger navigation.
  • the present invention also provides an information processing system using the manipulation component, comprising:
  • control component that accesses the execution component through a wired or wireless interface for controlling and operating software in the execution component
  • a display component for displaying a user interface of software running in the execution component.
  • manipulation component further comprises a communication module, configured to send the identified information to the execution component
  • the mouse module of the manipulation component is configured to generate original data corresponding to mouse coordinates.
  • the information processing system adjusts a method of generating mouse coordinates according to the recognized working mode.
  • the keyboard module of the manipulation component adjusts the definition of each button according to the recognized operation mode.
  • the present invention also provides an information processing method for the manipulation component, including the following steps:
  • the SD detects the grip control module of the manipulation component, and determines whether the manipulation component is currently in the horizontal grip working mode or the vertical grip working mode;
  • the step (S1) includes the execution component issuing a command to the manipulation component, and the manipulation component determines whether to adopt the horizontal grip or the vertical grip operation mode according to the received grip command.
  • the manipulation component is provided with one or more touch sensing regions
  • the step (S1) includes sensing, by the touch sensing region, the position of the outer surface region of the manipulation component that the user's hand touches. Determine whether it is currently in the horizontal grip mode or the vertical grip mode.
  • the step (S1) includes determining whether the current grip operation mode or the vertical grip operation mode is determined according to the grip switch state.
  • control unit is provided with an electronic compass module, and the step (S1) includes judging whether it is currently in the horizontal grip operation mode or the vertical grip operation mode by recognizing the geomagnetic orientation change of the manipulation member.
  • the operating component has a horizontal grip working mode and a vertical grip working mode.
  • the control component can automatically recognize that it is currently in the horizontal grip mode or the vertical grip mode, thereby adjusting the input module.
  • one control component can be used to control the electronic devices in different modes, which not only meets the user's needs, but also reduces the number of control components that the user needs to be equipped, and reduces the product cost.
  • the module 21, the keyboard module 21 includes a button 23; the control unit 10 housing is provided with one or more touch sensing areas 11.
  • the touch sensing area 1 1 generates a touch sensing signal through a capacitive touch sensing, a pressure touch sensing, or a mechanical touch button.
  • the touch sensing area 11 is used to sense the outer surface area of the control part that the user's hand touches, and recognize the horizontal or vertical working mode. As shown in FIG. 2, a touch sensor is disposed on each of the left and right sides of the lower portion of the control member 10 and the bottom surface.
  • the information processing method of the control unit 10 specifically includes: when the user traverses the control unit 10 with both hands, the three touch sensors are difficult to sense the touch of the hand, and determine that the current grip mode is in the horizontal grip mode, and the keys 23 are adjusted by the keyboard module 21.
  • the three touch sensors sense at least two sensors to sense the touch, determine that the current working mode is in the vertical grip mode, and adjust the definition of each button 23 by the keyboard module 21. In this way, the system can automatically recognize whether the manipulation component 10 is in the vertical grip mode or the cross grip mode of operation.
  • FIG. 3 is a schematic illustration of a preferred embodiment of the handling member of the present invention.
  • the control unit 10 is provided with a grip control module 1, and the grip control module 1 includes a grip switch 12 for switching between the horizontal grip operation mode and the vertical grip operation mode.
  • the control unit 10 includes: a grip control module 1, a keyboard module 21, a mouse module 22, a microprocessor unit MCU, and a communication module 14.
  • the grip control module 1 includes a grip switch 12 having both closed and open states. When the system reads that the grip switch 12 is in the closed state, it is recognized as the vertical grip working mode; when the grip switch 12 is read as the open state, it is recognized as the horizontal grip working mode.
  • the keyboard module 21 includes a button 23.
  • the mouse module 22 includes a mouse coordinate generating section 24 for generating mouse coordinates.
  • the mouse coordinate generation unit 24 includes: one of a gyroscope, an acceleration sensor, a touch pad, a trackball, or an optical finger navigation.
  • the mouse coordinate generating part includes a gyroscope.
  • the gyroscope uses three mutually perpendicular axes TX1, ⁇ 2, ⁇ 3 to control the up and down movement of the mouse coordinates.
  • TX1 axis of the gyroscope controls the left and right movement of the mouse cursor
  • TX2 axis controls the up and down movement of the mouse cursor.
  • the grip control member 10, TX3 is facing forward.
  • the TX1 When the TX1 is vertically grounded, the head of the control unit 10 is swung left and right, and the mouse cursor moves left and right; while the TX2 is parallel to the ground, the head of the remote controller is moved up and down, and the mouse cursor moves up and down.
  • the TX2 axis of the gyroscope controls the left and right movement of the mouse cursor, the gyroscope Figure
  • FIG. 2 is a schematic view of a steering member including three touch sensing regions in a preferred embodiment of the present invention
  • FIG. 3 is a schematic view of a control member including a grip switch in a preferred embodiment of the present invention
  • FIG. 4 is a structural view of a control member in a preferred embodiment of the present invention
  • FIG. 5a, 5b are schematic views of a control member including an electronic compass in a preferred embodiment of the present invention
  • Figs. 6a, 6b are schematic views of a control member including a gyroscope according to a preferred embodiment of the present invention
  • Figs. 7a, 7b are preferred embodiments of the present invention
  • FIG. 8 is a structural diagram of an information processing system in a preferred embodiment of the present invention
  • FIG. 9 is a flowchart of an information processing method in a preferred embodiment of the present invention.
  • FIG. 10 is a flowchart of an information processing method for controlling an operation mode of a manipulation component by a grip command according to a preferred embodiment of the present invention
  • Figure 11 is a flow chart showing an information processing method for controlling the operation mode of the manipulation member by the grip switch in the preferred embodiment of the present invention. detailed description
  • FIG. 1 is a schematic illustration of a preferred embodiment of the handling member of the present invention.
  • the manipulation unit 10 includes: a keyboard module 21 including a button 23; a manipulation member 10
  • the housing is provided with one or more touch sensing regions 11.
  • the touch sensing area 11 generates a touch sensing signal through a capacitive touch sensing, a pressure touch sensing, or a mechanical touch button.
  • the touch sensing area 11 is for sensing the outer surface area of the control unit that the user's hand touches, and recognizes the horizontal or vertical working mode. As shown in Fig. 1, four touch sensing areas 11 are disposed at both ends of the housing of the operating member 10.
  • the information processing method of the control unit 10 specifically includes: when the user holds the remote controller with both hands, the four touch sensing areas 11 can sense the touch of the hand, determine that the current is in the horizontal grip mode, and adjust each button 23 through the keyboard module 21.
  • the two touch sensing areas 11 on the top of the control unit 10 are difficult to sense the touch, and it is judged that the current working mode is in the vertical grip mode, and the definition of each button 23 is adjusted by the keyboard module 21.
  • the system can automatically recognize whether the steering member 10 is in the vertical grip mode or the cross grip mode.
  • FIG. 2 is a schematic illustration of a preferred embodiment of the handling member of the present invention.
  • the manipulation component 10 includes: a keyboard
  • the TX3 axis controls the up and down movement of the mouse cursor. Specifically, when the TX2 is parallel to the ground, the mouse cursor moves left and right when the left and right hands rotate the two ends of the remote controller. When the TX3 axis is parallel to the ground, the remote controller is rotated back and forth, and the mouse cursor moves up and down.
  • the mouse coordinate generating part includes a touch panel.
  • the button 23 includes four buttons K1, ⁇ 2, ⁇ 3, ⁇ 4.
  • the A axis of the touchpad represents the coordinate of the Y direction
  • the A+ direction represents the upward movement direction of the mouse
  • the A-direction represents the downward movement direction of the mouse
  • the B axis represents the coordinate of the X direction of the mouse
  • B- The direction indicates the direction in which the mouse moves to the left
  • the direction of B+ indicates the direction in which the mouse moves to the right.
  • Button K1 represents the left shift key
  • K2 represents the up shift key
  • K3 represents the right shift key
  • K4 represents the down shift key.
  • the B axis of the touchpad represents the coordinate of the Y direction
  • the B+ direction represents the upward movement direction of the mouse
  • the B-direction represents the downward movement direction of the mouse
  • the A axis represents the coordinate of the X direction of the mouse
  • A- The direction indicates the direction in which the mouse moves to the right
  • the direction of A+ indicates the direction in which the mouse moves to the left. Press the key K2 to indicate the left shift key, K3 to the up shift key, K4 to the right shift key, and K1 to the down shift key.
  • FIGS. 5a, 5b are schematic views of a preferred embodiment of the handling member of the present invention.
  • the control unit 10 includes: a mouse module 22; the control unit 10 is provided with an electronic compass module 13 for automatically recognizing the change in the geomagnetic orientation of the manipulation member to identify whether the manipulation member 10 is in the horizontal grip operation mode or the vertical grip operation mode.
  • the electronic compass module 13 outputs an orientation value of 0 to 360 degrees with reference to the earth direction (assuming 0 degrees to the north of the earth). ).
  • the orientation value is X degrees; when the orientation value deviates from X by more than a range such as (+80 degrees to +120 degrees), the manipulation member may be 10 is determined to be a horizontal grip mode of operation.
  • the information processing method of the manipulation component 10 specifically includes: when the orientation value is the following interval: 0-45 degrees, 135-225 degrees, 315-360 degrees, recognized as the vertical grip operation mode, The mouse coordinate generation unit 24 adjusts the mouse coordinate generation method; when the orientation value is another interval, it is recognized as the horizontal grip operation mode, and the mouse coordinate generation unit 24 adjusts the mouse coordinate generation method. As shown in Fig. 5b, when the orientation value is 30 degrees, it is recognized as the vertical grip operation mode; when the orientation value is 120 degrees, it is recognized as the horizontal grip operation mode.
  • FIG. 8 is a block diagram showing a preferred embodiment of the information processing system of the present invention.
  • the information processing system 30 includes: an execution unit 31, a manipulation unit 10, and a display unit 32.
  • the manipulation unit 10 is connected to the execution unit 31 via a wired or wireless interface for controlling and operating the software in the execution unit 31.
  • Control unit 10 further includes a communication module 14 for transmitting the identified information to the execution component.
  • a display unit 32 for displaying a user interface of the software running in the execution unit 31.
  • FIG. 9 is a flow chart of a preferred embodiment of the information processing method of the present invention, including the following steps:
  • the grip control module 1 of the detecting manipulation component 10 determines whether the manipulation component 10 is currently in the horizontal grip operation mode or the vertical grip operation mode;
  • FIG. 10 is a flow chart showing a preferred embodiment of the information processing method of the manipulation member of the present invention.
  • the control unit 10 includes: a grip control module 1 for receiving an external grip command; and an input module 2.
  • the input module 2 includes a keyboard module 21 and a mouse module 22.
  • the mouse coordinate generation unit of the mouse module 22 includes a gyroscope and a touch pad.
  • the grip control module 1 determines that the manipulation member 10 adopts a horizontal grip or a vertical grip operation mode according to an external grip command. In the horizontal grip mode and the vertical grip mode, the keys 23 in the keyboard module 21 have corresponding definitions. In the horizontal grip mode and the vertical grip mode, the mouse module 22 generates corresponding coordinate data. As shown in FIG.
  • the information processing method of the manipulation member includes the following steps: the execution member 31 sends a grip command to the manipulation member 10; the manipulation member 10 receives the grip command, sets the operation mode of the current manipulation member 10; and reads each button 23 State; determine whether the current is in the horizontal grip mode; if it is judged to be in the horizontal grip mode, select the gyro TX2 axis to generate the mouse coordinate data in the left and right direction, and select the gyroscope TX3 axis to generate the mouse coordinate data in the up and down direction; The down key, the button K2 represents the left shift key, the button K3 represents the up shift key, the button K4 represents the right shift key; if it is judged that it is not in the horizontal grip mode, the gyro TX1 axis is selected to generate the left and right direction mouse coordinate data, and the gyro is selected.
  • the TX2 axis of the instrument generates mouse coordinate data in the up and down direction; the button K1 represents the left shift key, the button K2 represents the up shift key, the button K3 represents the right shift key, and the button K4 represents the down shift key; after determining the working mode, the smart processing device is sent Grip status data, data released or depressed by button 23, and mouse Standard data.
  • Figure 11 is a flow chart showing a preferred embodiment of the information processing method of the control unit of the present invention, comprising the steps of: reading the state of the grip switch 12; reading the state of each button 23; determining whether it is currently in the horizontal grip mode; When it is judged that it is in the horizontal grip working mode, the gyro TX2 axis is selected to generate the mouse coordinate data in the left and right direction, and the gyro TX3 axis is selected to generate the mouse coordinate number in the up and down direction.
  • the button K1 the down button is pressed, the button K2 is the left shift button, the button K3 is the up button, and the button K4 is the right button.
  • the gyro TX1 axis is selected to generate the left and right mouse. Coordinate data, select the gyro TX2 axis to generate mouse coordinate data in the up and down direction, button K1 represents the left shift key, button K2 represents the up shift key, button K3 represents the right shift key, button K4 represents the down shift key; after determining the working mode, The grip state data is sent to the intelligent processing device, the data released or depressed by the button 23, and the mouse coordinate data.

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

The present invention relates to an operation and control component with a transversal-holding working mode and a vertical-holding working mode. The operation and control component comprises a holding type control module used for controlling the operation and control component to be in the transversal-holding working mode or the vertical-holding working mode, and an input module at least comprising one of a keyboard module and a mouse module, the keyboard module comprising keys, and the mouse module comprising a mouse coordinate generation component used for generating coordinates of a mouse. The operation and control component can automatically identify that which one of the transversal-holding working mode or the vertical-holding working mode is located, and then adjust the input module to realize operation and control on electronic equipment under different modes, thereby meeting the requirements of users, reducing the quantity of the operation and control components needing to be equipped by the users, and decreasing the cost of products.

Description

一种操控部件, 使用该操控部件的信息处理系统及其信息处理方法 技术领域  Control unit, information processing system using the same, and information processing method thereof
本发明涉及一种遥控领域, 更具体地说, 涉及一种具有横握工作模式和 竖握工作模式的操控部件, 使用该部件的信息处理系统及其信息处理方法。 背景技术  The present invention relates to the field of remote control, and more particularly to a control unit having a horizontal grip operation mode and a vertical grip operation mode, an information processing system using the same, and an information processing method thereof. Background technique
随着电子互动娱乐行业的发展, 用户体验逐渐成为一个互动娱乐应用能 否成功的关键。 任天堂的 Wii 游戏机凭借当时新奇而出色的体感互动体验获 得了巨大成功, 后来者微软的 Kinect产品凭借无需遥控器而通过摄像头直接 识别用户肢体的动作来进行游戏互动获得非凡成功。 对于很多通过遥控器进 行的电视互动娱乐, 为获得良好的用户体验, 有的娱乐应用需要用户单手握 遥控器来操作, 而有的应用可能要求用户采用双手握 (横握) 来操控, 如游 戏模式。 目前市面上的电视互动娱乐系统对遥控器握法的设计考虑不够。 有 的公司干脆设计两个遥控器, 一个横握、 一个竖握。 联想公司在 2012 CES展 会上发布的 K91 智能电视配备了双遥控器, 一个是传统长条形遥控, 界面与 普通遥控基本一样; 另一个是无线游戏手柄, 用于游戏娱乐体验。 这大大提 高了产品成本, 造成不必要的浪费, 更主要的, 给用户互动娱乐带来不便。 发明内容  With the development of the electronic interactive entertainment industry, user experience has gradually become the key to the success of an interactive entertainment application. Nintendo's Wii game consoles have been extremely successful with the novelty and excellent somatosensory interactive experience of the time. Later, Microsoft's Kinect products achieved extraordinary success by interacting with the user's body through the camera without the need for a remote control. For many TV interactive entertainment through the remote control, in order to obtain a good user experience, some entertainment applications require the user to operate the remote control with one hand, and some applications may require the user to use two-handed grip (horizontal grip) to control, such as Game mode. At present, the TV interactive entertainment system on the market does not consider the design of the remote control grip. Some companies simply design two remote controls, one horizontal and one vertical. The K91 smart TV released by Lenovo at the 2012 CES show is equipped with dual remote controls, one is a traditional long strip remote control, the interface is basically the same as the ordinary remote control; the other is a wireless game controller for the gaming entertainment experience. This greatly increases the cost of the product, causes unnecessary waste, and more importantly, brings inconvenience to the user's interactive entertainment. Summary of the invention
本发明要解决的技术问题在于, 针对现有技术中存在的操控部件数量多, 成本高, 不方便用户操作的问题, 提供一种操控部件, 该操控部件具有横握 工作模式和竖握工作模式, 利用一个操控部件即可实现在不同的工作模式下 对电子部件进行操控。  The technical problem to be solved by the present invention is to provide a control component having a horizontal grip working mode and a vertical grip working mode, in view of the problems of a large number of control components, high cost, and inconvenient user operation in the prior art. With a control unit, you can control the electronic components in different working modes.
为了实现上述目的, 本发明实施例提供了一种操控部件, 所述操控部件 包括: 握式控制模块, 用于控制操控部件处于横握工作模式还是竖握工作模式; 输入模块, 所述输入模块至少包括键盘模块或鼠标模块之一, 所述键盘 模块包含按键, 所述鼠标模块包含用于产生鼠标坐标的鼠标坐标发生部件。 In order to achieve the above object, an embodiment of the present invention provides a control component, where the control component includes: a grip control module, configured to control whether the manipulation component is in a horizontal grip operation mode or a vertical grip operation mode; the input module, the input module includes at least one of a keyboard module or a mouse module, the keyboard module includes a button, and the mouse module includes A mouse coordinate generation component for generating mouse coordinates.
上述的操控部件, 其中, 所述握式控制模块用于接收外部握式命令, 根 据外部握式命令决定所述操控部件采用横握或竖握工作模式。 在横握工作模 式与竖握工作模式下, 所述键盘模块中按键具有相应的定义, 或者是在横握 工作模式与竖握工作模式下, 所述鼠标模块产生相应的坐标数据。  The above-mentioned manipulation component, wherein the grip control module is configured to receive an external grip command, and the manipulation component is determined to adopt a horizontal grip or a vertical grip operation mode according to an external grip command. In the horizontal grip working mode and the vertical grip working mode, the keys in the keyboard module have corresponding definitions, or in the horizontal grip working mode and the vertical grip working mode, the mouse module generates corresponding coordinate data.
上述的操控部件, 其中, 所述操控部件外壳设置有一个或多个触摸感应 区域, 用于感知用户手部所接触到的操控部件外表区域, 识别横握或竖握工 作模式。 所述触摸感应区域通过电容式触摸感应、 压力式触摸感应、 或机械 式轻触按键产生触摸感应信号。  The above-mentioned manipulation component, wherein the manipulation component housing is provided with one or more touch sensing areas for sensing the outer surface area of the manipulation component that the user's hand touches, and identifying the horizontal grip or vertical grip working mode. The touch sensing area generates a touch sensing signal through a capacitive touch sensing, a pressure touch sensing, or a mechanical touch button.
上述的操控部件, 其中, 所述操控部件中设置有握式开关, 用于切换横 握工作模式与竖握工作模式。  The above-mentioned control component, wherein the control component is provided with a grip switch for switching between the traverse working mode and the vertical grip working mode.
上述的操控部件, 其中, 所述操控部件设置有电子罗盘模块, 用于自动 识别操控部件的地磁朝向变化, 识别横握工作模式还是竖握工作模式。  The above-mentioned control component, wherein the control component is provided with an electronic compass module for automatically recognizing the geomagnetic orientation change of the manipulation component, identifying the horizontal grip operation mode or the vertical grip operation mode.
上述的操控部件, 其中, 所述鼠标坐标发生部件包括: 陀螺仪、 加速度 传感器、 触摸板、 轨迹球、 或光学手指导航之一。  The above-mentioned manipulation component, wherein the mouse coordinate generation component comprises: one of a gyroscope, an acceleration sensor, a touchpad, a trackball, or an optical finger navigation.
为了实现上述目的, 本发明还提供一种使用所述操控部件的信息处理系 统, 包括:  In order to achieve the above object, the present invention also provides an information processing system using the manipulation component, comprising:
执行部件, 用于运行软件;  Execution component for running software;
操控部件, 通过有线或无线接口接入所述执行部件, 用于控制和操作所 述执行部件中的软件;  a control component that accesses the execution component through a wired or wireless interface for controlling and operating software in the execution component;
显示部件, 用于显示所述执行部件中所运行软件的用户界面。  A display component for displaying a user interface of software running in the execution component.
上述的信息处理系统, 其中, 所述操控部件进一步包括通信模块, 用于 将识别到的信息发送到所述执行部件  The above information processing system, wherein the manipulation component further comprises a communication module, configured to send the identified information to the execution component
上述的信息处理系统, 其中, 所述述操控部件的鼠标模块, 用于产生鼠 标坐标对应的原始数据。 所述信息处理系统根据识别到的工作模式调整鼠标 坐标的产生方法。 上述的信息处理系统, 其中, 所述操控部件的键盘模块根据识别到的工 作模式调整各个按键的定义。 In the above information processing system, the mouse module of the manipulation component is configured to generate original data corresponding to mouse coordinates. The information processing system adjusts a method of generating mouse coordinates according to the recognized working mode. In the above information processing system, the keyboard module of the manipulation component adjusts the definition of each button according to the recognized operation mode.
为了实现上述目的, 本发明还提供一种所述操控部件的信息处理方法, 包括一下步骤:  In order to achieve the above object, the present invention also provides an information processing method for the manipulation component, including the following steps:
SD 检测操控部件的握式控制模块, 判断所述操控部件当前处于横握工 作模式还是竖握工作模式;  The SD detects the grip control module of the manipulation component, and determines whether the manipulation component is currently in the horizontal grip working mode or the vertical grip working mode;
S2 ) 根据横握或竖握工作模式, 通过鼠标坐标发生部件调整鼠标坐标的 产生方法, 或通过按键模块调整各个按键的定义。  S2) Adjust the mouse coordinate generation method by the mouse coordinate generation part according to the horizontal or vertical grip operation mode, or adjust the definition of each key by the button module.
上述的信息处理方法, 其中, 所述步骤 (S1 ) 包括所述执行部件向所述 操控部件发握式命令, 所述操控部件根据接收到的握式命令决定采用横握还 是竖握工作模式。  In the above information processing method, the step (S1) includes the execution component issuing a command to the manipulation component, and the manipulation component determines whether to adopt the horizontal grip or the vertical grip operation mode according to the received grip command.
上述的信息处理方法, 其中, 所述操控部件外表设置有一个或多个触摸 感应区域, 所述步骤 (S1 ) 包括通过触模感应区域感知用户手部所接触到的 操控部件外表区域的位置, 判断当前处于横握工作模式还是竖握工作模式。  In the above information processing method, the manipulation component is provided with one or more touch sensing regions, and the step (S1) includes sensing, by the touch sensing region, the position of the outer surface region of the manipulation component that the user's hand touches. Determine whether it is currently in the horizontal grip mode or the vertical grip mode.
上述的信息处理方法, 其中, 所述操控部件设置有握式开关, 所述步骤 (S1 )包括根据握式开关状态判断当前处于横握工作模式还是竖握工作模式。  In the above information processing method, wherein the manipulation component is provided with a grip switch, the step (S1) includes determining whether the current grip operation mode or the vertical grip operation mode is determined according to the grip switch state.
上述的信息处理方法, 其中, 所述操控部件设置有电子罗盘模块, 所述 步骤 (S1 ) 包括通过识别操控部件的地磁朝向变化, 判断当前处于横握工作 模式还是竖握工作模式。  In the above information processing method, the control unit is provided with an electronic compass module, and the step (S1) includes judging whether it is currently in the horizontal grip operation mode or the vertical grip operation mode by recognizing the geomagnetic orientation change of the manipulation member.
本发明实施例具有以下有益效果:  Embodiments of the present invention have the following beneficial effects:
本发明实施例中, 操控部件具有横握工作模式和竖握工作模式。 在不同 的应用环境下, 所述操控部件能自动识别当前处于横握工作模式或是竖握工 作模式, 从而调整输入模块。 通过上述设置, 可以利用一个操控部件实现对 不同模式下的电子设备进行操控, 既满足用户需求, 又减少了用户需要配备 的操控部件的数量, 降低了产品成本。 附图说明  In the embodiment of the invention, the operating component has a horizontal grip working mode and a vertical grip working mode. In different application environments, the control component can automatically recognize that it is currently in the horizontal grip mode or the vertical grip mode, thereby adjusting the input module. Through the above settings, one control component can be used to control the electronic devices in different modes, which not only meets the user's needs, but also reduces the number of control components that the user needs to be equipped, and reduces the product cost. DRAWINGS
图 1 为本发明优选实施方式中含有四个触摸感应区域的操控部件的示意 模块 21, 键盘模块 21包含按键 23 ; 操控部件 10外壳设置一个或多个触摸感 应区域 11。触摸感应区域 1 1通过电容式触摸感应、 压力式触摸感应、 或机械 式轻触按键产生触摸感应信号。触摸感应区 11用于感知用户手部所接触到的 操控部件外表区域, 识别横握或竖握工作模式。 如图 2所示, 操控部件 10中 下部的左右两个侧面, 以及底面各设置了一个触摸感应器。 操控部件 10的信 息处理方法具体包括: 当用户用双手横握操控部件 10时, 这三个触摸感应器 难以感应到手的触摸, 判断当前处于横握工作模式, 通过键盘模块 21调整各 个按键 23的定义; 而用户单手竖握操控部件 10时, 这 3个触摸感应器至少 有两个感应器感应到触摸, 判断当前处于竖握工作模式, 通过键盘模块 21调 整各个按键 23的定义。 以此, 系统可以自动识别操控部件 10是处于竖握工 作模式还是横握工作模式。 1 is a schematic view of a steering member including four touch sensing regions in a preferred embodiment of the present invention; The module 21, the keyboard module 21 includes a button 23; the control unit 10 housing is provided with one or more touch sensing areas 11. The touch sensing area 1 1 generates a touch sensing signal through a capacitive touch sensing, a pressure touch sensing, or a mechanical touch button. The touch sensing area 11 is used to sense the outer surface area of the control part that the user's hand touches, and recognize the horizontal or vertical working mode. As shown in FIG. 2, a touch sensor is disposed on each of the left and right sides of the lower portion of the control member 10 and the bottom surface. The information processing method of the control unit 10 specifically includes: when the user traverses the control unit 10 with both hands, the three touch sensors are difficult to sense the touch of the hand, and determine that the current grip mode is in the horizontal grip mode, and the keys 23 are adjusted by the keyboard module 21. When the user holds the control unit 10 with one hand, the three touch sensors sense at least two sensors to sense the touch, determine that the current working mode is in the vertical grip mode, and adjust the definition of each button 23 by the keyboard module 21. In this way, the system can automatically recognize whether the manipulation component 10 is in the vertical grip mode or the cross grip mode of operation.
图 3是本发明操控部件的优选实施方式示意图。操控部件 10设置握式控 制模块 1, 该握式控制模块 1包括握式开关 12, 用于切换横握工作模式与竖 握工作模式。 如图 4所示操控部件 10的结构图, 操控部件 10包括: 握式控 制模块 1, 键盘模块 21, 鼠标模块 22, 微处理器单元 MCU, 和通信模块 14。 在一个优选实施例中, 握式控制模块 1包括握式开关 12, 握式开关 12有闭合 与开路两种状态。 当系统读到握式开关 12为闭合状态, 即识别为竖握工作模 式; 读到到握式开关 12为开路状态, 即识别为横握工作模式。  Figure 3 is a schematic illustration of a preferred embodiment of the handling member of the present invention. The control unit 10 is provided with a grip control module 1, and the grip control module 1 includes a grip switch 12 for switching between the horizontal grip operation mode and the vertical grip operation mode. As shown in Fig. 4, the control unit 10 includes: a grip control module 1, a keyboard module 21, a mouse module 22, a microprocessor unit MCU, and a communication module 14. In a preferred embodiment, the grip control module 1 includes a grip switch 12 having both closed and open states. When the system reads that the grip switch 12 is in the closed state, it is recognized as the vertical grip working mode; when the grip switch 12 is read as the open state, it is recognized as the horizontal grip working mode.
键盘模块 21包含按键 23。 鼠标模块 22包含鼠标坐标发生部件 24, 用于 产生鼠标坐标。 鼠标坐标发生部件 24包括: 陀螺仪、加速度传感器、触摸板、 轨迹球、 或光学手指导航之一。  The keyboard module 21 includes a button 23. The mouse module 22 includes a mouse coordinate generating section 24 for generating mouse coordinates. The mouse coordinate generation unit 24 includes: one of a gyroscope, an acceleration sensor, a touch pad, a trackball, or an optical finger navigation.
作为本发明的一个优选实施例, 鼠标坐标发生部件包括陀螺仪。如图 6a, 6b所示, 陀螺仪使用三个互相垂直的轴 TX1, ΤΧ2, ΤΧ3控制鼠标坐标的上下 移动。 如图 6a, 在竖握工作模式下, 陀螺仪的 TX1轴控制鼠标光标的左右移 动, TX2轴控制鼠标光标的上下移动。 具体的, 平握操控部件 10, TX3朝前。 保持 TX1垂直地面的情况下左右摆动操控部件 10头部, 鼠标光标左右移动; 保持 TX2 平行地面的情况下上下移动遥控器头部, 鼠标光标上下移动。 如图 6b , 在横握工作模式下, 陀螺仪的 TX2轴控制鼠标光标的左右移动, 陀螺仪 图; As a preferred embodiment of the present invention, the mouse coordinate generating part includes a gyroscope. As shown in Figures 6a and 6b, the gyroscope uses three mutually perpendicular axes TX1, ΤΧ2, ΤΧ3 to control the up and down movement of the mouse coordinates. As shown in Fig. 6a, in the vertical grip mode, the TX1 axis of the gyroscope controls the left and right movement of the mouse cursor, and the TX2 axis controls the up and down movement of the mouse cursor. Specifically, the grip control member 10, TX3 is facing forward. When the TX1 is vertically grounded, the head of the control unit 10 is swung left and right, and the mouse cursor moves left and right; while the TX2 is parallel to the ground, the head of the remote controller is moved up and down, and the mouse cursor moves up and down. As shown in Fig. 6b, in the horizontal grip mode, the TX2 axis of the gyroscope controls the left and right movement of the mouse cursor, the gyroscope Figure
图 2为本发明优选实施方式中含有三个触摸感应区域的操控部件的示意 图;  2 is a schematic view of a steering member including three touch sensing regions in a preferred embodiment of the present invention;
图 3为本发明优选实施方式中含有握式开关的操控部件的示意图; 图 4为本发明优选实施方式中操控部件的结构图;  3 is a schematic view of a control member including a grip switch in a preferred embodiment of the present invention; FIG. 4 is a structural view of a control member in a preferred embodiment of the present invention;
图 5a, 5b为本发明优选实施方式中含电子罗盘的操控部件的示意图; 图 6a, 6b为本发明优选实施方式中含陀螺仪的操控部件的示意图; 图 7a, 7b为本发明优选实施方式中含触摸板的操控部件的示意图; 图 8为本发明优选实施方式中信息处理系统的结构图;  5a, 5b are schematic views of a control member including an electronic compass in a preferred embodiment of the present invention; and Figs. 6a, 6b are schematic views of a control member including a gyroscope according to a preferred embodiment of the present invention; and Figs. 7a, 7b are preferred embodiments of the present invention; FIG. 8 is a structural diagram of an information processing system in a preferred embodiment of the present invention; FIG.
图 9为本发明优选实施方式中信息处理方法的流程图;  9 is a flowchart of an information processing method in a preferred embodiment of the present invention;
图 10为本发明优选实施方式中通过握式命令控制操控部件工作模式的信 息处理方法的流程图;  10 is a flowchart of an information processing method for controlling an operation mode of a manipulation component by a grip command according to a preferred embodiment of the present invention;
图 11为本发明优选实施方式中通过握式开关控制操控部件工作模式的信 息处理方法的流程图。 具体实施方式  Figure 11 is a flow chart showing an information processing method for controlling the operation mode of the manipulation member by the grip switch in the preferred embodiment of the present invention. detailed description
图 1是本发明操控部件的优选实施方式示意图。 操控部件 10包括: 键盘 模块 21, 包含按键 23; 操控部件 10外壳设置一个或多个触摸感应区域 11。 触摸感应区域 11通过电容式触摸感应、 压力式触摸感应、 或机械式轻触按键 产生触摸感应信号。 触摸感应区 11用于感知用户手部所接触到的操控部件外 表区域, 识别横握或竖握工作模式。 如图 1所示, 操控部件 10外壳两端设置 了四个触摸感应区域 11。 操控部件 10的信息处理方法具体包括: 当用户用 双手横握遥控器时, 这四个触摸感应区域 11均可以感应到手的触摸, 判断当 前处于横握工作模式, 通过键盘模块 21调整各个按键 23的定义; 而用户单 手竖握遥控器时, 操控部件 10顶部的两个触摸感应区域 11难以感应到触摸, 判断当前处于竖握工作模式, 通过键盘模块 21调整各个按键 23的定义。 以 此, 系统可以自动识别操控部件 10是处于竖握工作模式还是横握工作模式。  BRIEF DESCRIPTION OF THE DRAWINGS Figure 1 is a schematic illustration of a preferred embodiment of the handling member of the present invention. The manipulation unit 10 includes: a keyboard module 21 including a button 23; a manipulation member 10 The housing is provided with one or more touch sensing regions 11. The touch sensing area 11 generates a touch sensing signal through a capacitive touch sensing, a pressure touch sensing, or a mechanical touch button. The touch sensing area 11 is for sensing the outer surface area of the control unit that the user's hand touches, and recognizes the horizontal or vertical working mode. As shown in Fig. 1, four touch sensing areas 11 are disposed at both ends of the housing of the operating member 10. The information processing method of the control unit 10 specifically includes: when the user holds the remote controller with both hands, the four touch sensing areas 11 can sense the touch of the hand, determine that the current is in the horizontal grip mode, and adjust each button 23 through the keyboard module 21. When the user holds the remote controller with one hand, the two touch sensing areas 11 on the top of the control unit 10 are difficult to sense the touch, and it is judged that the current working mode is in the vertical grip mode, and the definition of each button 23 is adjusted by the keyboard module 21. Thus, the system can automatically recognize whether the steering member 10 is in the vertical grip mode or the cross grip mode.
图 2是本发明操控部件的优选实施方式示意图。 操控部件 10包括: 键盘 的 TX3轴控制鼠标光标的上下移动。 具体的, 保持 TX2平行地面的情况下, 左右手上下转动遥控器两端时, 鼠标光标左右移动; 保持 TX3轴平行地面的 情况下, 前后转动遥控器, 鼠标光标上下移动。 Figure 2 is a schematic illustration of a preferred embodiment of the handling member of the present invention. The manipulation component 10 includes: a keyboard The TX3 axis controls the up and down movement of the mouse cursor. Specifically, when the TX2 is parallel to the ground, the mouse cursor moves left and right when the left and right hands rotate the two ends of the remote controller. When the TX3 axis is parallel to the ground, the remote controller is rotated back and forth, and the mouse cursor moves up and down.
作为本发明的另一个优选实施例, 鼠标坐标发生部件包括触摸板。 如图 7a, 7b所示, 按键 23包括四按键 Kl, Κ2, Κ3, Κ4。 如图 7a, 在竖握工作模 式下, 触摸板的 A轴代表 Y方向的坐标, A+方向表示鼠标上移方向, A-方向 表示鼠标下移方向; B轴代表鼠标 X方向的坐标, B-方向表示鼠标左移方向, B+方向表示鼠标右移方向。 按键 K1表示左移键, K2表示上移键, K3表示右 移键, K4表示下移键。 如图 7b, 在横握工作模式下, 触摸板的 B轴代表 Y方 向的坐标, B+方向表示鼠标上移方向, B-方向表示鼠标下移方向; A轴代表鼠 标 X方向的坐标, A-方向表示鼠标右移方向, A+方向表示鼠标左移方向。 按 键 K2表示左移键, K3表示上移键, K4表示右移键, K1表示下移键。  As another preferred embodiment of the present invention, the mouse coordinate generating part includes a touch panel. As shown in Figs. 7a, 7b, the button 23 includes four buttons K1, Κ2, Κ3, Κ4. As shown in Fig. 7a, in the vertical grip mode, the A axis of the touchpad represents the coordinate of the Y direction, the A+ direction represents the upward movement direction of the mouse, the A-direction represents the downward movement direction of the mouse, and the B axis represents the coordinate of the X direction of the mouse, B- The direction indicates the direction in which the mouse moves to the left, and the direction of B+ indicates the direction in which the mouse moves to the right. Button K1 represents the left shift key, K2 represents the up shift key, K3 represents the right shift key, and K4 represents the down shift key. As shown in Fig. 7b, in the horizontal grip mode, the B axis of the touchpad represents the coordinate of the Y direction, the B+ direction represents the upward movement direction of the mouse, the B-direction represents the downward movement direction of the mouse, and the A axis represents the coordinate of the X direction of the mouse, A- The direction indicates the direction in which the mouse moves to the right, and the direction of A+ indicates the direction in which the mouse moves to the left. Press the key K2 to indicate the left shift key, K3 to the up shift key, K4 to the right shift key, and K1 to the down shift key.
图 5a, 5b是本发明操控部件的优选实施方式示意图。 操控部件 10包括: 鼠标模块 22 ; 操控部件 10中设置有电子罗盘模块 13, 用于自动识别操控部 件的地磁朝向变化,以识别操控部件 10处于横握工作模式还是竖握工作模式。 如图 5a所示, 当用户正面朝向电视机, 手握操控部件 10时, 电子罗盘模块 13将输出一个以地球方向为参考系的 0〜360度的朝向值 (假定朝地球正北为 0度)。 在具体实施时, 假设用户正对显示部件 32竖握操控部件 10时, 这个 朝向值为 X度; 当朝向值偏离 X超过一个范围如 (+80度〜 +120度时), 可以 将操控部件 10确定为横握工作模式。 在本发明的一个优选实施例中, 操控部 件 10的信息处理方法具体包括: 当朝向值为以下区间: 0-45度, 135-225度, 315-360度时, 识别为竖握工作模式, 通过鼠标坐标发生部件 24调整鼠标坐 标的产生方法; 当朝向值为其他区间时, 识别为横握工作模式, 通过鼠标坐 标发生部件 24调整鼠标坐标的产生方法。如图 5b所示,当朝向值为 30度时, 识别为竖握工作模式; 当朝向值为 120度时, 识别为横握工作模式。  Figures 5a, 5b are schematic views of a preferred embodiment of the handling member of the present invention. The control unit 10 includes: a mouse module 22; the control unit 10 is provided with an electronic compass module 13 for automatically recognizing the change in the geomagnetic orientation of the manipulation member to identify whether the manipulation member 10 is in the horizontal grip operation mode or the vertical grip operation mode. As shown in FIG. 5a, when the user faces the television and faces the control unit 10, the electronic compass module 13 outputs an orientation value of 0 to 360 degrees with reference to the earth direction (assuming 0 degrees to the north of the earth). ). In a specific implementation, it is assumed that when the user is holding the manipulation member 10 vertically on the display member 32, the orientation value is X degrees; when the orientation value deviates from X by more than a range such as (+80 degrees to +120 degrees), the manipulation member may be 10 is determined to be a horizontal grip mode of operation. In a preferred embodiment of the present invention, the information processing method of the manipulation component 10 specifically includes: when the orientation value is the following interval: 0-45 degrees, 135-225 degrees, 315-360 degrees, recognized as the vertical grip operation mode, The mouse coordinate generation unit 24 adjusts the mouse coordinate generation method; when the orientation value is another interval, it is recognized as the horizontal grip operation mode, and the mouse coordinate generation unit 24 adjusts the mouse coordinate generation method. As shown in Fig. 5b, when the orientation value is 30 degrees, it is recognized as the vertical grip operation mode; when the orientation value is 120 degrees, it is recognized as the horizontal grip operation mode.
图 8是本本发明信息处理系统的优选实施方式结构图。 信息处理系统 30 包括: 执行部件 31, 操控部件 10, 显示部件 32。 操控部件 10通过有线或无 线接口接入执行部件 31, 用于控制和操作执行部件 31 中的软件。 操控部件 10进一步包括通信模块 14, 用于将识别到的信息发送到所述执行部件。 显示 部件 32, 用于显示执行部件 31中所运行软件的用户界面。 Figure 8 is a block diagram showing a preferred embodiment of the information processing system of the present invention. The information processing system 30 includes: an execution unit 31, a manipulation unit 10, and a display unit 32. The manipulation unit 10 is connected to the execution unit 31 via a wired or wireless interface for controlling and operating the software in the execution unit 31. Control unit 10 further includes a communication module 14 for transmitting the identified information to the execution component. A display unit 32 for displaying a user interface of the software running in the execution unit 31.
图 9是本本发明信息处理方法的优选实施方式的流程图, 包括以下步骤: 9 is a flow chart of a preferred embodiment of the information processing method of the present invention, including the following steps:
51 )检测操控部件 10的握式控制模块 1,判断所述操控部件 10当前处于 横握工作模式还是竖握工作模式; 51) The grip control module 1 of the detecting manipulation component 10 determines whether the manipulation component 10 is currently in the horizontal grip operation mode or the vertical grip operation mode;
52 )根据横握或竖握工作模式, 通过鼠标坐标发生部件 24调整鼠标坐标 的产生方法或通过按键模块 14调整各个按键 23的定义。  52) Adjusting the mouse coordinate generation method by the mouse coordinate generation section 24 or adjusting the definition of each key 23 by the key module 14 according to the horizontal or vertical grip operation mode.
图 10是本本发明操控部件的信息处理方法的优选实施方式的流程图。操 控部件 10包括: 握式控制模块 1, 用于接收外部握式命令; 输入模块 2。 输 入模块 2包括键盘模块 21和鼠标模块 22。 鼠标模块 22的鼠标坐标发生部件 包括陀螺仪和触摸板。 握式控制模块 1 根据外部握式命令决定所述操控部件 10采用横握或竖握工作模式。 在横握工作模式与竖握工作模式下, 键盘模块 21中按键 23具有相应的定义。在横握工作模式与竖握工作模式下, 鼠标模块 22产生相应的坐标数据。如图 10所示, 操控部件的信息处理方法包括以下步 骤: 执行部件 31向操控部件 10发握式命令; 操控部件 10接收握式命令, 设 置当前操控部件 10的工作模式; 读取各个按键 23的状态; 判断当前是否处 于横握工作模式; 若判断处于横握工作模式, 则选取陀螺仪 TX2轴产生左右 方向的鼠标坐标数据, 选取陀螺仪 TX3轴产生上下方向的鼠标坐标数据; 按 键 K1表示下移键, 按键 K2表示左移键, 按键 K3表示上移键, 按键 K4表示 右移键; 若判断不是处于横握工作模式, 则选取陀螺仪 TX1 轴产生左右方向 的鼠标坐标数据, 选取陀螺仪 TX2轴产生上下方向的鼠标坐标数据; 按键 K1 表示左移键, 按键 K2表示上移键, 按键 K3表示右移键, 按键 K4表示下移键; 判断好工作模式以后, 向智能处理设备发送握式状态数据, 按键 23松开或压 下的数据, 以及鼠标坐标数据。  Figure 10 is a flow chart showing a preferred embodiment of the information processing method of the manipulation member of the present invention. The control unit 10 includes: a grip control module 1 for receiving an external grip command; and an input module 2. The input module 2 includes a keyboard module 21 and a mouse module 22. The mouse coordinate generation unit of the mouse module 22 includes a gyroscope and a touch pad. The grip control module 1 determines that the manipulation member 10 adopts a horizontal grip or a vertical grip operation mode according to an external grip command. In the horizontal grip mode and the vertical grip mode, the keys 23 in the keyboard module 21 have corresponding definitions. In the horizontal grip mode and the vertical grip mode, the mouse module 22 generates corresponding coordinate data. As shown in FIG. 10, the information processing method of the manipulation member includes the following steps: the execution member 31 sends a grip command to the manipulation member 10; the manipulation member 10 receives the grip command, sets the operation mode of the current manipulation member 10; and reads each button 23 State; determine whether the current is in the horizontal grip mode; if it is judged to be in the horizontal grip mode, select the gyro TX2 axis to generate the mouse coordinate data in the left and right direction, and select the gyroscope TX3 axis to generate the mouse coordinate data in the up and down direction; The down key, the button K2 represents the left shift key, the button K3 represents the up shift key, the button K4 represents the right shift key; if it is judged that it is not in the horizontal grip mode, the gyro TX1 axis is selected to generate the left and right direction mouse coordinate data, and the gyro is selected. The TX2 axis of the instrument generates mouse coordinate data in the up and down direction; the button K1 represents the left shift key, the button K2 represents the up shift key, the button K3 represents the right shift key, and the button K4 represents the down shift key; after determining the working mode, the smart processing device is sent Grip status data, data released or depressed by button 23, and mouse Standard data.
图 11说明了本发明操控部件的信息处理方法的优选实施方式的流程图, 包括以下步骤: 读取握式开关 12状态; 读取各个按键 23的状态; 判断当前 是否处于横握工作模式; 若判断处于横握工作模式, 则选取陀螺仪 TX2轴产 生左右方向的鼠标坐标数据, 选取陀螺仪 TX3轴产生上下方向的鼠标坐标数 据, 按键 Kl表示下移键, 按键 K2表示左移键, 按键 K3表示上移键, 按键 K4 表示右移键; 若判断不是处于横握工作模式, 则选取陀螺仪 TX1 轴产生左右 方向的鼠标坐标数据, 选取陀螺仪 TX2轴产生上下方向的鼠标坐标数据, 按 键 K1表示左移键, 按键 K2表示上移键, 按键 K3表示右移键, 按键 K4表示 下移键; 判断好工作模式以后, 向智能处理设备发送握式状态数据, 按键 23 松开或压下的数据, 以及鼠标坐标数据。 Figure 11 is a flow chart showing a preferred embodiment of the information processing method of the control unit of the present invention, comprising the steps of: reading the state of the grip switch 12; reading the state of each button 23; determining whether it is currently in the horizontal grip mode; When it is judged that it is in the horizontal grip working mode, the gyro TX2 axis is selected to generate the mouse coordinate data in the left and right direction, and the gyro TX3 axis is selected to generate the mouse coordinate number in the up and down direction. According to the button K1, the down button is pressed, the button K2 is the left shift button, the button K3 is the up button, and the button K4 is the right button. If it is determined that the button is not in the horizontal grip mode, the gyro TX1 axis is selected to generate the left and right mouse. Coordinate data, select the gyro TX2 axis to generate mouse coordinate data in the up and down direction, button K1 represents the left shift key, button K2 represents the up shift key, button K3 represents the right shift key, button K4 represents the down shift key; after determining the working mode, The grip state data is sent to the intelligent processing device, the data released or depressed by the button 23, and the mouse coordinate data.
本发明是通过一些实施例进行描述的, 本领域技术人员知悉, 在不脱离 本发明的精神和范围的情况下, 可以对这些特征和实施例进行各种改变或等 同替换。 另外, 在本发明的教导下, 可以对这些特征和实施例进行修改以适 应具体的情况及材料而不会脱离本发明的精神和范围。 因此, 本发明不受此 处所公开的具体实施例的限制, 所有落入本申请的权利要求范围内的实施例 都属于本发明的保护范围。  The present invention has been described in terms of some embodiments, and it will be understood by those skilled in the art that various modifications and equivalents can be made to the features and embodiments without departing from the spirit and scope of the invention. In addition, these features and embodiments may be modified to adapt to the specific circumstances and materials without departing from the spirit and scope of the invention. Therefore, the present invention is not limited by the specific embodiments disclosed herein, and all the embodiments falling within the scope of the claims of the present invention fall within the scope of the present invention.

Claims

权 利 要 求 书 Claims
1、 一种操控部件 (10), 其特征在于, 包括: 握式控制模块 (1), 用于 控制操控部件(10)处于横握工作模式还是竖握工作模式; 以及输入模块(2), 所述输入模块 (2) 至少包括键盘模块 (21) 或鼠标模块 (22) 之一, 所述键 盘模块 (21) 包含按键 (23), 所述鼠标模块 (22) 包含用于产生鼠标坐标的 鼠标坐标发生部件 (24)。  A control unit (10), comprising: a grip control module (1) for controlling whether the control unit (10) is in a horizontal grip mode or a vertical grip mode; and an input module (2), The input module (2) includes at least one of a keyboard module (21) or a mouse module (22), the keyboard module (21) includes a button (23), and the mouse module (22) includes a mouse element for generating mouse coordinates. Mouse coordinate generation component (24).
2、 根据权利要求 1所述操控部件, 其特征在于, 所述握式控制模块 (1) 用于接收外部握式命令, 根据外部握式命令决定所述操控部件 (10) 采用横 握或竖握工作模式; 在横握工作模式与竖握工作模式下, 所述键盘模块 (21) 中按键 (23) 具有相应的定义, 或者是在横握工作模式与竖握工作模式下, 所述鼠标模块 (22) 产生相应的坐标数据。  2. The operating component according to claim 1, wherein the grip control module (1) is configured to receive an external grip command, and the steering member (10) is determined to be horizontally or vertically according to an external grip command. Holding the working mode; in the horizontal grip working mode and the vertical grip working mode, the button (23) in the keyboard module (21) has a corresponding definition, or in the horizontal grip working mode and the vertical grip working mode, the mouse Module (22) produces the corresponding coordinate data.
3、 根据权利要求 1所述操控部件, 其特征在于, 所述操控部件 (10) 外 壳设置有一个或多个触摸感应区域(11), 用于感知用户手部所接触到的操控 部件外表区域, 识别横握或竖握工作模式; 所述触摸感应区域 (11) 通过电 容式触摸感应、 压力式触摸感应、 或机械式轻触按键产生触摸感应信号。  3. The operating component according to claim 1, wherein the operating component (10) is provided with one or more touch sensing regions (11) for sensing the outer surface of the operating component that the user's hand touches Identifying a horizontal or vertical grip mode; the touch sensing area (11) generates a touch sensing signal by capacitive touch sensing, pressure touch sensing, or mechanical light touch.
4、 根据权利要求 1所述操控部件, 其特征在于, 所述操控部件 (10) 中 设置有握式开关 (12), 用于切换横握工作模式与竖握工作模式。  The control unit according to claim 1, characterized in that the control unit (10) is provided with a grip switch (12) for switching between the horizontal grip operation mode and the vertical grip operation mode.
5、 根据权利要求 1所述操控部件, 其特征在于, 所述操控部件 (10) 设 置有电子罗盘模块 (13), 用于自动识别操控部件的地磁朝向变化, 识别横握 工作模式还是竖握工作模式。  The control component according to claim 1, characterized in that the control component (10) is provided with an electronic compass module (13) for automatically recognizing the geomagnetic orientation change of the control component, identifying the horizontal grip working mode or the vertical grip Operating mode.
6、 根据权利要求 1所述操控部件, 其特征在于, 所述鼠标坐标发生部件 (24) 包括: 陀螺仪、 加速度传感器、 触摸板、 轨迹球、 或光学手指导航之  6. The manipulation component according to claim 1, wherein the mouse coordinate generation component (24) comprises: a gyroscope, an acceleration sensor, a touchpad, a trackball, or an optical finger navigation
7、一种使用如权利要求广 6之一所述操控部件(10)的信息处理系统(30), 其特征在于, 包括: 用于运行软件的执行部件 (31); 所述操控部件 (10), 通过有线或无线接口接入所述执行部件 (31), 用于控制和操作所述执行部件7. An information processing system (30) using a manipulation component (10) according to one of the claims 6, characterized in that it comprises: an execution component (31) for running software; said manipulation component (10) Accessing the execution component (31) via a wired or wireless interface for controlling and operating the execution component
(31) 中的软件; 显示部件 (32), 用于显示所述执行部件 (31) 中所运行软 件的用户界面。 8、根据权利要求 7所述信息处理系统, 其特征在于, 所述操控部件(10) 进一步包括通信模块 (14), 用于将识别到的信息发送到所述执行部件。 Software in (31); display component (32) for displaying a user interface of software running in the execution component (31). 8. Information processing system according to claim 7, characterized in that the control component (10) further comprises a communication module (14) for transmitting the identified information to the execution component.
9、 根据权利要求 7所述信息处理系统, 其特征在于, 所述鼠标模块用于 产生鼠标坐标对应的原始数据, 所述信息处理系统根据识别到的工作模式调 整鼠标坐标的产生方法。  The information processing system according to claim 7, wherein the mouse module is configured to generate raw data corresponding to mouse coordinates, and the information processing system adjusts a method of generating mouse coordinates according to the recognized working mode.
10、 根据权利要求 7所述信息处理系统, 其特征在于, 所述键盘模块根 据识别到的工作模式调整各个按键的定义。  10. The information processing system according to claim 7, wherein the keyboard module adjusts the definition of each button according to the recognized operation mode.
11、 一种使用如权利要求 广 6之一所述操控部件的信息处理方法, 其特 征在于, 包括以下步骤:  An information processing method using the control unit according to any one of claims 6 to 6, comprising the steps of:
51) 检测操控部件 (10) 的握式控制模块 (1), 判断所述操控部件 (10) 当前处于横握工作模式还是竖握工作模式;  51) Detecting the grip control module (1) of the control unit (10), determining whether the control unit (10) is currently in the horizontal grip mode or the vertical grip mode;
52) 根据横握或竖握工作模式, 通过鼠标坐标发生部件 (24) 调整鼠标 坐标的产生方法或通过按键模块 (14) 调整各个按键 (23) 的定义。  52) Adjust the mouse coordinate generation method by the mouse coordinate generation part (24) or adjust the definition of each key (23) by the button module (14) according to the horizontal or vertical grip operation mode.
12、 根据权利要求 11所述信息处理方法, 其特征在于, 所述步骤 (S1) 包括所述执行部件 (31) 向所述操控部件 (10) 发握式命令, 所述操控部件 The information processing method according to claim 11, wherein the step (S1) includes the execution member (31) issuing a command to the manipulation member (10), the manipulation member
(10) 根据接收到的握式命令决定采用横握还是竖握工作模式。 (10) Determine whether to use the horizontal or vertical grip mode according to the received grip command.
13、根据权利要求 11所述信息处理方法,其特征在于,所述操控部件(10) 外表设置有一个或多个触摸感应区域, 所述步骤 (S1) 包括通过触模感应区 域感知用户手部所接触到的操控部件外表区域的位置, 判断当前处于横握工 作模式还是竖握工作模式。  The information processing method according to claim 11, wherein the manipulation component (10) is provided with one or more touch sensing regions, and the step (S1) comprises sensing the user's hand through the touch sensing region. The position of the outer surface of the control part that is touched is judged whether it is currently in the horizontal grip mode or the vertical grip mode.
14、根据权利要求 11所述信息处理方法,其特征在于,所述操控部件(10) 设置有握式开关, 所述步骤 (S1) 包括根据握式开关状态判断当前处于横握 工作模式还是竖握工作模式。  The information processing method according to claim 11, wherein the manipulation member (10) is provided with a grip switch, and the step (S1) comprises judging whether the current grip mode is vertical or vertical according to the grip switch state. Hold the work mode.
15、根据权利要求 11所述信息处理方法,其特征在于,所述操控部件(10) 设置有电子罗盘模块, 所述步骤 (S1) 包括通过识别操控部件 (10) 的地磁 朝向变化, 判断当前处于横握工作模式还是竖握工作模式。  The information processing method according to claim 11, wherein said manipulation member (10) is provided with an electronic compass module, and said step (S1) comprises judging a current by recognizing a change in a geomagnetic orientation of the manipulation member (10) Whether it is in the horizontal grip mode or the vertical grip mode.
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