JP6115925B2 - Portable terminal device, program, and display control method - Google Patents

Description

  The present invention relates to a mobile terminal device such as a mobile phone, a PDA (Personal Digital Assistant), a tablet PC (Tablet PC), and an electronic book terminal, and a program and a display control method suitable for the mobile terminal device.

  Conventionally, portable terminal devices are provided with various application programs (hereinafter simply referred to as applications). When the application is executed, the execution screen is displayed on the display surface of the display.

  In such a portable terminal device, in order to improve the convenience for the user, a configuration in which the display direction of the execution screen with respect to the portable terminal device changes according to the attitude of the portable terminal device may be employed. (See Patent Document 1). For example, an acceleration sensor is mounted on the mobile terminal device, and based on the gravitational acceleration detected by the acceleration sensor, it is detected whether the mobile terminal device is in a vertical or horizontal state with respect to the ground. The As a result, the execution screen is displayed in the vertical direction on the display surface regardless of whether the mobile terminal device is in the portrait orientation or the landscape orientation.

JP 2010-263433 A

  However, in the above configuration, the execution screen is displayed when the orientation of the mobile terminal device with respect to the ground changes without changing the orientation of the mobile terminal device with respect to the user, for example, when the user lies down while holding the mobile terminal device. May be inadvertently switched to a direction that is difficult for the user to see.

  Therefore, it is conceivable to realize a configuration that can suppress switching of the display direction of the execution screen as necessary. In this case, it is desirable that the switching of the display direction is suppressed without much trouble for the user as much as possible.

  The present invention has been made in view of such a problem, and provides a mobile terminal device, a program, and a display control method that can suppress switching of the display direction of an execution screen in a necessary situation without requiring a user. For the purpose.

  A mobile terminal device according to a first aspect of the present invention includes a display unit, a control unit, and a detection unit that detects an attitude of the mobile terminal device based on gravitational acceleration applied to the mobile terminal device. Here, the control unit displays a first screen based on the first application program on the display unit. And the said control part performs control which switches the display direction of the image contained in the said 1st screen to the direction corresponding to the attitude | position after a change, if the attitude | position of the said portable terminal device changes. In addition, when the suppression condition for suppressing the switching of the display direction of the image included in the first screen is satisfied in a state where the first screen is displayed on the display unit, the control unit performs the first A display indicating that the suppression condition is satisfied is displayed at a predetermined position on the screen, and even if the attitude of the mobile terminal device changes, it is included in the first screen in a direction corresponding to the changed attitude Suppression control is performed to suppress switching of the image display direction. Furthermore, after the control condition is satisfied, when the second screen based on the second application program is displayed on the display unit, the control unit does not perform display indicating that the control condition is satisfied, and When the attitude of the mobile terminal device changes, control is performed to switch the display direction of the image included in the second screen in a direction corresponding to the changed attitude.

  The program which concerns on the 2nd aspect of this invention is a portable terminal device, Comprising: A display part and the detection part which detects the attitude | position of the said portable terminal device based on the gravity acceleration added to the said portable terminal device are provided. A function of displaying a first screen based on a first application program on the display unit on the computer of the portable terminal device, and when the posture of the portable terminal device changes, the first screen is displayed in a direction corresponding to the changed posture. A function for controlling the display direction of the included image, and a suppression condition for suppressing switching of the display direction of the image included in the first screen in a state where the first screen is displayed on the display unit. When satisfied, a display indicating that the suppression condition is satisfied is performed at a predetermined position on the first screen, and the posture after the change is performed even if the posture of the mobile terminal device is changed A function of performing suppression control that suppresses switching of the display direction of the image included in the first screen in a corresponding direction, and the second screen based on a second application program after the suppression condition is satisfied When the image is displayed on the screen, the display indicating that the suppression condition is satisfied is not performed, and when the attitude of the mobile terminal device changes, the image included in the second screen in a direction corresponding to the changed attitude And a function of performing control to switch the display direction.

  A 3rd aspect of this invention is a portable terminal device, Comprising: A portable terminal device provided with a display part and the detection part which detects the attitude | position of the said portable terminal device based on the gravity acceleration added to the said portable terminal device The present invention relates to a display control method. In the display control method according to this aspect, a first screen based on a first application program is displayed on the display unit, and when the attitude of the mobile terminal device changes, the first screen is displayed in a direction corresponding to the changed attitude. Control for switching the display direction of the included image is performed, and the suppression condition for suppressing the switching of the display direction of the image included in the first screen is satisfied in a state where the first screen is displayed on the display unit. And a display indicating that the suppression condition is satisfied at a predetermined position on the first screen, and even if the attitude of the mobile terminal device changes, the first position is changed in a direction corresponding to the changed attitude. The suppression control which suppresses that the display direction of the image contained in 1 screen is switched is performed, and the said 2nd screen based on a 2nd application program is displayed after the said suppression conditions are satisfy | filled Displayed on the second screen, the display indicating that the suppression condition is satisfied is not performed, and when the posture of the mobile terminal device changes, the image included in the second screen is displayed in a direction corresponding to the changed posture. Control to switch the display direction.

  According to the present invention, it is possible to provide a mobile terminal device, a program, and a display control method that can suppress the switching of the display direction of the execution screen in a necessary situation without troublesome users.

  The effects and significance of the present invention will become more apparent from the following description of embodiments. However, the following embodiment is merely an example when the present invention is implemented, and the present invention is not limited to what is described in the following embodiment.

It is a figure which shows the external appearance structure of the mobile telephone based on Embodiment. It is a block diagram which shows the whole structure of the mobile telephone based on Embodiment. It is a figure for demonstrating the display direction of the screen in a display when the attitude | position of a mobile telephone changes based on Embodiment. It is a figure for demonstrating the display direction switching process and fixed mode setting / cancellation process based on Embodiment. It is a figure which shows the display form of the execution screen when the attitude | position of a mobile telephone changes in the state by which fixed mode was cancelled | released based on embodiment. It is a figure which shows the display form of the execution screen when the attitude | position of a mobile telephone changes in the state which has set the fixed mode based on embodiment. 12 is a flowchart showing a flow of fixed mode setting / releasing processing according to a first modification. 12 is a flowchart showing a flow of fixed mode setting / releasing processing according to a second modification. 14 is a flowchart showing a flow of display direction switching processing according to a modification example 3. FIG. It is a figure for demonstrating the fixed mode setting and cancellation | release process based on the other example of a change.

  Embodiments of the present invention will be described below with reference to the drawings. FIG. 1 is a diagram showing an external configuration of the mobile phone 1. 1A and 1B are a front view and a side view, respectively.

  The mobile phone 1 includes a cabinet 10 having a rectangular shape and a small thickness. A touch panel is arranged on the front side of the cabinet 10. The touch panel includes a display 11 and a touch sensor 12 superimposed on the display 11.

  The display 11 includes a liquid crystal panel 11a and a backlight 11b that illuminates the liquid crystal panel 11a (see FIG. 2). The liquid crystal panel 11a has a display surface 11c for displaying an image, and the display surface 11c appears outside. On the display surface 11c, a home screen on which icons of a large number of application programs (hereinafter referred to as “applications”) are arranged and an execution screen based on the application are displayed. Note that other display elements such as an organic EL may be used instead of the liquid crystal panel 11a.

  The touch sensor 12 is disposed on the display surface 11c. The touch sensor 12 is formed in a transparent sheet shape, and the display surface 11 c can be seen through the touch sensor 12. The touch sensor 12 detects a position on the display surface 11c touched by the user (hereinafter referred to as “input position”), and outputs a position signal corresponding to the input position to the CPU 100 described later. Note that touching the display surface 11 c actually means touching a region corresponding to the display surface 11 c on the surface of the cover covering the touch sensor 12.

  The touch sensor 12 is a capacitive touch sensor and includes a first transparent electrode, a second transparent electrode, and a cover arranged in a matrix. The touch sensor 12 detects an input position by detecting a change in capacitance between the first and second transparent electrodes.

  The touch sensor 12 is not limited to a capacitive touch sensor, and may be a touch sensor such as an ultrasonic type, a pressure sensitive type, a resistive film type, and a light detection type.

  The user can perform various operations such as touch, tap, and flick by touching the display surface 11c with a contact member such as his / her finger or pen (for the sake of simplicity, hereinafter simply referred to as “finger”). .

  A key operation unit 13 is disposed below the touch panel. Specifically, the touch keys 13a to 13c are a home key 13a, a setting key 13b, and a back key 13c. The home key 13a is a key for displaying the home screen on the display surface 11c. The setting key 13b is a key for displaying a setting screen for performing various settings on the display surface 11c. The back key 13c is a key for returning the screen displayed on the display surface 11c to the previous screen when the application is executed.

  On the front side of the cabinet 10, a microphone (hereinafter referred to as “microphone”) 14 is disposed at the lower part, and a speaker 15 is disposed at the upper part. The user can make a call by capturing the sound from the speaker 15 with his / her ear and emitting the sound to the microphone 14.

  A camera module 16 is disposed on the back side of the cabinet 10. A lens window (not shown) is disposed on the rear surface of the cabinet 10, and an image of a subject is taken into the camera module 16 from the lens window.

  FIG. 2 is a block diagram showing the overall configuration of the mobile phone 1. The cellular phone 1 according to the present embodiment includes a CPU 100, a memory 101, an image processing circuit 102, a key input circuit 103, an audio encoder 104, an audio decoder 105, a video encoder 106, a communication module 107, an acceleration, in addition to the above-described components. A sensor 108 and a clock 109 are provided.

  The image processing circuit 102 generates an image to be displayed on the display 11 in accordance with a control signal input from the CPU 100, and stores the image data in the VRAM 102a.

  The image processing circuit 102 outputs an image signal including image data stored in the VRAM 102 a to the display 11. Further, the image processing circuit 102 outputs a control signal for controlling the display 11, and turns on or off the backlight 11b of the display 11. Thus, the light emitted from the backlight 11b is modulated by the liquid crystal panel 11a based on the image signal, so that an image is displayed on the display surface 11c of the display 11.

  The key input circuit 103 outputs a signal corresponding to the pressed key to the CPU 100 when each key of the key operation unit 13 is pressed.

  The audio encoder 104 converts an audio signal output from the microphone 14 into a digital audio signal according to the collected audio, and outputs the digital audio signal to the CPU 100.

  The audio decoder 105 performs decoding processing and D / A conversion on the audio signal from the CPU 100, and outputs the converted analog audio signal to the speaker 15.

  The communication module 107 includes an antenna that transmits and receives radio waves for calls and communication. The communication module 107 converts a signal input from the CPU 100 into a radio signal, and transmits the converted radio signal to a communication destination such as a base station or another communication device via an antenna. In addition, the communication module 107 converts a radio signal received via the antenna into a signal in a format that can be used by the CPU 100, and outputs the converted signal to the CPU 100.

  The acceleration sensor 108 detects acceleration applied to the mobile phone 1. The acceleration sensor 108 is a three-axis acceleration sensor, and detects acceleration generated in the three directions of the X-axis direction, the Y-axis direction, and the Z-axis direction in FIG. The acceleration sensor 108 outputs an acceleration signal corresponding to the detected acceleration to the CPU 100. When the mobile phone 1 is stationary, the acceleration of gravity applied to the mobile phone 1 is detected by the acceleration sensor 108.

  The clock 109 measures time and outputs a signal corresponding to the measured time to the CPU 100.

  The memory 101 includes a ROM and a RAM. The memory 101 stores a control program for giving a control function to the CPU 100 and various applications. The memory 101 is also used as a working memory that stores various data temporarily used or generated when an application is executed.

  The CPU 100 controls each component such as the camera module 16, microphone 14, communication module 107, display 11, speaker 15, etc. according to the control program, thereby making a call, camera function, e-mail, web browser, map, music player, etc. Execute various applications.

  Based on the acceleration signal from the acceleration sensor 108, the CPU 100 detects whether the mobile phone 1 is in a horizontal or vertical orientation with respect to the ground.

  FIG. 3 is a diagram for explaining the display direction of the screen on the display 11 when the posture of the mobile phone 1 changes.

  As shown in FIG. 3A, in the state where the mobile phone 1 is in the vertical orientation, the longitudinal direction of the mobile phone 1 is the vertical direction. At this time, the display direction of the screen (image) on the mobile phone 1 on the display 11 is a direction along the longitudinal direction. On the other hand, as shown in FIG. 3C, when the mobile phone 1 is in the horizontal direction, the short side direction of the mobile phone 1 is the up-down direction. At this time, the display direction of the screen (image) with respect to the mobile phone 1 on the display 11 is a direction along the short side direction.

  When the mobile phone is tilted from the vertical direction to the horizontal direction and the tilt angle reaches an angle α that is a threshold value (hereinafter referred to as “vertical critical angle α”) as shown in FIG. It is detected that the telephone 1 has been switched sideways. Based on the detection result, as shown in FIG. 3B, the display direction of the image (screen) on the mobile phone 1 on the display 11 is a direction along the short direction.

  On the other hand, when the mobile phone is tilted from the horizontal direction to the vertical direction and the inclination angle reaches an angle β that is a threshold value (hereinafter, referred to as “lateral critical angle β”) as shown in FIG. Thus, it is detected that the mobile phone 1 has been switched to the vertical orientation. Based on the detection result, as shown in FIG. 3D, the display direction of the image (screen) on the mobile phone 1 on the display 11 is a direction along the longitudinal direction.

  One of the vertical and horizontal directions corresponds to the first direction of the present invention, and the other corresponds to the second direction of the present invention.

  Now, as shown in FIG. 3, the mobile phone 1 according to the present embodiment has a function of changing the image displayed on the display 11, in particular, the display direction of the application execution screen in accordance with the orientation of the mobile phone 1. . As a result, the execution screen is automatically displayed on the display 11 so that the mobile phone 1 is vertically oriented with respect to the ground regardless of whether the orientation of the mobile phone 1 is portrait orientation or landscape orientation. Easy to see.

  However, when such a function is provided, the operation is executed when the posture of the mobile phone 1 with respect to the ground changes without changing the posture of the mobile phone 1 with respect to the user, for example, when the user lies down while holding the mobile phone 1. The display direction of the screen may be inadvertently switched to a direction that is difficult for the user to see.

  Therefore, the present embodiment has a function of fixing the display direction based on a user operation so that the display direction is not switched inadvertently.

  In order to realize the above function, the CPU 100 executes a display direction switching process for switching the display direction of the execution screen of the application according to the attitude of the mobile phone 1. Further, the CPU 100 executes fixed mode setting / cancellation processing for setting or canceling the fixed mode for fixing the display direction.

  The memory 101 stores a program related to the display direction switching process and the fixed mode setting / cancellation process as one of the control programs described above. The CPU 100 executes display direction switching processing and fixed mode setting / cancellation processing according to these programs.

  FIG. 4A is a flowchart showing the flow of the display direction switching process. FIG. 4B is a flowchart showing the flow of the fixed mode setting / releasing process. FIG. 4C shows the relationship between the fixed mode state and the flag state. FIG. 5 is a diagram showing a display form of the execution screen when the posture of the mobile phone 1 changes in the state where the fixed mode is released. FIG. 6 is a diagram illustrating a display form of the execution screen when the posture of the mobile phone 1 changes in the state where the fixed mode is set. 5 and 6 show an example in which an e-mail application is executed and a mail creation screen is displayed on the display 11 as an execution screen.

  Referring to FIG. 4A, the CPU 100 monitors whether one application is activated (S101). For example, when the home screen is displayed on the display 11 and an icon corresponding to one application is touched by the user from the home screen, the CPU 100 determines that the application has been activated (S101). : YES) The CPU 100 is activated if the application is being terminated, and cancels the suspension if the application is already activated but is temporarily suspended (sleeping). Then, the CPU 100 detects the orientation of the mobile phone 1 (S102), and displays the execution screen of the application on the display 11 in a display direction corresponding to the detected orientation (S103). That is, as shown in FIG. 5, if the mobile phone 1 is in the portrait orientation, the execution screen is displayed in a display direction along the longitudinal direction of the mobile phone 1, and if the mobile phone 1 is in the landscape orientation, the cellular phone 1 is displayed. The execution screen is displayed in a display direction along the short direction.

  Next, the CPU 100 determines the state of the fixed flag (S104). The fixed flag is a flag indicating whether the fixed mode is set or released. As shown in FIG. 4C, the fixed mode is set when the fixed flag is set to “1”, and the fixed mode is canceled when the fixed flag is set to “0”.

  If the fixed flag is set to “0” and the fixed mode is released (S104: YES), the CPU 100 determines whether or not the attitude of the mobile phone 1 has been changed (S105). If it is determined that the posture has been changed (S105: YES), the display direction of the execution screen is changed (S106).

  For example, as shown in FIG. 5, when the mobile terminal device 1 is changed from the vertical orientation to the horizontal orientation, the display direction of the execution screen is switched from the direction along the longitudinal direction of the mobile phone 1 to the direction along the short side direction. Similarly, as shown in FIG. 5, if the mobile terminal device 1 is changed from the horizontal direction to the vertical direction, the display direction of the execution screen is switched from the direction along the short direction of the mobile phone 1 to the direction along the long direction.

  On the other hand, if the fixed flag is set to “1” and the fixed mode is set (S104: NO), the CPU 100 does not detect the orientation of the mobile phone 1 and does not change the display direction of the execution screen. .

  For example, as shown in FIG. 6A, the display direction of the execution screen remains in the direction along the longitudinal direction of the mobile phone 1 even when the mobile terminal device 1 is changed from the vertical orientation to the horizontal orientation. In addition, as shown in FIG. 6B, even when the mobile terminal device 1 is changed from the horizontal orientation to the vertical orientation, the display direction of the execution screen remains in the direction along the short side direction of the mobile phone 1.

  In this way, when the application is in an active state (S107: NO) and the execution screen of the application is displayed on the display 11, the processing of steps S104 to S106 is repeated and the fixed mode is in the release state. The display direction of the execution screen is changed according to the change in the attitude of the mobile phone 1.

  When the CPU 100 determines that the application is in an inactive state (S107: YES), the CPU 100 closes the execution screen (S108). For example, the home screen is displayed on the display 11 when an inactive state is obtained by performing an operation for shifting to the home screen. The CPU 100 again monitors whether one application has been activated (S101). If the application is newly activated (S101: YES), the execution screen of the application is displayed on the display 11 in a display direction corresponding to the posture of the mobile phone 1 (S102, S103).

  Note that even when multiple applications are running and the execution screen for one of the applications is displayed, the user can use the taskbar to switch the active application. The application on which the screen was displayed is in an inactive state. Therefore, the execution screen of the application is closed (S108). Instead, the switched application is set in an active state, and an execution screen of the application is displayed on the display 11 in a display direction corresponding to the posture of the mobile phone 1 (S102, S103).

  Next, fixed mode setting / cancellation processing will be described. The fixed mode setting / cancellation process is executed by the CPU 100 in parallel with the display direction switching process.

  Referring to FIG. 5B, the CPU 100 monitors whether or not one application has been activated (S201). If it is determined that the application has been activated (S201: YES), the fixed flag is set to “ “0” is set, and the fixed mode is released (S202).

  Next, the CPU 100 determines whether or not the mobile phone 1 has made one rotation based on the change in the acceleration signal from the acceleration sensor 108 (S203). For example, the direction of one rotation is around the Z axis in FIG. In this case, when the mobile phone 1 is rotated from one vertical direction to a horizontal direction to be in a horizontal state, and further is detected to return to the vertical direction by rotating in that direction, the CPU 100 causes the mobile phone 1 to rotate once. It is determined that

  In the present embodiment, the operation of rotating the mobile phone 1 once is defined as an operation for switching the fixed mode. When the fixed mode is released, the operation of rotating the mobile phone 1 once is the setting operation of the fixed mode. When the user wants to set the fixed mode so that the display direction of the execution screen does not change even when the posture of the mobile phone 1 changes, the user rotates the mobile phone once in a state where the fixed mode is released.

  If it is determined that the mobile phone 1 has made one revolution (S203: YES), the CPU 100 determines the state of the fixed flag (S204). If the fixed flag is set to “0” and the fixed mode is in the release state (S204: YES), the CPU 100 sets the fixed flag to “1” (S205). Thereby, the fixed mode is set. Then, as shown in FIG. 6, the CPU 100 displays a fixed icon M1 indicating that the fixed mode is set at a predetermined position on the execution screen displayed on the display 11 (S206).

  If the fixed mode is set in this way, as described above, since the fixed flag is determined to be “1” in step S104 of the display direction switching process (S104: NO), the attitude of the mobile phone changes. Also, the display direction of the execution screen is not changed.

  When the fixed mode is set, the operation of rotating the mobile phone 1 once is the operation for releasing the fixed mode. When the user wants to cancel the fixed mode, the user turns the mobile phone 1 once in a state where the fixed mode is set.

  In this case, if the CPU 100 determines that the mobile phone 1 has made a full rotation (S203: YES), the fixed flag is set to “1” (S204: NO), so the fixed flag is set to “0” (S204: NO) S207). As a result, the fixed mode is released. Then, the CPU 100 erases the fixed icon M1 from the execution screen displayed on the display 11 (S208).

  If the fixed mode is released in this way, it is determined that the fixed flag is “0” in step S104 of the display direction switching process (S104: YES), so the execution screen is displayed in accordance with the change in the attitude of the mobile phone 1. The display direction is changed (S106).

  The CPU 100 repeats the processing of steps S203 to S208 until the application whose execution screen is currently displayed is inactive (S209: NO), and every time the mobile phone 1 is rotated once, the fixed mode Switch.

  When the application whose execution screen is currently displayed is in an inactive state (S209: YES), the CPU 100 monitors whether or not the application is newly activated (S201). When the application is newly activated (S201: YES), the fixed flag is set to “0” (S202). Thereby, even if the fixed mode is set when the execution screen of the previous application is displayed, the fixed mode is canceled when the execution screen of a new application is displayed.

  As described above, according to the present embodiment, there is provided a fixed mode in which the display direction of the execution screen of the application is not switched even if the attitude of the mobile phone 1 changes, and the user can set the fixed mode as necessary. can do. Therefore, it is possible to prevent the display direction of the execution screen from being switched carelessly.

  Furthermore, according to the present embodiment, the fixed mode is set while the execution screen is displayed on the display 11. For this reason, unlike the configuration in which the fixed mode is set using the setting screen, there is no need to shift from the execution screen to the setting screen, and return to the execution screen after setting the fixed mode. Therefore, the user's operation can be reduced.

  Further, according to the present embodiment, the fixed mode is canceled based on the execution screen of the new application being displayed on the display 11. When using a new application in a situation where the display direction does not need to be fixed, the user does not need to cancel the fixed mode set in the previous application. Therefore, user convenience is improved.

<Modification 1>
FIG. 7 is a flowchart showing the flow of fixed mode setting / releasing processing according to the first modification.

  In this modified example, when it is assumed that the mobile phone 1 is placed under a situation where the display direction of the execution screen is inadvertently switched, the fixed mode is automatically set regardless of the user's setting operation. It is set as the structure.

  In the present modification example, when the posture of the mobile phone 1 is changed, the CPU 100 measures the time until the next posture change using the clock 109.

  Referring to FIG. 7, CPU 100 determines that one application has been activated (S301: YES), and if the fixed flag is set to “0” (S302), has the display direction of the execution screen been changed? Whether or not is monitored (S303). If the CPU 100 determines that the display direction of the execution screen has been changed (S303: YES), the required time from the previous change of the display direction to the current change is within a specified time (for example, several seconds to several tens of seconds). It is determined whether or not there is (S304). The specified time is determined in advance in consideration of the time required for the user to return to the original display direction when the display direction changes unintentionally.

  If the CPU 100 determines that the required time is within the specified time (S304: YES), has the number of times the display direction has been changed within the specified time (hereinafter referred to as “direction change frequency”) reached the specified number of times? It is determined whether or not (S305). The number of direction changes is counted by a number counter (not shown) provided in the CPU 100.

  When the number of direction changes reaches the specified number, it can be considered that the mobile phone 1 is placed in a situation where the display direction can be changed carelessly. Therefore, when the CPU 100 determines that the number of direction changes has reached the specified number (S305: YES), the CPU 100 sets the fixed flag to “1” (S306). Thereby, the fixed mode is set. Further, the CPU 100 displays the fixed icon M1 at a predetermined position on the execution screen displayed on the display 11 (S307).

  Thus, if the fixed mode is set, the display direction of the execution screen is not changed even if the attitude of the mobile phone 1 changes.

  When the fixed mode is set, the CPU 100 monitors whether or not a release operation for canceling the fixed mode has been performed (S308). The release operation can be, for example, an operation of rotating the mobile phone 1 once as in the above embodiment.

  When the CPU 100 determines that the release operation has been performed (S308: YES), the CPU 100 sets the fixed flag to “0” (S309). As a result, the fixed mode is released. Further, the CPU 100 erases the fixed icon M1 from the execution screen displayed on the display 11 (S310).

  Thus, when the fixed mode is released, the display direction of the execution screen is changed according to the change in the posture of the mobile phone 1.

  The CPU 100 monitors whether the application currently displaying the execution screen is in an inactive state until the fixed mode is set and until the fixed mode is canceled (S311 and S312). ). If it is determined that the application is in an inactive state (S311: YES, S312: YES), it is monitored whether or not the application is newly activated (S301). When the application is newly activated (S301: YES), the fixed flag is set to “0” (S302). Thereby, even if the fixed mode is set when the execution screen of the previous application is displayed, the fixed mode is canceled when the execution screen of a new application is displayed.

  As described above, according to this modified example, when the number of operations for returning to the original direction within a specified time after the execution screen display direction is switched reaches the specified number of times, that is, the display direction of the execution screen is switched carelessly. When it is assumed that the cellular phone 1 is placed below, the fixed mode is set. Therefore, it is possible to prevent the display direction of the execution screen from being inadvertently switched. Further, it is possible to prevent the posture of the mobile phone 1 from being detected unnecessarily, and to reduce the power required for switching the display direction of the execution screen.

  Furthermore, according to this modified example, the fixed mode is set while the execution screen is displayed on the display 11. For this reason, unlike the configuration in which the fixed mode is set using the setting screen, there is no need to shift from the execution screen to the setting screen, and return to the execution screen after setting the fixed mode. Furthermore, since the fixed mode is automatically set by determining whether or not the number of direction changes reaches the specified number, no setting operation by the user is required. Therefore, it is possible to reduce time and effort for the user.

  Further, according to this modified example, the fixed mode is canceled based on the execution screen of the new application being displayed on the display 11. When using a new application in a situation where the display direction does not need to be fixed, the user does not need to cancel the fixed mode set in the previous application. Therefore, user convenience is improved.

<Modification 2>
FIG. 8 is a flowchart showing the flow of the fixed mode setting / releasing process according to the second modification.

  In this modified example, when it is assumed that the current orientation of the mobile phone 1 is appropriate for the display of the currently displayed execution screen, the fixed mode is automatically set regardless of the user's setting operation. It is set as the structure set to.

  Referring to FIG. 8, CPU 100 determines that one application has been activated (S401: YES), sets the fixed flag to “0” (S402), and measures the fixed time (S403). The fixed time is the time that the display direction of the execution screen is maintained without switching.

  Next, the CPU 100 determines whether or not the fixed time has reached a specified time (for example, several minutes) (S404). If the fixed time has not reached the specified time (S404: NO), the CPU 100 determines whether or not the display direction of the execution screen has been changed (S405). If the fixed time has not been changed (S405: NO), the fixed time Is continued (S403).

  For the user, if the current orientation of the mobile phone 1 is appropriate for displaying the currently displayed execution screen, the orientation is maintained and the display direction of the execution screen is not changed, so that the fixed time is specified. Reach time.

  When the fixed time reaches the specified time without changing the display direction of the execution screen (S404: YES), the CPU 100 sets the fixed flag to “1” (S406). Thereby, the fixed mode is set. Further, the CPU 100 displays the fixed icon M1 at a predetermined position on the execution screen displayed on the display 11 (S407).

  Thus, if the fixed mode is set, the display direction of the execution screen is not changed even if the attitude of the mobile phone 1 changes.

  If the orientation of the mobile phone 1 is changed and the display direction of the execution screen is changed before the fixed time reaches the specified time (S405: YES), the fixed time is reset (S408), and the fixed time It is measured from the beginning (S403).

  When the fixed mode is set, the CPU 100 monitors whether or not a release operation for canceling the fixed mode has been performed (S409). The release operation can be, for example, an operation of rotating the mobile phone 1 once as in the above embodiment.

  If the CPU 100 determines that the release operation has been performed (S409: YES), it sets the fixed flag to “0” (S410). As a result, the fixed mode is released. Further, the CPU 100 erases the fixed icon M1 from the execution screen displayed on the display 11 (S411).

  Thus, when the fixed mode is released, the display direction of the execution screen is changed according to the change in the posture of the mobile phone 1.

  If it is determined that the application is in an inactive state (S412: YES, S413: YES), the process returns to step S401. If the CPU 100 determines that the application is newly activated (S401: YES), the CPU 100 sets the fixed flag to “0” (S402). Thereby, even if the fixed mode is set when the execution screen of the previous application is displayed, the fixed mode is canceled when the execution screen of a new application is displayed.

  As described above, according to this modified example, when the display direction of the execution screen is maintained for a specified time, that is, for the user, the current attitude of the mobile phone 1 is suitable for displaying the currently displayed execution screen. When it is assumed that the fixed mode is set, the fixed mode is set. Therefore, it is possible to prevent the display direction of the execution screen from being inadvertently switched.

  Furthermore, according to this modified example, the fixed mode is set while the execution screen is displayed on the display 11. For this reason, unlike the configuration in which the fixed mode is set using the setting screen, there is no need to shift from the execution screen to the setting screen, and return to the execution screen after setting the fixed mode. Furthermore, since the fixed mode is automatically set by determining whether or not the fixed time reaches the specified time, no setting operation by the user is required. Therefore, it is possible to reduce time and effort for the user.

  Further, according to this modified example, the fixed mode is canceled based on the execution screen of the new application being displayed on the display 11. When using a new application in a situation where the display direction does not need to be fixed, the user does not need to cancel the fixed mode set in the previous application. Therefore, user convenience is improved.

<Modification 3>
FIG. 9 is a flowchart illustrating the flow of the display direction switching process according to the third modification.

  In the above embodiment, when the fixed flag is set to “1” and the fixed mode is set, even if the orientation of the mobile phone 1 is changed, the display direction of the execution screen is not changed, that is, the execution screen is displayed. The direction is completely fixed.

  On the other hand, in the present modification example, when the fixed mode is set, the display direction of the execution screen is less likely to switch than when the fixed mode is released.

  In the present modification example, the process of step S108 is added to the display direction switching process shown in FIG.

  That is, if the CPU 100 determines in step S104 that the fixed flag is set to “1” (S104: NO), the detection sensitivity for detecting a change in the attitude of the mobile phone 1 is lower than when the fixed mode is canceled. Setting is performed (S108). For example, the CPU 100 sets the above-described critical critical angle α and lateral critical angle β to be larger than the angle at the time of releasing the fixed mode. It should be noted that the longitudinal critical angle α and the transverse critical angle β when the fixed mode is released correspond to the first threshold value of the present invention, and are larger than those when the fixed mode is released. β corresponds to the second threshold value of the present invention.

  Thereby, if the posture of the mobile phone 1 does not change more greatly, it is not detected that the posture has changed. Therefore, even if the posture of the mobile phone 1 changes in the same manner as when the fixed mode is released, the display direction of the execution screen is not easily switched.

  When the fixed mode is canceled and the fixed flag is switched from “1” to “0”, the detection sensitivity is returned to the normal state.

  Even in the case of the configuration of this modification, it is possible to prevent the display direction of the application execution screen from being inadvertently switched, as in the above-described embodiment.

<Others>
As described above, the present embodiment has been described. However, the present invention is not limited to the above embodiment, and various modifications can be made to the embodiment of the present invention in addition to the above embodiment. It is.

  For example, in the above embodiment, the setting operation of the fixed mode by the user is an operation for rotating the mobile phone 1 once. However, the present invention is not limited to this, and the setting operation may be an operation that allows the CPU 100 to accept the setting operation in a state where the execution screen is displayed without switching to the setting screen for setting the fixed mode.

  For example, an operation in which two different positions on the display surface 11c are pressed at the same time may be a release operation. In this case, in the fixed mode setting / cancellation process shown in FIG. 10A, when the CPU 100 determines that two different positions on the display surface 11c are simultaneously pressed for a long time when the fixed mode is in the released state (S210). : YES), the fixed flag is set to “1” (S204: YES → S205). At this time, as shown in FIG. 10B, a long-pressed region R may be set at a diagonal position on the display surface 11c. In this way, the user can set the fixed mode by an intuitive operation as if the execution screen is fixed by pressing the ends of the execution screen.

  In addition, a special operation (for example, long press) on one of the touch keys 13a to 13c may be set as the setting operation.

  In addition, the fixed mode setting / cancellation process (FIG. 4B) of the above embodiment, the fixed mode setting / cancellation process of the above modification 1 (FIG. 7), and the fixed mode setting / cancellation process of the above modification 2 (FIG. 8). ), Any two fixed mode setting / cancelling processes may be executed in parallel. Also, the three fixed mode setting release processes may be executed in parallel.

  Further, the CPU 100 may control to turn off the acceleration sensor 108 while the fixed mode is set.

  Furthermore, in the above embodiment, the display direction of the application execution screen is switched according to the attitude of the mobile phone 1. As described above, the above embodiment only needs to be configured so that at least the display direction of the application execution screen can be switched, and the home screen and the launcher screen before the application execution screen starts up depend on the attitude of the mobile phone 1. The display direction may or may not be switched. Further, when the display direction can be switched, the fixed mode may be set.

  Furthermore, in the above-described embodiment, the present invention is applied to a so-called straight type mobile phone (smart phone). However, the present invention is not limited to this, and the present invention may be applied to any type of mobile phone such as a so-called folding type and sliding type.

  Furthermore, the mobile terminal device of the present invention is not limited to a mobile phone, and may be a PDA (Personal Digital Assistant), a tablet PC (Tablet PC), an electronic book terminal, or the like.

  In addition, the embodiment of the present invention can be variously modified as appropriate within the scope of the technical idea shown in the claims.

11 Display (display unit)
12 Touch sensor (touch detector)
100 CPU (control unit, detection unit)
108 Acceleration sensor (detection unit)

Claims (10)

A portable terminal device,
A display unit;
A control unit;
A detection unit that detects an attitude of the mobile terminal device based on gravitational acceleration applied to the mobile terminal device;
The controller is
Displaying a first screen based on the first application program on the display unit;
When the posture of the mobile terminal device changes, control is performed to switch the display direction of the image included in the first screen in a direction corresponding to the changed posture,
When a suppression condition for suppressing switching of the display direction of the image included in the first screen is satisfied in a state where the first screen is displayed on the display unit,
Performing a display indicating that the suppression condition is satisfied at a predetermined position of the first screen; and
Even if the attitude of the mobile terminal device changes, a suppression control is performed to suppress switching of the display direction of the image included in the first screen in a direction corresponding to the changed attitude.
When the second screen based on the second application program is displayed on the display unit after the suppression condition is satisfied,
No indication is made that the suppression condition is satisfied, and
When the attitude of the mobile terminal device changes, control is performed to switch the display direction of the image included in the second screen in a direction corresponding to the changed attitude.
The portable terminal device characterized by the above-mentioned. The mobile terminal device according to claim 1,
The controller is
When the suppression condition is satisfied, as the suppression control, even if the attitude of the mobile terminal device changes, the display direction of the image included in the first screen is not switched to the direction corresponding to the changed attitude. To
The portable terminal device characterized by the above-mentioned. The mobile terminal device according to claim 1,
Before Symbol control section is,
Control that switches the display direction of the image included in the first screen to a direction corresponding to the second direction when the mobile terminal device is tilted from the first direction to the second direction by a first threshold or more. Done
When the suppression condition is satisfied, the first threshold is changed to a second threshold larger than the first threshold as the suppression control.
The portable terminal device characterized by the above-mentioned. In the portable terminal device according to any one of claims 1 to 3,
When the operation for suppressing the switching of the display direction of the image included in the first screen by the user in a state where the first screen is displayed on the display unit, the suppression condition is satisfied,
The portable terminal device characterized by the above-mentioned. In the portable terminal device according to any one of claims 1 to 4,
When the operation of returning to the original direction within a specified time after the display direction of the image included in the first screen is switched reaches a specified number of times, the suppression condition is satisfied.
The portable terminal device characterized by the above-mentioned. In the portable terminal device according to any one of claims 1 to 5,
When the display direction of the image included in the first screen is not switched for a predetermined time, the suppression condition is satisfied.
The portable terminal device characterized by the above-mentioned. The mobile terminal device according to any one of claims 1 to 6,
The controller is
When receiving an operation for activating the second application, the second screen is displayed.
The portable terminal device characterized by the above-mentioned. In the portable terminal device according to claim 7,
A touch detection unit that detects a user's touch;
The controller is
As an operation for activating the second application, when an operation by the user's touch is accepted, the second application is activated.
The portable terminal device characterized by the above-mentioned. A mobile terminal device comprising: a display unit; and a detection unit that detects a posture of the mobile terminal device based on gravitational acceleration applied to the mobile terminal device.
A function of displaying a first screen based on a first application program on the display unit;
A function of performing control to switch a display direction of an image included in the first screen in a direction corresponding to the changed posture when the posture of the mobile terminal device is changed;
When a suppression condition for suppressing switching of the display direction of the image included in the first screen is satisfied in a state where the first screen is displayed on the display unit,
Performing a display indicating that the suppression condition is satisfied at a predetermined position of the first screen; and
A function of performing suppression control that suppresses switching of the display direction of the image included in the first screen in a direction corresponding to the posture after the change even if the posture of the mobile terminal device changes;
When the second screen based on the second application program is displayed on the display unit after the suppression condition is satisfied,
No indication is made that the suppression condition is satisfied, and
A function of performing control to switch a display direction of an image included in the second screen in a direction corresponding to the posture after the change when the posture of the mobile terminal device is changed,
A program characterized by that. A mobile terminal device, comprising: a display unit; and a detection unit that detects a posture of the mobile terminal device based on gravitational acceleration applied to the mobile terminal device.
Displaying a first screen based on the first application program on the display unit;
When the posture of the mobile terminal device changes, control is performed to switch the display direction of the image included in the first screen in a direction corresponding to the changed posture,
When a suppression condition for suppressing switching of the display direction of the image included in the first screen is satisfied in a state where the first screen is displayed on the display unit,
Performing a display indicating that the suppression condition is satisfied at a predetermined position of the first screen; and
Even if the attitude of the mobile terminal device changes, a suppression control is performed to suppress switching of the display direction of the image included in the first screen in a direction corresponding to the changed attitude.
When the second screen based on the second application program is displayed on the display unit after the suppression condition is satisfied,
No indication is made that the suppression condition is satisfied, and
When the attitude of the mobile terminal device changes, control is performed to switch the display direction of the image included in the second screen in a direction corresponding to the changed attitude.
A display control method characterized by the above.

Images