WO2015063899A1

WO2015063899A1 - Electronic device, operation control method, and program

Info

Publication number: WO2015063899A1
Application number: PCT/JP2013/079459
Authority: WO
Inventors: 優介池田
Original assignee: 株式会社東芝; 東芝ライフスタイル株式会社
Priority date: 2013-10-30
Filing date: 2013-10-30
Publication date: 2015-05-07

Abstract

This electronic device comprises a reception unit and a control unit. The reception unit associates and receives: a travel amount operated by an operation unit; and pressing information indicating whether or not the operation unit has been pressed. The control unit performs control whereby: when the operation unit has not been pressed according to first pressing information, operation by the operation unit is considered to have not occurred, if the first travel amount associated to the first pressing information is not included in a first dead zone set on the basis of a position for the operation unit in the initial state thereof; and, when the operation unit is pressed according to a second pressing information, operation by the operation unit is considered to have not occurred, if a second travel amount corresponding to the second pressing information is included in a second dead zone set to a wider range than the first dead zone.

Description

Electronic device, operation control method, and program

Embodiments described herein relate generally to an electronic device, an operation control method, and a program.

Traditionally, along with improvements in computer technology, programs and services tend to be available on various electronic devices.

In order to use a program or service in an electronic device, it is necessary to provide a user interface suitable for the program or service. In view of this, a pointing device has been proposed in which a pointer stick operation and a click operation can be realized with a single operation unit so that the user can perform various operations with one hand.

JP 2001-228967 A

However, in the conventional technology, when a stick operation and a click operation are realized with a single operation unit in a pointing device, a so-called drag operation in which a stick operation is performed while performing a click operation becomes difficult.

The present invention has been made in view of the above, and proposes an electronic device, an operation control method, and a program that improve operability.

The electronic device of the embodiment includes a receiving unit and a control unit. The reception unit receives the movement amount operated by the operation unit and the pressing information indicating whether the operation unit is pressed or not in association with each other. When the operation unit is not pressed with the first pressing information, the control unit determines the first movement amount associated with the first pressing information based on the initial position of the operating unit. If it is included in the first insensitive area, it is regarded that the operation by the operation unit is not performed, and when the operation unit is pressed by the second pressing information, the second pressing information is associated with the second pressing information. When the obtained second movement amount is included in the second insensitive area set in a wider range than the first insensitive area, control is performed so that the operation by the operation unit is not performed.

FIG. 1 is an external perspective view showing an example of a television broadcast display apparatus according to the embodiment. FIG. 2 is an external front view of the remote controller according to the embodiment. FIG. 3 is a cross-sectional view of the vicinity of the cursor key of the remote controller according to the embodiment. FIG. 4 is a block diagram illustrating a schematic configuration of the television broadcast display apparatus according to the embodiment. FIG. 5 is a block diagram illustrating a configuration realized by executing a control program group in the control unit of the television broadcast display device of the embodiment. FIG. 6 is a diagram illustrating transition of operation information received from the remote controller via the light receiving unit. FIG. 7 is a conceptual diagram illustrating the insensitive area of the cursor key according to the embodiment when the click operation is not performed. FIG. 8 is a conceptual diagram illustrating the insensitive area of the cursor key according to the embodiment in a state where a click operation is performed. FIG. 9 is a diagram illustrating a first example illustrating a relationship between operation information received by the mouse driver of the embodiment and a cursor movement amount. FIG. 10 is a diagram illustrating a second example illustrating a relationship between operation information received by the mouse driver of the embodiment and a cursor movement amount. FIG. 11 is a flowchart illustrating an overall processing procedure in the mouse driver according to the embodiment.

In the embodiment described later, an example of a television broadcast display device to which the electronic apparatus of the present invention is applied will be described. However, the embodiment described below is not limited to a television broadcast display device, and can be applied to any electronic device that performs processing based on a cursor operation and a click operation.

FIG. 1 is an external perspective view showing an example of a television broadcast display device according to an embodiment. As shown in FIG. 1, a television broadcast display device 100 is configured by an LCD (Liquid Crystal Display) or the like, and is supported by a support unit 103 and has a rectangular appearance in a front view, a still image and a moving image. And a video display panel 102 capable of displaying various types of information.

Then, the operation information performed by the remote controller 150 is transmitted to the television broadcast display device 100. Thereby, the cursor 111 displayed on the video display panel 102 of the television broadcast display device 100 can be operated. The remote controller 150 of the present embodiment can perform a stick operation of the cursor 111 and a click operation, and can also perform a so-called drag operation of moving the icon 110 or the like with the cursor 111.

FIG. 2 is an external front view of the remote controller 150. As shown in FIG. 2, the remote controller 150 includes a power button 201 for turning on / off the power of the television broadcast display device 100,

volume buttons

202 and 203 for changing sound, a return button 204, and a home button 205. And a menu button 206 and a stick 211.

The television broadcast display device 100 of the present embodiment is a so-called smart TV that can execute not only programs provided from broadcast waves but also programs and services provided via the Internet or the like. The home button 205 is used when returning to the home screen of the smart TV. A return button 204 is used to return to the previous screen. The menu button 206 is used when displaying a menu screen.

The stick 211 is used to select various programs and services from a menu screen displayed on the television broadcast display device 100. The stick 211 can be clicked by being pressed as a button, and can be moved in the vertical and horizontal directions (XY plane direction) within the range of the operation area 212. In the present embodiment, an operation for moving the stick 211 in the vertical and horizontal directions (XY plane direction) is referred to as a stick operation. In the present embodiment, movement of the cursor 111 or the like can be realized by a stick operation. In addition, in a state where the click operation is performed, a stick operation such as the cursor 111, in other words, a drag operation is also possible.

FIG. 3 is a cross-sectional view of the vicinity of the stick 211 of the remote controller 150. As shown in FIG. 3, the stick 211 includes a slide knob 301, a ring cover 302, an elastic member 303, a click reception button 304, and a stick member 305. When the slide knob 301 is pressed, the elastic member 303 is pressed, and the surface 301A presses the stick member 305 (in the Z-axis minus direction), whereby the click acceptance button 304 is pressed. When the click acceptance button 304 is pressed, the remote controller 150 transmits a click bit “on” to the television broadcast display device 100. When the click acceptance button 304 is not pressed, the remote controller 150 transmits a click bit “off” to the television broadcast display device 100.

Also, the slide knob 301 is movable in the XY plane direction only within the operation area until it is blocked by the ring cover 302. Then, when the slide knob 301 moves in the XY plane direction, two linear variable resistors (not shown) are used to calculate the X-axis direction resistance value and the Y-axis direction resistance value from the X-axis direction. A position coordinate in the axial direction and a position coordinate in the Y-axis direction are detected. Then, the remote controller 150 transmits the detected position coordinates in the X-axis direction as the movement amount in the X-axis direction and transmits the position coordinates in the Y-axis direction as the movement amount in the Y-axis direction to the television broadcast display device 100. Thereby, stick operation can be realized.

The remote controller 150 of the present embodiment associates the movement amount based on the stick 211 and the click bit, and transmits them to the television broadcast display device 100 at predetermined time intervals.

FIG. 4 is a block diagram showing a schematic configuration of the television broadcast display device 100 of the embodiment. The television broadcast display device 100 is a stationary video display device that receives a broadcast wave of a digital broadcast and displays a video of a program using a video signal extracted from the received broadcast wave.

The television broadcast display apparatus 100 includes an antenna 412, an input terminal 413, a tuner 414, and a demodulator 415. The antenna 412 captures a broadcast wave of digital broadcasting and supplies a broadcast signal of the broadcast wave to the tuner 414 via the input terminal 413.

The tuner 414 selects a broadcast signal of a desired channel from the input digital broadcast broadcast signal. The broadcast signal output from the tuner 414 is supplied to the demodulator 415. The demodulator 415 demodulates the broadcast signal, demodulates the digital video signal and the audio signal, and supplies the demodulated signal to a selector 416 described later.

The television broadcast display apparatus 100 includes

input terminals

421 and 423, an A / D conversion unit 422, a signal processing unit 424, a speaker 425, and a video display panel 102.

The input terminal 421 receives an analog video signal and audio signal from the outside, and the input terminal 423 receives a digital video signal and audio signal from the outside. The A / D converter 422 converts the analog video signal and audio signal supplied from the input terminal 421 into a digital signal and supplies the digital signal to the selector 416. *

The selector 416 selects one of the digital video signal and audio signal supplied from the demodulator 415, the A / D converter 422 and the input terminal 423 and supplies the selected signal to the signal processor 424.

The signal processing unit 424 performs predetermined signal processing, scaling processing, and the like on the input video signal, and supplies the processed video signal to the video display panel 102. In addition, the signal processing unit 424 performs predetermined signal processing on the input digital audio signal, converts the digital audio signal into an analog audio signal, and outputs the analog audio signal to the speaker 425. Further, the television broadcast display device 100 has at least a TS demultiplexer and an MPEG decoder, and the signal decoded by the MPEG decoder is input to the signal processing unit 424.

Furthermore, the signal processing unit 424 also generates an OSD (On Screen display) signal for display on the video display panel 102.

The speaker 425 receives the audio signal supplied from the signal processing unit 424 and outputs audio using the audio signal.

The video display panel 102 is composed of a flat panel display such as a liquid crystal display or a plasma display. The video display panel 102 displays video using the video signal supplied from the signal processing unit 424.

Furthermore, the television broadcast display device 100 includes a control unit 427, an operation unit 428, a light receiving unit 429, an HDD (Hard Disk Drive) 430, a memory 431, and a communication I / F 432.

The control unit 427 comprehensively controls various operations in the television broadcast display device 100. The control unit 427 is a microprocessor with a built-in CPU (Central Processing Unit) and the like, and inputs operation information from the operation unit 428, while inputting operation information transmitted from the remote controller 150 via the light receiving unit 429. Each part is controlled according to the operation information. The light receiving unit 429 of this embodiment receives infrared rays from the remote controller 150.

The control unit 427 uses the memory 431. The memory 431 mainly includes a ROM (Read Only Memory) storing a control program executed by the CPU built in the control unit 427, a RAM (Random Access Memory) for providing a work area to the CPU, and various types of memory. And a non-volatile memory in which setting information, control information, and the like are stored.

The HDD 430 has a function as recording means for recording the digital video signal and audio signal selected by the selector 416. Since the television broadcast display device 100 includes the HDD 430, the digital video signal and audio signal selected by the selector 416 can be recorded by the HDD 430. Furthermore, the television broadcast display apparatus 100 can also reproduce video and audio using digital video and audio signals recorded in the HDD 430.

The communication I / F 432 is connected to various communication devices (for example, a server) via the public network 450, and receives various programs and services that can be used by the television broadcast display device 100 and transmits various information. be able to.

FIG. 5 is a block diagram showing a configuration realized by executing the control program group in the control unit 427. As illustrated in FIG. 5, the control unit 427 implements a first application 501, a second application 502, an OS 503, and a mouse driver 504.

The mouse driver 504 includes a receiving unit 511 and a control unit 512, and passes the operation information received from the light receiving unit 429 to the OS 503 as the amount of movement of the pointer such as the cursor 111 or a click operation. Further, the mouse driver 504 may receive operation information from the operation unit 428.

The receiving unit 511 receives operation information received from the remote controller 150 via the light receiving unit 429.

FIG. 6 is a diagram illustrating transition of operation information received from the remote controller 150 via the light receiving unit 429. As shown in FIG. 6, the reception unit 511 clicks the movement amount in the X-axis direction (for example, x1, x2,...) And the movement amount in the Y-axis direction (for example, y1, y2. The operation information related to the stick 211 associated with the bit is received. The click bit is information indicating whether or not the stick 211 is pressed, and “on” or “off” is set.

The control unit 512 converts the operation information received by the reception unit 511 into the amount of movement of the pointer such as the cursor 111 displayed on the video display panel 102 or a click operation, and then delivers the information to the OS 503.

Incidentally, in this embodiment, a so-called insensitive area (play area) is set in which the pointer such as the cursor 111 does not move even if the stick 211 moves slightly in the vertical and horizontal directions.

FIG. 7 is a conceptual diagram showing a dead area of the stick 211 of the present embodiment when no click operation is performed. In the example illustrated in FIG. 7, the stick 211 is movable within the range of the area 601 by a stick operation. The insensitive area 602 where the operation with the stick 211 is not performed is set within a square (the length of each side is “40”) in which the movement amount in the X-axis direction and the Y-axis direction is equal to or less than the absolute value “20”. Is done. The intersection of the diagonal lines of the insensitive area 602 becomes the position (0, 0) when the stick 211 is in the initial state, in other words, the center of the area 601. As described above, the insensitive area 602 is set based on the initial position of the stick 211. In the present embodiment, an example in which the insensitive area 602 is square will be described. However, the dead area 602 may be a rectangle, may not be limited to a quadrangle, and may be a circle, an ellipse, or the like.

Then, the control unit 512 controls that the operation with the stick 211 is not performed when the movement amount of the stick 211 is included in the range of the insensitive area 602, in other words, outside the insensitive area 602. Only when the movement of the stick 211 is controlled. Thereby, malfunction by the stick 211 can be suppressed.

However, the insensitive area 602 shown in FIG. 7 is a case where the click operation is not performed, in other words, the stick 211 is not pressed. In other words, the click operation is performed. The insensitive area when the button is pressed is different from that shown in FIG.

That is, the stick operation in a state where the click operation is not performed can perform a highly accurate operation because the user does not need to apply power. Furthermore, since the stick 211 moves to the center (position (0, 0) in the initial state) when the user releases the finger, the stick operation to the center of the stick 211 can be easily realized.

On the other hand, a stick operation in a state where a click operation is performed, that is, a so-called drag operation is performed when the user keeps pressing the stick 211 with a finger (in other words, a state where a force is applied to the finger). Therefore, the accuracy of the stick operation is lower than in the state where the click operation is not performed. Furthermore, as long as the click operation is being performed, the finger cannot be lifted, so that it is difficult to move the stick 211 to the center.

Therefore, the control unit 512 of the present embodiment sets the insensitive area when the click operation is performed in a wider range than the insensitive area when the click operation is not performed.

FIG. 8 is a conceptual diagram showing a dead area of the stick 211 in a state where a click operation is performed. In the example shown in FIG. 8, the stick 211 is movable within the area 701 by a stick operation. The insensitive area 702 where the operation with the stick 211 is not performed is set within a square (the length of each side is “100”) in which the movement amount in the X-axis direction and the Y-axis direction is equal to or less than the absolute value “50”. Is done. The intersection of the diagonal lines of the insensitive area 702 becomes the position (0, 0) when the stick 211 is in the initial state, in other words, the center of the area 701. As described above, the insensitive area 702 is set based on the position of the stick 211 in the initial state. In the present embodiment, an example in which the insensitive area 702 is square will be described. However, the dead area 702 may be a rectangle, or may not be limited to a quadrangle, but may be a circle, an ellipse, or the like.

As described above, when it is determined that the stick 211 is not pressed by the click bit, the control unit 512 has the absolute value “20” as the movement amount in the X-axis direction and the Y-axis direction associated with the click bit. When it is included in the insensitive area 602 of the square area which will be described below, control is performed so that the operation with the stick 211 is not performed. The control unit 512 calculates the amount of movement of the pointer such as the cursor 111 when the amount of movement exists outside the dead area 602.

Further, when it is determined that the stick 211 is pressed by the click bit, the control unit 512 has the absolute value “50” or less as the movement amount in the X-axis direction and the Y-axis direction associated with the click bit. When the insensitive area 702 of the square area is included, control is performed so that the operation with the stick 211 is not performed. Then, when the movement amount exists outside the dead area 702, the control unit 512 calculates the movement amount of the pointer such as the cursor 111.

Furthermore, the control unit 512 of the present embodiment varies the cursor movement amount when the stick 211 is pressed and when the stick 211 is not pressed.

That is, when the stick 211 is pressed, compared with the case where the stick 211 is not pressed, a highly accurate movement operation cannot be performed for the reason described above.

Therefore, the control unit 512 corresponds to the movement amount of the stick 211 when the stick 211 of the remote controller 150 is not pressed when moving the pointer such as the cursor 111 displayed on the video display panel 102 according to the movement amount. The pointer movement amount is controlled to be larger than the pointer movement amount corresponding to the movement amount of the stick 211 when the stick 211 is pressed. That is, when the user is performing a click operation, the pointer is moved slowly.

As described above, in this embodiment, when a difficult operation such as a stick operation, a so-called drag operation, is performed while clicking, a pointer (cursor 111) is moved to a position desired by the user by slowing the movement of the pointer. Etc.) can be moved.

FIG. 9 is a diagram showing a first example showing the relationship between the operation information received by the mouse driver 504 of the present embodiment and the pointer movement amount. In the example illustrated in FIG. 9, the operation information, the length of the side of the dead area, the intermediate data, the pixel conversion parameter, and the pointer movement amount are associated with each other. The intermediate data is data in which the movement amount is updated to (0, 0) when the movement amount of the operation information is included in the dead area. In the click bit, “off” indicates a state where the click operation is not performed, and “on” indicates a state where the click operation is performed.

As shown in the record group 901 in FIG. 9, when the movement amount of the operation information is in the square insensitive area of the absolute value “20”, the control unit 512 sets the movement amount to (0, 0) at the time of the intermediate data. ). As a result, the pointer movement amount is also (0, 0). The unit of the pointer movement amount is a pixel, but may be other units. In the record group 901 and the record group 902, a stick operation is performed without performing a click operation.

As shown in the record group 902, when the movement amount of the operation information is out of the insensitive area (the movement amount in the X-axis direction or the movement amount in the Y-axis direction is an absolute value “20” or more), the control unit 512 displays the intermediate data No particular processing is performed at this stage. Then, the control unit 512 calculates the pointer movement amount by multiplying the movement amount of the operation information (intermediate data) by the pixel conversion parameter (0.1). Note that the numbers after the decimal point are rounded off. Accordingly, the pointer (cursor 111) moves according to the operation of the remote controller 150.

As shown in the record group 903, when the finger is released from the stick 211, the displayed pointer (cursor 111) is in the insensitive area even if the stick 211 is moved a little according to the operation information. It does not move in particular.

FIG. 10 is a diagram showing a second example showing the relationship between the operation information received by the mouse driver 504 of the present embodiment and the amount of pointer movement. Each parameter shown in FIG. 10 is the same as in FIG.

As shown in FIG. 10, when a so-called drag operation is performed in which a stick operation is performed while performing a click operation, the absolute values in the X-axis direction and the Y-axis direction representing the insensitive area are expanded to “50”. .

As shown in the record group 1001, as long as the click operation is performed and the stick operation is performed a little (the movement amounts in the X-axis direction and the Y-axis direction are each an absolute value “50” or less), The pointer (cursor 111) does not move particularly because it is in the enlarged insensitive area.

Furthermore, as shown in the record group 1002, when the stick operation is performed in a state where the click operation is performed, in other words, when the drag operation is performed, when the movement amount of the operation information is outside the insensitive area, the control unit 512 No particular processing is performed at the intermediate data stage. Then, the control unit 512 multiplies the movement amount of the operation information (intermediate data) by the pixel conversion parameter (0.05) to calculate the movement amount of the pointer (cursor 111). Note that the numbers after the decimal point are rounded off. Accordingly, the pointer (cursor 111) moves according to the operation of the remote controller 150. Since the pixel conversion parameter (0.05) is smaller than the pixel conversion parameter (0.1) when the click operation is not performed, the amount of movement of the pointer (cursor 111) is small.

Then, as shown in the record group 1003, when an operation for returning the stick to the center is performed in a state where the click operation has been performed, if the movement amount of the operation information is within the enlarged insensitive area, the control unit 512 updates the movement amount to (0, 0) as intermediate data. As a result, the pointer movement amount is also (0, 0). In the example shown in FIG. 10, the insensitive area is wider than the example shown in FIG. 9. For this reason, when the user is performing a click operation, the movement of the stick can be stopped without accurately returning the stick to the center, so that the operation burden can be reduced.

Furthermore, as shown in the record group 1004, when a drag operation is performed again, the control unit 512 performs processing particularly at the intermediate data stage, triggered by the movement amount of the operation information being outside the insensitive area. The movement of the pointer (cursor 111) is started.

Thus, the calculated pointer (cursor 111) movement amount and click operation are output from the mouse driver 504 to the OS 503.

The OS 503 controls the entire television broadcast display device 100. The OS 503 receives the pointer (cursor 111) movement amount and the click operation from the mouse driver 504, and performs processing according to the received pointer movement amount and the click operation. Furthermore, the OS 503 delivers the pointer (cursor 111) movement amount and click operation received from the mouse driver 504 to the first application 501 and the second application 502 as necessary.

The first application 501 and the second application 502 are programs implemented on the OS 503 so that the television broadcast display apparatus 100 provides a service to the user. The first application 501 and the second application 502 receive a pointer (cursor 111) movement amount and a click operation from the OS 503, and perform various processes according to the operation.

Next, overall processing in the mouse driver 504 according to the present embodiment will be described. FIG. 11 is a flowchart showing the above-described processing procedure in the mouse driver 504 according to the present embodiment.

First, the receiving unit 511 of the mouse driver 504 receives the movement amount and the click bit as the operation information of the remote controller 150 from the light receiving unit 429 (step S1101).

Next, the control unit 512 determines whether or not the click bit is “on” (step S1102). When the click bit is not “on”, in other words, when the stick 211 is not pressed (step S1102: No), the control unit 512 indicates that the received movement amounts in the X-axis direction and the Y-axis direction are absolute values. It is determined whether or not it is included in the insensitive area 602 of “20” or less (step S1103). When it is determined that the movement amount is included in the insensitive area 602 (step S1103: Yes), the control unit 512 updates the movement amount to (0, 0) (step S1104).

Next, when the control unit 512 determines that the received movement amount is not included in the insensitive area 602 (step S1103: No), or after the processing of step S1104 is completed, the pixel conversion parameter (0 .1) is multiplied to calculate the amount of movement of the pointer (cursor 111) (step S1105).

On the other hand, when the click bit is “on” in step S1102, in other words, when the stick 211 is pressed (step S1102: Yes), the control unit 512 moves in the received X-axis direction and Y-axis direction. It is determined whether or not the amount is included in a dead area 702 having an absolute value “50” or less (step S1107). When it is determined that the movement amount is included in the insensitive area 702 (step S1107: Yes), the control unit 512 updates the movement amount to (0, 0) (step S1108).

Next, the control unit 512 determines that the received movement amount is not included in the insensitive area 702 (step S1107: No), or after the process of step S1108 is completed, the pixel conversion parameter (0 .05) to calculate the amount of movement of the pointer (cursor 111) (step S1109).

Then, the control unit 512 outputs a pointer (cursor 111) movement amount and a click bit (information indicating whether or not a click operation is performed) to the OS 503 (step S1106).

Conventionally, it has been difficult to maintain a neutral state in a state where a click operation is performed, but the mouse driver 504 of the present embodiment expands a dead area in a state where a click operation is performed, so that a neutral state is achieved. It was easy to maintain the state. Further, by slowing down the moving speed of the pointer (cursor 111) during the click operation, the user can easily move the pointer (cursor 111) to a desired position.

The mouse driver 504 of the present embodiment can realize a drag operation equivalent to a mouse by having the above-described configuration. Thereby, improvement of user operability can be realized.

Moreover, although the case where communication between the television broadcast display apparatus 100 of this embodiment and the remote controller 150 is infrared communication was demonstrated, it is not restrict | limited to infrared communication and wireless, such as Bluetooth (trademark). Communication may be used.

Although several embodiments of the present invention have been described, these embodiments are presented as examples and are not intended to limit the scope of the invention. These novel embodiments can be implemented in various other forms, and various omissions, replacements, and changes can be made without departing from the scope of the invention. These embodiments and modifications thereof are included in the scope and gist of the invention, and are included in the invention described in the claims and the equivalents thereof.

Claims

A reception unit that receives the movement amount operated by the operation unit and the pressing information indicating whether or not the operation unit is pressed;
When the operation unit is not pressed by the first pressing information, the first movement amount associated with the first pressing information is determined based on the initial position of the operation unit. If the operation unit is pressed by the second pressing information, it is associated with the second pressing information. If the second amount of movement is included in the second insensitive area set in a range wider than the first insensitive area, control is performed so that the operation by the operation unit is not performed. A control unit;
Electronic equipment comprising.
The control unit further corresponds to the first movement amount associated with the first pressing information in which the operation unit is not pressed when the pointer displayed on the display unit is moved according to the movement amount. The first pointer movement amount of the pointer is larger than the second pointer movement amount of the pointer corresponding to the second movement amount associated with the second pressing information on which the operation unit is pressed. To control,
The electronic device according to claim 1.
An operation control method executed in an electronic device,
The movement amount operated by the operation unit and the pressing information indicating whether or not the operation unit is pressed are received in association with each other,
When the operation unit is not pressed by the first pressing information, the first movement amount associated with the first pressing information is determined based on the initial position of the operation unit. If the operation unit is pressed by the second pressing information, it is associated with the second pressing information. If the second movement amount is included in the second insensitive area set in a wider range than the first insensitive area, it is considered that the operation by the operation unit is not performed.
Including an operation control method.
The movement amount operated by the operation unit and the pressing information indicating whether or not the operation unit is pressed are received in association with each other,
When the operation unit is not pressed by the first pressing information, the first movement amount associated with the first pressing information is determined based on the initial position of the operation unit. If the operation unit is pressed by the second pressing information, it is associated with the second pressing information. If the second amount of movement is included in the second insensitive area set in a wider range than the first insensitive area, it is considered that the operation by the operation unit has not been performed,
A program that causes a computer to execute.