JP6981486B2 - Terminal device, performance device, program, performance system and performance main unit - Google Patents

Description

The present invention relates to a terminal device, a performance device, a program, a performance system, and a performance main unit device .

Traditionally, parks and amusement parks have been equipped with simple play equipment such as swings and seesaws, as well as play equipment that makes children want to play actively, such as complicated movements and water spouting. Is installed (see Patent Documents 1 and 2). It is expected that playing with these playsets will not only develop motor nerves, but also foster sociability through the sharing of playsets.

Japanese Unexamined Patent Publication No. 3-289975 Japanese Unexamined Patent Publication No. 5-115617

In the above-mentioned stationary playset, since the playset is fixed to the ground with a predetermined strength, a certain amount of time for installation work is required. In addition, maintenance and inspection are required over the installation period in order to prevent accidents due to deterioration of the playset. Therefore, a playset with a small construction period, construction cost, and maintenance / inspection burden is desired. In addition, for parks and amusement parks, it is desirable to have playsets that can be enjoyed repeatedly with some changes so that they can visit or visit the park repeatedly.

The present invention has been made in view of such a background, and it is an object of the present invention to provide a terminal device, a performance device, a program, a performance system, and a performance main body device as a playset that can be enjoyed repeatedly with a small burden of installation and maintenance. And.

In order to solve the above problems, the terminal device of the first aspect according to the present invention is a soundable terminal device, and the first sensor for detecting the movement of the terminal device and the terminal device are suitable. When the time-series change of the movement detected by the second sensor and the first sensor represents the movement of the jump, the sound corresponding to the direction detected by the second sensor is sounded. It is characterized by having a control unit.

Further, the terminal device according to the second aspect of the present invention is a terminal device capable of sounding, and has a first sensor for detecting the movement of the terminal device and a second sensor for detecting the direction in which the terminal device is facing. It is provided with two sensors and a control unit for producing a sound corresponding to the direction detected by the second sensor when the time-series change of the movement detected by the first sensor represents a parabolic motion. It is characterized by that.

Further, the terminal device according to the third aspect of the present invention is a terminal device capable of sounding, and has a display unit, a first sensor for detecting the movement of the terminal device, and a direction in which the terminal device is facing. A control for producing a sound corresponding to the direction detected by the second sensor when the time-series change of the movement detected by the second sensor and the first sensor represents the jumping motion. The control unit comprises a unit, and the control unit is characterized in that the display unit displays a score in which identification information representing a sound is represented in a direction.

Further, the playing device according to the present invention is a soundable playing device, and has a first sensor for detecting the movement of the playing device, a second sensor for detecting the direction in which the playing device is facing, and a second sensor. When the time-series change of the movement detected by the first sensor represents the jumping motion, the control unit is provided to generate a sound corresponding to the direction detected by the second sensor. ..

Further, the program of the first aspect according to the present invention is to a computer including a first sensor for detecting the movement of the housing and a second sensor for detecting the direction in which the housing is facing. When the time-series change of the movement detected by the sensor 1 represents the movement of the jump, it is characterized in that the procedure of producing a sound corresponding to the direction detected by the second sensor is executed.

Further, the program of the second aspect according to the present invention is a soundable terminal device, and detects the direction in which the display unit, the first sensor for detecting the movement of the terminal device, and the terminal device are facing. When the computer of the terminal device equipped with the second sensor indicates the jumping motion, the sound corresponding to the direction detected by the second sensor is produced when the time-series change of the motion detected by the first sensor represents the jumping motion. It functions as a control means for producing a sound, and the control means is characterized in that a score in which identification information representing a sound is represented in a direction is displayed on the display unit.

Further, the program of the third aspect according to the present invention is to a computer including a first sensor for detecting the movement of the housing and a second sensor for detecting the direction in which the housing is facing. When the time-series change of the movement detected by the sensor 1 represents a parabolic movement, it is characterized in that the procedure of producing a sound corresponding to the direction detected by the second sensor is executed.

Further, the performance system according to the present invention is a performance system including a portable device and a performance main unit connected so as to be communicable, and the portable device includes a first sensor for detecting the movement of the portable device. The performance main unit is provided with a second sensor for detecting the direction in which the portable device is facing, and the performance main unit is described when the time-series change of the movement detected by the first sensor represents a jumping motion. It is characterized by including a control unit for producing a sound corresponding to the direction detected by the second sensor.

Further, the performance main unit according to the present invention is a performance main unit of a performance system including a portable device and a performance main unit connected so as to be communicable, and is provided in the portable device to detect the movement of the portable device. When the time-series change in the movement of the mobile device detected by the first sensor represents the movement of the jump, it is detected by the second sensor provided in the mobile device and detecting the direction in which the mobile device is facing. It is characterized by being provided with a control unit that produces a sound corresponding to a direction.

According to the present invention, it is possible to provide a terminal device, a performance device, a program, a performance system, and a performance main body device as playsets that can be enjoyed repeatedly with a small burden of installation and maintenance.

It is a figure for demonstrating the performance using the performance apparatus which concerns on 1st Embodiment. It is a figure for demonstrating the relationship between the direction of a jump and a pitch which concerns on 1st Embodiment. It is a figure for demonstrating the relationship between the jumping distance and a sound length which concerns on 1st Embodiment. It is a figure which shows the whole structure of the performance apparatus which concerns on 1st Embodiment. It is a flowchart which shows the performance procedure which concerns on 1st Embodiment. It is a figure which shows the structure of the performance screen before the performance which concerns on 1st Embodiment. It is a flowchart of the tone color selection process which concerns on 1st Embodiment. It is a figure which shows the structure of the tone color selection screen which concerns on 1st Embodiment. It is a flowchart of the performance processing which concerns on 1st Embodiment. It is a graph for demonstrating the process of detecting a jump and landing which concerns on 1st Embodiment, and the process of calculating the direction, height and distance of a jump. It is a figure which shows the structure of the performance screen during a performance which concerns on 1st Embodiment. It is a figure which shows the structure of the performance screen after the performance which concerns on 1st Embodiment. It is a flowchart of the jumping and landing detection processing which concerns on 1st Embodiment. It is a flowchart which shows the performance procedure at the time of referring to the musical score which concerns on 1st Embodiment. It is a figure which shows the structure of the music music selection screen which concerns on 1st Embodiment. It is a flowchart which shows the performance process at the time of referring to the musical score which concerns on 1st Embodiment. It is a figure which shows the structure of the performance screen when the musical score which concerns on 1st Embodiment is referred. It is a figure which shows the structure of the performance screen in the performance which refers to the musical score which concerns on 1st Embodiment. It is a figure which shows the structure of the scoring screen which concerns on 1st Embodiment. It is a flowchart of the jumping and landing detection processing when referring to the musical score which concerns on 1st Embodiment. It is a figure for demonstrating the relationship between the direction of a jump and a pitch which concerns on a modification of 1st Embodiment. It is a flowchart of the performance processing which concerns on the modification of 1st Embodiment. It is a flowchart of the jump detection processing which concerns on the modification of 1st Embodiment. It is a flowchart of the landing detection processing which concerns on the modification of 1st Embodiment. It is a figure for demonstrating the performance using the performance system which concerns on 2nd Embodiment. It is a figure which shows the whole structure of the portable device which concerns on 2nd Embodiment. It is a figure which shows the whole structure of the main body apparatus which concerns on 2nd Embodiment. It is a flowchart of the performance processing which concerns on 2nd Embodiment. It is a figure which shows the whole structure of the performance apparatus which concerns on 3rd Embodiment. It is a flowchart of the direction detection process which concerns on 3rd Embodiment. It is a graph which shows the change of the magnitude of acceleration at the time of landing which concerns on 3rd Embodiment.

Hereinafter, a performance device according to an embodiment (embodiment) for carrying out the present invention will be described. The performance device according to the first embodiment emits a sound in response to a jump of the performer holding the performance device. Specifically, the playing device emits a sound having a pitch corresponding to the direction of the jump, a size corresponding to the height of the jump, and a length corresponding to the distance of the jump. Further, when the jump is a jump on the spot (jump upward), the performance device emits a pitch sound corresponding to the direction in which the performer is facing.

By holding such a performance device and repeatedly jumping to perform, the performer can enjoy exercising and playing. In addition, if a program is provided in which the smartphone (terminal device) owned by the performer functions as a performance device, the playset will be installed by drawing a score showing the direction and distance of the jump on the ground. And maintenance and inspection costs can be reduced. In addition, it is easier to change the score compared to conventional playset, and it is possible to expect a return visit / return visit.

≪Overview of performance≫
FIG. 1 is a diagram for explaining a performance using the performance device 100 according to the first embodiment. When the performer 99 holding the playing device 100 jumps according to the score 900 written on the ground, the playing device 100 emits a sound corresponding to the jump. The score 900 includes a starting point 901, a note 902-907, and a triangle 911-916 between the starting point 901 and the notes 902-907, indicating the order of the notes 902-907.

When the performer 99 jumps from the starting point 901 to the notes 902 to 907 in the order shown by the triangles 911 to 916, the playing device 100 detects the direction, height, and distance of the jump, and the detected direction. It emits a sound according to the height and distance. Note that jumping from the start point 901 to the note 902 means that the performer 99 jumps from the point indicated by the start point 901 and lands at the point indicated by the note 902. Hereinafter, jumping from note 902 to note 903 has the same meaning.

FIG. 2 is a diagram for explaining the relationship between the jumping direction and the pitch according to the first embodiment. The playing device 100 detects north, northeast, east, southeast, south, southwest, west, and northwest as the jumping direction, and the do (underlined do in FIG. 2), le, mi, fa, and so, respectively. , La, shi and do (overlined do) sounds. Here, the do for the northwest (overlined do) is one octave higher than the do for the north (underlined do).

FIG. 3 is a diagram for explaining the relationship between the jumping distance and the sound length according to the first embodiment. FIG. 3 shows a part of the score 900 shown in FIG. 1, which is a start point 901, notes 902 to 904, and triangles 911 to 913 of the score seen from directly above the ground. The upper direction of the figure is north.

It can be seen that the triangle 913 is longer than the triangles 911 and 912, and the jumping distance to the note 904 is longer than the jumping distance to the note 902 and the note 903. Further, the note 902 from the start point 901 is in the north direction, the note 902 to the note 903 is in the northeast direction, and the note 903 to the note 904 is in the east direction, respectively, corresponding to the sounds of do, re, and mi. When the performer 99 starts from the starting point 901 and jumps in order from the notes 902 to 904, the playing device 100 emits the sounds of do, re, and long mi.
Note that the notes 903 and 904 are rotating. This is to make the notes 903 and 904 easier to see from the position of the notes 902 and 903 in front of them.

≪Overall configuration of performance equipment≫
FIG. 4 is a diagram showing the overall configuration of the performance device according to the first embodiment. The performance device 100 includes a CPU (Central Processing Unit) 110, a storage unit 120 composed of a RAM (Random Access Memory), a flash memory, and the like, an orientation sensor 131, an acceleration sensor 132, a speaker 133, an audio circuit 134, and a display operation unit 135. Consists of including.

The storage unit 120 stores the program 121 and the sound source data 122. When the CPU 110 executes the program 121, the performance device functions (see the performance process of FIG. 9 described later). The sound source data 122 is the original sound data of the sound for jumping, and is the original sound data of various musical instruments.
The azimuth sensor 131 is a sensor that detects the direction, and outputs, for example, the strength of the geomagnetic field of the XYZ axes of the detected performance device 100 to the CPU 110. The acceleration sensor 132 is a sensor that detects acceleration, and outputs, for example, the detected acceleration of the XYZ axes to the CPU 110.

The audio circuit 134 is a D / A converter, and converts the sound of the musical instrument in the sound source data 122 into an analog signal according to the instruction of the CPU 110. The analog signal is output to the speaker 133, and the speaker 133 emits a sound.
The display operation unit 135 is a touch panel display, and various screens described in FIG. 6 and others described later are displayed. The display operation unit 135 also serves as an operation unit that accepts the operation of the performer 99.

≪Performance procedure≫
FIG. 5 is a flowchart showing a performance procedure according to the first embodiment.
In step S101, the performer 99 selects a timbre. Specifically, the performer 99 selects which musical instrument sound in the sound source data 122 is emitted by the performance device 100. The process of selecting the tone color of the CPU 110 corresponding to the selection of the tone color of the performer 99 will be described later with reference to FIGS. 7 and 8.

In step S102, the performer 99 holds the performance device 100 and jumps to perform. The performance processing of the CPU 110 corresponding to the performance of the performer 99 will be described later with reference to FIGS. 9 to 13.

≪Screen composition≫
FIG. 6 is a diagram showing the configuration of the performance screen 210 before the performance according to the first embodiment. The performance screen 210 is an initial screen when the CPU 110 executes the program 121. In the title area 212 at the upper part of the performance screen 210, "Doremi Jump" is displayed, indicating that the program 121 is being executed.
When the menu 211 (not shown) is selected by tapping the menu 211, the CPU 110 displays the screen as a tone color selection screen (see FIG. 8 described later), a song selection screen (see FIG. 15 described later), and a scale. Switch to the scale selection screen (not shown) to be selected.

The performer 99 taps the start button 214 to start playing (jumping). The start button 214 is toggled with the stop button 214A (see FIG. 11 described later), and the start button 214 and the stop button 214A are switched each time the start button 214 is tapped.
In the direction display area 213, the direction in which the performer 99 is facing and the pitch when jumping in that direction are displayed. Specifically, the CPU 110 is detected by the directional sensor 131 on the assumption that the performer 99 stands the performance device 100 and holds the display operation unit 135 toward the face of the performer 99 (see FIG. 1). The direction opposite to the display operation unit 135 and the pitch corresponding to the direction are displayed in the direction display area 213.

≪Tone selection process≫
FIG. 7 is a flowchart of the tone color selection process according to the first embodiment. The tone color selection process is a process executed by the CPU 110 for the tone color selection by the performer 99 (see step S101 in FIG. 5). Before explaining the timbre selection process, the timbre selection by the performer 99 will be described with reference to FIG.

FIG. 8 is a diagram showing the configuration of the tone color selection screen 220 according to the first embodiment. The performer 99 operates the menu 211 (see FIG. 6) to switch to the tone color selection screen 220. The currently selected musical instrument is highlighted in the musical instrument selection area 221. In FIG. 8, the piano is selected, and the sound of the piano is emitted in response to the jump.

When the performer 99 rotates his / her body while holding the playing device 100, the musical instrument highlighted in the musical instrument selection area 221 is switched, and the performer 99 can confirm the selected musical instrument. When the performer 99 selects a desired musical instrument, the performer 99 taps the enter button 222 (displayed as "Keite" in FIG. 8) to confirm the selection.

Returning to FIG. 7, the tone color selection process executed by the CPU 110 will be described. When the menu 211 (see FIG. 6) is operated to switch to the tone color selection screen 220, the CPU 110 starts the tone color selection process. The tone color selection process is a process of repeating steps S121 to S124.
In step S121, the CPU 110 acquires the current direction from the direction sensor 131.

In step S122, the CPU 110 calculates the cumulative rotation angle after starting the tone color selection process. Specifically, the CPU 110 acquires the repeating direction in step S121 and calculates the cumulative rotation angle. For example, if the start is north and then east, south, west, south, west, north, east are acquired, the cumulative rotation angle is 90 degrees +90 degrees +90 degrees-90 degrees +90 degrees +90 degrees +90. Calculate as degree = 450 degrees.

In step S123, the CPU 110 switches the instrument highlighted in the instrument selection area 221 (see FIG. 8) according to the rotation angle calculated in step S122. For example, the CPU 110 emphasizes every 60 degrees, such as a piano when the cumulative rotation angle is between -30 degrees and 30 degrees, an organ when the cumulative rotation angle is between 30 degrees and 90 degrees, and a harmonica when the cumulative rotation angle is between 90 degrees and 150 degrees. Switch the displayed instrument.

In step S124, if the tap of the decision button 222 is detected, the CPU 110 proceeds to step S125 (step S124 → YES), and if not, the CPU 110 returns to step S121 (step S124 → NO).
In step S125, the CPU 110 selects and stores the musical instrument highlighted in the musical instrument selection area 221 as the musical instrument of the sound emitted by the speaker 133.

≪Performance processing≫
FIG. 9 is a flowchart of the performance process according to the first embodiment. The performance process is a process executed by the CPU 110 for the performance by the performer 99 (see step S102 in FIG. 5). Before explaining the performance process, a process of detecting jumping and landing, and a process of calculating the direction, height, and distance of jumping will be described with reference to FIG.

FIG. 10 is a graph for explaining a process of detecting jumping and landing, and a process of calculating the direction, height, and distance of jumping according to the first embodiment. The upper graph of FIG. 10 shows the vertical acceleration obtained from the output of the acceleration sensor 132 over time. The gravitational acceleration is applied to the performance device 100 in a stationary state during the period T0. The CPU 110 calculates the direction of the gravitational acceleration from the output of the acceleration sensor 132, determines the direction opposite to the gravitational acceleration as the vertical direction, corrects this stationary state as the acceleration 0, and detects the acceleration.

The lower graph of FIG. 10 shows the acceleration in the horizontal jumping direction with the passage of time obtained from the output of the acceleration sensor 132. The horizontal direction is a direction perpendicular to the vertical direction, and is a direction in which the gravitational acceleration becomes 0 in a stationary state. The jumping direction is the direction of the largest acceleration in the horizontal direction in the period T1 until the jump.

The period T0 is a period in which the body is at rest. The acceleration is 0 in both the vertical and horizontal directions.
The period T1 is a period until the person jumps, and is a period from when the body starts to move until the foot leaves the ground. In the vertical direction, there is mainly an upward acceleration. In the horizontal direction, acceleration in the jumping direction is occurring.

The period T2 is the period during which the body is floating in the air. In the vertical direction, the acceleration of gravity (−G) is detected. The horizontal acceleration is zero.
The period T3 is the period from the landing to the stop of the body. In the vertical direction, the downward velocity of the fall becomes 0, so that the upward acceleration is mainly generated. In the horizontal direction, the velocity in the jumping direction becomes 0, so that the acceleration opposite to the jumping direction occurs. After the period T3, the acceleration is 0 in both the vertical direction and the horizontal direction, and thereafter, the periods T0 to T3 are repeated.
For in-situ jumping where the jumping distance is 0, the vertical graph is similar to the graph on the upper side of FIG. 10, and the horizontal acceleration is 0 or smaller than a predetermined value.

The period T0 can be detected as a period in which the acceleration is 0 in both the vertical direction and the horizontal direction (acceleration smaller than a predetermined value is detected). In the period T1, following the period T0, a change in acceleration in the vertical direction occurs (acceleration larger than a predetermined value is detected), and gravitational acceleration is detected (acceleration whose difference from the gravitational acceleration is smaller than a predetermined value is detected). It can be detected as a period until. The period T2 is a period during which the gravitational acceleration is detected following the period T1. In the period T3, following the period T2, the gravitational acceleration is not detected (acceleration whose difference from the gravitational acceleration is larger than the predetermined value is detected), and the acceleration becomes 0 in both the vertical direction and the horizontal direction (acceleration smaller than the predetermined value). Can be detected as a period until detection).

Assuming that the jump of the performer 99 draws a parabola (the performer 99 performs a parabolic motion), the CPU 110 calculates the height and the distance from the initial velocity at the time of the jump. This will be described below.
By integrating the vertical acceleration in the period T1, the CPU 110 can calculate the upward speed (initial speed) at the start of the jump, and can calculate the height of the jump.

The CPU 110 can detect the direction of jumping (direction with respect to the playing device 100) by calculating the direction in which the acceleration is maximum in the horizontal direction in the period T1. Further, the direction in which the performance device 100 is facing (direction of north, south, east, and west) can be calculated from the output of the direction sensor 131, and the direction of jumping can be detected. When calculating the direction, the error of ± 22.5 degrees is taken into consideration. For example, assume that north is 0 degrees and clockwise is 28 degrees. Since 28 degrees is in the range of 45 degrees ± 22.5 degrees, the CPU 110 calculates it as northeast.
By integrating the acceleration in the jumping direction in the period T1, the CPU 110 can calculate the speed (initial speed) in the jumping direction at the start of the jump, and can calculate the distance of the jump.

≪Performance processing: Flow of performance processing≫
Returning to FIG. 9, the processing content of the performance processing will be described.
In step S141, the CPU 110 detects a tap of the start button 214 (see FIG. 6). After that, the performance device 100 is in the playing mode. FIG. 11 is a diagram showing the configuration of the performance screen 210A during performance according to the first embodiment. "Play" is displayed at the top of the performance screen 210A, indicating that the performance is in progress. The start button 214 (see FIG. 6) is replaced with the stop button 214A.

Return to FIG. In step S142, the CPU 110 executes a jumping and landing detection process. The jumping and landing detection processes will be described later with reference to FIG.
In step S143, the CPU 110 outputs a sound having a height corresponding to the direction of the jump detected by the jump and landing detection process, a magnitude corresponding to the height of the jump, and a length corresponding to the distance of the jump. Subsequently, the CPU 110 stores the pitch, loudness, length, and output timing (time from the start of processing) of the sound.

If the tap of the stop button 214A is detected in step S144, the CPU 110 finishes the performance process (step S144 → YES), and if not, returns to step S142 (step S144 → NO).

FIG. 12 is a diagram showing the configuration of the performance screen 210B after the performance according to the first embodiment. The stop button 214A (see FIG. 11) is replaced with the start button 214, and the “click” button 215 is displayed. When the "Kiku" button 215 is tapped, the sound of the height, loudness, and length stored in step S143 is played back at the stored timing (sound is output).

≪Performance processing: Jumping and landing detection processing≫
FIG. 13 is a flowchart of the jumping and landing detection processing according to the first embodiment. The jumping and landing detection process in step S142 (see FIG. 9) will be described with reference to FIG.

In step S161, the CPU 110 detects the direction and displays it in the direction display area 213 (see FIG. 6). The process of displaying is as described with reference to FIG.
In step S162, the CPU 110 acquires the vertical acceleration g from the acceleration sensor 132.
In step S163, the CPU 110 proceeds to step S164 when the magnitude of g (absolute value of g | g |) is larger than the predetermined value G1 (step S163 → YES), and when it is not large (step S163 → NO). Return to step S161. Proceeding to step S164 means that the period T0 (see FIG. 10) has moved to the period T1.

In step S164, the CPU 110 acquires the vertical acceleration g from the acceleration sensor 132.
In step S165, the CPU 110 proceeds to step S166 when the difference between g and the gravitational acceleration (| g- (-G) | = | g + G |) is smaller than the predetermined value G2 (step S165 → YES), and when it is not small. (Step S165 → NO) returns to step S164. Proceeding to step S166 means that the period T1 has been changed to the period T2.

In step S166, the CPU 110 acquires the vertical acceleration g from the acceleration sensor 132.
In step S167, the CPU 110 proceeds to step S168 if the difference between g and the gravitational acceleration (| g + G |) is larger than the predetermined value G3 (step S167 → YES), and if it is not large (step S167 → NO), step S166. Return to. Proceeding to step S168 means that the period T2 has been changed to the period T3.

In step S168, the CPU 110 acquires the vertical acceleration g from the acceleration sensor 132.
In step S169, the CPU 110 proceeds to step S170 if the size of g (| g |) is smaller than the predetermined value G4 (step S169 → YES), and returns to step S168 if it is not small (step S169 → NO). .. Proceeding to step S170 means that the period T3 has ended and the next period T0 has been started.
In step S170, the CPU 110 calculates the direction, height, and distance of the jump. The calculation method is as described with reference to FIG.

≪Performance procedure referring to the score≫
In the above performance, the performer 99 plays while jumping toward the notes 902 to 907 of the score 900 (see FIG. 1) on the ground. Next, a performance referring to the score displayed on the display operation unit 135 of the performance device 100 (see the score display area 241 of FIG. 17 described later) will be described.

FIG. 14 is a flowchart showing a performance procedure when referring to the score according to the first embodiment.
In step S201, the performer 99 selects a song. FIG. 15 is a diagram showing the configuration of the song selection screen 230 according to the first embodiment. The performer 99 operates the menu 211 (see FIG. 6) to switch to the music selection screen 230. The currently selected song is highlighted and displayed in the song selection area 231. In FIG. 15, the tulip is selected, and the score of the tulip is displayed on the display operation unit 135 (see FIG. 17 described later).

When the performer 99 rotates his / her body while holding the playing device 100, the highlighted songs are switched in the song selection area 231, and the player 99 can confirm the selected songs. When the performer 99 selects a desired song, he taps the enter button 232 (displayed as "Kete" in FIG. 15) to confirm the selection.
The processing of the CPU 110 related to the music selection is the same as the tone color selection processing (see FIG. 7). Specifically, the music is highlighted in place of the musical instrument in step S123, and the music highlighted in step S125 is selected and stored as the music for displaying the score.

Return to FIG. In step S202, the performer 99 holds the performance device 100 and jumps to perform. The performance processing of the CPU 110 corresponding to the performance of the performer 99 will be described later with reference to FIGS. 16 to 19.

≪Sheet music reference performance processing≫
FIG. 16 is a flowchart showing a performance process when referring to the score according to the first embodiment. The performance process is a process executed by the CPU 110 for the performance by the performer 99 (see step S202 in FIG. 14). When the tap of the decision button 232 on the song selection screen 230 (see FIG. 15) is detected, the CPU 110 displays the performance screen 240 (see FIG. 17 described later) and starts the performance process.

FIG. 17 is a diagram showing a configuration of a performance screen 240 when referring to the score according to the first embodiment. The performer 99 taps the start button 245 to start playing (jumping). The start button 245 is toggled with the stop button 245A (see FIG. 18 described later), and the start button 245 and the stop button 245A are switched each time the start button 245 is tapped.
In the score display area 241, notes 242 to 244 are displayed from left to right in the order of jumping as the score of the song selected on the song selection screen 230. The next jumping note is indicated by a thick line. In FIG. 17, note 242 is the next note.

The jumping directions corresponding to the pitches are indicated by letters on the notes 242 to 244.
The jump height corresponding to the loudness is shown as the vertical length of the notes 242-244. For example, note 242 is shown to be vertically longer and jump higher than the other notes 243 and 244.
The jumping distance corresponding to the length of the note is shown as the lateral length of the notes 242-244. For example, note 244 is longer laterally and longer distances than other notes 242,243.

Returning to FIG. 16, the performance process will be described.
In step S221, the CPU 110 detects a tap of the start button 245 (see FIG. 17). After that, the performance device 100 is in the playing mode. FIG. 18 is a diagram showing a configuration of a performance screen 240A in a performance referring to the score according to the first embodiment. The start button 245 (see FIG. 17) is replaced with the stop button 245A.
Return to FIG. In step S222, the CPU 110 highlights and displays the next note. Specifically, the CPU 110 displays the note corresponding to the next jump with a thick line.

In step S223, the CPU 110 executes a jumping and landing detection process. The jumping and landing detection processes will be described later with reference to FIG. In the jump and landing detection process, the CPU 110 detects the direction, height and distance of the jump.
In step S224, the CPU 110 determines whether or not the direction, height, and distance of the jump detected in step S223 correspond to the next note, and stores the determination result. The CPU 110 proceeds to step S226 if the jump corresponds to the next note (step S224 → YES), and proceeds to step S225 if it does not (step S224 → NO).

In step S225, the CPU 110 outputs a buzzer sound to the speaker 133, and returns to step S223. The CPU 110 may return to step S223 without outputting any sound, or may blink the next note and return to step S223.
In step S226, the CPU 110 outputs a sound having a height corresponding to the direction of the jump detected in step S223, a magnitude corresponding to the height of the jump, and a length corresponding to the distance of the jump.
In step S227, the CPU 110 determines whether or not the sound output in step S226 is the last sound of the song (the sound corresponding to the last note). The CPU 110 proceeds to step S229 if it is the last sound (step S227 → YES), and proceeds to step S228 if it is not the last sound (step S227 → NO).

In step S228, the CPU 110 highlights the next note and returns to step S223.
In step S229, the CPU 110 scores and displays the score. Specifically, the CPU 110 scores according to the number of times YES and the number of times NO is reached in step S224, and displays the score on the score screen 250 (see FIG. 19 described later). For example, if the number of times a person has progressed to YES is 17 times and the number of times a person has progressed to NO is 3 times, the score is (17 / (17 + 3)) × 100 = 85 to 85 points.

FIG. 19 is a diagram showing the configuration of the score screen 250 according to the first embodiment. The score of the scoring result is displayed in the score display area 251. When the tap of the "again" button 252 is detected, the CPU 110 switches to the performance screen 240 (see FIG. 17). The performer 99 will be able to play the same song. When the tap of the "Kyokuerabi" button 253 is detected, the CPU 110 switches to the song selection screen 230 (see FIG. 15). The performer 99 will be able to change the song.

FIG. 20 is a flowchart of a jumping and landing detection process when referring to the score according to the first embodiment. The jumping and landing detection process of FIG. 20 is a process of removing the step of step S161 from the jumping and landing detection process shown in FIG. 13, and steps S241 to S249 correspond to steps S162 to S170, respectively.

≪Characteristics of performance equipment≫
The performance device 100 calculates the direction, height, and distance of the jump of the performer 99 from the change in acceleration, and outputs the corresponding sound. The performer 99 makes a sound by jumping while looking at the score 900 on the ground (see FIG. 1) and the displayed score (see the score display area 241 of FIG. 17), and plays.
Compared with the conventional change of playset, the change of the score 900 on the ground has a shorter construction period and a lower construction cost. Therefore, when the number of performers 99 decreases, it is easy to change to another song and renew it in order to encourage the performers 99 to replay. It is also easy to maintain. Further, since the performance is a jump on the ground, the possibility of an accident is low, and the performance device 100 is a highly safe playset.

<< Modification example of the first embodiment: Restriction of playing place >>
As long as the performer 99 owns the performance device 100, the performer 99 can play anytime and anywhere as long as the score can be prepared. It is a merit for the performer 99, but it is a demerit for the operator of the park or the amusement park because there is no motivation for visiting the park or the amusement park.
As a countermeasure, the position where the performance device 100 operates may be limited. For example, the performance device 100 uses GNSS (Global Navigation Satellite System) to specify its own current position, and does not execute performance processing (see FIGS. 9 and 16) except at a predetermined position. May be good. If it is not possible to communicate with a communication device having a predetermined address by short-range wireless communication such as NFC (Near Field Communication) or Bluetooth (registered trademark) instead of GNSS, the performance processing may not be executed. For example, by embedding a tag for short-range wireless communication in the starting point 901 (see FIG. 1) and the blocks of the notes 902 to 907 constituting the score 900, it may be restricted so that the performance can be performed only in the vicinity of the score 900.

<< Modification example of the first embodiment: Direction detection >>
In the above-described embodiment, the directions corresponding to do, re, mi, fa, so, la, shi, and do are north, northeast, east, southeast, south, southwest, west, and northwest, respectively, and correspond to each sound. The angle was 45 degrees (see FIG. 2). On the other hand, when the song to be played is decided and the next note is decided, the angle corresponding to the next note may be increased.

FIG. 21 is a diagram for explaining the relationship between the jumping direction and the pitch according to the modified example of the first embodiment. When the next note is determined to be Mi in the performance of the score reference, the width of the direction corresponding to Mi is set to 90 degrees instead of the usual 45 degrees. Instead, Le and Fa next to Mi are set at 22.5 degrees. In step S249 (see FIG. 20), the CPU 110 calculates the direction by widening the width of the angle corresponding to the next sound.

By widening the range of angles corresponding to the next sound, the performance device 100 will emit the correct sound even if the direction in which the performer 99 jumps is slightly deviated. Even if the performer 99 is young and it is difficult to jump in the correct direction, the performance device 100 can emit the correct sound, and the performer 99 can enjoy the performance.

In the above embodiment, one octave corresponds to 360 degrees. Then, for example, in a song containing the tunes do, so, do, and so, the notes on the ground (see FIG. 1) overlap. Considering such songs, for example, do, re, mi, fa, so, la, shi, do, with north as 0 degrees, -70 degrees ± 10 degrees, -50 degrees ± 10 degrees,-, respectively. The notes on the ground do not overlap so that they correspond to 30 degrees ± 10 degrees, -10 degrees ± 10 degrees, 10 degrees ± 10 degrees, 30 degrees ± 10 degrees, 50 degrees ± 10 degrees, and 70 degrees ± 10 degrees. You may do so.

<< Modification example of the first embodiment: Sound output immediately after jumping >>
The performance device 100 in the above-described embodiment outputs a sound after the performer 99 jumps and lands. A sound may be output when a jump is detected. FIG. 22 is a flowchart of the performance process according to the modified example of the first embodiment. Compared with the performance process of FIG. 9, the jump and landing detection process of step S142 is the jump detection process of step S312 (see FIG. 23 described later) and the landing detection process of step S314 after sound is output. (See FIG. 24 described later).

FIG. 23 is a flowchart of the jump detection process according to the modified example of the first embodiment. The jump detection process includes jump detection, which is the first half of the jump and landing detection process (see FIG. 13), and calculation of the jump direction, height, and distance. Specifically, steps S331 to S335 are the same as steps S161 to S165, and step S336 is the same as step S170.

FIG. 24 is a flowchart of the landing detection process according to the modified example of the first embodiment. The landing detection process is the same as the landing detection process, which is the latter half of the jump and landing detection processes. Specifically, steps S361 to S364 are the same as steps S166 to S169, respectively.
In the above-described modification, the playing device 100 outputs a sound when a jump is detected (when the foot is off the ground) instead of landing. Therefore, the performer 99 can enjoy the performance at different timings.

<< Modification example of the first embodiment: Collective sound output >>
In the above embodiment, the playing device 100 outputs a sound every time a jump is detected until the start button 214 (see FIG. 6) is tapped and the stop button 214A (see FIG. 11) is tapped. .. The performance device 100 may not output a sound at the time of jumping (during performance), but may output the sound (reproduce the performance) by tapping the "Kiku" button 215 (see FIG. 12).
Alternatively, after the start button 214 is tapped, it is determined that the performance has ended when the jump is not detected for a predetermined length of time, and the start button 214 is tapped to output a sound corresponding to the subsequent jump. You may do so. The sound may be output when the jump is detected again and the jump is not detected for a predetermined time.

<< Modification example of the first embodiment: Direction detection >>
In the above embodiment, it is assumed that the performer 99 stands up the performance device 100 and holds the display operation unit 135 toward the face of the performer 99 (see FIG. 1), and the CPU 110 detects the orientation. is doing. Even when the performer 99 holds the performance device 100 upright at an angle, the CPU 110 may detect the orientation, assuming that the display operation unit 135 is facing the face of the performer 99. Specifically, when the playing device 100 is slanted, the CPU 110 is in a direction perpendicular to the direction of the gravitational acceleration and is the direction closest to the direction of the back surface of the playing device 100 (the direction opposite to the display operation unit 135). The direction is calculated as the direction in which the performer 99 is facing. When the performance device 100 is horizontal, the CPU 110 calculates the direction of the upper part of the performance device 100 (the side surface farthest from the performer 99) as the direction in which the performer 99 is facing.

<< Modification example of the first embodiment: Tone selection process: Jumping instead of the enter button >>
In the tone color selection process (see FIG. 7), the decision button 222 (see FIG. 8) is pressed (tapped) to confirm the tone color (musical instrument). Alternatively, the jump may be detected to determine the timbre. In the song selection (see FIG. 15), instead of detecting the tap of the enter button 232, the jump may be detected to confirm the song.

<< Modification example of the first embodiment: Tone selection process: Tap is detected instead of rotation >>
In the tone color selection process, the CPU 110 switches the musical instrument according to the rotation angle of the performer 99 detected in steps S121 to S122 (see FIG. 7). On the other hand, the CPU 110 may detect the tap and switch the musical instrument. For example, the CPU 110 detects and highlights the tapped musical instrument in the musical instrument selection area 221 (see FIG. 8), and if the tap of the enter button 222 is detected, the speaker 133 selects the highlighted musical instrument. It may be selected as an instrument of the sound to be emitted and memorized. Also in the song selection (see FIG. 15), the CPU 110 may detect and highlight the tapped song in the song selection area 231 so that the tap of the enter button 232 can be detected and selected.

<< Modification example of the first embodiment: Tone selection process: Selection during performance >>
In the above-described embodiment, the performance is performed after selecting a tone (see FIG. 5). In addition to this, during the performance, it is possible to rotate and jump on the spot to select a tone. When rotating and jumping in place, in the period T1 (see FIG. 10), vertical acceleration is detected, but horizontal acceleration is not detected (acceleration smaller than a predetermined value is detected, or the integrated value of acceleration is detected. The initial velocity is less than the specified value).

When such a jump is detected, the CPU 110 calculates the rotation angle from the output of the directional sensor 131 in the period T1 and the output of the directional sensor 131 in the period T3, and switches the timbre (musical instrument). You may do so. For example, assuming that the tone color is switched every 60 degrees, the CPU 110 may switch to the guitar if the current setting is a harmonica and detects a rotation jump of 120 degrees (see FIG. 8). When switching, the CPU 110 may switch the performance screen 210A (see FIG. 11) to the tone color selection screen 220.
By enabling the tone color selection by rotation jumping, the performer 99 does not need to operate the menu 211 (see FIG. 11) to switch to the tone color selection screen 220 and then select the tone color, and the performer 99 does not need to select the tone color at the right time during the performance. Will be able to switch.

<< Second Embodiment >>
In the first embodiment, the player jumps and plays while holding the portable playing device 100. It is assumed that the holding of the playing device 100 interferes with the jumping. Hereinafter, a second embodiment in which this point is improved will be described.

FIG. 25 is a diagram for explaining a performance using the performance system 30 according to the second embodiment. The performance system 30 includes a badge-type portable device 300 and a main body device 400. The mobile device 300 and the main body device 400 are connected by wireless communication.
Instead of holding the playing device 100, the performer 99 wears a badge-type portable device 300 equipped with a sensor and jumps. The portable device 300 transmits information on the direction and acceleration to the main body device 400 at a predetermined timing (for example, a predetermined cycle interval).

FIG. 26 is a diagram showing the overall configuration of the mobile device 300 according to the second embodiment. The portable device 300 includes a CPU 310, an orientation sensor 331, an acceleration sensor 332, a storage unit 333, and a communication unit 334. The communication unit 334 is a device that transmits data to the main unit 400. The CPU 310 transmits the direction information detected by the direction sensor 331 and the acceleration information detected by the acceleration sensor 332 to the main unit 400 at a predetermined timing by executing a program (not shown) stored in the storage unit 333. do.

FIG. 27 is a diagram showing the overall configuration of the main body device according to the second embodiment. The main unit 400 includes a CPU 410, a storage unit 420 for storing a program 421, a sound source data 422, and the like, a speaker 431, an audio circuit 432, and a communication unit 433. The CPU 410, the storage unit 420, the speaker 431, and the audio circuit 432 are the same as the CPU 110, the storage unit 120, the speaker 133, and the audio circuit 134 of the performance device 100 (FIG. 4), respectively. The communication unit 433 receives the directional information and the acceleration information transmitted by the portable device 300.

In the first embodiment, the CPU 110 directly acquires information on the direction and acceleration from the direction sensor 131 and the acceleration sensor 132. On the other hand, in the second embodiment, the CPU 410 acquires information on the direction and acceleration from the direction sensor 331 and the acceleration sensor 332 of the mobile device 300 via communication.

FIG. 28 is a flowchart of the performance process according to the second embodiment. Steps S411 to S419 are the same as steps S162 to S170 shown in FIG. 13, except that the CPU 110 is replaced by the CPU 410, the directional sensor 131 is replaced by the directional sensor 331, and the acceleration sensor 132 is replaced by the acceleration sensor 332.
In step S420, the CPU 410 outputs a sound according to the direction, height, and distance of the jump calculated in step S419.

<< Features of the second embodiment >>
In the second embodiment, the performer 99 does not hold the performance device 100 and wears a lightweight badge-type portable device 300. Therefore, the performer 99 can leap more lightly.

<< Modification example of the second embodiment: Operation unit >>
The portable device 300 does not have an operation unit, and cannot instruct the start and end of the performance by operating the start button 214 (see FIG. 6) and the stop button 214A (see FIG. 11) in the first embodiment. The portable device 300 may be provided with a button as an operation unit, and the pressing of the button may be transmitted to the main body device 400 via communication. When the CPU 410 receives the button press signal, it starts the performance process (see FIG. 28), and when it receives the button press signal, it stops the performance process.

<< Third Embodiment >>
In the above-described embodiment, the performance device 100 detects the direction in which the performer jumps, and emits a sound having a height corresponding to this direction. A sound with a height corresponding to the direction when jumping and landing may be emitted.

FIG. 29 is a diagram showing the overall configuration of the performance device 100A according to the third embodiment. Compared to the playing device 100 (see FIG. 4), the playing device 100A further comprises a gravity sensor 136. The gravity sensor 136 detects the direction of gravity (direction of the ground) applied to the playing device 100A. From this direction, the direction of the performance device 100A with respect to the horizontal plane, such as upward (the display operation unit 135 is facing upward), can be detected. The gravity sensor 136 may be regarded as a function of the CPU 110 that calculates the direction of gravity from other sensors including the acceleration sensor 132, instead of the physical device.

FIG. 30 is a flowchart of the direction detection process according to the third embodiment. With reference to FIG. 30, a process of detecting the direction of the performance device 100A when the performer lands will be described. The CPU 110 simultaneously executes steps S511 and steps S521 to S523 in parallel.

In step S511, the CPU 110 detects and stores the direction at a predetermined cycle. Specifically, the CPU 110 obtains the direction of the playing device 100A using the gravity sensor 136 and the direction of the geomagnetism using the azimuth sensor 131 at a predetermined cycle, and determines the direction of the playing device 100A (the performer is facing). Direction) is calculated and stored. The calculated direction is converted (rounded) and stored in the direction closest to the north, northeast, east, southeast, south, southwest, west, and northeast.

If the CPU 110 detects a landing in step S521 (step S521 → YES), the process proceeds to step S522, and if the landing is not detected (step S521 → NO), the process returns to step S521. The CPU 110 proceeds to step S522 when the landing is detected.
FIG. 31 is a graph showing changes in the magnitude of acceleration when landing according to the third embodiment. The CPU 110 detects landing by detecting a change in the magnitude of acceleration similar to the graph shown in FIG. 31.

In step S522, the CPU 110 acquires the latest predetermined number of directions from the time of landing detection in the directions stored in step S511.
In step S523, the CPU 110 calculates the direction acquired in step S522, which is the largest number of directions, as the direction of the performance device 100A.

<< Features of the third embodiment >>
Even if it is difficult or inaccurate to obtain the orientation of the playing device 100A only by the majority determination of the accelerometer 132 and the direction, the direction of the playing device 100A can be specified by further using the gravity sensor 136. .. As a result, the direction at the time of landing can be acquired, and a sound having a height corresponding to the direction at the time of landing of the performer can be emitted.

In FIG. 13, the CPU 110 detects jumping and landing, and calculates the direction, height, and distance of the jumping. The CPU 110 may replace this process with the direction detection process shown in FIG. 30 for playing. The height and the distance may be predetermined values, or may be values according to the magnitude of the change in acceleration detected for landing (for example, the maximum value, the difference between the maximum value and the minimum value).

<< Modification of the third embodiment >>
In the above-described embodiment, in step S511, the CPU 110 uses the gravity sensor 136 to obtain the direction of the playing device 100A, and uses the azimuth sensor 131 to obtain the direction of the geomagnetism to calculate the direction of the playing device 100A. For example, if the OS (Operating System) of the playing device 100A is Android (registered trademark), the orientation of the gravity playing device 100A acquired by the gravity sensor 136 on the XYZ axes and the geomagnetism acquired by the geomagnetic sensor 131. The orientation of the performance device 100A on the XYZ axes can be obtained.
In step S511, the CPU 110 calculates the direction at 100 msec intervals and stores the latest eight directions. In step S523, the CPU 110 sets the direction of the playing device 100A as the direction most among these eight directions.

When the OS of the playing device 100A is iOS (registered trademark), there is an API (Application Programming Interface) that can acquire the direction of the playing device 100A. Therefore, the CPU 110 can calculate the direction of the playing device 100A without acquiring the direction of gravity or the geomagnetism. In the case of iOS, in step S511, the CPU 110 acquires the direction of the playing device 100A using the API at intervals of 20 msec, and stores the latest 10 directions. In step S523, the CPU 110 sets the direction of the playing device 100A as the direction most from the 10 directions.

≪Other variants≫
The triangles 911 to 916 of the score 900 are not limited to triangles, but may be other symbols or letters indicating the order of the notes 902 to 907, for example, an arrow. Further, the musical note of the musical score displayed in the musical score display area 241 (see FIG. 17) describes the direction of jumping as a character. For example, the direction of jumping is indicated by a symbol indicating the direction or direction of the arrow. May be good.
Further, the portable device 300 (see FIG. 25) is not limited to the badge type, but may be in the form of a belt or a sash, or may be in the form of clothing such as a shirt, trousers (pants, slacks), or a skirt.

In the above-described embodiment, the performer 99 holds the performance device 100 and plays while jumping, but the performer 99 is not limited to a person, and the score (the score 900 in FIG. 1 and the score display area in FIG. 17) are not limited to humans. 241) may be a readable robot or the like. Alternatively, when the performance device 100 is provided with a camera and the score 900 is photographed, the pitch and length of the sound may be analyzed from the orientation and the positional relationship of the notes, and the sound may be output.

In the above embodiment, the pitches (do, re, mi, fa, so, la, shi and do) are assigned to the directions (north, northeast, east, southeast, south, southwest, west and northwest). It is not limited to.
For example, the pitch may be assigned based on the direction in which the performer is facing before jumping (playing) for the first time. If the performer is facing east before the performance, do may be assigned to the east, and pitches may be assigned in the order of re, mi, fa, etc. at predetermined angles clockwise with respect to the east.

In this specification, the steps for describing the performance process, the tone color selection process, and the song selection process are not only the processes performed in chronological order but also in parallel, even if they are not necessarily processed in chronological order. Alternatively, it also includes processes that are executed individually.
Although some embodiments of the present invention have been described above, these embodiments are merely examples and do not limit the technical scope of the present invention. The present invention can take various other embodiments, and further, various modifications such as omission and substitution can be made without departing from the gist of the present invention. These embodiments and variations thereof are included in the scope and gist of the invention described in the present specification and the like, and are also included in the scope of the invention described in the claims and the equivalent scope thereof.

The inventions described in the claims originally attached to the application of this application are described below. The claims described in the appendix are the scope of the claims originally attached to the application for this application.

≪Additional notes≫
<< Claim 1 >>
It is a terminal device that can pronounce
The first sensor that detects the movement of the terminal device and
A second sensor that detects the direction in which the terminal device is facing, and
A terminal device including a control unit that produces a sound corresponding to a direction detected by the second sensor when the time-series change of the movement detected by the first sensor represents a jumping motion.
<< Claim 2 >>
It is a terminal device that can pronounce
The first sensor that detects the movement of the terminal device and
A second sensor that detects the direction in which the terminal device is facing, and
A terminal device including a control unit that produces a sound corresponding to a direction detected by the second sensor when the time-series change of the motion detected by the first sensor represents a parabolic motion.
<< Claim 3 >>
The terminal device according to claim 1, wherein the loudness of the sound to be pronounced is a loudness corresponding to the height of the jump.
<< Claim 4 >>
The terminal device according to claim 1, wherein the length of the sound to be pronounced is a length corresponding to the distance of the jump.
<< Claim 5 >>
The terminal device according to claim 1, wherein the control unit sounds the sound when one of the jump operations is detected.
<< Claim 6 >>
Equipped with an operation unit
The terminal device according to claim 1, wherein the control unit produces a sound corresponding to the jump detected during the period from the start to the end received by the operation unit.
<< Claim 7 >>
It is a performance device that can pronounce
A first sensor that detects the movement of the playing device, and
A second sensor that detects the direction in which the playing device is facing, and
A performance device including a control unit for producing a sound corresponding to a direction detected by the second sensor when the time-series change of the movement detected by the first sensor represents a jumping motion.
<< Claim 8 >>
A computer including a first sensor for detecting the movement of the housing and a second sensor for detecting the direction in which the housing is facing.
A program for executing a procedure for producing a sound corresponding to a direction detected by the second sensor when the time-series change of the movement detected by the first sensor represents a jumping motion.
<< Claim 9 >>
It is a performance system that includes a portable device and a performance main unit that are communicably connected.
The mobile device includes a first sensor that detects the movement of the mobile device and a second sensor that detects the direction in which the mobile device is facing.
The performance main unit device includes a control unit that produces a sound corresponding to a direction detected by the second sensor when the time-series change of the movement detected by the first sensor represents a jump operation. A performance system characterized by that.
<< Claim 10 >>
It is a performance main unit of a performance system including a portable device and a performance main unit connected so as to be communicable.
When the time-series change of the movement of the mobile device detected by the first sensor provided in the mobile device and detects the movement of the mobile device represents a jumping motion, the mobile device is equipped with the portable device and the mobile device is facing. A performance main body device including a control unit that produces a sound corresponding to a direction detected by a second sensor that detects a certain direction.
<< Claim 11 >>
A musical score for playing using a terminal device, in which identification information representing sound is expressed in a direction.
<< Claim 12 >>
The musical score according to claim 11, wherein the aspect ratio of the identification information indicates any one of the length, the loudness, and the length and the loudness of the sound represented by the identification information.
<< Claim 13 >>
Display and
A control unit that displays a score in which the identification information representing the sound is represented in the direction on the display unit, and a control unit.
A musical score display device equipped with.
<< Claim 14 >>
It is a terminal device that can pronounce
Display and
The first sensor that detects the movement of the terminal device and
A second sensor that detects the direction in which the terminal device is facing, and
When the time-series change of the movement detected by the first sensor represents the movement of the jump, the control unit for producing a sound corresponding to the direction detected by the second sensor is provided.
The control unit is a terminal device characterized in that the display unit displays a musical score in which identification information representing a sound is represented in a direction.

100,100A performance device (terminal device)
110 CPU (control unit)
131 Directional sensor (second sensor)
132 Accelerometer (first sensor)
133 Speaker 135 Display operation unit (operation unit)
136 Gravity sensor 30 Performance system 300 Portable device 400 Main unit (performance main unit)

Claims (13)

It is a terminal device that can pronounce
The first sensor that detects the movement of the terminal device and
A second sensor that detects the direction in which the terminal device is facing, and
If the chronological change of motion detected by said first sensor representing the operation of the jump, characterized in that it comprises a control unit for pronunciation sounds corresponding to direction detected by the second sensor Terminal device. It is a terminal device that can pronounce
The first sensor that detects the movement of the terminal device and
A second sensor that detects the direction in which the terminal device is facing, and
When the time-series change of the motion detected by the first sensor represents a parabolic motion, it is characterized by including a control unit for producing a sound corresponding to the direction detected by the second sensor. Terminal device. The terminal device according to claim 1, wherein the loudness of the sound to be pronounced is a loudness corresponding to the height of the jump. The terminal device according to claim 1, wherein the length of the sound to be pronounced is a length corresponding to the distance of the jump. The terminal device according to claim 1, wherein the control unit sounds the sound when one of the jump operations is detected. Equipped with an operation unit
The terminal device according to claim 1, wherein the control unit produces a sound corresponding to the jump detected during the period from the start to the end received by the operation unit. It is a performance device that can pronounce
A first sensor that detects the movement of the playing device, and
A second sensor that detects the direction in which the playing device is facing, and
If the chronological change of motion detected by said first sensor representing the operation of the jump, characterized in that it comprises a control unit for pronunciation sounds corresponding to direction detected by the second sensor Performance device. A computer including a first sensor for detecting the movement of the housing and a second sensor for detecting the direction in which the housing is facing.
A program for executing a procedure for producing a sound corresponding to a direction detected by the second sensor when the time-series change of the movement detected by the first sensor represents a jumping motion. It is a performance system that includes a portable device and a performance main unit that are communicably connected.
The mobile device includes a first sensor that detects the movement of the mobile device and a second sensor that detects the direction in which the mobile device is facing.
The performance main unit device includes a control unit that produces a sound corresponding to a direction detected by the second sensor when the time-series change of the movement detected by the first sensor represents a jump operation. A performance system characterized by that. It is a performance main unit of a performance system including a portable device and a performance main unit connected so as to be communicable.
When the time-series change of the movement of the mobile device detected by the first sensor provided in the mobile device and detects the movement of the mobile device represents a jumping motion, the mobile device is equipped with the portable device and the mobile device is facing. A performance main body device including a control unit that produces a sound corresponding to a direction detected by a second sensor that detects a certain direction. It is a terminal device that can pronounce
Display and
The first sensor that detects the movement of the terminal device and
A second sensor that detects the direction in which the terminal device is facing, and
When the time-series change of the movement detected by the first sensor represents the movement of the jump, the control unit for producing a sound corresponding to the direction detected by the second sensor is provided.
The control unit causes the display unit to display a musical score in which identification information representing a sound is represented in a direction.
A terminal device characterized by that. A computer of a terminal device which is a terminal device capable of sounding and includes a display unit, a first sensor for detecting the movement of the terminal device, and a second sensor for detecting the direction in which the terminal device is facing.
When the time-series change of the movement detected by the first sensor represents the jumping motion, it functions as a control means for producing a sound corresponding to the direction detected by the second sensor.
The control means causes the display unit to display a musical score in which identification information representing a sound is represented in a direction.
A program characterized by that. A computer including a first sensor for detecting the movement of the housing and a second sensor for detecting the direction in which the housing is facing.
When the time-series change of the motion detected by the first sensor represents a parabolic motion, the procedure for producing a sound corresponding to the direction detected by the second sensor is described.
A program to run.

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