JP2013123478A - Dynamic vision determination apparatus - Google Patents

Abstract

PROBLEM TO BE SOLVED: To provide a dynamic vision determination apparatus having an entertainment property while allowing a child to play on the apparatus.SOLUTION: The dynamic vision determination apparatus 10 includes: a plurality of push-in means 31 and 39A for transmitting push-in detection signals corresponding to the push-in of push-in sites 31; a plurality of display means 32 provided in places where the push-in sites 31 are present in such a way as to be lighted; and a control means 33A for determining the display means 32 to be lighted in a random order of lighting when the start of play is suggested. A child mode area 201 is present in a part of a control board 20. The child mode area 201 is located lower relative to the other areas. The control means 33A is configured to light only the display means 32 present in the child mode area 201 when a child mode is executed, and is configured to determine a right answer and count the score on condition that a prescribed condition is satisfied when the push-in means 31 corresponding to the lighted display means 32 is pressed.

Description

  The present invention relates to a moving object visual acuity determination device having game characteristics.

  Patent Document 1 discloses a configuration related to a vision training apparatus. This vision training apparatus has a substrate, and a push button switch and a display element are provided on the substrate. And the display element is provided so that the number of 7 segments can be displayed. When the user uses this vision training apparatus, the type of training is selected, and the display element performs display according to the selection. The vision training can be performed by pressing the push button switch according to the display and the type of training.

JP 2011-36289 A

  In the vision training device disclosed in the above-mentioned Patent Document 1, the purpose is vision training and does not have entertainment. Moreover, even if entertainment is provided, there is no one that is intended for children to play.

  The present invention has been made on the basis of the above circumstances, and an object of the present invention is to provide a moving object visual acuity determination device that can be played by a child but has entertainment properties. .

  In order to solve the above-described problems, a first aspect of the moving object visual acuity determination device according to the present invention is provided on an operation panel having an operation panel that can face each part with a hand so as to face the user, and an operation panel. A plurality of pressing means for transmitting a pressing detection signal corresponding to the pressing of the pressing portion, and a pressing portion that is exposed from the surface of the board so that the user can touch and press it A plurality of display means provided so as to be lit at a portion to be lit, the lighting state being visible from a position facing the board surface, and a plurality of display means so that a random lighting order is provided when play is instructed. Control means for determining a correct answer when a predetermined condition is satisfied in response to a push detection signal from the push means, and counting the number of points. There is a kids mode area that separates multiple push parts and multiple display means that exist in some areas from other areas among the push parts and multiple display means, and it exists in the kids mode area. The pushing portion and the display means to be positioned are positioned relatively below the pushing portion and the display means existing in an area other than the kids mode area, and the control means can execute the kids mode. Then, control is performed so that only the display means existing in the kids mode area is lit, and a predetermined condition is set for the push detection signal when the push means corresponding to the display means lit in the kids mode area is pushed. When satisfying, it is determined that the answer is correct and the score is counted.

  In addition to the above-described invention, another aspect of the moving object visual acuity determination device of the present invention is further provided with a line portion that divides the kids mode area from other regions on the board surface. While the center position is the highest, the display means includes a display element capable of displaying numbers, and the control means turns on the display element in the vicinity of the center side of the line portion during play. At the same time, it is preferable to perform control so that the display of the score acquired by the user who has played the game is also used after the play is completed.

  Further, according to another aspect of the moving object visual acuity determination device of the present invention, in addition to each of the above-described inventions, the display element is disposed at four corners of the rhombus shape, and the line portion is directed downward as it is separated from the central side. It is preferable that the both end sides of the line portion are divided into a total of four display elements arranged at four corners through the center side of the rhombus.

  In addition to the above-described inventions, another aspect of the moving object visual acuity determination device according to the present invention is that the control means is a correct answer when the pushing means is pushed in from a plurality of pushing means under a predetermined condition. It is preferable to create a pattern, turn on the display means corresponding to the correct answer pattern, and count the score by determining that the answer is correct when the pressing means satisfying a predetermined condition is pressed after the lighting.

  ADVANTAGE OF THE INVENTION According to this invention, it becomes possible to provide the moving body visual acuity determination apparatus which gave entertainment property, while a child can play.

1 is a perspective view illustrating an overall configuration of a moving object visual acuity determination device according to an embodiment of the present invention. It is a front view which shows the structure of the moving body visual acuity determination apparatus of FIG. It is a figure which shows the mode of the board | substrate attached to the operation panel. It is a block diagram which shows the control structure of a board | substrate. It is a block diagram which shows the control structure of a score display part. It is a block diagram which shows the control structure of a charging device. It is a figure which shows the example among the processing flows which mainly used the accounting apparatus. It is a figure which shows another example among the processing flows which mainly used the accounting apparatus.

  Hereinafter, the moving visual acuity determination device 10 having a battle function according to the present embodiment will be described with reference to the drawings.

  FIG. 1 shows an overall configuration of a moving object visual acuity determination apparatus 10 having a battle function according to the present embodiment. As shown in FIG. 1, the moving object visual acuity determination device 10 according to the present embodiment includes a frame unit 11, an operation panel 20, a switch box 50, and a charging device 70.

  The frame part 11 is a part that supports the entire moving object visual acuity determination device 10. Covers 12 are attached to both ends of the frame portion 11.

  The operation panel 20 includes a housing that is attached to the frame portion 11 and is made of, for example, metal or resin. The operation panel 20 is provided in a rectangular shape in the present embodiment. In addition, a plurality of holes 21 are provided in the panel surface 20 a located on the front side of the operation panel 20. The hole 21 is a part for exposing a push button 31 described later to the front side. The holes 21 are provided on the panel surface 20a of the operation panel 20 at a predetermined interval.

  The push button 31 is provided with a transparent portion so that a display element 32 described later can be visually recognized.

  As shown in FIG. 3, a substrate 30 is attached to the back side of the operation panel 20. The board 30 is provided with a switch 39A corresponding to the pressing of a push button 31 described later. The push button 31 pushes the switch 39A. Therefore, the size of the outer shape of the push button 31 is adjusted to the size of the outer shape of the hole 21. The push button 31 is provided with a display element 32. That is, an exposed portion of the display element 32 exists in a part of the push button 31 exposed to the front of the operation panel 20. Therefore, the user can press the push button 31 based on the display on the display element 32.

  The display element 32 is a 7-segment LED, and three 7-segment LEDs are provided on the main board 30A and four on the sub-board 30C. The display element 32 is provided so that it can be lit in red and green, for example. However, the display element 32 may be configured to be able to be lit in colors other than those, and can be lit in three or more colors including the above-described red and green, or separate from them. It may be provided. In a play described later, the display element 32 is lit to display the number “8”.

  As shown in FIG. 4, the moving body visual acuity determination apparatus 10 of the present embodiment is provided with an AC adapter 23 that is supplied with a commercial power supply 22 from the outside and converts the commercial power supply 22 that is AC power into DC power. . In addition, the above-described board 30 includes a main board 30A, an audio board 30B, and a sub board 30C. The main board 30A is provided with three push buttons 31 and has a function of controlling display of each display element 32. The main board 30A is provided with a CPU 33A, a memory 34A, a DC-DC converter 35A, a power supply switch 36, a display selection unit 37A, a display driver 38A and a display element 32, a switch 39A, and an interface unit 40A.

  The CPU 33A is a part that reads programs, data, and the like from the memory 34A and controls the main board 30A, the sub board 30C, and the audio board 30B. The memory 34A stores a program, data, and the like for such control. Note that the memory 34A includes a RAM, a ROM, an EEPROM, and the like. The CPU 33A and the memory 34A correspond to control means.

  Further, by reading a program, data, etc. from the memory 34A and controlling it by the CPU 33A, among the display elements 32 existing on the operation panel 20, the two display elements 32 located on the center side in FIG. The later score can be displayed. That is, in FIG. 2, the score when the user plays the moving object visual acuity determination device 10 can be displayed by the two display elements 32 existing in the score display area 203 of the board surface 20a. As with the other display elements 32, the two display elements 32 existing in the score display area 203 can be used both for lighting during play and for displaying the score.

  Further, the DC-DC converter 35A converts the voltage of the direct-current power after being converted by the AC adapter 23 into a predetermined level. The power supply switch 36 is a switch that operates based on the control of the CPU 33A, such as an FET, and is a switch for turning on / off the supply of power to the sub-board 30C.

  The display selection unit 37A is a part that selects which of the display elements 32 is to be displayed. The display driver 38A is a driver for driving the display element 32. The display element 32 is a part capable of displaying information by lighting of light. In the present embodiment, the display driver 38A is an LED driver, and three display drivers 38A are provided. The switch 39A is a part that transmits a signal (push detection signal) corresponding to the push of the push button 31 described above. In the present embodiment, three switches 39A are provided corresponding to the number of push buttons 31.

  The interface unit 40A connects the audio board 30B, the sub board 30C, the control board 30D described later, and the score display board 30E described later, and exchanges signals between each of the boards 30B-30E and the main board 30A. It is a part to do. The connection between the main board 30A and the control board 30D performs serial communication such as UART (Universal Asynchronous Receiver Transmitter) or RS-485.

  In addition, a DC-DC converter 35B, an audio processor 41, an audio data ROM 42, an amplifier 43, and the like are mounted on the audio board 30B, and an interface unit 40B is also provided. Among these, the DC-DC converter 35B is the same as the DC-DC converter 35A described above. The audio processor 41 is a dedicated circuit for processing an audio signal. The audio data ROM 42 is a part that stores audio data processed by the audio processor 41. The amplifier 43 amplifies the signal from the sound processor 41 and outputs it to the speaker SP. The interface unit 40B is a part for exchanging signals with the interface unit 40A of the main board 30A.

  The sub-board 30C is provided with a DC-DC converter 35C, a sub-board selection unit 44, a display selection unit 37C, a display driver 38C and a display element 32, a switch 39C, and a switch board specifying unit 45, and an interface unit 40C. Is also provided. Among these, the DC-DC converter 35C is the same as the DC-DC converter 35A described above. The sub-board selection unit 44 is a part used for specifying the sub-board 30C so that the signal output from the CPU 33A can be used for driving the display element 32 in the corresponding sub-board 30C. As this sub board | substrate selection part 44, the selection switch from 1-9 is used in this Embodiment.

  As shown in FIG. 3, each of the sub-substrates 30C is provided with four display elements 32, and the four display elements 32 are arranged at the positions of the four corners of the rhombus shape.

  The display selection unit 37C, the display driver 38C, the display element 32, and the switch 39C are the same as the display selection unit 37C, the display driver 38A, and the display element 32 described above. The switch board specifying unit 45 is for giving information for specifying which sub-board 30C the selected switch 39C belongs to. In the present embodiment, scan switches 1 to 9 are used as the switch substrate specifying unit 45. The interface unit 40C is a part for exchanging signals with the interface unit 40A of the main board 30A.

  The main board 30A, the audio board 30B, and the sub board 30C as described above are attached to the operation panel 20 as shown in FIG. That is, there are a total of nine sub-boards 30C, but eight of the nine are arranged so as to surround the main board 30A, the audio board 30B, and one sub-board 30C. The main substrate 30A and one sub-substrate 30C located on the center side of the operation panel 20 have a total of seven display elements 32 arranged at the four corners of the rhombus shape. One display element 32 out of the total of seven display elements 32 is arranged at a position where two rhombus-shaped corners overlap, and four of the display elements 32 are provided on the sub-board 30C. The remaining three are provided on the main board 30A. The audio board 30B is disposed next to the main board 30A.

  Here, as shown in FIGS. 1 and 2, the panel surface 20 a of the operation panel 20 is provided so that the shape thereof is rectangular. A kids mode area 201 is provided on the board surface 20a. In the kids mode area 201, there are a hole 21 that exists within a certain range, and a push button 31 that exists in the hole 21. As shown in FIGS. 1 and 2, the kids mode area 201 includes a plurality of holes 21 (push buttons 31) located on the lower side of the board surface 20a.

  1 and 2, the board surface 20a is provided with a line portion 202 indicating (dividing) the kids mode area 201. The line portion 202 is provided to be curved so that the center side of the board surface 20a is the highest and goes downward as it goes to the end side away from the center. In addition, the part of the both ends side of the line part 202 is provided so that it may pass through the center side of the display element 32 arrange | positioned at the four corners of a rhombus shape. As a result, a total of four display elements 32 arranged at the four corners of the rhombus are classified into those belonging to the kids mode area 201 and those not belonging to the kids mode area 201.

  In the configuration shown in FIGS. 1 and 2, the kids mode area 201 includes all the push buttons 31 corresponding to the switches 39A provided on the three sub-boards 30C located on the lower side. Further, the push button 31 corresponding to the switch 39A provided on the middle sub-board 30C among the three sub-boards 30C positioned in the middle is also included in the kids mode area 201. Also, all push buttons 31 corresponding to the switches 39A provided on the main board 30A are included in the kids mode area 201. However, among the three sub-boards 30C positioned in the middle, in the sub-board 30C positioned on both ends in the width direction, the push buttons 31 corresponding to the two switches 39A are included in the kids mode area 201. However, the push buttons 31 corresponding to the remaining two switches 39A are not included in the kids mode area 201.

  Further, a switch box 50 as shown in FIG. 2 can be attached to the operation panel 20 of the moving object visual acuity determination apparatus 10. The switch box 50 has four level selection buttons 51, one of which is a kids mode selection button 51a. These level selection buttons 51 are also formed of a translucent resin colored in a predetermined color. Accordingly, when the light emitting element attached to the control board 30D emits light, the user is recognized as light emission of a predetermined color of the level selection button 51.

  As shown in FIGS. 1 and 2, the switch box 50 is provided with a key switch 52. The key switch 52 includes an insertion port into which a dedicated key for the moving object visual acuity determination device 10 is inserted. The CPU 33 (CPUs 33A and 33D) can execute the following operations (1) to (3) by inserting a dedicated key into the key switch and turning it. That is, it is possible to execute an operation of (1) freeing a game a predetermined number of times by setting a fee when trouble occurs. Also, (2) it is possible to change settings such as charge settings and volume settings. Further, (3) operations related to maintenance such as confirmation of the number of times of play can be performed.

  Further, as shown in FIG. 4, a control board 30 </ b> D is provided inside the switch box 50. The control board 30D is provided with a CPU 33D, a memory 34D, a DC-DC converter 35D, a switch 53, a light emitting driver 55, a light emitting element 56, and an interface unit 40D.

  The CPU 33D is the same as the CPU 33A described above, and is a part that reads programs, data, and the like from the memory 34D and controls the main board 30A, the sub board 30C, and the audio board 30B. When the control is performed by the CPU 33D, the CPU 33A of the main board 30A does not control each part. That is, the CPU 33D is configured to be able to perform overall control. The memory 34D stores a program, data, and the like for such control. Note that the memory 34D includes a RAM, a ROM, an EEPROM, and the like.

  In the following description, the CPU 33A and the CPU 33D are simply referred to as the CPU 33 when the operations are common to the CPU 33A and the CPU 33D (when it is not necessary to distinguish between them). Similarly, when it is not necessary to distinguish between the memory 34A and the memory 34D, they are simply referred to as the memory 34.

  The DC-DC converter 35D is the same as the DC-DC converter 35A described above. The switch 53 is a part that transmits a signal corresponding to the pressing of the level selection button 51 described above, and four switches 53 are provided corresponding to the number of the level selection buttons 51. The light emitting driver 55 is a driver for driving the light emitting element 56. The light emitting element 56 emits light (turns on) or turns off in response to pressing of the level selection button 51. As the light emitting element 56, an LED can be used. Four light emitting drivers 55 and light emitting elements 56 are provided corresponding to the level selection buttons 51. The interface unit 40D is a part for exchanging signals with the interface unit 40A of the main board 30A.

  Here, when the CPU 33 receives a signal indicating that a predetermined fee has been inserted from the billing device 70 described later, the light emitting element 56 emits light, and the light emission is recognized by the user via the level selection button 51. Anyway. Thereby, the user can recognize that the reception of play has started on the moving eyesight determination device 10 side.

  Further, during the play of each play mode, only the light emitting element 56 corresponding to the selected (pressed) level selection button 51 is caused to emit light (light on), and the level is not pressed (not selected). The light emitting element 56 corresponding to the button 51 may be turned off.

  As shown in FIGS. 1 and 2, a score display section 60 is provided on the panel surface 20 a of the operation panel 20. The score display section 60 includes the number of display elements 61 (four in the configuration shown in FIGS. 1 and 2) corresponding to each play mode. The display element 61 can display the highest score within the designated time segment. The designated time segment includes 24 hours corresponding to one day, and the maximum score displayed on the display element 61 is reset after 24 hours have elapsed. That is, the display element 61 is configured to display the highest score of the day. Note that the highest score is reset even when the power is turned on again after the moving object visual acuity determination device 10 is turned off.

  The display element 61 can display the highest score in the designated time segment as described above by reading a program, data, etc. from the memory 34 and controlling it by the CPU 33. In addition, in order to enable the display of the highest score on the display element 61, a score display substrate 30E as shown in FIG. The score display board 30E is provided with a DC-DC converter 35E, a display command part 37E, a display driver 38E, and a display element 61, and further an interface part 40E. Among these, the DC-DC converter 35E is the same as the DC-DC converter 35A described above. The display command unit 37E is a part that gives a command as to which display element 61 is to be displayed. The display driver 38E and the display element 61 are the same as the display driver 38A and the display element 32 described above. The interface unit 40E is a part for exchanging signals with the interface unit 40A of the main board 30A.

  In addition, a charging device 70 as shown in FIGS. 1, 2 and 6 is connected to the moving object visual acuity determination device 10 through an interface unit 40A. The charging device 70 includes a casing 71, and the casing 71 is provided with a coin insertion slot 72. In addition, a lighting unit 73 is provided adjacent to the coin insertion slot 72 and can be lit in conjunction with the insertion of coins. In addition, the billing apparatus 70 has a control configuration as shown in FIG. 6 by cooperation of a CPU, ROM, RAM, etc. (not shown), and further, a dedicated IC or sensor if necessary. The element is functionally realized. That is, as shown in FIG. 6, the billing device 70 includes a coin determination unit 74, a main control unit 75, a setting information storage unit 76, and a count unit 77 as control components.

  When a coin (for example, a coin) is inserted from the coin insertion slot 72, the coin determination unit 74 determines the authenticity of the coin. The coin determination unit 74 includes a dedicated sensor, an IC, and the like in order to determine the authenticity of the coin. If the coin determination unit 74 determines that the coin is correct, the coin determination unit 74 transmits a signal corresponding to the insertion of the coin to the main control unit 75. The main control unit 75 controls the operation of each part related to the control of the charging device 70, and includes a case where a signal indicating that the counting unit 77 is to count up is transmitted. Further, the main control unit 75 receives a permission signal indicating that charging is accepted from the moving object visual acuity determination device 10, and receives coins in the processing flow as shown in FIGS. 7 and 8 to be described later according to the permission signal. To start.

  The setting information storage unit 76 can store setting information in the charging apparatus 70. That is, in the billing device 70, the amount of coins inserted per play and the number of times that the game can be executed in one play can be set, and information on such settings (setting information) can be held, The updatable part is the setting information storage unit 76. The setting information storage unit 76 is composed of, for example, a nonvolatile memory. In the present specification, play refers to the number of games that can be executed when a set amount of coins is inserted, but play may be synonymous with game.

  Further, the count unit 77 is, for example, a programmable counter, and when receiving a signal (pulse) for counting up from the main control unit 75, the count unit 77 counts up and can hold information regarding the count up. Note that the count unit 77 may use a dedicated IC, but may use a CPU register.

<About operation>
The operation of the moving object visual acuity determination apparatus 10 having the above configuration will be described below. In the processing flow in FIG. 7, processing in the charging device 70 will be mainly described, but processing in other parts related to processing in the charging device 70 will also be described.

(1) Processing 1 mainly for the accounting device 70
In the moving body visual acuity determination device 10, when the power is turned on (step S10), the main control unit 75 of the charging device 70 starts accepting coins (step S11). Then, the main control unit 75 determines whether or not a coin has been inserted from the coin insertion slot 72 based on a signal corresponding to the insertion of the coin from the coin determination unit 74 (step S12). In this determination, when it is determined that no coin is inserted (in the case of No), the process returns to step S12 again.

  When it is determined in step S12 that a coin has been inserted from the coin insertion slot 72 (in the case of Yes), the main control unit 75 increases the count in the counting unit 77 (step S13). In this case, every time it is determined that a coin has been inserted, the counting unit 77 counts up. This count-up is performed every time one coin is inserted.

  After the count-up in step S13, the main control unit 75 determines whether or not the set amount has been input (step S14). In that case, the main control unit 75 reads the setting information relating to the coin insertion amount per play stored in the setting information storage unit 76, and makes a determination based on the setting information. If it is determined in step S14 that the set amount has not been input (in the case of No), the process returns to step S12.

  When it is determined that the amount set in step S14 has been inserted (Yes), the main control unit 75 ends the acceptance of coins (step S15). At this time, the main control unit 75 transmits a signal to the effect that the acceptance of coins is completed to the CPU 33A of the main board 30A. Then, the CPU 33A transmits a signal for permitting level selection to the switch box 50 (CPU 33D).

  Subsequently, it is determined whether or not level selection has been performed (whether or not play has started) (step S16). That is, the CPU 33D determines which level selection button 51 (switch 53) in the switch box 50 has been pressed. When any of the level selection buttons 51 (switch 53) is pressed, the CPU 33D transmits information corresponding to the selected level to the CPU 33A. Further, the CPU 33A transmits information indicating that the level selection has been performed to the main control unit 75. Thereby, the main control unit 75 determines whether or not the play is started. If it is determined in step S16 that level selection has not been performed (No), the process returns to step S16 again.

  When it is determined that level selection has been performed in step S16 described above, a play operation is started (step S17). That is, the CPU 33 determines a place where the display element 32 is turned on with a random number, and turns on the display element 32 at the determined place in a predetermined order after a predetermined waiting time has elapsed. Then, if the push button 31 (switch 39A) corresponding to the display element 32 at the lit location is pushed within a predetermined time, the answer is correct, and the CPU 33 adds a score corresponding to the push. And when lighting of all the display elements 32 is complete | finished, one game is complete | finished.

  Then, after the game is over, the CPU 33 determines whether or not the set number of games have been consumed (whether or not the set number of games has been finished) (step S18). That is, the main control unit 75 determines whether a signal corresponding to having consumed the set number of games has been received from the CPU 33. If the determination is Yes, the process returns to step S11 and the main control unit 75 starts accepting coins. If the determination in step S18 is No, the process returns to step S16 to determine whether level selection has been performed (whether play has started).

  The accounting apparatus 70 mainly performs the above processing.

(2) Processing mainly for the accounting device 70 2
Next, a description will be given, based on FIG. 8, of processing mainly in the accounting device 70, which is different from the processing flow shown in FIG.

  In the processing flow shown in FIG. 8, the power-on in step S20 is the same as the power-on in step S10, and the coin acceptance start in step S21 is the same as the coin acceptance start in step S11. The determination as to whether or not a coin has been inserted from the coin insertion slot 72 in step S22 is the same as the determination in step S12.

  Here, in the processing flow shown in FIG. 8, when it is determined in step S22 that a coin has been inserted from the coin insertion slot 72 (in the case of Yes), the main control unit 75 completes the insertion of the set amount. It is determined whether or not it has been done (step S23). This determination is the same as that described in step S14. If it is determined in step S23 that the set amount has not been input (No), the process returns to step S22.

  When it is determined in step S23 that the set amount has been inserted (in the case of Yes), the main control unit 75 ends the acceptance of coins as in step S15 (step S24). Then, after step S24, as in step S16, it is determined whether or not level selection has been performed (whether or not play has started) (step S25). If it is determined in step S25 that no level has been selected (No), the process returns to step S25 again.

  If it is determined in step S25 that a level has been selected (Yes), it is determined whether or not the level selection is the first time after the set amount of coins has been inserted (step S26). . In this determination, when it is determined that the level selection is the first time (in the case of Yes), the main control unit 75 increases the count in the counting unit 77 (step S27). That is, after the level selection is performed once, the count unit 77 counts up. For this reason, even though coins of the set amount have been inserted, even if they are refunded for some reason, they are not counted up when they are not played. Thereby, it is possible to prevent the count number in the counting unit 77 from being inconsistent with the total amount of coins existing in the charging apparatus 70.

  In the determination in step S26, when the level selection is not the first time (in the case of No; that is, when the level selection is the second time or later), the process proceeds to step S28 described later.

  After step S27 described above or when it is determined in step S26 that the level selection is not the first time (in the case of No; the level selection is the second time or later), the play operation is performed as in step S17. Start (step S28). Further, after the play operation is completed, it is determined whether or not the set number of games have been digested (whether or not the set number of games have been completed) as in step S18 described above (step S29). ). If the determination is Yes, the process returns to step S21, and the main control unit 75 starts accepting coins. If the determination in step S29 is No, the process returns to step S25 to determine whether or not level selection has been performed (whether or not play has started).

  With the processing flow as shown in FIG. 8 as described above, the charging apparatus 70 can perform charging.

(3) Level selection (mode selection) in play Next, level selection (mode selection) in play will be described. Here, in this play, regardless of which level is selected, the lit display element 32 changes one after another, and the push button 31 of the part where the lit display element 32 exists is pushed. Play the game. Further, when playing a game by selecting a level, the CPU 33 reads and executes a predetermined program and data stored in the memory 34 to control each part. Thereby, play at the selected level is possible.

  In the vicinity of the level selection button 51, there is a display corresponding to the level (mode) selected by pressing the level selection button 51. As this display, “Stage 1”, “Stage 2”, “Stage 3”, and “Kids Mode” are present (not shown).

  Among these displays, in “Stage 1”, “Stage 2”, and “Stage 3”, all the display elements 32 existing on the board surface 20a can be turned on. Among them, when the level selection button 51 corresponding to the display of “stage 1” is pressed, the lighting speed of each display element 32 is, for example, 0.8 seconds, for example, lighting a total of 38 times. When the level selection button 51 corresponding to the display of “Stage 2” is pressed, the lighting speed of each display element 32 is, for example, 0.6 seconds, for example, 50 times in total. When the level selection button 51 corresponding to the display of “Stage 3” is pressed, the lighting speed of each display element 32 is, for example, 0.4 seconds, for example, 75 times in total. That is, as the stage 1 moves from the stage 1 to the stage 3, the lighting speed increases and the number of times of lighting increases.

  On the other hand, when the level selection button 51 (kids mode selection button) corresponding to the “kids mode” display is pressed, the kids mode is executed. In this kids mode, the lighting speed and the number of lighting are the same as those in the above-described “stage 1”. However, in the kids mode, the CPU 33 performs control so that only the display elements 32 existing in the kids mode area 201 are lit.

  That is, a child assumed to select the kids mode has a short height and a short hand. Therefore, by reading a program, data, and the like from the memory 34 and controlling the CPU 33, the kids mode area 201 is limited to the lower side of the board surface 20a as described above, and only the display elements 32 in the kids mode area 201 are included. Is turned on.

  When any level (mode) is selected, the CPU 33A collectively generates the order in which the display elements 32 are turned on (corresponding to the correct answer pattern) before play (game). When the batch generation is completed, a play operation (play operation in step S18 or step S28; game execution) corresponding to the selected level is started. In the play operation, the correct answer is obtained by pressing the push button 31 (switch 39A) corresponding to the lit display element 32 within a predetermined time limit. However, when the push button 31 (switch 39A) corresponding to the display element 32 that is not lit is pushed, or when the push button 31 (switch 39A) corresponding to the display element 32 that is lit when the predetermined time limit is exceeded, If pushed, it will not be correct.

<About effect>
According to the moving object visual acuity determination device 10 having the above-described configuration, the operation panel 20 includes the kids mode area 201, and the push button 31 and the display element 32 existing in the kids mode area 201 include the kids mode area 201. The push button 31 and the display element 32 existing in the area other than the mode area 201 are positioned relatively below the display element 32. In addition, the CPU 33 performs control so that only the display element 32 existing in the kids mode area 201 is lit, and the push button 31 (switch 39A) corresponding to the display element 32 lit in the kids mode area 201. When the push-in detection signal when the is pushed in is determined to be a correct answer when a predetermined condition such as being pressed within a predetermined time limit is satisfied, for example, the correct answer is counted.

  For this reason, even a child with a short height and a short hand can play (game) with the moving object visual acuity determination device 10. Thereby, it is possible to widen the range of users that can be used, and it is possible to play (game) even with parents and children and to improve entertainment.

  In the present embodiment, the kids mode area 201 is separated from other areas of the board surface 20a by a line portion 202. Therefore, even a child can easily recognize a range to be pressed during play (game).

  Further, the panel surface 20a of the operation panel 20 exists at a position directly facing the user, and there is a score display area 203 at the center of the panel surface 20a. The score obtained by the display element 32 in the score display area 203 is displayed. Therefore, the user can recognize the score acquired by his play (game) well. In addition, the two display elements 32 existing in the score display area 203 are also used to display the score obtained by the user who played the game (game) after the game (game) is finished together with the lighting during the game (game). Is controlled. This eliminates the need to provide a dedicated display portion for displaying the points acquired by the player after the play (game), thereby reducing the cost accordingly.

  Further, in the present embodiment, the display elements 32 are arranged at the four corners of the rhombus shape, and the line portion 202 is provided so as to be curved downward as it is separated from the center side. In addition, both end sides of the line portion 202 divide a total of four display elements 32 that are arranged at the four corners through the central side of the rhombus shape into two. Thus, since the display elements 32 are arranged at the four corners of the rhombus shape, the end side of the curved line portion 202 can easily pass through the central portion of the arrangement at the four corners of the rhombus shape, and the kids mode area It becomes possible to make a state in which the division of 201 can be favorably performed.

  In the present embodiment, the CPU 33 generates correct answer patterns in a lump and then plays (games), so that it is possible to prevent the correct answers from being biased toward the specific display element 32.

<About modification>
Although one embodiment of the present invention has been described above, the present invention can be variously modified in addition to these. This will be described below.

  In the above-described embodiment, in the play operation (game execution), the correct answer is obtained by pressing the push button 31 (switch 39A) corresponding to the lit display element 32 within a predetermined time limit. Here, the score that can be acquired in the case of the correct answer may be uniformly set to the same score, but the score that can be acquired may be different.

  For example, the score obtained when the display element 32 that is not visible at the center of the board surface 20a, such as the end of the board surface 20a, is turned on and the correct answer is obtained by pressing corresponding to the lighting, for example, twice the normal score. You may set so that many can be acquired, such as 3 times. It should be noted that a place where more points can be obtained than usual is obtained by pushing the display element 32 at a specific place in the board surface 20a other than a range that is difficult to see, such as an edge of the board surface 20a. You may set to do.

  In the above-described embodiment, the score is basically added when the answer is correct. However, for example, when the push button 31 (switch 39A) not related to the push button 31 corresponding to the lit display element 32 is pushed, it is subtracted from the score obtained so far. May be.

  In the above-described embodiment, the lighting color of the display element 32 that is lit during play (game) is not described. However, such a lighting color is used when, for example, the display element 32 can be lit red and green. May be either red or green. The display element 32 is normally controlled by the CPU 33 or the like so as to be lit in red, but is controlled by the CPU 33 or the like so that it is lit in green a smaller number of times than the red lighting. If the answer is correct when it is turned on, the CPU 33 may control the number of points to be acquired.

  It should be noted that lighting the display element 32 with a small number of times is not limited to green. For example, the number of green lightings may be increased to reduce red lighting. Further, even when the display element 32 can be lit in colors other than red and green (for example, the first color and the second color), between the first color and the second color. The same score acquisition control may be performed by increasing the number of times of lighting of the first color and decreasing the number of times of lighting of the second color.

  Further, in the above-described embodiment, in the play (game) of the moving object visual acuity determination device 10, the display element 32 is described as being lit so as to display the number “8”. However, the display element 32 may be controlled by the CPU 33 so as to display (light) other than the number “8”. In addition, when something other than “8” is displayed (lighted), an object that is difficult to see compared to “8” may be displayed (lighted). If such a difficult-to-see item is displayed (lighted) and the answer is correct, the CPU 33 may control the number of points to be acquired.

  In the above-described embodiment, a plurality of display elements 32 may be turned on simultaneously. Then, when the push button 31 (switch 39A) corresponding to one of the plurality of display elements 32 that are turned on simultaneously is pushed, a score may be obtained as a correct answer. When a plurality of (correct) push buttons 31 (switches 39A) corresponding to the lit display elements 32 are pressed among the plurality of display elements 32 that are lit simultaneously, the first correct answer is displayed. A score may be given only to the corresponding push.

  Further, when a plurality of display elements 32 are turned on at the same time, different numbers such as “1”, “2”, and “3” may be simultaneously displayed on the plurality of display elements 32. good. In this case, when the push button 31 (switch 39A) corresponding to the number displayed on the display element 32 is pushed, a score corresponding to the display may be obtained.

  Further, when a plurality of display elements 32 are turned on simultaneously, the following may be performed. For example, when three or more types of numbers are simultaneously displayed on three or more display elements 32 and the push button 31 (switch 39A) corresponding to the displayed number is pressed, the numbers are displayed at the pressed positions. When the sum of the numbers reaches a certain fixed number (for example, 15 or 20), the CPU 33 may perform control so that a correct answer can be obtained. In this case, the time until the sum of the numbers reaches a certain number (for example, 15 or 20) (until the answer is correct) is measured, and if the measured time is within the time limit, the correct answer is obtained. Thus, control may be performed so that a score can be obtained, and conversely, when the measured time exceeds the time limit, control may be performed so that the correct answer is not obtained. In the case of performing such control, the difficulty level is changed by increasing or decreasing the number of numbers (display elements 32) to be turned on simultaneously, increasing or decreasing the total number, increasing or decreasing the time limit, etc. You may make it control by CPU33.

  In the above-described embodiment, in the play (game), the push button 31 (switch 39A) is pressed. However, when the level selection button 51 that is considered to be less visible than the display element 32 is turned on at an appropriate timing and the level selection button 51 (switch 53) is pressed, a score can be obtained. Control by the CPU 33 is also possible. The pressing of the level selection button 51 (switch 53) may be combined at the same timing as the other pressing buttons 31 (switch 39A). Further, the score obtained when the level selection button 51 (switch 53) is pressed may be controlled to be higher than usual.

  In the above-described embodiment, the charging device 70 counts coins (particularly coins), but may count alternative coins other than coins. Such devices include prepaid or postpaid cards, electronic money, non-money coins, and the like.

DESCRIPTION OF SYMBOLS 10 ... Moving body visual acuity determination apparatus 11 ... Frame part 20 ... Operation panel 20a ... Board surface 21 ... Hole part 30 ... Board | substrate 30A ... Main board | substrate 30B ... Audio | voice board | substrate 30C ... Sub-board | substrate 30D ... Control board 30E ... Score display board | substrate 31 ... Push button (Corresponding to part of pushing part and pushing means)
32. Display element (corresponding to a part of display means)
33, 33A, 33D ... CPU (corresponding to a part of the control means)
34, 34A, 34D ... memory (corresponding to a part of the control means)
35A to 35E ... DC-DC converters 37A, 37C ... display selection unit (corresponding to a part of display means)
37E: Display command section 38A, 38C, 38E ... Display driver (corresponding to a part of display means)
39A, 39C ... switch (corresponds to a part of the pushing means)
40A to 40E ... interface unit 41 ... audio processor 42 ... audio data ROM
44 ... Sub-board selection unit 45 ... Switch board specifying unit 50 ... Switch box 51 ... Level selection button 51a ... Kids mode selection button 53 ... Switch 55 ... Light emitting driver 56 ... Light emitting element 60 ... Score display part 61 ... Display element DESCRIPTION OF SYMBOLS 70 ... Billing device 71 ... Housing 72 ... Coin slot 73 ... Lighting part 74 ... Coin determination part 75 ... Main control part 76 ... Setting information storage part 77 ... Count part 201 ... Kids mode area 202 ... Line part 203 ... Score display area

Claims (4)

An operation panel having a panel surface that allows the user to touch each part directly with the user;
A plurality of push-in detection signals corresponding to the push-in of the push-in part, the push-in part being exposed from the board surface so as to allow the user to touch and push it in by hand. Pushing means;
A plurality of display means that are provided so as to be lit in a portion where the pushing portion exists, and that the lighting state is visible from a position facing the board surface;
When the play is instructed, the display means to be lit is determined from among the plurality of display means so that the lighting order is random, and a predetermined condition is set when the push detection signal is received from the push means. A control means for determining the correct answer and counting the score when satisfying,
Comprising
The operation panel has a kids mode in which a plurality of the pushing parts and a plurality of the display means existing in a part of the plurality of pushing parts and a plurality of the display means are separated from other areas. The area exists,
The pushing portion and the display means existing in the kids mode area are positioned relatively below the pushing portion and the display means existing in a region other than the kids mode area,
The control means can execute a kids mode, and in this kids mode, the display means is controlled so that only the display means existing in the kids mode area is lit, and the display that is lit in the kids mode area. When the push detection signal corresponding to the push-in means is pushed, the push detection signal is determined as a correct answer when the predetermined condition is satisfied, and the score is counted.
A moving visual acuity determination device characterized by the above. The moving object visual acuity determination device according to claim 1,
The board surface is provided with a line portion that divides the kids mode area from other areas,
The line portion has the highest position on the center side,
The display means includes a display element capable of displaying numbers,
The control means also causes the display element located near the center side of the line portion to also display the score obtained by the user who played the play after the play is finished, together with the lighting during the play. To control,
A moving visual acuity determination device characterized by the above. The moving object visual acuity determination device according to claim 2,
The display elements are arranged at four corners of a rhombus shape,
The line portion is provided so as to be curved downward as it is separated from the center side thereof,
Both end sides of the line portion divide a total of four display elements arranged in the four corners through the central side of the rhombus shape into two,
A moving visual acuity determination device characterized by the above. It is a moving body visual acuity determination apparatus of any one of Claim 1 to 3,
The control means creates a correct answer pattern as a correct answer when the pushing means is pushed in a predetermined condition from among the plurality of pushing means, lights up the display means corresponding to the correct answer pattern, and after the lighting When the pushing means that satisfies the predetermined condition is pushed, it is determined as a correct answer and the score is counted.
A moving visual acuity determination device characterized by the above.