JPH059590U - Launch game device - Google Patents

Abstract

(57) [Summary] [Purpose] To improve the quality of the shooting game device that plays by shooting the target projected on the screen, and to reduce the manufacturing cost. [Structure] In a shooting game device for playing by shooting a target projected on a screen, a trajectory display window for displaying a trajectory is provided on the screen, and a slide member having a light emitter attached is slidable below the screen. The slide member is provided with a long hole into which a pin standing on the tooth-chipped gear is fitted, and a return spring is stretched, and the tooth-chipped gear is erected on the main body. The push button provided on the control stick is provided so as to be engageable with a protrusion connected through a link member, and the toothless gear is rotated by a predetermined angle by operating the push button to mesh with a drive mechanism to turn on the light emitting body. The switch is closed and slid under the screen.

Description

[Detailed description of the device]

[0001]

[Industrial applications]

 The present invention relates to a shooting game device for playing by shooting a target projected on a screen.

[0002]

[Prior Art]

 Conventionally, a shooting game device that plays by shooting a target projected on a screen has a rod-shaped member with a light emitter attached to the back of the screen, and this light emitter emits light to display the trajectory of a missile or the like. What was there is known.

[0003]

[Problems to be solved by the device]

 However, it has drawbacks such as a quality problem due to the complicated structure and an increase in manufacturing cost.

[0004]

[Means for Solving the Problems]

 A launching game device according to the present invention is provided with a trajectory display window for displaying a trajectory on a screen on which a target is projected, and a slide member having a light-emitting body attached below the screen is slidably disposed. At the end of the gear, a long hole into which a pin standing on the toothless gear is fitted and a return spring is stretched, and the toothless gear is a pushbutton provided on the operating vertical rod standing on the main body. Is provided so as to be engageable with a protrusion connected through a link member, and the toothless gear rotates a predetermined angle by operating the push button to mesh with a drive mechanism, and a switch for lighting the light emitter is closed. It was configured to slide below the screen.

[0005]

[Action]

 When the push button provided on the control stick is operated, the slide member installed below the screen slides, and the light beam of the light emitter provided on the slide member is projected from the trajectory display window that displays the trajectory on the screen. Will be easy.

[0006]

【Example】

 Hereinafter, a game device of the present invention will be described with reference to an embodiment shown in the accompanying drawings.

As shown in FIGS. 1 and 2, the main body 1 is formed in a streamlined housing at the front end, and the main body 1 has an upper outer shell 2 and a lower outer shell 3 as a joining means such as a screw. It is configured by joining. A peep window 4 having an upper portion inclined toward the front of the main body 1 is formed on the end surface of the bulging portion of the upper outer shell 2, and a transparent plate is fitted to the peep window 4. On the front side of the upper outer shell body 2, an operation panel 7 is formed in which a control rod 12, an operation knob 41, and the like, which are exemplified as external operation means, are cut off. Then, main wings are provided on both sides of the main body 1 so as to project like a cockpit of an airplane as a whole. An attachment frame 72 whose lower portion is opened is attached to the inside of the observation window 4, and the screen 5 is attached to the lower portion of the game space 500 inside the attachment frame 72 while being fixed to the machine frame 36. Has been done. The lower release surface of the mounting frame 72 has a narrow trapezoid on the front end side of the main body 1 and a wide trapezoidal shape on the viewing window 4 side. The screen 5 seen through the viewing window 4 also looks like a trapezoid and is projected on the screen 5. The image has a perspective. The upper side of the mounting frame 72 connects the upper end of the viewing window 4 and the tip of the screen 5 to form an inclined wall surface 73 having an elevation angle of about 45 degrees with respect to the screen 5. An opening 75 is opened in the center of the inclined wall surface 73, and a casing 74 is fixedly installed on the upper surface of the inclined wall surface 73.

A drum body 8081 that locks the end of the film 82 on which the game symbols shown in FIG. 10 are displayed is rotatably installed above and below the casing 74. Further, a through hole 71 is formed in the lower surface of the casing 74, and the through hole 71 communicates with the opening 75 of the inclined wall surface 73. An opening 78 is also formed in the upper surface of the casing 74, and a light source 88 (light bulb) attached to the tip of the light lever 87 is swingably arranged in the opening 78. As shown in FIGS. 1 and 3, the light lever 87 is pivotally supported on the upper surface of the lower portion of the casing 74 so as to be swingable about a pivot 89.

A through hole 40 is provided in the operation panel 7 shown in FIG. 2, and an operation knob 41 is provided in the through hole 40 so as to project therefrom. The operation knob 41 operates a switch mechanism for controlling the drive of a motor 51 as a drive means for operating the drive mechanism and a switching mechanism for controlling the drive of the film 82.

A base end portion of the operation knob 41 is provided upright on a slidable flat plate 42 in the main body 1. A long hole 43 is formed on the side of the flat plate 42 along the longitudinal direction of the flat plate 42, and guide pins 44, 44 erected on the lower outer shell 3 are fitted into the long hole 43. ing.

Then, as shown in FIGS. 4 and 6, the conductive contact pieces 46, 49 and the conductive contact pieces 47, 50 are fixed to the side of the flat plate 42 on the support member 48 protruding from the lower shell 3. It is set up. The conductive contact pieces 46, 47 are switches for controlling the drive of a motor 51 as a drive means described later, the conductive contact pieces 49, 50 are switches for turning on the light source 88, and when the operation knob 41 is set to the neutral state, respectively. It is a normally open switch mechanism that separates. The flat plate 42 is connected to the base end portion of the link member 53, and the tip end portion of the link member 53 is connected to the rotating plate 54 as shown in FIGS. 4 and 6. The rotating plate 54 has a base end portion rotatably supported by a gear shaft 60, and a tip end portion rotatably supports a gear shaft 55. A pinion 57 is mounted on the upper part of the gear shaft 55, and a gear 56 is mounted on the lower part. The lower end of the gear shaft 55 is slidably fitted in an arc hole 57 formed in the machine frame 36. The arcuate hole 57 is formed around the gear shaft 60. By pulling the operation knob 41 toward the front side of the main body 1 shown in FIG. When the operation knob 41 is slid in the distal direction of the main body 1, the pinion 57 meshes with the gear 69 pivotally attached to the gear shaft 68. Then, when the operation knob 41 is set to the neutral position, the pinion 57 is in a state of not meshing with any gear and is stopped. The gear 56 meshes with a pinion 61 axially mounted on a gear shaft 60, and the gear 59 coaxially mounted axially meshes with a motor pinion 58.

By pulling the operation knob 41 toward the front side of the main body 1, the conductive contact pieces 46 and 47 come into contact with each other to drive the motor 51, and the conductive contact pieces 49 and 50 also come into contact with each other, and the light source 88 (light bulb) is turned on. It The pinion 57 meshes with the gear 63, and the pinion 64 provided coaxially with the gear 63 meshes with the gear 66 pivotally mounted on the gear shaft 65 to apply a rotational force to the pinion 67 pivotally supported on the upper end of the gear shaft 65. It is transmitted. The pinion 67 meshes with the crown gear 76, and the gear shaft having the crown gear 76 axially mounted has the drum body 80 axially mounted in the casing 74. The drum body 80 is rotatably installed on the upper portion of the casing 74, and the drum 81 is rotatably installed on the lower portion of the casing 74. Both ends of a long film 82 shown in FIG. 10 are locked to the drum bodies 80 and 81, and the film 82 is wound around the lower drum 81 at the start of the game. As shown in FIG. 3, the gear shaft on which the drum 81 is attached is provided on the lower side surface of the casing 74 so as to project, and the crown gear 77 and the worm gear 79 are attached. The crown gear 77 meshes with a pinion 70 pivotally supported on the upper end of a gear shaft 68 protruding from the machine frame 36. Further, the worm gear 79 meshes with the toothless gear 171 which is rotatably supported on the upper wall surface of the machine frame 36. A pulling spring 175 is stretched between the toothless gear 171 and the machine frame 36. Further, one end of a link member 172 is connected to the side surface of the tooth-chipped gear 171, and the other end of the link member 172 is connected to the end of an L-shaped turning lever 173. (See Figures 4 and 11). The rotating lever 173 is rotatable around a pivot 176 as a fulcrum, and a pin 174 projecting from the tip is connected to the lower surface of a slide plate 177. This slide plate 177 is arranged in a through hole 189 which represents a fuel gauge and which is opened in the operation panel 7 shown in FIG. Then, as shown in FIG. 11, a "REFUEL" display 178 is attached to the left half of the surface of the slide plate 177, and the right half is colored red. Then, during the progress of the game, the worm gear 79 and the teeth 171a of the toothless gear 171 mesh with each other, the rotation lever 173 rotates counterclockwise in FIG. 11 with the pivot 176 as a fulcrum, and the slide plate 177 through hole 189. 11 shows a state in which the fuel is decreasing in the rightward direction shown in FIG. On the contrary, when the film 82 is rewound, the rotary lever 173 is rotated clockwise, the slide plate 177 is moved leftward in the through hole 189, and finally the inside of the through hole 189 is the slide plate 177. The red part is displayed, indicating that the fuel is filled. Then, when the slide plate 177 reaches the movement limit within the through hole 189, the tension spring 175 stretched over the tooth-chipped gear 171 releases the meshing between the tooth 171a of the tooth-chipped gear 171 and the worm gear 79. However, when the worm gear 79 is reversed again, the teeth 171a are for keeping the end faces of the teeth 171a in pressure contact with the worm gear 79 so that the teeth 171a smoothly mesh with the worm gear 79, and the mesh with the worm gear 79 is released. Both ends of the tooth 171a are pulled in a direction in which they are pressed against the worm gear 79.

As shown in FIG. 10, the film 82 having both ends fixed to the drum bodies 80 and 81 rotatably mounted on the casing 74 is made of a transparent material having transparency, and is formed in the sea or mountains. The targets 83a, 83b, and 83c are displayed at predetermined positions with transparent ink against the background of the zone. The targets 83a, b, and c displayed on the film 82 are appropriately displayed along the longitudinal direction of the central portion (course B) of the film 82 and the left (course A) and right (course C) three courses. Further, a belt portion 82a that is not actually projected on the screen 5 is formed on the side of the film 82, and the belt portion 82a has through holes 84a, b, c at positions corresponding to the targets 83a, b, c. Has been drilled. The through-holes 84a, 84b, 84c cooperate with a missile launching mechanism described later to form a switch mechanism for causing the hit display section to emit light when the missile hits the target 83a, b, c. The film 82 is inserted between the opening 71 of the casing 74 and the inclined wall surface 73 of the mounting frame 72 and wound on either of the drum bodies 80 and 81. The film 82 is wound on the drum body 81, and most of the film 82 at the end of the game is wound on the drum body 80.

Therefore, when the operation knob 41 is pulled toward the front side of the main body 1, the drum body 80 rotates counterclockwise in FIG. 1, and the film 82 is wound from the drum body 81 to the drum body 80. Then, the targets 83a, b, c displayed on the film 82 are projected on the screen 5 by the light source 88 which is turned on. At this time, since the surface of the film 82 and the screen 5 have an angle of about 45 degrees, the images of the targets 83a, b, and c projected on the tip side of the screen 5 are small, but the screen 5 is small. As it moves to the near side, it is projected larger and larger, giving a sense of perspective to the projected image and allowing the player to enjoy a realistic sensation as if he were flying an airplane. .. When the operation knob 41 is operated forward of the main body 1, the rotating plate 54 connected to the tip of the link member 53 is rotated by being guided by the arc hole 57, and the pinion 57 pivotally attached to the gear shaft 55 is rotated by the gear 63. Is disengaged and meshes with a gear 69 that is mounted on the gear shaft 68. Then, the pinion 70 pivotally supported on the upper part of the gear shaft 68 transmits the rotational force to the crown gear 77, the drum body 81 pivotally mounted on the gear shaft of the crown gear 77 rotates, and the film 82 is wound around the drum body 81. Will be taken. This is the rewinding operation of the film 82. At this time, as shown in FIG. 6, the conductive contact pieces 46 and 47, which are the switches for driving the motor 51, come into contact with each other to be closed, but the switch for lighting the light source 88. Since the conductive contact pieces 49, 50 are provided only on the front side of the support member 48, they are separated and opened, and the light source 88 is turned off.

A base end portion of the control stick 12 is fitted to the swing member 10, and the swing member 10 is provided with support shafts 11 and 11 projecting in the front-back direction of the main body 1. , 11 are rotatably supported by a frame-shaped support member 9 provided upright on the lower outer shell 3, and the control stick 12 is swingable in the left-right direction with the support shafts 11, 11 as fulcrums. A push button 13 is projectingly provided on the top of the control stick 12, and a hanging rod 13a formed at a lower portion of the push button 13 extends through the inside of the control stick 12 and extends inside the main body 1. Long holes 14, 14 are bored in the middle of the hanging rod 13a, and guide pins 16, 16 erected inside the control rod 12 are fitted in the long holes 14, 14. Further, a push spring 15 for urging the push button 13 upward is mounted on the hanging rod 13a. An end of a rectangular rotating plate 21 is pivotally attached to one of the support shafts 11 protruding from the swinging member 10, and a pin 22 is formed in the other end of the rotating plate 21. (See Figure 7). As shown in FIGS. 4 and 7, the pin 22 is pinched by a pair of pinching pieces 23 formed at the end of an L-shaped turning lever 24 which is rotatable about a pivot 25 as a fulcrum. The other end of the moving lever 24 is connected to the end of the link member 26. The other end of the link member 26 is connected to a fan gear 27 that is rotatably supported in a machine frame 36 with a pivot 28 as a fulcrum. A rack 29 formed in an arc shape on the sector gear 27 meshes with the pinion 30. A gear shaft 31 on which the pinion 30 is mounted is projectingly provided above the machine frame 36, and a relative moving object 6 projecting at a central portion on the front side of the screen 5 is provided at an upper end of the gear shaft 31. It has a flying model. An end of the link member 32 is connected to the sector gear 27, and the other end of the link member 32 is an L-shaped rotatable member that is rotatable in the machine frame 36 about a pivot 34 as a fulcrum. A pin 35 is connected to the end of the lever 33, and a pin 35 is provided upright on the other end of the rotating lever 33. The pin 35 is held by a holding piece 90 formed at the base end of the light lever 87. Therefore, when the upper part of the control stick 12 is tilted to the right side in FIGS. 2 and 4, the rotation lever 24 rotates in the clockwise direction in FIG. 4 about the pivot 25 as a fulcrum, and the fan-shaped gear 27 connected to the link member 26. Rotates about the pivot 28 in the counterclockwise direction in FIG. 4, and the pinion 30 rotates in the clockwise direction. Then, the relative moving object 6 provided coaxially with the pinion 30 rotates clockwise on the screen 5.

The rotating lever 33 connected to the sector gear 27 via the link member 32 rotates counterclockwise in FIG. 4, and the light lever holding the pin 35 standing on the rotating lever 33. 87 rotates counterclockwise in FIG. 7 with the pivot 89 as a fulcrum, and the light source 88 attached to the tip of the light lever 87 is in the same direction as the direction in which the control stick 12 is tilted when viewed from the control stick 12 direction. It swings to the right. Therefore, the image of the film 82 projected on the screen 5 flows from the right side to the left side, and by the clockwise rotation operation of the relative moving object 6 which is performed at the same time, the scene visible through the viewing window 4 becomes relatively. This gives an impression as if the moving object 6 turned to the right and changed direction. When the control stick 12 is tilted to the left, all the above-mentioned operating members operate in opposite directions, and the relative moving object 6 gives the impression of turning to the left and changing direction. Is.

Next, a missile launching mechanism will be described.

When the push button 13 projecting from the top of the control stick 12 is pressed, the engaging slope 17 formed at the lower end of the hanging rod 13a engages with the engaging piece 19 so that the engaging piece 19 shown in FIG. Move to the left. The engagement piece 19 is rotatably mounted on the sliding shaft 18, and the sliding shaft 18 is slidable in the support shaft 11 supported by the support member 9. 20 is a return spring of the engaging piece 19. Then, as shown in FIGS. 4 and 7, the sliding shaft 18 projecting forward of the support member 9 engages with the upright piece 142 that is erected at the end of the rotating lever 141, and the rotating lever 141 is removed. It is rotated clockwise about the pivot 143 as a fulcrum in FIG. A pulling spring 144 for urging the turning lever 141 in the counterclockwise direction in FIG. 4 is urged to the other end of the turning lever 141, and an end of a link member 145 is connected thereto. It The other end of the link member 145 is connected to the rotating plate 146 arranged in the machine frame 36. The rotating plate 146 is formed in a fan-shaped plane, is rotatable about a pivot 147 as a fulcrum, and has a swinging piece 148 attached to the tip end side, which is swingable about a pivot 150 as a fulcrum. Further, a pulling spring 153 is stretched between a pin 151 standing upright on the base end of the rocking piece 148 and a pin 152 standing upright on the rotating plate 146. It is for restoring. A projecting piece 149 is erected on the upper surface of the tip of the rocking piece 148. When the push button 13 is pressed and the link member 145 and the rotating plate 146 are actuated in the direction of the arrow in FIG. 8, the projecting piece 149 is projected on the lower surface of the toothless gear 158 arranged in the machine frame 36. The tooth-chipped gear 158 engages with the cam projection 160 and rotates the gear 158 by a predetermined angle.

A gear 159 is engraved on the outer peripheral edge of the tooth-chipped gear 158 over approximately 180 degrees, and the remaining approximately 180-degree portion serves as the tooth-chipped portion. A pin 161 is provided upright on the upper surface of the tooth-chipped gear 158, and the pin 161 is fitted in an elongated hole 119 formed at the front end of the slide member 116. The slide member 116 is formed in a substantially rectangular flat plate shape, and a side wall 117 is provided upright on the side. Further, a through hole 121 is formed in the lateral direction of the slide member 116 so as to penetrate the slide member 116. The guide tubes 122 having both ends axially supported by the bearing plates 36a, 36a projecting from the upper surface of the machine frame 36 are fitted into the through holes 121. Therefore, the sliding member 116 is slidable by being guided by the guide tube 122, and is pulled toward the control stick 12 by the pulling spring 123 stretched between the sliding member 116 and the machine frame 36, so that the rear edge of the sliding member 116 has the machine frame 36. It stops by engaging with a stopper 126 protruding above. Further, an opening portion 124 is opened in the slide member 116, and a light emitting body 125 for illuminating the trajectory of the missile and the hit display portion is arranged in the opening portion 124. A bearing plate 38 is provided upright on the upper surface of the machine frame 36 on the side of the side wall 117. Two swing levers are swingably supported between the bearing plate 38 and the casing 74 containing the film 82 (see FIG. 8). These two swing levers and one swing lever pivotally supported on the side wall 117 are activated when the missile hits the image of the target 83 projected on the screen 5, and the hit display provided on the screen 5 is displayed. This is for closing the switch mechanism for lighting the portion 504. That is, the first swing lever 101 is swingable by pivotally supporting the support shaft 102 in the bearing hole 38b formed in the bearing plate 38, and is pulled between the locking piece 103 and the slide member 116 protruding in the intermediate portion. A spring 104 is stretched to urge the first swing lever 101 to rotate counterclockwise in FIG. The second swing lever 105 is swingably and slidably supported on a support shaft 106 provided between the bearing plate 38 and the casing 74. An arm 107 is provided at an intermediate portion of the second swing lever 105 so as to be parallel to the upper surface of the slide member 116. Then, at the tip of the arm 107, a pin 108 having both ends projecting in the vertical direction of the arm 107 is provided upright. The pin 108 projecting from the upper surface of the arm 107 is held by a holding piece 97 formed at the end of a swing lever 94 which pivotally supports a pivot 95 on the casing 74. A holding piece 96 formed on the other end of the swing lever 94 is held by a pin 91 standing on the light lever 87, and the arm 107 is supported in conjunction with the turning operation of the light lever 87. It slides in the axial direction of the shaft 106. Further, the second swing lever 105 is engaged with the first swing lever 101 which is urged to rotate in one direction by the pulling spring 104, and like the first swing lever 101 shown in FIG. Rotational force is applied in the counterclockwise direction. The pin 109 projecting from the tip of the second swing lever 105 is pressed against the upper edge of the side wall 117. A V-shaped recess 118 into which the pin 109 is fitted is formed in the center of the upper edge of the side wall 117. A third swing lever 111 that is swingable about a pivot 114 is pivotally supported on the side surface of the side wall 117. A pulling spring 115 is stretched between the lower end of the third swing lever 111 and the side wall 117, and the pulling spring 115 is counterclockwise in FIG. 8 with respect to the third swing lever 111. Rotating force is applied. In the normal state, the third swing lever 111 is locked to the pin 120 standing on the side wall 117. At this time, the engagement plate 112 formed on the upper end of the third swing lever 111 is the side wall plate 11. 7 and the upper end of the side wall plate 117 is formed in a smooth surface at the position of the recess 118. A protrusion 113 having a triangular cross section is erected on the tip of the third swing lever 111. Inside the bearing plate 38, there is slidably arranged a slide rod 131 which operates when the missile is hit to turn on the hit indicator 504 and which opens and closes a switch mechanism to emit hit sound. .. A pin 132 is provided so as to project from an intermediate portion of the slide rod 131, and a tension spring 139 is stretched between the pin 132 and the machine frame 36. A flat plate 130 is formed at one end of the slide rod 131 by bending in a crank shape. A guide pin 134 is provided upright on the side surface of the flat plate 130, and the guide pin 134 is fitted in a long hole 38c formed in the bearing plate 38. Further, an engaging portion 136 is formed at the tip of the flat plate 130, and the engaging portion 136 can be engaged with and disengaged from a light switch 137 composed of a pair of conductive contact pieces and a sound switch 138 for producing a hit sound of a missile. It is provided. A claw 133 is formed on the other end of the sliding rod 131, and the claw 133 engages with a tooth 181a engraved on the outer peripheral surface of the rotary plate 181 of the counter mechanism to move the rotary plate 181. Rotate.

As shown in FIG. 13, numbers are sequentially displayed from "1" on the outer peripheral edge of the rotary plate 181 which constitutes the counter mechanism. This number is formed so as to be visible from a through hole 187 formed in the operation panel 7 of the main body 1. Further, a push spring 186 for urging the rotating plate 181 upward is wound around the support shaft 180 of the rotating plate 181, and a pulling spring for urging the rotating plate 181 to rotate clockwise in FIG. 183 is stretched. Further, a retaining plate 184 is engaged with the upper surface of the rotary plate 181, and a tip of a projecting piece 185 that prevents the rotary plate 181 from reversing is engaged with the tooth 181a. The lower end of the push button 188 projecting from the operation panel 7 is in contact with the upper surface of the rotary plate 181, and when the push button 188 is pressed, the rotary plate 181 moves downward and the teeth 181a slide. The claw 133 of the rod 131 and the projecting piece 185 are separated from each other, and the rotary plate 181 is rotated to a predetermined position by the tensile force of the pull spring 183.

The screen 5 is formed in a rectangular plate shape as shown in FIGS. 14 and 15, and a milky white translucent plate 501 is adhered to the upper surface thereof. Then, a through hole 502 into which the rotary shaft 31 of the relative moving object 6 is inserted is formed in the center part on the front side of the screen 5, and in the center part, as a trajectory display window for displaying the trajectory of the missile, for example, The through hole 505 is formed in two linear shapes. Then, a through hole having a shape showing a ruptured state is formed at the front end side of the screen 5, that is, at a position farther from the viewing window 4 to form a hit display portion 504. A transparent filter 503 colored in red is attached to the through hole of the hit display section 504.

As shown in FIG. 8, the motor pinion 58 meshes with the gear 154, the pinion 155 provided coaxially with the gear 154 meshes with the gear 156, and the pinion 157 is coaxially mounted with the gear 156. Has been done. When the push button 13 is pressed, the gear 159 of the toothless gear 158 rotated by a predetermined angle meshes with the pinion 157 and rotates. When the tooth-chipped gear 158 rotates, the slide member 116 in which the pin 161 is loosely fitted in the long hole 119 is guided by the guide tube 122 and slides below the screen 5. The operation of other members that operate in association with the sliding operation of the slide member 116 will be described with reference to FIGS. 8 and 16 to 28.

FIG. 16 shows an initial state in which the tooth-chipped gear 158 is stopped, and the pinion 157 is positioned at the tooth-chipped portion of the tooth-chipped gear 158 and is idling. A switch 162 composed of a pair of electrically conductive contact pieces blinks the light emitter 125 arranged on the slide member 116, and is open when the tooth-chipped gear 158 is stopped. Then, FIG. 19 shows a positional relationship between the second swing lever 105 and the third swing lever 111 corresponding to the state of FIG. 16, and the pin 109 of the second swing lever 105 is stopped. It engages with the upper edge of the side wall 117 of the sliding member 116. The third swing lever 111 is urged in the counterclockwise direction in FIG. 8 by the pulling spring 115 to engage with the pin 120 and stop, and the engaging plate 112 formed on the upper end is formed on the side wall 117. The upper surface of the engaging plate 112 is flush with the upper edge of the side wall 117 and forms a smooth surface. As shown in FIG. 23, the light emitter 125 attached to the slide member 116 is located on the front side of the screen 5, that is, on the base end side of the two through holes 505 that represent the trajectory of the missile.

When the push button 13 protruding from the control stick 12 is pressed, the tooth-chipped gear 158 rotates by a predetermined angle, the gear 159 meshes with the pinion 157, and the tooth-chipped gear 158 pulls the slide member 116 to the spring 123. It rotates while sliding against the tensile force of. At this time, the cam protrusion 160 engages with the switch 162 to close the switch 162 as shown in FIG. 17, and the light emitter 125 is turned on. The side wall 117 provided on the slide member 116 slides to a position where the pin 109 of the second swing lever 105 fits into the recess 118, as shown in FIGS. Then, the light emitting body 125 has moved to the tips of the two through holes 505 as shown in FIG. Therefore, the light rays of the light-emitting body 125 are projected on the semitransparent plate 501 covering the surface of the screen 5 while moving from the base end side of the through hole 505 to the tip end side, and it is as if the missile was fired. Will be presented.

FIG. 20 shows the relationship between the second swing lever 105 and the third swing lever 111 when the missile is hit and FIG. 21 is when the missile is not hit. Whether the missile is hit or not is determined by whether or not the pin 108 of the second swing lever 105 fits into the through hole 84 formed in the belt portion 82a of the film 82. As shown in FIG. 10, the film 82 has a course of imaginary lines A, B, and C formed in the central portion and the left and right longitudinal directions. Targets 83a, 83b, and 83c are displayed along each of the A, B, and C courses. Then, through holes 84a, b, c are formed at positions of the belt portion 82a corresponding to the targets 83a, b, c. When the control stick 12 and the push button 13 are properly operated by the player, the pin 108 provided on the second swing lever 105 is provided with a through hole formed in the belt portion 82a of the film 82 as shown in FIG. It penetrates 84 and fits in the recess 85 formed in the casing 74. This state is shown in FIG. 20, in which the pin 109 provided on the second swing lever 105 fits into the recess 118 formed in the side wall 117 and engages with the engagement plate 112 of the third swing lever 111. To do. Then, the third swing lever 111 swings clockwise in FIG. 20, and the tip end portion provided with the protrusion 113 moves downward. Then, when the side wall 117 further moves rightward, the projection 113 moves to the lower surface of the ridge 39 protruding from the bearing plate 38, and the swinging in the counterclockwise direction is blocked. At the same time, the projection 113 engages with the engaging step portion 135 which is the rear end surface of the flat plate 130 of the sliding rod 131 arranged below the protrusion 39, and the sliding rod 131 resists the tensile force of the pulling spring 139. Then, it slides in the rightward direction in FIG. The engaging portion 136 of the flat plate 130 formed at the end of the sliding rod 131 is engaged with the missile hit switch 137 and a hit sound switch 138 that drives a sounding mechanism described later to close the switches 137 and 138. Will be completed. In this state, the light emitter 125 attached to the slide member 116 is below the hit display section 504 of the screen 5, and the hit display section 504 is illuminated in red by the red transparent filter 503. The missile will feel as if it hit the target. Then, the claw 133 formed on the other end of the sliding rod 131 engages with the teeth 181a of the rotary plate 181 to rotate the rotary plate 181 and one point is counted.

When the player operates the control stick 12 and the push button 13 too early or makes a mistake in the course, the lower end of the pin 108 comes into contact with the upper surface of the film 82, and the projection 113 of the third swing lever 111. Engages with the upper surface of the ridge 39 and is prevented from swinging in the clockwise direction, the pin 109 of the second swing lever 105 is engaged with the engaging plate 112 of the third swing lever 111 and the upper end of the side wall 117. It comes into contact with the smooth surface formed by. Then, the protrusion 113 of the third swing lever 111 passes above the engagement step portion 135 of the sliding rod 131, and the sliding rod 131 does not operate.

FIG. 18 shows the position of the tooth-chipped gear 158 in which the slide member 116 has moved slightly beyond the limit of movement. The end of the gear 159 and the pinion 157 are separated from each other, and the switch 162 is separated from the cam protrusion 160. It is opened, and the tooth-chipped gear 158 can be returned by a pulling spring 123 stretched on the slide 116. Then, as shown in FIG. 22, the pin 108 of the second swing lever 105 is in contact with the surface of the film 82, and the pin 109 is separated from the recessed portion 118 of the sliding side wall portion 117. The projection 113 of the rocking lever 111 engages with the lower surface of the ridge 39 when the missile hits, and is located above the ridge when the missile is disengaged. Then, as shown in FIG. 25, the light emitter 125 is located below the hit display portion 504 of the screen 5 and is turned off. Then, the tooth-chipped gear 158 is rapidly rotated counterclockwise in FIG. 18 by the pulling force of the pulling spring 123 to return to the state of FIG. When the push button 13 is operated again, the above operation is performed.

As shown in FIG. 1, a battery housing 194 is formed in the lower outer body 3 forming the main body 1, and a battery 195 is removable. A sounding mechanism including a known melody IC 191 and a speaker 192 capable of generating flight sound, missile launch sound, and missile hit sound is installed in the machine frame 36 fixed to the lower outer body 3. There is. This sounding mechanism uses the switches of the conductive contact pieces 46, 47 that are closed by operating the operation knob 41 as the main switches, and only the flight sound is sounded during the game. In order to prevent a plurality of sounds of the sounding mechanism from being sounded in duplicate, as shown in FIG. 8, the gear shaft 163 of the tooth-chipped gear 158 has a first cam 164 and a second cam 165. Is mounted on the shaft, and three electrically conductive contact pieces 166, 167, 168 which engage with and disengage from the cams 164, 165 are arranged. When the tooth-chipped gear 158 is stopped, the conductive contact pieces 166 and 167 are in contact with each other as shown in FIG. Then, when the tooth-chipped gear 158 rotates and the missile is launched, the conductive contact piece 167 engages with the first cam 164 and bends, separates from the conductive contact piece 166, and contacts the conductive contact piece 168. To do. In this state, the sound of flight is stopped and the sound of missile launch is emitted. Then, when the tooth-chipped gear 158 further rotates and the light emitter 125 of the sliding member 116 reaches below the hit display portion 504 of the screen 5, the conductive contact piece 168 engages with the second cam 165 to bend the conductive material. The three conductive contact pieces 166, 167, 168 are separated from the contact piece 167 and are in a silent state. This silent state lasts for about 0.5 seconds, but when the missile hit switch 138 is closed during this period, the missile hit sound is emitted from the speaker 192. When the missile does not hit, the tooth-chipped gear 158 in FIG. 26 is stopped again and the flight sound is emitted.

[0029]

【The invention's effect】

 According to the launch game device of this invention, when the push button provided on the control stick is operated, the slide member disposed below the screen slides to move from the trajectory display window for displaying the trajectory provided on the screen to the slide member. The light rays of the provided light emitter are projected, and a clear trajectory image can be obtained although the overall structure is simple.

[Brief description of drawings]

FIG. 1 is a vertical sectional view of a main body.

FIG. 2 is an external perspective view of a main body.

FIG. 3 is an external perspective view of a machine frame and a projection mechanism installed in the main body.

FIG. 4 is a plan view showing a main part of a drive mechanism by removing an upper outer shell of a main body and an upper part of a machine frame.

FIG. 5 is a perspective view showing a main part of a switching mechanism of the drive mechanism.

FIG. 6 is a perspective view showing a main part of a main switch of the drive mechanism.

FIG. 7 is a perspective view showing a main part of an operating mechanism of a control stick.

FIG. 8 is a perspective view showing a main part of an actuation mechanism associated with a missile firing mechanism.

FIG. 9 is an enlarged cross-sectional view showing the relationship between the film and the second swing lever.

FIG. 10 is a plan view of a film incorporated in a projection mechanism.

FIG. 11 is a plan view showing an operating mechanism of a fuel gauge.

FIG. 12 is a plan view showing a toothless gear that is a main part of a missile launching mechanism and an operating member related thereto.

FIG. 13 is a plan view showing a main part of a counter mechanism.

FIG. 14 is a plan view of the screen.

15 is a sectional view taken along line XX of FIG.

FIG. 16 is a diagram showing an initial state of a toothless gear of a missile firing mechanism and a switch mechanism related thereto.

FIG. 17 is a diagram showing an operating state of a toothless gear of a missile firing mechanism and a switch mechanism related thereto.

FIG. 18 is a view showing a state after the operation of the toothless gear of the missile firing mechanism and the switch mechanism related thereto.

FIG. 19 is a first and a second operation that correspond to the state of FIG.
It is a figure which shows the operating state of a rocking lever.

FIG. 20 is a diagram illustrating a first and a second operation that correspond to the state of FIG.
It is a figure which shows the operating state of a rocking lever.

FIG. 21 is a first and a second that operate in correspondence with the state of FIG.
It is a figure which shows the operating state of the rocking lever of FIG.

FIG. 22 is a first and a second operation that correspond to the state of FIG.
It is a figure which shows the operating state of the rocking lever of FIG.

FIG. 23 is a diagram showing the position of the light emitter corresponding to the state of FIG.

FIG. 24 is a diagram showing the positions of the light emitters corresponding to the states of FIGS. 20 and 21.

FIG. 25 is a diagram showing the position of the light emitter corresponding to the state of FIG. 22.

FIG. 26 is a plan view showing a switch mechanism of the sound producing mechanism.

FIG. 27 is a cross-sectional view of a switch mechanism of the sounding mechanism.

FIG. 28 is a diagram showing a configuration of a circuit implemented in this embodiment.

[Explanation of symbols]

 1 Main Body 4 Peep Window 5 Screen 6 Relative Moving Object (Flying Vehicle Model) 12 External Operating Means (Control Stick) 13 Push Button 27 Fan Gear 31 Rotating Shaft 36 Machine Frame 38 Bearing Plate 41 Operation Knob 51 Motor 72 Mounting Frame 73 Inclined Wall 74 Casing 80, 81 Drum body 82 Film 83 Target 84 Through hole 87 Light lever 88 Light source 101 First swing lever 105 Second swing lever 108 Pin 111 Third swing lever 116 Slide member 117 Side wall 118 Recessed portion 119 Long hole 123 Pulling spring 125 Luminous body 131 Sliding rod 158 Partial gear 160 Cam projection 161 pin 500 Game space 501 Semi-transparent plate 505 Through hole

Claims (1)

[Claims for utility model registration] 1. A shooting game device for shooting by shooting a target projected on a screen, a ballistic display for displaying the trajectory is provided, and a light emitter is attached below the screen. A slide member is slidably arranged, a long hole is formed in which a pin is erected on the toothless gear, and a return spring is stretched. The protruding button connected to the push button provided on the provided control stick via a link member is provided so as to be engageable, and the tooth-chipped gear rotates a predetermined angle by operating the push button and meshes with the drive mechanism to allow the light-emitting body to operate. A shooting game device characterized in that a switch for turning on is closed and slid under the screen.