JP6432790B2 - GAME MEMBER AND GAME MACHINE - Google Patents

Description

The present invention relates to a gaming member and a gaming machine that perform gaming effects.

  2. Description of the Related Art Conventionally, a gaming machine including a gaming member that performs a game effect is known (see, for example, Patent Document 1). The gaming machine disclosed in Patent Document 1 discloses a mechanical performance device that swings a synthetic resin covering member imitating a human body by vertical movement by a solenoid and rotational movement by a motor.

JP 2013-102970 A

  According to the above prior art, it is possible to give the player an impression that a part of the covering member imitating a human body is swinging up and down and left and right. However, from the viewpoint of improving the interest of the game, a gaming member capable of executing game effects with more diverse movements is desirable.

An object of this invention is to provide the game member and game machine which can perform the game effect which carries out a more various motion.

The first aspect of the present invention is a gaming member used for the production of a game, wherein the front direction is a direction opposite to the front direction, with the support pillar extending in a first direction orthogonal to the front- rear direction. a rotatable, a movable portion in which the plate-like member for decoration is fixed to the front, provided on the rear side of the movable portion, elasticity of the elastic force for biasing the movable portion to the forward body and, a position spaced said first direction from said movable portion, and is provided on the rear side of the plate-like member, a rotary member which rotates around a rotation axis extending in said first direction, said from said rotary member An action part extending in the first direction toward the movable part and provided at a position away from the rotation axis in a second direction perpendicular to the first direction , the action part being the plate-like member at the rear side of the third direction and the third direction with the rotation of the rotating body Rotates in the fourth direction is the opposite direction, and displaced to a contact position for contacting the front side and spaced position away from the movable portion to the movable portion, in a state in which the working portion is in the contact position, the working If the part is rotated to the third direction, wherein the working portion is Ko' the elastic force of the elastic body, in Rukoto rotates the movable unit in the rear direction, the plate-like member in the rear direction is rotated in a state in which the working portion is in the contact position, when the working portion is rotated in said fourth direction, said movable portion in accordance with the elastic force of the elastic member, the effect of rotating the fourth direction by rotating the front direction together parts, characterized in that rotating the plate-like member in the forward direction.

In the gaming member according to the first aspect, a direction opposite rotatable movable portion in a forward direction and the backward direction is, is urged forward by the elastic force of the elastic member with each other. As the rotating body rotates about the rotation axis, the action part rotates in a third direction and a fourth direction, which are opposite to each other, so that the contact position that contacts the movable part is separated from the movable part. Displace to position. If the action part is rotated to the third direction in a state in contact position, the acting portion is Ko' the elastic force of the elastic member causes rotation of the movable portion in the rear direction. If the action part is rotated to the fourth direction in a state in contact position, the movable portion in accordance with the elastic force of the elastic body, rotates in the forward direction together with the action portion for rotating the fourth direction. Therefore, the game member can rotate the movable part by using the elastic force of the elastic body, so that it is possible to execute game effects with more various movements.

If the working unit that rotates the third direction is displaced in the spaced position from the contact position, the movable portion may be rotated in the forward direction according to the elastic force of the elastic body. In this case, it is possible to rotate the movable portion by the elastic force of the elastic body, the instantaneous forward direction.

If the movable portion is rotated in the forward direction to a predetermined position according to the elastic force of the elastic body, that in contact with the movable portion to restrict movement of the forward direction, the movable portion to the predetermined position You may provide the position holding part to hold | maintain. In this case, when the working portion is in the separation position, the movable portion is urged in the forward direction can be held in proper position by the position holding unit.
A gaming machine including the gaming member may be used. In this case, the gaming machine can execute a game effect with more various movements.

1 is a front view of a pachinko machine 1. FIG. 2 is a front view of the game board 2. FIG. It is the perspective view which looked at the movable accessory 30 from the upper left front. FIG. 3 is a part development view of the movable accessory 30. It is a front view of the upper movable mechanism 100 in which the movable arm 140 exists in a 1st reference position and a 2nd reference position. It is the perspective view which looked at the upper movable mechanism 100 of FIG. 5 from the upper left front. It is the perspective view which looked at the upper movable mechanism 100 of FIG. 5 from the front right upper part. It is the perspective view seen from the upper left front of the lower movable mechanism 200 with the movable arm 230 in the reference position. FIG. 9 is a perspective view in which a lower support portion 202 is removed from the lower movable mechanism 200 of FIG. 8. FIG. 6 is a rear view of the lower movable mechanism 200 with the lower base portion 201 removed. FIG. 6 is a plan view showing a state transition of the upper operation unit 104. 4 is a front view of the upper movable mechanism 100 in which the movable arm 140 is swung to the left from the first reference position. FIG. FIG. 6 is a front view of the upper movable mechanism 100 in which the movable arm 140 swings to the right from the first reference position. FIG. 6 is a left side view showing state transition of the upper operating unit 104. FIG. 6 is a front view of the upper movable mechanism 100 in which the movable arm 140 swings downward from the second reference position. It is explanatory drawing which shows the state transition of the lower action | operation part 203. FIG. It is the perspective view seen from the upper left front of the lower movable mechanism 200 in which the movable arm 230 is in the advance position. FIG. 18 is a perspective view in which the lower support portion 202 is removed from the lower movable mechanism 200 of FIG. 17.

  A pachinko machine 1 according to an embodiment of the present invention will be described with reference to the drawings. In the following description, the front side, back side, upper side, lower side, left side, and right side of FIG. 1 are respectively the front side (front side), rear side (rear side), upper side, lower side, and left side of the pachinko machine 1. And the right side.

(1. Outline structure of pachinko machine 1)
With reference to FIG.1 and FIG.2, the schematic structure of the pachinko machine 1 is demonstrated. The pachinko machine 1 is provided with a game board 2. The game board 2 has a substantially square plate shape when viewed from the front, and the front surface is protected by a front frame 13 holding a transparent glass plate. An upper plate 5 is provided at the lower part of the game board 2. The upper plate 5 supplies a game ball (not shown) to a launcher (not shown) and receives a prize ball. An operation button 9 that is operated by a player is provided at the upper center of the upper plate 5. A lower plate 6 for receiving a prize ball is provided immediately below the upper plate 5. On the right side of the lower plate 6, a launch handle 7 for adjusting the launch of the game ball is provided. Speakers 48 are respectively provided on the left and right corners of the upper portion of the front frame 13.

  A substantially circular game area 4 surrounded by guide rails 3 is formed on the front surface of the game board 2. The game ball launched by the launcher flows down in the game area 4. A frame-shaped decorative frame 14 is disposed substantially at the center of the game area 4. A movable accessory 30 described later is provided behind the decorative frame 14. A first start port 15 is provided at the center lower side of the decorative frame 14. A second start port 16 having an opening / closing member is provided immediately below the first start port 15. The second starting port 16 can win a game ball only when the opening and closing member is opened. Below the second start port 16, an out port 17 is provided for collecting game balls that have flowed down to the central lower end of the game area 4.

  On the rear side of the game board 2, an image display device 28 having a display surface 27 constituted by an LCD (Liquid Crystal Display) or the like is provided. The display surface 27 is provided inside the decorative frame 14 in a front view and can display an image forward. On the display surface 27, a plurality of demonstration symbols for informing the player of the result of the hit determination based on the special symbol (big hit determination) is displayed. The plurality of demo symbols start to change when the game ball wins one of the first start port 15 and the second start port 16, and after the change, are determined and displayed in combination according to the result of the jackpot determination.

  On the rear side of the game board 2, a main board (not shown), a sub board (not shown), and the like are provided. The main board controls the main control of the pachinko machine 1. The main board is provided with a CPU that executes various arithmetic processes, a RAM that temporarily stores data, and a ROM that stores a control program and the like. The sub board is electrically connected to the main board. As with the main board, the sub board is provided with a CPU, a RAM, and a ROM. The sub board performs control related to the effect according to the command transmitted from the main board. In this example, the sub-board can execute an effect of operating the movable accessory 30 in conjunction with the image display device 28, the speaker 48, and the like.

(2. Schematic structure of movable accessory 30)
With reference to FIG.3 and FIG.4, the schematic structure of the movable accessory 30 is demonstrated. The upper side, lower side, lower left side, upper right side, lower right side, and upper left side in FIG. 3 are respectively referred to as the upper side, lower side, left side, right side, front side, and rear side of the movable accessory 30. The movable accessory 30 of this example is a member for production imitating a human body, and is arranged on the right side of the display surface 27 in a front view. From the front side of the pachinko machine 1, the player can view various images displayed on the display surface 27 and the effect operation of the movable accessory 30 at the same time.

  The movable accessory 30 includes a movable mechanism 40, a decorative cover 50, cover decorations 60, 70, and the like. The decorative cover 50 is a sheet-like decorative object having flexibility. In this example, the decorative cover 50 is a film-like rubber product (rubber) integrally molded in a shape imitating a human body. Specifically, the decorative cover 50 imitates the left half of the human body excluding the head and arms, and includes a neck 50A, a chest 50B, a waist 50C, a left thigh 50D, and a right thigh 50E. The chest part 50B is rounded and protrudes toward the front side. A screw hole 52 is provided in the front surface of the neck portion 50A. A connecting hole 54 penetrating in the front-rear direction is provided at the protruding end of the chest 50B. A screw hole 53 located above the left thigh 50D and a connection hole 55 penetrating in the front-rear direction between the left thigh 50D and the right thigh 50E are provided on the front surface of the waist 50C.

  The cover ornaments 60 and 70 are flexible sheet-like ornaments and are attached to the ornament cover 50. The cover ornament 60 is a decorative object imitating a swimsuit that is mainly attached to the chest 50B. The cover ornament 60 includes a triangular covering portion 61 in front view, string portions 63, 64, 65 extending from the covering portion 61 in three directions, and a pendant-shaped ornament 62 provided on the string portion 63. . The cover ornament 70 is a decorative object that simulates a swimsuit that is mainly attached to the waist 50C. The cover ornament 70 includes a triangular covering portion 71 in front view, string portions 73, 74, and 75 extending in three directions from the covering portion 71, and a pendant-like ornament 72 provided on the string portion 74. .

  The decorative cover 50 is attached to the front side of the movable mechanism 40 so as to cover the entire movable mechanism 40 in a front view. The movable mechanism 40 is a mechanism for operating the mounted decorative cover 50. The movable mechanism 40 includes an upper movable mechanism 100 that operates the decorative cover 50 around the chest 50B, and a lower movable mechanism 200 that operates the decorative cover 50 around the waist 50C.

(3. Detailed structure of upper movable mechanism 100)
The detailed structure of the upper movable mechanism 100 will be described with reference to FIGS. As shown in FIG. 4, the upper movable mechanism 100 includes an upper base 101, an upper support portion 102, a neck support portion 103, an upper operation portion 104, and the like. The upper base 101 has a plate shape extending in the vertical direction. On the front side of the upper base 101, an upper support portion 102, a neck support portion 103, an upper operation portion 104, and the like are provided. The upper support portion 102 is a plate-like member that is supported in surface contact with the back surface of the chest 50B. In addition, the upper support part 102 is illustrated only in FIG. 4 and is omitted in other drawings. The neck support portion 103 is a mechanism that movably supports the neck portion 50A. The upper operation unit 104 is a mechanism that operates while movably supporting the chest 50B.

  As shown in FIGS. 5 to 7, the neck support portion 103 includes a support shaft 110, a movable arm 120, a winding spring 128, and the like. The support shaft 110 is a cross-shaped member disposed on the front side of the upper end portion of the upper base 101, and includes a first shaft 110A and a second shaft 110B. The first shaft 110A has a cylindrical shape extending in the left-right direction. The left end portion and the right end portion of the first shaft 110 </ b> A are inserted into the support holes of the support plates 111 and 112 extending forward from the upper base portion 101, respectively. Thereby, the support shaft 110 is supported rotatably about the first shaft 110A (that is, about the axis extending in the left-right direction).

  A second shaft 110B is provided substantially at the center in the left-right direction of the first shaft 110A. The second shaft 110B is a columnar member extending orthogonally to the axis of the first shaft 110A, and protrudes from the first shaft 110A on both sides in the radial direction. In this example, both end portions of the second shaft 110B protrude above and below the first shaft 110A.

  The movable arm 120 includes support plates 121 and 122 and an extending portion 123. The support plates 121 and 122 are plate-like members that are opposed to each other on both sides of the support shaft 110 and are connected to each other. Both end portions of the second shaft 110B are inserted into the support holes of the support plates 121 and 122, respectively. Thereby, the movable arm 120 is rotatably supported around the second axis 110B (that is, around the axis orthogonal to the left-right direction).

  The extending portion 123 is a portion that extends rightward and forward from the upper side of the support plate 121. The support plate 121 is provided with a connection hook 124, connection holes 125 and 126, and a spring locking portion 127. The connecting hole 125 is provided at the left rear end of the extending portion 123. The connection hole 126 is provided at the right front end of the extending portion 123. The connection hook 124 is provided on the upper right side of the connection hole 125. The spring locking portion 127 is provided on the right rear side of the connection hole 126. A spring locking portion 113 is provided at the upper right end of the upper base portion 101. Both end portions of the winding spring 128 are bridged between the spring locking portion 127 and the spring locking portion 113. The spring locking portion 127 is urged toward the spring locking portion 113 by the elastic force of the winding spring 128.

  With the above structure, the movable arm 120 can be rotated in the vertical direction about the first axis 110A and can be rotated in the left-right direction about the second axis 110B in the front view. When an external force larger than the elastic force of the winding spring 128 is not acting on the movable arm 120, the movable arm 120 is held at the reference position (see FIGS. 5 to 7). Specifically, when the winding spring 128 contracts to a position extending in the front-rear direction, a restricting portion (not shown) provided on the upper base 101 comes into contact with the rear end portion of the support plate 121 from the left side and the lower side.

  As a result, the movable arm 120 is restricted from rotating counterclockwise in plan view, and is restricted from rotating counterclockwise in left side view, and is positioned at the reference position. When an external force larger than the elastic force of the winding spring 128 acts on the movable arm 120, the movable arm 120 can be rotated to at least one of the left side and the lower side in front view from the reference position according to the external force. It is. In this case, when the external force acting on the movable arm 120 disappears, the movable arm 120 returns to the reference position by the elastic force of the winding spring 128.

  As shown in FIGS. 5 to 7, the upper operation unit 104 includes a support shaft 130, a movable arm 140, interlocking units 150 and 155, a first drive motor 160, a second drive motor 170, a mounting unit 180, and the like. The support shaft 130 is a cross-shaped member disposed on the front surface side of the upper base 101 and below the neck support portion 103, and includes a first shaft 130A and a second shaft 130B. The first shaft 130A has a columnar shape extending in the left-right direction. The left end portion and the right end portion of the first shaft 130A are inserted into the support holes of the support plates 131 and 132 extending forward from the upper base portion 101, respectively. Thereby, the support shaft 130 is supported rotatably about the first shaft 130A (that is, about the axis extending in the left-right direction).

  A second shaft 130B is provided substantially at the center in the left-right direction of the first shaft 130A. The second shaft 130B is a columnar member extending orthogonally to the axis of the first shaft 130A, and protrudes from the first shaft 130A on both sides in the radial direction. In this example, both end portions of the second shaft 130B protrude above and below the first shaft 130A.

  The movable arm 140 includes support plates 141 and 142, a first action part 143, a first groove part 144 (see FIG. 8), an extension part 145, a second action part 146, a second groove part 147, a sensor installation part 148, and the like. . The support plates 141 and 142 are plate-like members that are opposed to each other on both sides of the support shaft 130 and are connected to each other. Both ends of the second shaft 130B are inserted into the support holes of the support plates 141 and 142, respectively. Thereby, the movable arm 140 is rotatably supported around the second shaft 130B (that is, around an axis perpendicular to the left-right direction).

  The first action portion 143 has a box shape provided on the front side of the support plate 142 and opening downward. The first groove part 144 is a groove surrounded by a peripheral wall extending downward from the lower surface of the first action part 143 (see FIG. 11). The first groove portion 144 is exposed below the first action portion 143 and extends in a direction orthogonal to the axis of the second shaft 130B (the front-rear direction in the state T11 in FIG. 11). That is, the first groove portion 144 extends toward the second shaft 130B so that the extension line in the longitudinal direction is orthogonal to the axis line of the second shaft 130B.

  The extending portion 145 is a portion that extends downward from the left side of the first action portion 143 to the front side. The second action part 146 is provided at the lower end part of the extension part 145. The second groove part 147 is a groove that penetrates the second action part 146 in the left-right direction. The second groove portion 147 extends in a direction perpendicular to the axis of the first shaft 130A (in this example, the front lower side). That is, the second groove portion 147 extends toward the first shaft 130A so that the extension line in the longitudinal direction is orthogonal to the axis line of the first shaft 130A. The sensor installation part 148 is a part extending to the right side from the first action part 143.

  The interlocking portion 150 is a plate-like member that extends forward along the support plate 141 from the upper end portion of the second shaft 130B. The front end portion of the interlocking portion 150 is bent downward on the front side of the support plate 141 and is disposed on the upper side of the first action portion 143. A first detection plate 151 protruding in the right direction is provided at the front end of the interlocking unit 150. A first sensor 152 that is a transmissive sensor capable of detecting the first detection plate 151 is provided on the upper surface of the sensor installation unit 148. Since the first sensor 152 is directly connected to the movable arm 140, the first sensor 152 also moves with the rotation of the movable arm 140.

  The rear end portion of the interlocking portion 150 is fixed to the upper end portion of the second shaft 130B. Therefore, when the second shaft 130B rotates along the circumferential direction of the first shaft 130A (that is, when the movable arm 140 rotates around the first shaft 130A), the interlocking unit 150 rotates together with the second shaft 130B. On the other hand, the interlocking unit 150 is not directly connected to the movable arm 140. Therefore, even if the movable arm 140 rotates about the second shaft 130B, the interlocking unit 150 does not rotate.

  The first drive motor 160 is provided on the lower rear side of the first action part 143. The rotation shaft of the first drive motor 160 is connected to the rotation center of the gear 161 provided on the upper side of the first drive motor 160. The gear 161 meshes with a gear 162 provided on the front side of the gear 161 and below the first action portion 143. A rotation axis C1 (see FIG. 11) passing through the rotation center of the gear 162 is parallel to the axis of the second shaft 130B extending in the up-down direction.

  The gear 162 is provided with a cylindrical action pin 163 that protrudes from the upper surface thereof. The action pin 163 is provided on the outer side in the radial direction than the rotation axis C1 and extends in parallel with the rotation axis C1, and has a smaller diameter than the length in the short direction of the first groove portion 144. When the gear 162 rotates around the rotation axis C1, the action pin 163 rotates so as to draw a circular orbit around the rotation axis C1. The upper end portion of the action pin 163 is inserted into the first groove portion 144 from below.

  The interlocking portion 155 is a plate-like member that extends downward from the right end portion of the first shaft 130A. A second detection plate 156 that protrudes downward is provided at the lower end of the interlocking portion 155. On the right side of the first drive motor 160, a second sensor 157 that is a transmission type sensor capable of detecting the second detection plate 156 is provided. The rear end portion of the interlocking portion 155 is fixed to the right end portion of the first shaft 130A. Therefore, when the movable arm 140 rotates about the first shaft 130A, the interlocking unit 155 rotates together with the first shaft 130A. On the other hand, the interlocking unit 155 is not directly connected to the movable arm 140. Therefore, even if the movable arm 140 rotates about the second shaft 130B, the interlocking unit 155 does not rotate.

  The second drive motor 170 is provided at the lower right rear of the second action part 146. The rotation shaft of the second drive motor 170 is connected to the rotation center of the gear 171 provided on the left side of the second drive motor 170. The gear 171 meshes with a gear 172 provided on the front upper side of the gear 171 and on the right side of the second action portion 146. A rotation axis C2 (see FIG. 14) passing through the rotation center of the gear 172 is parallel to the axis of the first axis 130A extending in the left-right direction.

  The gear 172 is provided with a cylindrical action pin 173 protruding from the left surface. The action pin 173 is provided on the outer side in the radial direction than the rotation axis C2, extends in parallel with the rotation axis C2, and has a smaller diameter than the length in the short direction of the second groove portion 147. When the gear 172 rotates around the rotation axis C2, the action pin 173 rotates so as to draw a circular orbit around the rotation axis C2. The left end portion of the action pin 173 is inserted into the second groove portion 147 from the right side.

  The mounting portion 180 is provided on the upper left side of the front end portion of the second action portion 146 and includes a support plate 181 and a locking piece 182. The support plate 181 is a plate-like member that is rounded so as to protrude slightly to the front side and is substantially circular in front view. An opening 181A penetrating in the front-rear direction is provided in the center of the support plate 181 as viewed from the front. The locking piece 182 is a protruding piece that protrudes forward of the support plate 181 through the opening 181A.

  The above-described upper support portion 102 (see FIG. 4) is on the lower right side of the mounting portion 180. A connecting hook 186 is provided at the right end portion of the upper support portion 102. A connection hook 185 is provided on the rear side of the first drive motor 160. At the lower end of the upper base 101, connecting portions 191 and 192 are provided side by side. The connecting portion 191 is a portion extending to the lower left. The connecting part 192 is a part protruding forward from the right side of the connecting part 191.

(4. Detailed structure of lower movable mechanism 200)
A detailed structure of the lower movable mechanism 200 will be described with reference to FIGS. As shown in FIG. 8, the lower movable mechanism 200 includes a lower base portion 201, a lower support portion 202, a lower operation portion 203, and the like. The lower base 201 has a plate shape extending in the up-down direction. On the front side of the lower base portion 201, a lower support portion 202, a lower operation portion 203, and the like are provided.

  As shown in FIGS. 8 and 9, the lower base portion 201 includes a support plate 211, a connecting portion 212, a support column 213, and a support portion 214. The support plate 211 occupies the left half of the lower base 201 and extends in the vertical direction. The connecting portion 212 is a portion that is provided at the upper right end portion of the lower base portion 201 and extends forward from the right side of the support plate 211. The support column 213 is provided in the lower side of the connection part 212 and has a rectangular tube shape extending forward from the connection part 212. The support portion 214 has a plate shape protruding forward from the lower end portion of the support plate 211.

  As shown in FIG. 8, the lower support portion 202 is a plate-like member having a shape corresponding to the lower portion of the decorative cover 50. The front surface of the lower support portion 202 includes support surfaces 220A, 220B, and 220C. The support surface 220A supports the back surface of the waist 50C in surface contact. The support surface 220B extends from the lower left portion of the support surface 220A to the lower left and supports the back surface of the left thigh 50D in surface contact. The support surface 220C extends downward from the lower right portion of the support surface 220A, and supports the back surface of the right thigh 50E in surface contact.

  A concave portion 221 that is recessed rearward is provided at the center of the lower end portion of the support surface 220A of the lower support portion 202. A connecting hook 222 is provided inside the recess 221. A connection hole 223 is provided at the upper left rear end of the lower support portion 202. On the left side of the support surface 220A and the upper side of the support surface 220B in the lower support portion 202, a recess 224 that is recessed rearward is provided. The recess 224 is provided with a connection hole 225. On the upper side of the recessed portion 224 in the lower support portion 202, a recessed portion 227 recessed backward is provided. At the right end portion of the support surface 220A of the lower support portion 202, recessed portions 228 and 229 recessed rearward are provided side by side in the vertical direction. Each of the recesses 227 to 229 is provided with a connection hole (not shown).

  As shown in FIGS. 9 and 10, the lower operation unit 203 is a mechanism that operates the lower support unit 202 while movably supporting it. The lower operation part 203 is provided between the lower base part 201 and the lower support part 202, and includes a movable arm 230, a fixed plate 240, an action plate 250, a winding spring 260, a third drive motor 270, and the like. The movable arm 230 includes support columns 231 to 235, an extending portion 236, a spring receiving portion 237, and a pair of locking portions 238.

  The support column 231 is a columnar body provided in the right end portion of the movable arm 230 and extending in the vertical direction. The support column 232 is a columnar body that extends from the upper end of the support column 231 to the left rear so as to be slightly inclined upward. The support column 233 is a columnar body that extends from the lower end portion of the support column 231 along with the support column 232. The support column 235 is a columnar body that extends upward from the rear end portion of the support column 233 toward the rear end portion of the support column 232 so as to be slightly inclined to the right side. The support column 234 is provided between the support column 231 and the support column 235, and is installed on the support column 232 and the support column 233. The support column 234 has a cylindrical shape extending upward so as to be slightly inclined to the right.

  The extending portion 236 has a plate shape extending leftward from the lower portion of the support column 235 so as to be slightly inclined upward. The spring receiving portion 237 is a bottomed cylindrical portion that is recessed forward and extends rearward in the extending portion 236. The pair of locking portions 238 are protruding pieces that are provided in the vertical direction on the right surface side of the support column 235 and protrude forward. The upper locking portion 238 protrudes forward along the lower surface of the support column 232. The lower locking portion 238 protrudes forward along the upper surface of the support column 233. The above-described lower support portion 202 (see FIG. 8) is screwed to the front surface of the support column 231 and the front side of the spring receiving portion 237 through the connection holes of the recesses 227 to 229.

  The support column 234 is fixed to the front surface of the support column 213 by the fixing plate 240 in a state where the bearings 245 are mounted on both upper and lower ends thereof. Since the support column 234 is rotatably supported by the bearings 245, the movable arm 230 can rotate around the support column 234. The left end side of the fixing plate 240 protrudes rearward, and a locking surface 241 is provided at the rear end. The locking surface 241 faces the pair of locking portions 238 from the front side.

  The action plate 250 is a plate-like member fixed to the lower left side of the spring receiving portion 237. An action surface 251 is provided at the lower front portion of the action plate 250. The action surface 251 extends substantially in the left-right direction below the spring receiving portion 237 and faces the front side. A third detection plate 252 is provided at the lower end of the columnar body that extends downward from the action plate 250. A third sensor 253 that is a transmissive sensor capable of detecting the third detection plate 252 is provided at the left end portion on the support portion 214.

  The support plate 211 is provided with a spring receiving portion 215 surrounded by a peripheral wall protruding forward. The spring receiving portion 215 is a bottomed cylindrical portion that is provided at a position facing the spring receiving portion 237 and opens forward. The winding spring 260 is disposed between the spring receiving portion 215 and the spring receiving portion 237. Specifically, the front end portion of the winding spring 260 is accommodated in the spring receiving portion 237 from the rear. The rear end portion of the winding spring 260 is accommodated in the spring receiving portion 215 from the front. The spring receiving portion 237 is biased toward the front side opposite to the spring receiving portion 215 by the elastic force of the winding spring 260.

  When an external force larger than the elastic force of the winding spring 260 is not acting on the movable arm 230, the movable arm 230 is held at the advanced position (see FIGS. 17 and 18 described later). Specifically, the movable arm 230 rotates counterclockwise around the support column 234 according to the elastic force of the winding spring 260 when viewed from the upper side in the axial direction of the support column 234. Accordingly, when the pair of locking portions 238 move to the front side, the locking surfaces 241 come into contact.

  Accordingly, the movable arm 230 is restricted from rotating counterclockwise when viewed from the upper side in the axial direction of the support column 234 and is positioned at the advanced position. When an external force larger than the elastic force of the winding spring 260 acts on the movable arm 230, the movable arm 230 rotates in the clockwise direction as viewed from the upper side in the axial direction of the support column 234 according to the external force. Is possible. In this case, when the external force acting on the movable arm 230 disappears, the movable arm 230 returns to the advanced position by the elastic force of the winding spring 260.

  The third drive motor 270 is provided below the spring receiving portion 215 in the support portion 214. The rotation shaft of the third drive motor 270 is connected to the rotation center of the gear 271 provided on the upper right side of the third drive motor 270. The gear 271 meshes with a gear 272 provided on the left front side of the gear 271. A rotation axis C3 (see FIG. 16) passing through the rotation center of the gear 272 extends upward so as to be slightly inclined to the right, and is thus parallel to the axis of the support column 234.

  The gear 272 is provided with a cylindrical action pin 273 that protrudes from the upper surface thereof. The action pin 273 is provided radially outside the rotation axis C3 and extends in parallel with the rotation axis C3 to the same height position as the action surface 251. When the gear 272 rotates around the rotation axis C3, the action pin 273 rotates so as to draw a circular orbit around the rotation axis C3. The action surface 251 is within the range of the rotation locus of the action pin 173.

(5. Assembly structure of movable accessory 30)
With reference to FIG.3 and FIG.4, the assembly | attachment structure of the movable accessory 30 is demonstrated. The connecting portions 191 and 192 (see FIGS. 5 to 7) described above are fixed by screwing in a state where the upper ends of the support plate 211 and the connecting portion 212 (see FIGS. 8 and 9) are overlapped from the front side. Is done. Accordingly, the upper movable mechanism 100 and the lower movable mechanism 200 are connected side by side in the vertical direction, and the movable mechanism 40 is configured integrally.

  The decorative cover 50 is attached from the front side of the movable mechanism 40. On the back side of the neck portion 50A, screw holes (not shown) are provided at two locations corresponding to the connection holes 125 and 126. The neck 50A is fixed to the front side of the neck support portion 103 by screwing the screws inserted into the connection holes 125 and 126 into the screw holes of the neck portion 50A.

  A portion on the right side of the connection hole 54 in the chest 50B is supported from the back side by the upper support portion 102. The support plate 181 (see FIGS. 6 and 7) is fixed to the back surface of the chest 50B so that the opening 181A (see FIGS. 6 and 7) and the connection hole 54 communicate with each other. The locking piece 182 (see FIGS. 6 and 7) protrudes to the front side of the chest 50B through the opening 181A and the connecting hole 54. The edge of the connecting hole 54 in the chest 50B is sandwiched between the locking piece 182 and the support plate 181. Thereby, the chest part 50B is fixed to the front side of the upper operation part 104.

  The waist part 50C, the left thigh part 50D, and the right thigh part 50E are supported from the back side by the support surfaces 220A to 220C (see FIG. 8) of the lower support part 202, respectively. On the back side of the waist portion 50C, screw holes (not shown) are provided at two locations corresponding to the connection holes 223 and 225. The screws inserted into the connecting holes 223 and 225 are screwed into the respective screw holes of the waist portion 50C, so that the waist portion 50C, the left thigh portion 50D, and the right thigh portion 50E are located on the front side of the lower operation portion 203. Fixed.

  The cover ornament 60 is attached to the front side of the chest 50B so that the covering portion 61 covers the connection hole 54. The string portion 63 extends from the covering portion 61 toward the neck portion 50A. The distal end portion of the string portion 63 is coupled to the coupling hook 124 via the fixture 63A. The ornament 62 is provided with a connecting screw (not shown) that protrudes to the back side thereof. The connecting screw of the decoration 62 passes through the string portion 63 and is screwed into the screw hole 52. The string part 64 extends from the covering part 61 toward the left rear of the chest part 50B. The distal end portion of the string portion 64 is connected to the connection hook 185 via the fixture 64A. The string portion 65 extends from the covering portion 61 toward the right rear side of the chest portion 50B. The distal end portion of the string portion 65 is connected to the connection hook 186 via the fixture 65A. Thereby, the cover decoration 60 is fixed to the decorative cover 50 and the movable mechanism 40 in a state where the screw hole 52 and the connection hole 54 are concealed.

  The cover ornament 70 is attached to the front side of the waist portion 50 </ b> C so that the covering portion 71 covers the connection hole 55. A protrusion 71A provided on the back side of the cover 71 is connected to the connection hook 222 (see FIG. 8). The string portion 73 extends rearward and downward from the covering portion 71 via the left thigh portion 50D and the right thigh portion 50E. The distal end portion of the string portion 73 is connected to a connection hole 226 (see FIG. 10) provided in the lower back portion of the lower support portion 202 (see FIG. 8) via a fixture 73A.

  The string portion 74 extends from the covering portion 71 toward the left rear of the waist portion 50C. The distal end portion of the string portion 74 is connected to the connection hole 223 via the fixture 74A. The decorative object 72 is provided with a connecting screw (not shown) that protrudes to the back side thereof. The connecting screw of the ornament 72 passes through the string portion 74 and is screwed into the screw hole 53. The string portion 75 extends from the covering portion 71 toward the right rear side of the waist portion 50C. The distal end portion of the string portion 75 is connected to a connection hole 239 (see FIG. 10) provided in the lower back portion of the support column 231 via a fixture 75A. Thereby, the cover decoration 70 is fixed to the decoration cover 50 and the movable mechanism 40 in a state where the screw hole 53 and the connection hole 55 are concealed.

(6. Explanation of operation of upper movable mechanism 100)
The operation mode of the upper movable mechanism 100 will be described with reference to FIGS. 5 and 11 to 15. FIG. 11 is a state transition diagram schematically showing the upper operation unit 104 in a plan view, and the rotation direction of the gear 162 is indicated by a two-dot chain line. FIG. 14 is a state transition diagram schematically showing the upper operation unit 104 in the left side view, and the rotation direction of the gear 172 is indicated by a two-dot chain line.

  An operation in which the upper operation unit 104 swings the movable arm 140 in the left-right direction will be described. As shown in state T11 of FIG. 11, when the action pin 163 is behind the rotation axis C1, the action pin 163 is disposed in the vicinity of the rear end of the first groove portion 144 extending in the front-rear direction. At this time, as shown in FIG. 5, the movable arm 140 is in a posture extending perpendicular to the axis of the first shaft 130A. The first sensor 152 is in a position where the first detection plate 151 is detected. This state is referred to as the left / right reference position of the movable arm 140. When the first drive motor 160 rotates the gear 161 (see FIG. 6) clockwise in plan view, the gear 162 rotates counterclockwise in plan view. Along with this, the action pin 163 also rotates counterclockwise about the rotation axis C1, and contacts and urges the peripheral wall of the first groove portion 144 (that is, the inner surface of the first groove portion 144).

  As shown in state T12 of FIG. 11, when the action pin 163 rotates 90 degrees counterclockwise from the rear of the rotation axis C1, the action pin 163 slides with respect to the peripheral wall of the first groove 144, and the rotation axis Move to the left of C1. The first groove 144 moves to the left by the urging force of the rotating action pin 163. The movable arm 140 rotates clockwise around the second shaft 130B in plan view. While the first sensor 152 moves with the movable arm 140, the position of the first detection plate 151 provided in the interlocking unit 150 does not change. As a result, the action pin 163 is disposed at the center in the longitudinal direction in the first groove 144 that extends to the left front. As shown in FIG. 12, the movable arm 140 is tilted to the left of the left / right reference position. The first sensor 152 moves to the left side of the position shown in FIG. 5 but is in a position where the first detection plate 151 is detected.

  Although not shown, when the action pin 163 rotates 90 degrees counterclockwise from the left of the rotation axis C1, the action pin 163 moves to the front of the rotation axis C1 while sliding with respect to the peripheral wall of the first groove 144. To do. Due to the biasing force of the rotating action pin 163, the first groove 144 moves to the right. The movable arm 140 rotates counterclockwise around the second shaft 130B in plan view. As a result, the action pin 163 is disposed in the vicinity of the front end of the first groove 144 extending in the front-rear direction. As shown in FIG. 5, the movable arm 140 returns to the left-right reference position.

  As shown in state T13 in FIG. 11, when the action pin 163 rotates 90 degrees counterclockwise from the front of the rotation axis C1, the action pin 163 slides with respect to the peripheral wall of the first groove portion 144, and the rotation axis Move to the right of C1. Due to the biasing force of the rotating action pin 163, the first groove 144 moves to the right. The movable arm 140 rotates clockwise around the second shaft 130B in plan view. As a result, the action pin 163 is disposed at the center in the longitudinal direction in the first groove 144 extending rightward forward. As shown in FIG. 13, the movable arm 140 is inclined to the right side of the left and right reference position. The first sensor 152 moves to the right side from the position shown in FIG. 5 and is disposed at a position where the first detection plate 151 is not detected.

  Although not shown, when the action pin 163 rotates 90 degrees counterclockwise from the right side of the rotation axis C1, the action pin 163 moves to the rear of the rotation axis C1 while sliding against the peripheral wall of the first groove portion 144. To do. The first groove 144 moves to the left by the urging force of the rotating action pin 163. The movable arm 140 rotates clockwise around the second shaft 130B in plan view. As a result, the upper operation unit 104 returns to the state T11. As shown in FIG. 5, the movable arm 140 returns to the left-right reference position.

  An operation in which the upper operation unit 104 swings the movable arm 140 in the vertical direction will be described. As shown in state T21 of FIG. 14, when the action pin 173 is above the rotation axis C2, the action pin 173 is disposed in the vicinity of the upper rear end of the second groove portion 147. At this time, as shown in FIG. 5, the axis of the second shaft 130 </ b> B connected to the movable arm 140 is in a state of extending in the vertical direction. The second detection plate 156 is at a position detected by the second sensor 157. This state is referred to as the vertical reference position of the movable arm 140. When the second drive motor 170 rotates the gear 171 in the clockwise direction in the left side view, the gear 172 rotates in the counterclockwise direction in the left side view. Along with this, the action pin 173 also rotates counterclockwise about the rotation axis C2, and contacts and urges the peripheral wall of the second groove portion 147 (that is, the inner surface of the second groove portion 147).

  As shown in state T22 in FIG. 14, when the action pin 173 rotates 180 degrees counterclockwise from above the rotation axis C2, the action pin 173 slides against the peripheral wall of the second groove portion 147, and the rotation axis Move to below C2. The second groove 147 moves downward by the biasing force of the rotating action pin 173. The movable arm 140 rotates clockwise about the first shaft 130A in the left side view. The second detection plate 156 provided in the interlocking unit 155 moves with the movable arm 140, while the position of the second sensor 157 does not change. As a result, the action pin 173 is disposed in the vicinity of the lower front end of the second groove portion 147. As shown in FIG. 15, the movable arm 140 is inclined downward from the vertical reference position. The second detection plate 156 moves below the position shown in FIG. 5 and is disposed at a position that is not detected by the second sensor 157.

  Although not shown, when the action pin 173 rotates 180 degrees counterclockwise from below the rotation axis C2, the action pin 173 moves along the peripheral wall of the second groove 147 to above the rotation axis C2. The second groove 147 moves upward by the biasing force of the rotating action pin 173. The movable arm 140 rotates counterclockwise in the left side view about the first shaft 130A. As a result, the upper operating unit 104 returns to the state T21. As shown in FIG. 5, the movable arm 140 returns to the vertical reference position.

  As described above, the upper operating unit 104 can swing the movable arm 140 in the left-right direction in accordance with the drive of the first drive motor 160, and can swing the movable arm 140 in the up-down direction in accordance with the drive of the second drive motor 170. I can move. Even when the first drive motor 160 rotates the action pin 163 in the clockwise direction in plan view, the movable arm 140 swings in the left-right direction in the same manner as in FIG. Even when the second drive motor 170 rotates the action pin 173 in the clockwise direction when viewed from the left side, the movable arm 140 swings in the vertical direction in the same manner as in FIG.

  As described above, the mounting portion 180 of the movable arm 140 is connected to the chest 50B (see FIG. 3) of the decorative cover 50. Accordingly, the CPU (not shown) of the sub-board can execute various operations of the decorative cover 50 via the mounting portion 180 by controlling the driving of the first drive motor 160 and the second drive motor 170.

  Specifically, the CPU of the sub-board can adjust the horizontal position of the chest 50B by controlling the rotational position of the action pin 163, and can control the vertical position of the chest 50B by controlling the rotational position of the action pin 173. Can be adjusted. Specifically, the CPU of the sub-board can accurately adjust the left-right direction position of the chest 50B based on the left-right reference position of the movable arm 140 in accordance with the detection state of the first detection plate 151 by the first sensor 152. The CPU of the sub-board can accurately adjust the vertical position of the chest 50B based on the vertical reference position of the movable arm 140 according to the detection state of the second detection plate 156 by the second sensor 157.

  That is, the CPU of the sub-board can adjust the three-dimensional position of the chest 50B by controlling the rotational positions of the action pin 163 and the action pin 173. In this example, the CPU of the sub board normally holds the chest 50B at the initial position (see FIG. 3) by positioning the movable arm 140 at the left and right reference positions and the vertical reference position.

  For example, during the rendering operation of the movable accessory 30, the CPU of the sub board rotates the action pin 163 continuously. Thereby, since the movable arm 140 reciprocally swings in the left-right direction, the chest 50B can reciprocally swing in the left-right direction. Further, the CPU of the sub-board rotates the action pin 173 continuously. Thereby, since the movable arm 140 reciprocally swings in the vertical direction, the chest 50B can reciprocate in the vertical direction. Further, the CPU of the sub board rotates the action pin 163 and the action pin 173 continuously. Accordingly, the movable arm 140 swings in the circumferential direction around the left and right reference positions and the vertical reference position, so that the chest 50B can swing in the circumferential direction when viewed from the front.

  When the chest part 50B moves away from the neck part 50A (see FIG. 3) as the chest part 50B is swung or displaced, a tension larger than the elastic force of the winding spring 128 (see FIG. 6) is applied. May be granted. In this case, the winding spring 128 extends due to the tension applied to the neck 50A, and the movable arm 120 moves from the reference position in the direction in which the tension acts. Thereby, since the tension | tensile_strength provided to 50 A of neck parts is buffered, the failure | damage and damage of the decorative cover 50 can be suppressed. Furthermore, when the neck portion 50A is interlocked with the movement of the chest portion 50B, the movable accessory 30 can realize an effect closer to the action of the human body.

(7. Explanation of operation of lower movable mechanism 200)
With reference to FIGS. 16-18, the operation | movement aspect of the lower movable mechanism 200 is demonstrated. FIG. 16 is a state transition diagram schematically showing the lower operation unit 203 as seen from the upper side in the axial direction of the support column 234, and the rotation direction of the gear 272 is indicated by a two-dot chain line. In the states T32 and 33 in FIG. 16, the winding spring 260 in the spring receiving portions 215 and 237 is omitted.

  As shown in FIGS. 17 and 18, when the action pin 273 (see FIG. 9) does not press the action surface 251, the movable arm 230 is held at the advanced position by the elastic force of the winding spring 260. Since the third detection plate 252 is disposed in front of the third sensor 253, the third detection plate 252 is in a position where it is not detected by the third sensor 253.

  When the third drive motor 270 rotates the gear 271 in the counterclockwise direction as viewed from the upper side in the axial direction of the support column 234, the gear 272 rotates in the clockwise direction. Along with this, the action pin 273 rotates in the clockwise direction around the rotation axis C3. As shown in state T31 of FIG. 16, when the action pin 273 rotates to the left front of the rotation axis C3, the action pin 273 comes into contact with the approximate center of the action surface 251 in the left-right direction. When the action pin 273 further rotates in the clockwise direction, the action pin 273 slides to the right along the action surface 251 while pressing the action surface 251 backward against the elastic force of the winding spring 260.

  As shown in the state T32 of FIG. 16, when the action pin 273 rotates 120 degrees clockwise from the left front of the rotation axis C3, the action pin 273 moves to the right end of the action surface 251 and to the right of the rotation axis C3. Located behind. As the working surface 251 moves rearward, the movable arm 230 rotates clockwise about the support column 234. At this time, as shown in FIG. 9, the spring receiving portion 237 moves in the direction approaching the spring receiving portion 215, so that the winding spring 260 between the spring receiving portions 215 and 237 contracts. The third detection plate 252 moves rearward from the position shown in FIGS. 17 and 18 and is disposed at a position detected by the third sensor 253. This state is referred to as a reference position of the movable arm 230 (see FIGS. 8 and 9).

  As shown in state T33 of FIG. 16, when the action pin 273 rotates in the clockwise direction from the right rear of the rotation axis C3, the action pin 273 is separated from the action surface 251 to the right side. As a result, the movable arm 230 rotates counterclockwise about the support column 234 by the elastic force of the winding spring 260. As shown in FIGS. 17 and 18, the movable arm 230 returns to the advanced position.

  On the other hand, when the third drive motor 270 rotates the gear 271 in the clockwise direction as viewed from the upper side in the axial direction of the support column 234, the gear 272 rotates in the counterclockwise direction. Although not shown, when the action pin 273 rotates counterclockwise from the right rear (see state T32) of the rotation axis C3, the action pin 273 slides to the left from the right end portion of the action surface 251. At this time, as the action surface 251 moves forward by the elastic force of the winding spring 260, the movable arm 230 rotates counterclockwise about the support column 234. When the action pin 273 rotates 120 degrees counterclockwise from the right rear side of the rotation axis C3 (see state T31), the action pin 273 moves to the contact in the substantially horizontal center of the action surface 251 and to the left of the rotation axis C3. Arranged forward. Thereby, the movable arm 230 is displaced from the reference position to the advanced position.

  As described above, the lower operation unit 203 can swing the movable arm 230 in accordance with the drive of the third drive motor 270. As described above, the lower support portion 202 fixed to the lower operation portion 203 is connected to the waist portion 50C (see FIG. 3) of the decorative cover 50. Therefore, the CPU of the sub-board can execute various operations of the decorative cover 50 via the lower support portion 202 by driving and controlling the third drive motor 270.

  Specifically, the CPU of the sub board can adjust the position of the waist 50C by controlling the rotational position of the action pin 273. Specifically, the CPU of the sub-board can accurately adjust the position of the waist 50C based on the reference position of the movable arm 230 in accordance with the detection state of the third detection plate 252 by the third sensor 253. In this example, the CPU of the sub board normally holds the waist 50C at the initial position (see FIG. 3) by positioning the movable arm 140 at the reference position (see FIGS. 8 and 9).

  For example, during the rendering operation of the movable accessory 30, the CPU of the sub board rotates the action pin 273 in the clockwise direction to displace the movable arm 230 from the reference position to the advanced position (see FIGS. 17 and 18). In this case, when the action pin 273 is separated from the action surface 251 to the right side, the movable arm 230 is instantaneously displaced by the elastic force of the winding spring 260, so that the waist 50C swings at high speed. Alternatively, the CPU of the sub-substrate displaces the movable arm 230 from the reference position to the advanced position by rotating the action pin 273 counterclockwise from the right rear of the rotation axis C3. In this case, as the action pin 273 moves to the left along the action surface 251, the movable arm 230 is gradually displaced by the elastic force of the winding spring 260, so that the waist 50C swings at a constant speed. Thus, it is possible to realize an effect operation in which the waist 50C is quickly twisted and an effect operation in which the waist 50C is slowly twisted.

  Further, the CPU of the sub-board may reciprocally rotate the action pin 273 in the range from the left front to the left rear of the rotation axis C3 (that is, in the range where the action pin 273 contacts the action surface 251). In this case, since the action pin 273 slides in the left-right direction with respect to the action surface 251, the lower support portion 202 reciprocally swings. As a result, it is possible to realize an effect of reciprocating and swinging the waist 50C with a natural motion. Therefore, the movable accessory 30 can realize an effect closer to the movement of the human body.

(8. Illustrative effects and modifications of this embodiment)
In the movable accessory 30 according to the present embodiment, the movable arm 140 extending in a predetermined direction is rotatably supported by the support shaft 130. The first drive motor 160 operates the gear 162 to rotate the action pin 163 substantially parallel to the vertical direction around the rotation axis C1. When the action pin 163 rotates inside the first groove portion 144, the movable arm 140 swings around the vertical direction as the rotation center. The second drive motor 170 operates the gear 172 to rotate the action pin 173 substantially parallel to the left-right direction perpendicular to the up-down direction about the rotation axis C2. When the action pin 173 rotates inside the second groove portion 147, the movable arm 140 swings about the left-right direction as the center of rotation.

  Therefore, since the movable accessory 30 can swing the movable arm 140 in various directions, it is possible to execute a game effect with more various movements. For example, in this embodiment, the chest part 50 </ b> B of the decorative cover 50 is connected to the movable arm 140 via the mounting part 180. The movable accessory 30 can realize an effect closer to the action of the human body by swinging the chest 50B in various directions via the movable arm 140.

  In the movable accessory 30, the movable arm 230 that moves in the clockwise direction and the counterclockwise direction, which are opposite to each other, is urged counterclockwise by the elastic force of the winding spring 260. As the gear 272 rotates about the rotation axis C3, the action pin 273 rotates in the clockwise direction and the counterclockwise direction that are opposite to each other, so that the contact position and the action surface that contact the action surface 251 are contacted. It is displaced to a separation position separated from 251. When the action pin 273 is rotated in the clockwise direction in the contact position, the action pin 273 moves the movable arm 230 in the clockwise direction against the elastic force of the winding spring 260. When the action pin 273 is in the contact position and rotates counterclockwise, the movable arm 230 moves in the counterclockwise direction together with the action pin 273 according to the elastic force of the winding spring 260.

  Therefore, since the game member can move the movable arm 230 using the elastic force of the winding spring 260, it is possible to execute game effects with more various movements. For example, in the present embodiment, the waist portion 50 </ b> C of the decorative cover 50 is connected to the movable arm 230 via the lower support portion 202. The movable accessory 30 can realize an effect closer to the action of the human body by swinging the waist 50C instantaneously or gradually via the movable arm 230.

  In the above embodiment, the movable accessory 30 corresponds to the “game member” of the present invention. The movable arm 230 corresponds to the “movable part” of the present invention. The winding spring 260 corresponds to the “elastic body” of the present invention. The rotation axis C3 corresponds to the “rotation axis” of the present invention. The action pin 273 corresponds to the “action part” of the present invention. The gear 272 corresponds to the “rotary body” of the present invention. The locking surface 241 corresponds to the “position holding portion” of the present invention.

  The present invention is not limited to the above embodiment, and various modifications can be made. The movable accessory 30 may include any one of the upper movable mechanism 100 and the lower movable mechanism 200. That is, the upper movable mechanism 100 and the lower movable mechanism 200 may be game members independent of each other. In the upper movable mechanism 100, the decorative body operated by the movable arm 140 is not limited to the chest 50B of the decorative cover 50, and may be another decorative body. In the lower movable mechanism 200, the decorative body operated by the movable arm 230 is not limited to the waist portion 50C of the decorative cover 50, and may be another decorative body. The movable accessory 30 may not include the neck support portion 103.

  The movable arm 140 may be rotationally supported by another mechanism (for example, an elastic member that can be bent in various directions) instead of the support shaft 130, or may be rotationally supported by a plurality of members (for example, a plurality of independent shafts). May be. The moving direction of the movable arm 230 may be different from the rotating direction of the action pin 273. For example, the moving direction of the movable arm 230 is not limited to the circumferential direction around the support column 234, and may be a linear direction or a curved direction. Instead of the winding spring 260, another elastic body (for example, compression rubber) may be disposed between the spring receiving portions 215 and 237. At least one of the first drive motor 160, the second drive motor 170, and the third drive motor 270 may be a power source other than the motor.

  It should be noted that all elements described in the claims, specification and drawings (for example, an image display device, a start port, etc.) are physically single unless explicitly stated to limit the number. Alternatively, there may be a plurality of arrangements, and the arrangement may be changed as appropriate. Further, the names (element names) given to the elements are merely given for convenience in describing the present case, and there is no particular awareness that a special meaning is caused thereby. Therefore, what is an element is not limitedly interpreted only by the element name. For example, the “game member” may be a single hardware or a software.

  Furthermore, it is easy for a person skilled in the art to determine whether a plurality of elements among all the above elements should be integrally configured as appropriate, or whether one element is divided into a plurality of elements. Since it is clear that all patterns are within the expected range even if not all the patterns are described in the description etc., the statement that they are clearly excluded in the claims etc. Needless to say, all of these are included in the scope of the right according to the present invention. Therefore, merely adopting the difference in configuration within the range to the gaming machine because it is not described in the present embodiment does not mean that the right according to the present invention is avoided. . The same applies to differences in obvious ranges that can be easily considered by those skilled in the art from the present embodiment in the configuration and shape of each element.

30 Movable accessory 230 Movable arm 241 Locking surface 260 Winding spring 272 Gear 273 Action pin

Claims (4)

A gaming member used for directing a game,
Centering on a support pillar extending in a first direction orthogonal to the front-rear direction, the front plate can be rotated in the rear direction which is opposite to the front direction, and a decorative plate-like member is fixed to the front side Moving parts;
Provided on the rear side of the movable portion, and an elastic body having an elastic force for biasing the movable portion in the front direction,
A rotating body that is provided at a position away from the movable part in the first direction and on the rear side of the plate-like member and rotates about a rotation axis extending in the first direction ;
An action portion that extends in the first direction from the rotating body toward the movable portion, and is provided at a position away from the rotation axis in a second direction orthogonal to the first direction ;
The action part rotates on the rear side of the plate-like member in the fourth direction, which is opposite to the third direction and the third direction, with the rotation of the rotating body, and from the front side to the movable part. Displaced to a contact position to contact and a separation position separated from the movable part,
In a state in which the working portion is in the contact position, when the working portion is rotated in said third direction, wherein the working portion is Ko' the elastic force of the elastic body, rotating the movable portion in the rear direction in Rukoto is, by rotating the plate-like member in the rear direction,
In a state in which the working portion is in the contact position, when the working portion is rotated in said fourth direction, said movable portion in accordance with the elastic force of the elastic body, the front with the working unit that rotates the fourth direction by turning in the direction, the game members, characterized in that rotating the plate-like member in the forward direction. The said movable part rotates to the said front direction according to the elastic force of the said elastic body, when the said action part rotated to the said 3rd direction is displaced from the said contact position to the said separation position. The gaming member as described. If the movable portion is rotated in the forward direction to a predetermined position according to the elastic force of the elastic body, that in contact with the movable portion to restrict movement of the forward direction, the movable portion to the predetermined position The game member according to claim 1, further comprising a position holding unit for holding. A gaming machine comprising the gaming member according to any one of claims 1 to 3.

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