Gyro toy component and gyro toy

Abstract

The utility model provides a kind of component for gyro toy, can dismounting shaft component (200), with the state of installing shaft component (200) on gyro toy (1000) to rotate with shaft component (200) as center first trunk (110), part of first trunk is equipped with the hole portion (114) for inserting shaft component (200), hole portion and part of first trunk rotate relative to other parts, change the outer shape of first trunk.Using the utility model, provide the component for gyro toy and gyro toy that can change performance in the game of war.

Description

Technical Field

[0001] This utility model relates to components for spinning top toys and spinning top toys. Background Technology

[0002] Previously, a gyroscope toy body having an insertion hole and an axis that can be inserted and removed relative to the insertion hole was known, and the rotation characteristics could be changed by changing the axis (see, for example, Patent Document 1).

[0003] This spinning top toy is used, for example, in battle games where spinning tops collide with each other.

[0004] Patent Document 1: Japanese Patent No. 7349003

[0005] While the rotation characteristics of the aforementioned spinning top toys can be changed by replacing the axis, a new structure is needed that can alter the performance of the spinning top toys in battle games. Utility Model Content

[0006] The purpose of this invention is to provide a component for a spinning top toy that can change performance in a battle game, as well as the spinning top toy itself.

[0007] The first component for a spinning top toy provided by this utility model includes a first body that can be detached from a shaft component and rotates around the shaft component when the shaft component is installed on the spinning top toy. A portion of the first body has a hole for inserting the shaft component. The hole and the portion rotate relative to the other parts, causing the outer peripheral shape of the first body to change.

[0008] The second type of component for a spinning top toy provided by this utility model is based on the first type of component for a spinning top toy. The first body is composed of multiple layers, and the hole is provided on one of the layers that is part of the first body. This layer can rotate within a specified range relative to the other layers that are other parts.

[0009] The third type of component for a spinning top toy provided by this utility model is based on the second type of component for a spinning top toy, wherein, after the outer peripheral shape of the first body changes, the shaft component can rotate relative to the part of the first body.

[0010] The fourth type of component for a spinning top toy provided by this utility model is based on the third type of component for a spinning top toy, wherein the first body has a clutch mechanism that bears the rotational force of the shaft component through the hole.

[0011] The fifth type of component for a spinning top toy provided by this utility model is based on the fourth type of component for a spinning top toy, wherein the rotational resistance of the clutch mechanism is greater than the force required for the layer to rotate relative to the other layers.

[0012] The sixth type of component for a spinning top toy provided by this utility model is based on the fifth type of component for a spinning top toy, wherein the component constituting the clutch mechanism is formed of a material that is harder than the component constituting the outer periphery of the first body.

[0013] The seventh type of component for a spinning top toy provided by this utility model is based on the second type of component for a spinning top toy. The first body has a lower layer as the first layer and an upper layer as other layers. The outer periphery of the lower layer has multiple radially protruding lower layer protrusions formed at predetermined intervals along the circumference. The outer periphery of the upper layer has multiple radially protruding upper layer protrusions formed at predetermined intervals along the circumference.

[0014] The eighth type of component for a spinning top toy provided by this utility model is based on the seventh type of component for a spinning top toy. In this case, the lower layer rotates relative to the upper layer, so that the protrusion of the lower layer is in a position hidden by the protrusion of the upper layer and in a position exposed between adjacent protrusions of the upper layer.

[0015] The ninth type of component for a spinning top toy provided by this utility model is based on the eighth type of component for a spinning top toy, wherein the front edge of the lower protrusion is arc-shaped.

[0016] The first type of spinning top toy provided by this utility model includes any one of the first to ninth types of spinning top toy components, a second body that can be fixed to the first body, and the shaft component that can be inserted into the hole formed in the second body.

[0017] The second type of spinning top toy provided by this utility model is based on the first type of spinning top toy, wherein the spinning top toy is not launched after the outer peripheral shape of the first body changes.

[0018] The third type of spinning top toy provided by this utility model is based on the second type of spinning top toy, wherein the other parts are formed with an arc-shaped hole for applying rotational force to the spinning top toy, and a protrusion that interferes with the arc-shaped hole is formed after the outer peripheral shape of the first body changes.

[0019] The fourth type of spinning top toy provided by this utility model is based on the first type of spinning top toy, wherein the shaft component has a gear that meshes with the toothed track formed by the arena for the spinning top toy to battle.

[0020] According to this invention, by rotating a portion of the first body relative to the other portions of the first body, the outer peripheral shape of the first body changes, thereby altering the performance of the spinning top toy in a battle game. Attached Figure Description

[0021] Figure 1This is a side view of the spinning top toy of the first embodiment of this invention.

[0022] Figure 2 This is a top view of the spinning top toy in the first embodiment of this invention.

[0023] Figure 3 This is a side view of the second embodiment of the spinning top toy.

[0024] Figure 4 This is a top view of the second embodiment of the spinning top toy.

[0025] Figure 5 It is a 3D diagram showing the disassembled state of a spinning top toy during a spinning top battle.

[0026] Figure 6 It is a three-dimensional dissection of the upper torso.

[0027] Figure 7 This is a top view of the upper part from below.

[0028] Figure 8 This is a top view of the lower section from below.

[0029] Figure 9 This is a 3D view of the lower panel from above.

[0030] Figure 10 This is a 3D view of the lower panel from below.

[0031] Figure 11 This is a top view of the lower section and lower plate in the first state.

[0032] Figure 12 This is a top view of the lower section and lower plate in the second state.

[0033] Figure 13 It is an exploded three-dimensional diagram of the lower torso assembly.

[0034] Figure 14 It is a 3D view of the upper panel.

[0035] Figure 15 This is a top view of the spinning top toy with the upper body and top plate removed.

[0036] Figure 16 It is a three-dimensional view of the shaft component and its surroundings.

[0037] Figure 17 This is a three-dimensional view of the shaft component.

[0038] Figure 18 This is a top view of the torso assembly from above.

[0039] Figure 19This is a top view of the torso assembly from above.

[0040] Figure 20 This is a 3D diagram of a gyroscope launching device.

[0041] Figure 21 This is a 3D rendering of the battle arena. Detailed Implementation

[0042] Figure 1 This is a side view of the spinning top toy 1000 of the first embodiment of this invention. Figure 2 This is a top view of the first form of the spinning top toy 1000. Figure 3 This is a side view of the second form of the spinning top toy 1000. Figure 4 This is a top view of the second form of the spinning toy 1000.

[0043] The Spinning Top Toy 1000 is used for spinning top battles where players collide and fight against other spinning top toys.

[0044] The spinning top toy 1000 includes a body 100 consisting of an upper body 110 (first body) and a lower body assembly 120 (second body), and a rod-shaped shaft member 200. The upper body 110 is included in the spinning top toy components. The outer shape of the upper body 110 can change from a first form to a second form during spinning top battles.

[0045] Figure 5 This is a 3D diagram showing the disassembled state of the 1000 spinning top toy during a spinning top battle.

[0046] like Figure 5 As shown, the spinning top toy 1000, as the result of a spinning top battle, can be disassembled into two parts: the upper body 110 and the lower body assembly 120, and the shaft component 200.

[0047] 1000 Spinning Top Toys

[0048] The spinning top toy 1000 can be made primarily of plastic, but it can also be constructed using other parts.

[0049] <Upper torso 110>

[0050] The upper body 110 rotates around the shaft component 200 in the assembled state of the gyroscope toy 1000.

[0051] Figure 6 This is an exploded three-dimensional view of the upper torso 110.

[0052] The upper body 110 is composed of an upper part 111 (upper layer), a lower part 112 (lower layer) and a lower plate 113, and consists of multiple layers.

[0053] While the upper part 111 is not particularly limited, it is a composite assembly consisting of multiple parts. For example, the upper part 111 may include a metal flywheel.

[0054] The upper protrusion 111a protruding outward from the outer periphery of the upper layer 111 is formed, for example, at three predetermined intervals.

[0055] An arc-shaped hole 111b extending concentrically with the shaft member 200 on the inner side of the outer periphery of the upper part 111 is formed at three predetermined intervals in the circumferential direction. The number of arc-shaped holes 111b is not limited to three. This arc-shaped hole 111b is used when applying rotational force to the spinning top toy 1000.

[0056] Figure 7 This is a top view of the upper part 111 from below.

[0057] A threaded boss 111c is provided on the lower part of the upper part 111 for engagement with the bolt 117 described later.

[0058] The lower part 112 rotates relative to the upper part 111, causing the outer periphery shape of the upper body 110 to change.

[0059] The lower layer 112 has a cylindrical portion 114 (hole portion) disposed in the center of the lower layer 112 and an outer peripheral portion 115 forming the outer periphery of the lower layer 112, and preferably also has a connecting portion 116 connecting the cylindrical portion 114 and the outer peripheral portion 115.

[0060] Figure 8 This is a top view of the lower section 112 from below.

[0061] The inner part of the cylindrical portion 114 is inserted from below into one end of the shaft member 200.

[0062] The inner peripheral wall of the cylindrical portion 114 has protrusions 114a that protrude from the upper end to the center of the cylindrical portion 114 at eight predetermined intervals. The number of protrusions 114a is not limited to eight. Alternatively, multiple protrusions 114a may be formed at unequal intervals on the inner peripheral wall of the cylindrical portion 114. The protrusions 114a engage with the joint portion 20a of the shaft member 200, which will be described later. That is, the multiple protrusions 114a function as the joined portion for transmitting the rotational force of the shaft member 200 by engaging with the joint portion 20a.

[0063] The outer peripheral wall of the cylindrical portion 114 has an uneven shape, which engages and slides in contact with the protrusion 116c of the connecting portion 116 (described later), thus forming a clutch mechanism. Therefore, the cylindrical portion 114 is rotatably held relative to the connecting portion 116. This clutch mechanism bears the rotational force of the shaft member 200 through the cylindrical portion 114. The form of the clutch mechanism is not limited to this. For example, the cylindrical portion 114 and the connecting portion 116 may be an integral part, or the engaging portion 20a of the shaft member 200 and the protrusion 114a may be a click mechanism in which a certain resistance is encountered.

[0064] The lower protrusions 115a protruding outward from the outer periphery 115 are formed, for example, at three predetermined intervals. Multiple lower protrusions 115a may be formed at unequal intervals in the periphery 115.

[0065] The front edge of the lower protrusion 115a is, in one example, arc-shaped.

[0066] The connecting portion 116 has an annular portion 116a surrounding the cylindrical portion 114 and a protrusion 116b (plate) protruding outward from the outer peripheral wall of the annular portion 116a.

[0067] Each protrusion 116b can move within a specified range between the two protrusions 113b, 113b of the lower plate 113, centered on the shaft member 200.

[0068] The inner peripheral wall of the annular portion 116a has protrusions 116c that project toward the center of the annular portion 116a at three predetermined intervals. The outer peripheral wall of the annular portion 116a has outwardly protruding second protrusions 116d.

[0069] The protrusion 116b is formed, for example, at three predetermined intervals, connecting the connecting portion 116 and the outer peripheral portion 115.

[0070] Any one of the three protrusions 116b is formed with a first protrusion 116e that protrudes from the side of the protrusion 116b.

[0071] Furthermore, when the cylindrical portion 114 rotates relative to the connecting portion 116, the outer peripheral wall of the cylindrical portion 114 slides into contact with the protrusion 116c, which is prone to wear due to friction. Therefore, the cylindrical portion 114 and the connecting portion 116 are preferably formed of a hard material with wear resistance. The cylindrical portion 114 and the connecting portion 116 may also be formed without using a hard material.

[0072] On the other hand, the outer periphery 115 may collide with other spinning top toys during battle games, so it is preferable to make it from a softer material than the cylindrical part 114 and the connecting part 116. The outer periphery 115 may also be made from a material other than soft material.

[0073] Figure 9 This is a 3D view of the lower panel 113 from above.

[0074] An insertion hole 113a for inserting the cylindrical part 114 is formed in the center of the lower plate 113.

[0075] The protrusion 113b in the lower plate 113, which protrudes upward from the top surface on the outer side of the insertion hole 113a and on the inner side of the outer periphery, is formed, for example, at three predetermined intervals.

[0076] A countersunk hole 113c is formed in the center of the protrusion 113b for inserting a bolt 117 from below.

[0077] A first joint 113d is formed on the circumferential side of the protrusion 113b.

[0078] A second joint 113e is formed on the central side surface of the protrusion 113b.

[0079] Figure 10 This is a 3D view of the lower panel 113 from below.

[0080] A butterfly-shaped fitting wall 113f surrounding the insertion hole 113a is erected on the lower plate 113. The fitting wall 113f provides a space for the upper plate 14 (see reference). Figure 13 At least a portion of the interlocking wall 113f is fitted together. The outer side of the interlocking wall 113f is formed with a bonding piece 113g used when the upper body 110 and the lower body assembly 120 are joined together.

[0081] In this embodiment, the lower plate 113 is used for clockwise rotation, but by changing the formation position of the connecting piece 113g, it can be used for counterclockwise rotation.

[0082] In the threaded boss 111c of the upper part 111, the bolt 117, which passes through the countersunk hole 113c of the lower plate 113, is screwed into the lower part 112 while it is held between the upper part 111 and the lower plate 113.

[0083] <First Form Upper Body 110>

[0084] In the first form of the upper body 110, such as Figure 1 , Figure 2 As shown, the lower protrusion 115a is positioned between the adjacent upper protrusion 111a. Therefore, the outer periphery of the upper body 110 in the first form is approximately circular in the top view. Furthermore, in the upper body 110 of the first form, the protrusion 116b of the connecting portion 116 is positioned to overlap with the position between the two arc-shaped holes 111b of the upper portion 111. That is, the protrusion 116b is positioned not to overlap with the arc-shaped holes 111b themselves.

[0085] Figure 11 This is a top view of the upper body 110 in the first form, looking at the lower part 112 and the lower plate 113 from above.

[0086] In the first form of the upper body 110, the protrusion 113b abuts against the projection 116b, and the first protrusion 116e joins with the first joint 113d.

[0087] <Second Form Upper Body 110>

[0088] In the second form of the upper trunk 110, such as Figure 3 , Figure 4 As shown, the lower protrusion 115a is positioned where it is hidden from the upper protrusion 111a when viewed from above. Therefore, the outer periphery of the upper body 110 in the second form is approximately triangular in the top view.

[0089] In addition, in the second form of the upper body 110, the protrusion 116b of the connecting part 116 is positioned at a position that overlaps with the arc-shaped hole 111b of the upper part 111.

[0090] Figure 12 This is a top view of the lower part 112 and lower plate 113 of the upper body 110 in the second form, viewed from above.

[0091] In the second form of the upper body 110, the protrusion 113b abuts against the projection 116b, and the second protrusion 116d joins with the second joint 113e.

[0092] (Lower body assembly 120>

[0093] Figure 13 This is an exploded three-dimensional view of the lower torso assembly 120.

[0094] The lower body assembly 120 includes a wheel-shaped body 13 constituting the lower body, and an upper plate 14 and a lower plate 15 that clamp the wheel-shaped body 13 from above and below. The upper plate 14 and the lower plate 15 constitute the support for the wheel-shaped body 13, rotatably supporting the wheel-shaped body 13 about the shaft member 200. The upper plate 14 and the lower plate 15 constitute the support for the wheel-shaped body 13 and rotate together with the upper body 110 in a normal state. Here, "normal state" refers to the state in which the spinning top toy 1000 rotates without contact with other spinning top toys or the battle arena 90 described later.

[0095] The wheel-shaped body 13 is hexagonal in the top view. The shape of the wheel-shaped body 13 is not limited to this; it can be any shape that can withstand external impacts during spinning top battles. Preferably, the outer periphery has undulations.

[0096] The wheel-shaped body 13 has two opposing positions on its upper surface that are located between the center line and the center line. The two upright walls 13a extend in an arc shape along the circumference. Each upright wall 13a has a protective connecting piece 13bL and 13bR that protrudes inward.

[0097] An upright partition 13c is formed between the connecting pieces 13bL and 13bR. These connecting pieces 13bL and 13bR selectively engage with the connecting piece 113g of the lower plate 113. That is, connecting piece 13bL is used when the spinning top toy 1000 rotates counterclockwise, and connecting piece 13bR is used when the spinning top toy 1000 rotates clockwise. In this embodiment, the lower body assembly 120 is for bidirectional rotation (clockwise and counterclockwise rotation). That is, by replacing the upper body 110, the spinning top toy 1000 can be changed to rotate clockwise or counterclockwise.

[0098] In addition, the inner circumference of the ring-shaped body 13, as Figure 15 As shown, in a top view, a crescent-shaped protrusion 16b, which is adjacent to the movable member 16 described later, is embedded in a crescent-shaped recess 13d and 13e. A protrusion 13f is formed between the recesses 13d and 13e. Here, the recess 13d engages with the protrusion 16b described later when the spinning top toy 1000 is assembled for clockwise rotation, and the recess 13e engages with the protrusion 16b when the spinning top toy 1000 is assembled for counterclockwise rotation.

[0099] Figure 14 This is a 3D view of the upper plate 14.

[0100] The upper plate 14 has a circular core 14b in plan view, into which an insertion hole 14a is formed for the insertion of a shaft member 200, and fan-shaped protrusions 14c, 14c in plan view, protruding from the core 14b in a mutually separating direction.

[0101] On the lower side of the core 14b, at two positions facing each other along the center line, there are elastic plates 14e that protrude downwards and have inward claws 14d at their front ends. The two elastic plates 14e, 14e expand or contract radially in the core 14b through elasticity.

[0102] On the other hand, the protrusion 14c is formed with a countersunk hole 14f. Each protrusion 14c is disposed between the two upright walls 13a, 13a of the wheel-shaped body 13. Each protrusion 14c can move between the two upright walls 13a, 13a with the shaft member 200 as the center.

[0103] A guide wall 15a is erected on the upper surface of the lower plate 15, which is embedded inside the wheel-shaped body 13 and slides to guide the rotation of the wheel-shaped body 13. An insertion hole 15b is formed on the inner side of the guide wall 15a for inserting a shaft member 200. In addition, bosses 15c and 15d with internal threads are erected on the upper surface of the lower plate 15 at two positions facing each other between the center lines.

[0104] Figure 15 This is a top view of the spinning top toy 1000 with the upper body 110 and upper plate 14 removed.

[0105] One of the bosses 15c is a rectangular protrusion in plan view, and a movable member 16, which is hollow and rectangular in plan view, is embedded in the boss 15c. The movable member 16 is not particularly limited, but may be made of, for example, POM (polyoxymethylene). The radial length of the hollow portion is greater than the radial length of the boss 15c, allowing the movable member 16 to move within a specified radial range. An arcuate portion 16a is formed on the inner side of the movable member 16, which abuts against the outer periphery of the shaft member 200. On the other hand, a crescent-shaped protrusion 16b is formed on the outer side of the movable member 16 in plan view. The protrusion 16b is embedded in one of the recesses 13d and 13e on the inner periphery of the wheel-shaped body 13, depending on the rotational position of the wheel-shaped body 13 relative to the lower plate 15. The depth of the recesses 13d and 13e is set such that even if the movable member 16 moves radially inward, the protrusion 16b will not dislodge from the recesses 13d and 13e. However, when an external force of a specified magnitude acts between the wheel-shaped body 13 and the support body, the wheel-shaped body 13 undergoes elastic deformation through mutual sliding contact, and the protrusion 16b disengages from the concave portions 13d and 13e, that is, passes over the protrusion 13f, and the wheel-shaped body 13 rotates relative to the support body.

[0106] In addition, in the internally threaded bosses 15c and 15d, when the wheel-shaped body 13 is clamped by the upper plate 14 and the lower plate 15, the bolt 14g is screwed through the countersunk hole 14f of the upper plate 14.

[0107] Shaft Component 200

[0108] Figure 16 This is a perspective view showing the shaft member 200 and its surroundings. The wheel-shaped body 13 and the lower plate 15 are omitted in the figure. Figure 17 This is a perspective view of shaft component 200.

[0109] The shaft component 200 is a component that can be attached to or detached from the body 100.

[0110] The shaft member 200 is rod-shaped. The shaft member 200 has an insertion portion 200A into which insertion holes 14a and 15b can be inserted, and a protrusion 200B protruding downward from the lower body assembly 120. The insertion portion 200A and the protrusion 200B are axially engaged and connected to each other by a pin (not shown). The lower end of the protrusion 200B forms a grounding portion.

[0111] The shaft member 200 is detachably constructed from below the insertion hole 15b.

[0112] The insertion part 200A is inserted into the hole of the torso 100 when the spinning toy 1000 is assembled.

[0113] An insert portion 200AA is formed on the upper part of the insertion portion 200A. The outer peripheral wall of the insert portion 200AA has outwardly protruding engagement portions 20a at two opposing positions facing the center line. The insert portion 200AA is inserted into the interior of the cylindrical portion 114 in the assembled state of the spinning top toy 1000. At this time, the engagement portions 20a engage with the engaged portion inside the cylindrical portion 114. Therefore, the shaft member 200 can rotate integrally with the cylindrical portion 114.

[0114] Below the fitting portion 200AA, for example, an arc-shaped portion 16a of a movable member 16 is formed that can abut against the abutted portion 23. As a result, rotational resistance is formed between the wheel-shaped body 13 and the shaft member 200. Figure 17 The example shown depicts a mating portion 23 with an outer diameter larger than that of the fitting portion 200AA, but it is not limited to this. The outer diameter of the mating portion 23 may be the same as that of the fitting portion 200AA.

[0115] Furthermore, a reduced diameter portion 26 is formed around the entire circumference directly below the abutting portion 23. This reduced diameter portion 26 is divided by a circumferential partition, and the divided recesses are as follows: Figure 16 As shown, the claw 14d can be inserted. Through the engagement of the recess of the reduced diameter portion 26 with the claw 14d, the claw 14d engages with the reduced diameter portion 26, and the shaft member 200 is held by the claw 14d. Thus, the shaft member 200 can be inserted and fixed into the hole formed in the lower body assembly 120, which serves as the second body body.

[0116] A flange 27 projecting radially outward is formed around the entire circumference of the lower portion 26. The flange 27 forms part of the protrusion 200B. The flange 27 abuts against the lower plate 15 when the shaft member 200 is inserted from below into the insertion holes 15b and 14a of the lower body assembly 120, and the shaft member 200 is held by the claw 14d. The flange 27 has an upwardly tapered portion above it, thereby ensuring that the shaft member 200 is held in a centered position when it is inserted into the insertion hole 15b of the lower plate 15.

[0117] In addition, in the protrusion 200B, a gear 28 is formed below the flange 27, which meshes with the tooth 93a of the battle arena 90 described later.

[0118] Assembly Instructions for Spinning Top Toys

[0119] First, the lower protrusion 115a is positioned between the adjacent upper protrusion 111a, so that the upper body 110 is in the first state.

[0120] Figure 18 and Figure 19 This is a top view of the torso assembly 120 from above.

[0121] Next, since the upper body 110 is for clockwise rotation, the upper plate 14 and the wheel-shaped body 13 are rotated relative to each other, aligning the triangular mark RM on the "R" side of the upper plate 14 with the triangular mark M on the wheel-shaped body 13 (see reference). Figure 18 At this time, the protrusion 16b of the movable member 16 is embedded in the recess 13e of the inner circumference of the wheel-shaped body 13.

[0122] In this state, the fitting wall 113f of the upper plate 14 and the lower plate 113 is aligned, and the upper body 110 and the lower body assembly 120 are connected. Thus, a portion of the upper plate 14 is embedded in the fitting wall 113f.

[0123] In this state, the wheel-shaped body 13 is rotated clockwise relative to the upper body 110. At this time, the upper plate 14 rotates counterclockwise with the upper body 110 relative to the wheel-shaped body 13, and the triangular mark LM on the upper plate 14 coincides with the triangular mark M on the wheel-shaped body 13 (see reference). Figure 19 Thus, the lower surface of the connecting piece 13bR of the wheel-shaped body 13 abuts against the upper surface of the connecting piece 113g of the lower plate 113, and the lower body assembly 120 is joined to the upper body 110. In addition, the protrusion 16b of the movable member 16 extends beyond the protrusion 13f and is inserted into the recess 13d.

[0124] Next, the shaft member 200 is inserted into the lower body assembly 120 from below. The shaft member 200 is then held by the claw 14d, which engages with the reduced diameter portion 26. However, the shaft member 200 can be easily removed from the lower body assembly 120 by pulling it downwards.

[0125] The spinning top toy 1000 is now assembled.

[0126] Additionally, when the spinning toy 1000 is used for counter-clockwise rotation, first align the triangular mark LM on the "L" side of the upper plate 14 with the triangular mark M on the wheel-shaped body 13, and then attach the lower body assembly 120 to the upper body 110. The relative rotation direction during this assembly is the opposite of the above.

[0127] Disassembly of 1000 Beyblade Toys in Beyblade Battles

[0128] In a spinning top battle, when the opponent's spinning top hits the wheel-shaped body 13, applying an external force to the wheel-shaped body 13 in the opposite direction to the rotation of the spinning top 1000, the rotation of the wheel-shaped body 13 stops, while the upper body 110 and the support body continue to rotate due to inertia. As a result, the wheel-shaped body 13 rotates counterclockwise relative to the support body. Through sliding contact, the protrusion 16b disengages from the concave portion 13d on the inner circumference of the wheel-shaped body 13, passes over the protrusion 13f, and embeds into the concave portion 13e.

[0129] At this position, the connecting piece 13bR of the wheel-shaped body 13 disengages from the connecting piece 113g of the lower plate 113, and the upper body 110 and the lower body assembly 120 and the shaft member 200 are separated into two parts.

[0130] In addition, when the spinning toy 1000 is used for counterclockwise rotation, the relative rotation direction during disassembly is the opposite of the above situation.

[0131] Gyroscope Launcher 80

[0132] Figure 20 This is a perspective view showing the gyroscope launching device 80.

[0133] The gyroscope launching device 80 includes a gyroscope holder 81 that holds the gyroscope toy 1000 to which a rotational force is applied. The gyroscope holder 81 has the same number of insert pieces 81a corresponding to the arc-shaped hole 111b of the gyroscope toy 1000. Each insert piece 81a has a stop portion 81b protruding in the direction of the rotational force. Then, after inserting the insert piece 81a into the space between the arc-shaped hole 111b and the protrusion 116b of the upper body 110 in the first configuration, the gyroscope toy 1000 is rotated relative to the gyroscope holder 81 in a direction opposite to the direction of the rotational force of the gyroscope toy 1000. This causes the stop portion 81b to be inserted below the edge wall at one end of the arc-shaped hole 111b, thereby mounting the gyroscope toy 1000 onto the gyroscope holder 81.

[0134] The gyroscope launching device 80 is equipped with a handle 82, one end of which is attached to a rope (not shown). The rope is wound around an input gyroscope (not shown) by the restoring force of a spring. By operating the handle 82, the rope is pulled out, inputting rotational force into the input gyroscope. The input gyroscope is connected to a gyroscope holder 81 and rotates by the rotation of the input gyroscope.

[0135] According to the gyroscope launching device 80, the gyroscope holder 81 is rotated by operating the handle 82, applying a rotational force to the gyroscope toy 1000 mounted on the gyroscope holder 81. Then, when the operating handle 82 is stopped, the rotation of the gyroscope holder 81 stops, while the gyroscope toy 1000 continues to rotate due to inertia. Therefore, the stop part 81b disengages from below the edge wall at one end of the arc-shaped hole 111b and is pushed out by sliding contact with the inclined surface on the back of the insert piece 81a, thus launching the gyroscope toy 1000.

[0136] Although it is set here that the input rotating body connected to the gyroscope holder 81 is rotated by a rope, the input rotating body connected to the gyroscope holder 81 can also be set as a gear, and the gear can be rotated by a rack belt with a rack.

[0137] Next, the case where the upper body 110 is in its second form will be described. This is the state where the protrusion 116b of the lower part 112 overlaps with the arc-shaped hole 111b of the upper part 111. In this case, the protrusion 116b obstructs insertion, making it impossible to insert the insertion piece 81a of the spinning top launching device 80 into the space between the protrusions 116b. Therefore, in this case, it is impossible to launch the spinning top toy 1000. Thus, a structure can be constructed in which the upper body 110 transforms from the first form to the second form after launching the spinning top toy 1000.

[0138] Arena of Valor 90

[0139] Figure 21 This is a 3D view showing the appearance of the Battle Arena 90.

[0140] The bottom surface of the arena 91 of the battle arena 90 is concave, and the arena 91 is covered by a transparent cover 92 with a central opening. The arena 91 is provided with a guide part 93 having teeth 93a that mesh with gears 28 of the shaft member 200 of the spinning toy 1000 that moves within the arena 91.

[0141] According to the battle arena 90, by engaging the gear 28 of the shaft member 200 of the spinning top toy 1000 with the tooth 93a, the spinning top toy 1000 can roll relative to the guide part 93, thereby increasing the moving speed of the spinning top toy 1000.

[0142] Changes in the outer periphery shape of the upper body (110) during Beyblade battles

[0143] In a spinning top battle, when the gear 28 of the shaft member 200 meshes with the tooth 93a, the rotational speed of the shaft member 200 decreases compared to the upper part 111, which continues to rotate due to inertial force. This decrease in rotational speed is transmitted from the shaft member 200 to the lower part 112 through the cylindrical part 114.

[0144] The force required for the lower portion 112 to begin rotating relative to the upper portion 111 is less than the rotational resistance of the clutch mechanism formed by the cylindrical portion 114 and the connecting portion 116. Therefore, the lower portion 112 rotates counterclockwise relative to the upper portion 111 due to the aforementioned difference in rotational speed. At this time, a predetermined force is required for the first protrusion 116e to separate from the first engagement portion 113d and rotate relative to it, and the protrusion 116b moves at a predetermined angle between the protrusions 113b. Afterwards, the second protrusion 116d engages with the second engagement portion 113e.

[0145] As described above, when the gear 28 of the shaft member 200 meshes with the tooth 93a during a spinning top battle, a difference in rotational speed is generated between the shaft member 200 and the upper part 111, and the lower part 112 rotates relative to the upper part 111, causing the upper body 110 to transform from the first form to the second form.

[0146] After the upper body 110 changes to the second form, the cylindrical portion 114 rotates relative to the connecting portion 116 due to the reduced rotational speed of the shaft member 200. That is, after the upper body 110 changes to the second form, the shaft member 200 can rotate relative to the upper body 110, which serves as the first body part. As a result, after the upper body 110 changes to the second form, the gear 28 and the tooth 93a of the shaft member 200 can also easily mesh.

[0147] "Effect"

[0148] In the component for the spinning top toy of this embodiment, the shaft member 200 is detachable and has a first torso (upper torso 110) that rotates around the shaft member 200 when the shaft member 200 is mounted on the spinning top toy 1000.

[0149] A portion of the first body has a hole (cylindrical portion 114) for inserting the shaft member 200.

[0150] The hole and a part of the first body rotate relative to the other parts, causing the outer periphery of the first body to change shape.

[0151] Therefore, by rotating a part of the first body (lower part 112) relative to the other parts of the first body (upper part 111), the outer shape of the first body can be changed, thus changing the performance of the spinning top toy in a battle game.

[0152] Furthermore, in the component for the spinning top toy of this embodiment, the first body (upper body 110) is composed of multiple layers, and one layer (lower layer 112) which is part of it is provided with a hole (cylindrical layer 114), which can rotate within a predetermined range relative to other layers (upper layer 111) which are other parts.

[0153] Therefore, by rotating the lower part 112 relative to the upper part 111, the outer peripheral shape of the first body section can be easily changed.

[0154] Furthermore, in the component for the spinning top toy of this embodiment, after the outer peripheral shape of the first body (upper body 110) changes, the shaft member 200 can rotate relative to a part of the first body.

[0155] Therefore, after the upper body 110 changes to the second form, the gear 28 of the shaft component 200 can easily mesh with the gear 93a of the battle arena 90.

[0156] In addition, in the component for the spinning top toy of this embodiment, the first body (upper body 110) is equipped with a clutch mechanism that receives the rotational force of the shaft member 200 through a hole (cylindrical part 114).

[0157] Therefore, it is easy to realize a structure in which the axle member 200 can rotate relative to a part of the first torso (upper torso 110) after the outer peripheral shape of the first torso changes.

[0158] Furthermore, in the gyroscope toy component of this embodiment, the rotational resistance of the clutch mechanism is greater than the force required for one layer (lower layer 112) to rotate relative to the other layers (upper layer 111).

[0159] Therefore, the rotational speed difference generated between the shaft member 200 and the upper layer 111 can cause one layer (lower layer 112) to rotate relative to the other layers (upper layer 111).

[0160] Furthermore, in the components for the spinning toy of this embodiment, the components constituting the clutch mechanism are formed of a material that is harder than the components constituting the outer periphery of the first torso (upper torso 110).

[0161] Therefore, the wear resistance of the components constituting the clutch mechanism can be improved. In addition, the durability of the components constituting the outer periphery of the first torso (upper torso 110) against collisions with other spinning top toys 1000 can be improved.

[0162] Furthermore, in the gyroscope toy component of this embodiment, the first body (upper body 110) includes a lower layer (lower layer 112) as the aforementioned layer and an upper layer (upper layer 111) as the other layers.

[0163] The outer periphery of the lower layer has multiple radially protruding lower layer protrusions 115a formed at predetermined intervals along the circumferential direction.

[0164] The outer periphery of the upper layer has multiple radially protruding upper protrusions 111a formed at predetermined intervals along the circumferential direction.

[0165] Therefore, the lower part 112 can be rotated relative to the upper part 111 by the difference in rotational speed generated between the shaft member 200 and the upper part 111, which can easily change the outer peripheral shape of the first body.

[0166] Furthermore, in the component for the spinning top toy of this embodiment, the lower layer (lower layer portion 112) rotates relative to the upper layer (upper layer portion 111) so that the lower layer protrusion 115a is in a position hidden by the upper layer protrusion 111a and in a position exposed between adjacent upper layer protrusions 111a.

[0167] Therefore, by the difference in rotational speed generated between the shaft member 200 and the upper part 111, the lower part 112 can be rotated relative to the upper part 111, and the outer periphery shape of the first body can be easily varied between approximately triangular and approximately circular.

[0168] Furthermore, in the component for the spinning top toy of this embodiment, the front edge of the lower protrusion 115a is arc-shaped.

[0169] Therefore, when the lower protrusion 115a is positioned between the adjacent upper protrusion 111a, the outer periphery of the first body can be approximately circular.

[0170] In addition, the spinning top toy 1000 of this embodiment includes a spinning top toy component (upper body 110), a second body component (lower body assembly 120) that can be fixed to the first body component (upper body 110), and a shaft component 200 that can be inserted into and fixed in a hole formed in the second body component.

[0171] Therefore, in spinning top toys used in battle games, the performance of the spinning top toy can be changed by altering the shape of the outer periphery of the first body.

[0172] In addition, the spinning toy 1000 of this embodiment is not launched after the outer periphery shape of the first torso (upper torso 110) changes.

[0173] In addition, in the spinning top toy 1000 of this embodiment, the other part (upper layer 111) is formed with an arc-shaped hole 111b for applying rotational force to the spinning top toy 1000, and a protrusion (protrusion 116b) that interferes with the arc-shaped hole 111b is formed after the outer peripheral shape of the first body (upper body 110) changes.

[0174] Therefore, after launching the spinning toy 1000, you can enjoy the transformation of the upper body 110 from the first form to the second form.

[0175] In addition, in the spinning top toy 1000 of this embodiment, the shaft member 200 is equipped with a gear 28 that meshes with a toothed track (guide 93) formed in the arena (battle arena 90) for the spinning top toy 1000 to fight.

[0176] Therefore, the spinning toy 1000 can be made to roll relative to the guide part 93, thereby increasing the moving speed of the spinning toy 1000.

[0177] Variations

[0178] The above describes the embodiments of this utility model, but this utility model is not limited thereto. It is self-evident that modifications can be made without departing from its essential points.

[0179] For example, in the above embodiment, the rotational speed difference between the shaft member 200 and the upper part 111 causes the lower part 112 to rotate relative to the upper part 111, thereby changing the outer peripheral shape of the upper body 110, which is the first body part, but this is not limited to this. Alternatively, the rotational speed difference between the shaft member 200 and the upper part 111 can be used to release the lock, allowing the protrusion of the lower part 112 to pop out via a spring or the like, thus changing the outer peripheral shape of the first body part. Furthermore, the above embodiment describes a change in the outer peripheral shape from approximately circular to approximately triangular, but this is not limited to this. Other examples of outer peripheral shape changes include a shape where the outer peripheral contour changes from a smooth curve to an irregular (serrated) curve, thereby increasing friction.

[0180] In addition, in the embodiment, a gear 28 that meshes with the teeth 93a of the guide portion 93 is formed on the shaft member 200, but it is not limited to this. When the teeth 93a of the guide portion 93 are not formed on the shaft member 200, a material with high frictional resistance may be used to form the shaft member 200 or its surface, or rollers may be provided on the shaft member 200 or the like.

[0181] In addition, in the above embodiment, the gear 28 is fixedly mounted on the shaft member 200, but it can also be mounted to rotate freely relative to the shaft member 200.

[0182] Furthermore, in the above embodiment, the arc-shaped portion 16a of the movable member 16 is designed to abut against each abutted portion 23, etc., but it is also possible to include a portion of the shaft member 200, etc., with a small diameter, so that the arc-shaped portion 16a of the movable member 16 does not abut. In this case, the movement of the movable member 16 radially inward is blocked and restricted by the boss 15c, thereby forming a structure that changes the resistance (rotational resistance) of the relative rotation between the wheel-shaped body 13 and the support body.

[0183] In addition, in the above embodiment, the shaft member 200 and the like are provided with an elastic piece 14e with a claw 14d, but a structure in which a claw member is used to apply force to the radially inward side by a helical spring so that the front end engages with the reduced diameter portion 26 and the like can also be adopted.

[0184] Furthermore, in the above embodiment, a protrusion 16b is provided on the movable member 16, and recesses 13d and 13e are provided on the wheel-shaped body 13, but the reverse is also possible. Additionally, the number of protrusions and recesses engaging in a single engagement is not limited. Alternatively, a continuous series of recesses can be provided, with the protrusions sequentially engaging adjacent recesses as the wheel-shaped body 13 rotates relative to the support. In short, any arrangement that creates rotational resistance between the movable member 16 and the wheel-shaped body 13 is acceptable.

[0185] In addition, in the above embodiment, a protrusion 16b is provided on the movable member 16 and a recess 13d and 13e are provided on the wheel-shaped body 13. However, at least one contact surface of the movable member 16 and the wheel-shaped body 13 may also be formed of a material with a high coefficient of friction made of elastic material.

[0186] Similarly, in the above embodiments, at least one contact surface of the reduced diameter portion 26 and the claw 14d may be formed of a material with a high coefficient of friction.

[0187] In addition, in order to accommodate bidirectional rotation in the above embodiments, a protrusion 16b is provided on the movable member 16 and a recess 13d and 13e are provided on the wheel body 13. However, in the case of any spinning toy 1000 used for clockwise or counterclockwise rotation, it is sufficient to have a protrusion that meshes with each other when the spinning toy 1000 rotates, as long as the meshing between the protrusions is released, the wheel body 13 is allowed to rotate relative to the support.

[0188] Furthermore, the above embodiments describe a structure in which the movable member 16 is made of POM and the wheel-shaped body 13 elastically deforms to allow the protrusion 16b to dislodge from the recesses 13d and 13e. However, conversely, the movable member 16 may also be made of an elastic material, allowing it to elastically deform, or both elastically deform to allow the protrusion 16b to dislodge from the recesses 13d and 13e.

[0189] The above illustrates variations, which can be appropriately combined and used within the bounds of non-contradiction.

[0190] Figure Labels

[0191] 100 torsos

[0192] 110 Upper trunk (first trunk)

[0193] 111 Upper Level (First Floor)

[0194] 111a Upper protrusion

[0195] 112 Lower layer (other layers)

[0196] 113 Lower board

[0197] 114 Cylindrical section (hole section)

[0198] 115 Peripheral Department

[0199] 115a Lower protrusion

[0200] 116 Connecting Part

[0201] 120 Lower Torso Assembly (Second Torso)

[0202] 13. Wheel-like bodies

[0203] 14 on board

[0204] 15 lower board

[0205] 16 movable components

[0206] 200 shaft components

[0207] 28 gears

[0208] 1000 spinning top toys

[0209] 90-player Arena

[0210] 93. Guide section (toothed track).

Claims

1. A component for a spinning top toy, characterized in that, A first body section having a detachable shaft component and rotating around the shaft component when the shaft component is mounted on a spinning toy. A portion of the first body section has a hole for inserting a shaft member. The hole and the portion rotate relative to the other portions, causing a change in the outer peripheral shape of the first torso.

2. The component for a spinning top toy as described in claim 1, characterized in that, The first body is composed of multiple layers, and the hole is provided on one of the layers that is part of the body. This layer can rotate within a specified range relative to the other layers that are other parts.

3. The component for a spinning top toy as described in claim 2, characterized in that, After the outer peripheral shape of the first torso changes, the shaft member can rotate relative to the portion of the first torso.

4. The component for a spinning top toy as described in claim 3, characterized in that, The first body section has a clutch mechanism that bears the rotational force of the shaft component through the hole.

5. The component for a spinning top toy as described in claim 4, characterized in that, The rotational resistance of the clutch mechanism is greater than the force required for the layer to rotate relative to the other layers.

6. The component for a spinning top toy as described in claim 5, characterized in that, The components constituting the clutch mechanism are formed of a material that is harder than the components constituting the outer periphery of the first body.

7. The component for a spinning top toy as described in claim 2, characterized in that, The first body section has a lower layer as the first layer and an upper layer as the other layers. The outer periphery of the lower layer has multiple radially protruding lower layer protrusions formed at predetermined intervals along the circumference. The outer periphery of the upper layer has multiple radially protruding upper layer protrusions formed at predetermined intervals along the circumference.

8. The component for a spinning top toy as described in claim 7, characterized in that, The lower layer rotates relative to the upper layer, so that the lower layer protrusion is in a position hidden by the upper layer protrusion and in a position exposed between adjacent upper layer protrusions.

9. The component for a spinning top toy as described in claim 8, characterized in that, The front edge of the lower protrusion is arc-shaped.

10. A spinning top toy, characterized in that, It comprises a gyroscope toy component as described in any one of claims 1 to 9, a second body that can be fixed to the first body, and a shaft member that can be inserted into a hole formed in the second body.

11. The spinning top toy as described in claim 10, characterized in that, The spinning toy is not launched after the outer periphery of the first body changes shape.

12. The spinning top toy as described in claim 11, characterized in that, The other parts are formed with arc-shaped holes for applying rotational force to the spinning toy, and after the outer periphery of the first body changes shape, a protrusion that interferes with the arc-shaped hole is formed.

13. The spinning top toy as described in claim 10, characterized in that, The shaft member has gears that mesh with the toothed track formed by the arena used for battling gyroscope toys.

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