JP6889445B2 - Top toys - Google Patents

Description

The present invention relates to a top toy.

Conventionally, as a play using a top toy, the top toys collide with each other, and the impact force stops the rotation of the opponent's top toy to knock it down, or the opponent's top toy is flipped out of the play board or disassembled. What to do is being considered.

By the way, in the top toys used for such play, in order to change the play, various types such as increasing the impact force given to the opponent's top toy and softening the impact received from the opponent's top toy are used. Has been devised.

As an example, a friction material is provided at the part of the body that collides with the opponent's top toy, thereby converting the rotational force of the opponent's top toy into its own rotational force, or absorbing the impact received from the opponent's top toy and damaging it. (Patent Document 1).

Jitsuto No. 3160657

In the early stage of the battle in which the top toys rotate at high speed, the top toys move around on the play board, and when the top toys collide with each other, the top toys are greatly repelled, and a dynamic battle is desired.
However, in the case of the top toy in which the friction material is fixedly provided on the body portion, there are the following problems.
That is, for example, when a battle is performed with a top toy that rotates in opposite directions, if there is a difference in rotation speed between the two, the rotational energy moves from the high-speed top toy to the low-speed top toy due to the collision, and both of them. The difference in rotation speed between them has been eliminated, and a powerful and dynamic battle cannot be expected.
On the other hand, at the end of the battle where the top toys rotate at low speed, the momentum of the top toys weakens, and they repeatedly gather in one place on the game board, collide and leave a little, and which top toy stops rotating first. Then move to a static battle to compete for a fall. Therefore, it is preferable to extend the battle time as much as possible so that the thrilling feeling can be enjoyed for a long time.

The present invention has been made in view of this point, and provides a top toy capable of enjoying a powerful dynamic battle at high speed rotation and a thrilling static battle at low speed rotation for a long time. With the goal.

The first means is
The body is formed of a first collision portion and a friction material having a larger frictional force than the first collision portion, and is configured to be movable relative to the first collision portion. A second collision portion configured so that a first position larger than that of the first collision portion and a second position having a distance from the center of the frame smaller than that of the first collision portion can be taken, and a predetermined A spring having an urging force is provided, and the first collision portion and the second collision portion are relatively moved by the interaction between the centrifugal force acting on the body portion and the urging force, and the second collision portion occurs at high speed rotation. It is configured so that the portion takes the second position and the second collision portion takes the first position at low speed rotation.
The first collision portion is fixedly provided to the body portion, and the second collision portion is provided on an arm on one end side of a movable member attached to the body portion so as to swing around a predetermined axis. The arm on the other end side of the movable member is set so that the moment around the predetermined axis is larger than the arm on the one end side, and the spring uses the arm on the other end side of the movable member as a top toy. It is characterized by urging toward the center side.
Here, the "first collision portion" is a portion that may collide with the opponent's top toy when the second collision portion takes the second position.

The second means is
The body is formed of a first collision portion and a friction material having a larger frictional force than the first collision portion, and is configured to be movable relative to the first collision portion. A second collision portion configured so that a first position larger than that of the first collision portion and a second position having a distance from the center of the frame smaller than that of the first collision portion can be taken, and a predetermined A spring having an urging force is provided, and the first collision portion and the second collision portion are relatively moved by the interaction between the centrifugal force acting on the body portion and the urging force, and the second collision portion occurs at high speed rotation. It is configured so that the portion takes the second position and the second collision portion takes the first position at low speed rotation.
The second collision portion is provided on an arm on one end side of a movable member attached to the body portion so as to swing around a predetermined axis, and the first collision portion is an arm on the other end side of the movable member. The arm on the other end side of the movable member is set so that the moment around the predetermined axis is larger than the arm on the one end side, and the spring is provided on the arm on the other end side of the movable member. and wherein the biasing be isosamples toward the center of the toy top.

The third means is that in the first means or the second means , the second collision portion is a minimum inclusion circle that circumscribes the first collision portion at the first position with the axis of the top toy as the center. take the position of the outer, characterized Rukoto preparative position inward of the minimum inclusion circle in the second position.

The fourth means is characterized in that, in any one of the first means to the third means, the friction material has softness and elasticity.

According to the first to sixth means, the first colliding part having a small frictional force collides with the opponent's top toy at the time of high-speed rotation at the initial stage of the battle, so that the damping of the rotational force due to the collision can be suppressed, which is powerful. You can enjoy a certain dynamic battle, and the second collision part with large frictional force collides with the opponent's top toy at low speed rotation in the latter half of the battle, so firmly the body of the opponent's top toy rotating in the opposite direction By gripping, when the rotation speed of the opponent's top toy that rotates in the opposite direction is faster than that of your own top toy, by changing the rotational force of the opponent's top toy to your own rotational force, you can use your own top toy. The rotation can be sustained for as long as that of the opponent's top toy, and you can enjoy a static battle for a long time.

It is a perspective view of the top toy which concerns on embodiment. It is an exploded perspective view of a top toy. It is a perspective view of the shaft part of a top toy. It is an exploded perspective view of the shaft part of a top toy. It is a vertical cross-sectional view of the shaft part of a top toy. It is a perspective view which looked at the flywheel of a top toy from above. It is a perspective view seen from the lower side of the flywheel of a top toy. It is a perspective view which looked at the body of a top toy from below. It is an exploded perspective view of the body of a top toy. It is a top view of the state where the movable member is removed from the body body of a top toy. It is a top view for demonstrating the operation of the movable member of a top toy. It is a partial cross-sectional view which showed the coupling structure of the body part and the shaft part of a top toy. It is a side view which showed the state of the collision of a top toy. It is a top view for demonstrating the movement of the top toy after the collision of FIG.

Hereinafter, the top toy of the present invention will be described based on the embodiment shown in the drawings.

(overall structure)
The top toy 1 shown in FIG. 1 includes a shaft portion 10, a flywheel 30, and a body portion 40. This top toy 1 is used, for example, in a battle game in which the top toy 1 is disassembled into a shaft portion 10, a fly hole 30, and a body portion 40 as shown in FIG. 2 by the impact force due to collision with each other. Will be done.

(Detailed composition)
1. 1. Shaft part 10
As shown in FIGS. 3 and 4, the shaft portion 10 includes a lower assembly A including a rotating shaft 11, a hat-shaped body mounting component 12 fixedly installed on the upper portion of the lower assembly A, and a body mounting component. An annular pressing component 13 housed inside the 12 so as to be movable up and down is provided.

The lower assembly A includes a rotating shaft 11, an annular grounding member 16, a rotating shaft holder 15, an interposing member 20, and a frame body 14. A rotating shaft 11 and an annular grounding member 16 are provided on the lower side of the frame body 14, a rotating shaft holder 15 is installed from above inside the hole 14a of the frame body 14, and an interposition is provided on the rotating shaft holder 15. The member 20 is installed.
The rotary shaft holder 15 is formed in a cylindrical shape, and there is a gap between the rotary shaft holder 15 and the upper interposition member 20, so that the rotary shaft holder 15 is slidable in the axial direction (vertical direction). There is. A flange 15c is formed at the upper end of the rotary shaft holder 15 so as to project outward in the radial direction. When the rotary holder 15 is lowered, the flange 15c comes into contact with the stepped portion 14b formed on the wall of the hole 14 of the frame body 14 (see FIG. 5B). This prevents the rotary shaft holder 15 from coming off downward.
Further, as shown in FIG. 5B, a spring 17 is provided between the rotating shaft holder 15 and the interposition member 20, and the rotating shaft holder 15 is attached to the lower side of the frame body 14 by the spring 17. It is being pushed.
A spline 15b for attaching the rotating shaft 11 is formed on the wall of the hole 15a in the center of the rotating holder 15.

The rotating shaft 11 is held in the rotating shaft holder 15. The lower end surface of the rotating shaft 11 is formed in an inverted conical shape. A spline 11a is formed on the upper portion of the rotating shaft 11, and the spline 11a is press-fitted into the spline 15b of the rotating shaft holder 15. As a result, the rotating shaft 11 is coupled and held by the rotating shaft holder 15. The rotary shaft 11 may be held by a rivet provided on the rotary shaft holder 15.
Further, a flange 11b is formed at the lower end of the rotating shaft 11 so as to project outward in the radial direction. The rotating shaft 11 is inserted into the central hole 16c of the annular grounding member 16 from below. A step portion 16b is formed on the wall of the hole 16c of the annular grounding member 16, and the step portion 16b is supported by the flange 11b of the rotating shaft 11.

The lower end surface of the annular grounding member 16 is formed in an inverted conical trapezoidal shape, and is formed in a dish shape as a whole. The annular grounding member 16 is slidably held in the axial direction and the circumferential direction of the rotating shaft 11. Further, a large number of teeth 16a extending in the radial direction are formed on the upper surface of the outer annular portion of the annular grounding member 16 over the entire circumference. The second meshing portion is formed by the large number of teeth 16. On the other hand, at a position of the frame body 14 facing the second meshing portion, a first meshing portion formed by teeth 14b extending in the radial direction and formed in large numbers over the entire circumference is formed. The first meshing portion and the second meshing portion mesh with each other when the frame body 14 is lowered. By this meshing, the annular grounding member 16 is integrated with the frame body 14.

According to the shaft assembly A configured in this way, as shown in FIG. 5A, when the top toy 1 is normally rotating upright with respect to the play surface, the rotating shaft 11 is in contact with the ground. The frame body 14 is urged by the urging force of the spring 17, and the frame body 14 is in the ascending position. In this state, only the lower end of the rotating shaft 11 is in contact with the play surface. Therefore, the top toy 1 can easily rotate on the spot.
On the other hand, when the play surface is curved, or when the top toy 1 is tilted with respect to the play surface, not only the lower end of the rotating shaft 11 but also the annular grounding member 16 is grounded. Even in this state, the frame body 14 is urged by the urging force of the spring 17 with respect to the rotating shaft 11 that is in contact with the ground, and the frame body 14 is in the raised position, so that the annular grounding member 16 is in a rotation-free state. Therefore, the tilted top toy 1 is supported by the annular grounding member 16, but since the annular grounding member 16 is free to rotate with respect to the rotating shaft 11, the top toy 1 does not move significantly.
On the other hand, when a downward external force acts on the body portion 40 by the other party's top toy 1a, the frame body 14 descends against the urging force of the spring 17 with respect to the rotating shaft 11 which is in contact with the ground. Then, as shown in FIG. 5B, the first meshing portion of the frame body 14 meshes with the second meshing portion of the annular grounding member 16, and the lower surface of the annular grounding member 16 and the lower end of the rotating shaft 11 have the same height. Become. At this time, since the frame body 14 is rotating, the annular grounding member 16 also rotates at the same time. As a result, the portion away from the rotating shaft 11 (the grounded portion of the annular grounding member 16) strongly kicks the play surface, so that the top toy 1 moves around greatly.

As shown in FIG. 4, the auxiliary component 20 installed on the rotary shaft holder 15 includes a columnar portion 20a and two L-shaped plates 20b attached to the lower ends of the columnar portion 20a. The L-shaped plate 20b is placed on the protrusion 14c on the inner circumference of the hole 14a of the frame body 14. A coupling part 18 is installed on the auxiliary part 20.

As shown in FIG. 4, the connecting component 18 includes a columnar portion 18a that opens its mouth downward, and a strip-shaped plate 18b attached to the lower end of the columnar portion 18a. A screw insertion hole 18c is formed in each plate 18b. Further, two claws 180a projecting outward in the radial direction are formed on the upper portion of the columnar portion 18a of the connecting component 18.
The connecting component 18 is located directly above the interposing component 20, and the columnar portion 20a of the interposing component 20 is fitted into the columnar portion 18a of the interposing component 18 from below. The plate 18b of the coupling part 18 is fitted into the recess 14d of the frame body 14, and when the frame body 14 is attached to the body portion installation part 12 with screws, it is sandwiched between the frame body 14 and the body portion installation part 12. It is fixed.

As shown in FIG. 4, the body portion installation component 12 has a cylindrical portion 12a and a flange 12b protruding outward in the radial direction from the lower end of the cylindrical portion 12a. Then, two protrusions 12c are formed in the diameter direction over the cylindrical portion 12a and the flange 12b, and holes 12d are formed at positions shifted in the circumferential direction by 90 degrees with respect to the diameter connecting them. An annular pressing component 13 is housed inside the body mounting component 12 from below.

As shown in FIG. 4, the annular pressing component 13 is formed by a circumferential wall 13a and an annular ceiling wall 13b. At the lower end of the cylindrical wall 13a, two legs 13c projecting outward in the radial direction are projected, and notches 13d are formed at two positions in the radial direction of the inner peripheral surface of the annular ceiling wall 13b. Further, two convex 20s are formed on the annular ceiling wall 13b (see FIG. 3).

As shown in FIG. 3, the annular pressing component 13 is assembled so that the leg portion 13c is exposed from the cylindrical portion 12a of the corresponding body portion mounting component 12 and the hole 12d of the flange 12b. The hole 12d allows the leg portion 13c to move in the vertical direction, but the upper edge of the hole 12d restricts the movement upward. As shown in FIGS. 5A and 5B, the annular pressing component 13 is urged upward by the spring 19, and under normal conditions, the upper end surface of the annular pressing component 13 is substantially the same as the upper end of the body mounting component 12. It becomes the height position.

2. Flywheel 30
The flywheel 30 is formed in an annular shape as shown in FIGS. 6 and 7. An annular step portion 30a for accommodating the flange 12b of the shaft portion 10 is formed on the bottom surface of the flywheel 30. Two projecting portions 31 projecting upward are formed on the upper surface of the flywheel 30. A recess 32 for accommodating the protruding portion 12c of the shaft portion 10 is formed in the lower portion of each protruding portion 31. Further, on the upper surface of the flywheel 30, a tongue piece 33 extending upward is formed immediately outward of each protrusion 31. The tongue piece 33 projects upward from the protruding portion 31.

3. 3. Torso 40
As shown in FIG. 2, the body portion 40 is formed in a disk shape as a whole. As shown in FIG. 8, a circular recess 40a is formed on the lower surface of the body portion 40. A cylindrical wall 41 is formed in the center of the circular recess 40a so as to project downward. At the lower end of the cylindrical wall 41, two claws 42 protruding inward are formed. One claw 42 is provided at two locations facing each other across the axis, and a notch 43 is formed between the claws 42 and 42. Further, an undulating portion 44 composed of a plurality of teeth extending in the radial direction is formed on the lower surface of the rear end portion of the top toy 1 in the rotation direction of the claw 42.

As shown in FIG. 9, the body portion 40 includes a shaft portion connecting member 45 constituting a lower layer, an annular fixed body portion 46 installed on the shaft portion connecting member 45, and a circumferential direction of the fixed body portion 46. It is provided with three movable members 47 attached to the fixed body portion 46 at equal intervals, and a disk-shaped surface cover 50 that closes a hole in the center of the fixed body portion 46. A plurality of metal parts are attached to the fixed body portion 46 so as to be caulked at equal intervals in the circumferential direction.

The shaft connecting member 45 is made of metal or plastic. The shaft portion coupling member 45 has a hill 45a whose central portion is one step higher than that of the peripheral portion. A cylindrical wall 41 is formed on the lower surface of the hill 45a. Further, the fixed body portion 46 is made of metal or plastic. The fixed body portion 46 is provided with a plurality of fixed blades (collision portions) 46a in the circumferential direction. The movable member 47 can swing around a shaft 46d that fits into the rivet 46b at the intermediate portion in the longitudinal direction. Then, as shown in FIG. 11A, one arm 47a of the movable member 47 constitutes a movable blade (collision portion) 48, and at least the collision portion of the movable blade 48 has a larger frictional force than the fixed blade 46a. It is formed of a friction material such as rubber. The friction material may be hard, but may be soft and elastic. Further, the other arm 47b of the movable member 47 constitutes a weight, and is set so that the moment around the shaft 46c is larger than that of the arm 47a. The movable member 47 has a position in which the collision portion protrudes radially outward from the fixed blade 46a of the fixed body portion 46 (FIG. 11 (B)) and a position in which the colliding portion retracts in the radial direction (FIG. 11 (A)) due to the swing. )) And take. That is, the collision portion of the movable blade 48 is the outer first position and the inner first position of the minimum inclusion circle that circumscribes the collision portion of the fixed blade 46a around the axis of the top toy 1 due to the swing of the movable member 47. Take two positions.
A spring 49 for urging the arm 47b inward in the radial direction is provided between the arm 47b of the movable member 47 and the fixed body portion 46. When the top toy 1 is rotating at high speed, the arm 47b moves outward in the radial direction against the urging force of the spring 49 due to the action of centrifugal force, and the collision surface is from the fixed blade 46a of the fixed body portion 46. Also retracts inward in the radial direction, and conversely, when the top toy 1 is rotating at low speed, the urging force of the spring 49 overcomes the centrifugal force, the arm 47b moves inward in the radial direction, and the collision surface is the fixed body portion 46. It operates radially outward from the fixed blade 46a of. Although a coil spring is used as the spring 49 here, it goes without saying that a torsion spring may be wound around the shaft 46d so that one end thereof is hung on the movable member 47 and the other end is hung on the fixed body portion 46. .. In this way, the spring can be made invisible from the outside, and the spring is less likely to come off.

According to the top toy 1 having the body portion 40 configured in this way, the following effects can be obtained.
That is, when the top toy 1 is rotating at high speed, the collision portion of the fixed blade 46a having a small frictional force collides with the other top toy. At this time, even if it comes into contact with the other party's top toy, the loss of rotational energy can be suppressed to a small extent.
On the other hand, when the top toy 1 is rotating at a low speed, it collides with the other top toy at the collision portion of the movable blade 48 having a large frictional force. At that time, the collision portion of the movable blade 48 strongly grips the body portion of the opponent's top toy. As a result, when the opponent's top toy rotating in the opposite direction has a relatively higher rotation speed than the own top toy 1, the rotational energy of the opponent's top toy 1 is effectively used as the rotational energy of the own top toy 1. Can be.
Such an effect at low speed rotation is exhibited especially when the friction material is soft and elastic. That is, when the friction material is soft and elastic, the friction material is deformed when it collides, and the contact time with the other party's top toy becomes long, so that the impulse increases, and the other party's top toy More rotational energy can be obtained.

(Assembly method of top toy 1)
The protrusion 12c of the shaft portion 10 is aligned with the recess 32 of the flywheel 30 from below, and the shaft portion 10 and the flywheel 30 are assembled in a fitted state. Next, the assembly is brought closer to the body 40 from below.
Then, the tongue piece 33 of the flywheel 30 is inserted from below into one end of the arcuate slit 46c (see FIG. 10) of the body portion 40. In this state, the claw 180a of the shaft portion 10 and the notch 43 of the body portion 40 are vertically aligned with each other. This state is the uncoupling state. After that, the shaft portion 10 of the assembly is pressed toward the body portion 40. Then, first, the flywheel 30 is pressed against the lower surface of the body portion 40. Further, the annular pressing component 13 is lowered against the urging force of the spring 19 in the shaft portion 10, and the claw 180a of the shaft portion 10 is pushed up relative to the claw 42 of the body portion 40. Then, the claw 42 of the body portion 40 slips under the claw 180a of the shaft portion 10. Then, when the shaft portion 10 is integrally rotated with the flywheel 30 in a predetermined direction (direction opposite to the rotation direction of the top toy 1), the claws 180a and the claws 42 are vertically overlapped with each other. Then, when the hand is released from the shaft portion 10, the lower surface of the claw 180a of the shaft portion 10 and the upper surface of the claw 42 of the body portion 40 are brought into contact with each other by the urging force of the spring 19 in the shaft portion 10. This state, that is, the state in which the lower surface of the claw 180a of the shaft portion 10 and the upper surface of the claw 42 of the body portion 40 are in contact with each other is a coupled state (see FIG. 12). As a result, the ridge 20 and the undulating portion 44 mesh with each other to assemble the top toy 1.

(How to play, etc.)
Subsequently, an example of how to play using the top toy 1 will be described.
The top toy 1 launched by the launcher that applies rotational urging force using the solitary slit 46c is rotated in a predetermined direction on a predetermined play surface, and when it collides with the opponent's top toy, the impact force due to the collision causes the body to rotate. A force acts on the portion 40 in a direction opposite to the rotation direction of the shaft portion 10 and the flywheel 30, whereby the body portion 40 is relative to the rotation direction of the shaft portion 10 and the flywheel 30 in the direction opposite to the rotation direction. Rotate to. Then, the undulating portion 44 and the ridge 20 on the lower surface of the body portion 40 change the meshing position as the shaft portion 10 rotates relative to the body portion 40. When the coupling release position is reached, the notch 43 of the body portion 40 and the claw 180a of the shaft portion 10 match, so that the lock is released, and the body portion 40 is moved to the shaft portion 10 by the urging force of the spring 19 in the shaft portion 10. Separate from. At the same time, the urging force of the spring 19 causes the flywheel 30 to separate from the shaft portion 10.

Further, in the top toy 1, at a constant rotation speed or less, as shown in FIG. 11B, the movable blade 48 is in a state of being swung counterclockwise by the urging force of the spring 49, and the movable blade 48 Is in a state of protruding outward from the fixed blade 46a of the top toy 1. When the rotation speed of the top toy 1 exceeds a predetermined rotation speed, the movable member 47 is swung clockwise by the centrifugal force, and the movable blade 48 is inside the fixed blade 46a as shown in FIG. 11 (A). Evacuate to the side.
That is, at the time of high-speed rotation at the initial stage of rotation, the rigid fixed body portion 46 comes into contact with the other party's top toy, and at the time of low-speed rotation at the latter stage of rotation, the soft and elastic movable blade 48 comes into contact with the other party's top toy.

Further, according to the top toy 1 of the above embodiment, as shown in FIG. 13, when a downward force acts on the body 40 due to the collision of the opponent's top toy 1a, the frame is as shown in FIG. 5 (B). The first meshing portion of the body 14 and the second meshing portion of the annular grounding member 16 mesh with each other, and the annular grounding member 16 rotates together with the frame body 14. Then, since the bottom surface of the annular grounding member 16 strongly kicks the play surface, the top toy 1 revolves in a large arc as shown in FIG. Therefore, it is possible to instantly move away from the other party's top toy 1a and avoid the influence of the other party's top toy 1a.

Although the embodiments of the present invention have been described above, it is needless to say that the present invention is not limited to such embodiments and can be variously modified without departing from the gist thereof.

For example, in the above embodiment, the blade 48 having a large frictional force is operated, but the blade 46a having a small frictional force may be made movable and operated. Further, the blade 48 having a large frictional force and the blade 46a having a small frictional force may be integrated to operate the seesaw around a predetermined axis.

Further, in the above embodiment, the rotating shaft 11 is projected from the annular grounding member 16, but the rotating shaft may be immersed in the annular grounding member 16 when the frame body 14 is lowered. Such a structure can be realized, for example, by inserting a spring between the rotating shaft 11 and the annular grounding member 16.

1 Top toy 10 Shaft 11 Rotating shaft 14 Frame 17 Spring 19 Spring 30 Flywheel 40 Body 46 Fixed body 46a Fixed blade 47 Movable member 48 Movable blade 49 Spring

Claims (4)

The body is formed of a first collision portion and a friction material having a larger frictional force than the first collision portion, and is configured to be movable relative to the first collision portion. A second collision portion configured so that a first position larger than that of the first collision portion and a second position having a distance from the center of the frame smaller than that of the first collision portion can be taken, and a predetermined A spring having an urging force is provided, and the first collision portion and the second collision portion are relatively moved by the interaction between the centrifugal force acting on the body portion and the urging force, and the second collision portion occurs at high speed rotation. It is configured so that the portion takes the second position and the second collision portion takes the first position at low speed rotation.
The first collision portion is fixedly provided to the body portion, and the second collision portion is provided on an arm on one end side of a movable member attached to the body portion so as to swing around a predetermined axis. The arm on the other end side of the movable member is set so that the moment around the predetermined axis is larger than the arm on the one end side, and the spring uses the arm on the other end side of the movable member as a top toy. A top toy characterized by urging toward the center side. The body is formed of a first collision portion and a friction material having a larger frictional force than the first collision portion, and is configured to be movable relative to the first collision portion. A second collision portion configured so that a first position larger than that of the first collision portion and a second position having a distance from the center of the frame smaller than that of the first collision portion can be taken, and a predetermined A spring having an urging force is provided, and the first collision portion and the second collision portion are relatively moved by the interaction between the centrifugal force acting on the body portion and the urging force, and the second collision portion occurs at high speed rotation. It is configured so that the portion takes the second position and the second collision portion takes the first position at low speed rotation.
The second collision portion is provided on an arm on one end side of a movable member attached to the body portion so as to swing around a predetermined axis, and the first collision portion is an arm on the other end side of the movable member. The arm on the other end side of the movable member is set so that the moment around the predetermined axis is larger than the arm on the one end side, and the spring is provided on the arm on the other end side of the movable member. A top toy characterized by urging toward the center side of the top toy. The second collision portion takes a position outside the minimum inclusion circle circumscribing the first collision portion around the axis of the top toy at the first position, and the minimum inclusion circle at the second position. The top toy according to claim 1 or 2, characterized in that it takes an inward position. The top toy according to any one of claims 1 to 3, wherein the friction material has softness and elasticity.

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