JP4286628B2 - Toy - Google Patents

Description

  The present invention relates to an operation toy, and more particularly to an operation toy that docks with a toy body that rotates at the center of a base and a toy body that is provided on an arm member that rotates vertically on the base.

Conventionally, a music box toy is generally used as a toy on which a toy body on a base rotates. However, since it is not interesting to simply rotate the toy body on the base, various ideas have been made (for example, Patent Document 1). This toy accommodates a floating figure with a magnet in a container in which a water tank is formed by rotating a blade provided with a magnet in conjunction with a music box drum that is rotated by the rewinding force of the wound spring. However, when the blade rotates, the figure moves in the container.
Registered Utility Model No. 3044760

  The problem to be solved by the present invention is that the figure moves in the container forming the aquarium, but this figure moves only the music box melody in the background, and there is no interest in the movement of the figure. It was a point that young people would get bored soon.

  The present invention solves the above-mentioned problems and not only causes the toy body to rotate, but also creates a relationship between the toy body that rotates and another toy body provided on the arm member that rotates up and down, and has a simple structure. However, it is an object of the present invention to provide an operation toy that can enjoy the relationship between two toy bodies, arouse the interest of young people, and can be differentiated from a simply rotating toy.

In order to solve the above-mentioned problems, an action toy according to the present invention has the following requirements.
(A) A first toy body is rotatably arranged on the upper surface of the base, and a drive mechanism for rotating the first toy body is arranged inside the base. (B) The base An arm member provided with a second toy body at the tip is attached to the base so as to be pivotable up and down. The arm member is always biased by a spring member so as to pivot upward and pivots upward. The first toy body and the second toy body are in contact with each other. (C) Each of the first toy body and the second toy body is provided with a magnet, and the arm When the member is rotated upward, the magnets are magnetically attached to each other. (D) The drive mechanism is operated in conjunction with the return rotation of the arm member rotated downward.

  The first toy body is formed to resemble an animal parent, the second toy body is formed to resemble an animal child, and the magnets are respectively disposed at mouth portions of the toy body. It is preferable.

  Further, a float may be provided on the base so that the base floats on the water so that it can be played in a bath or a pool.

  The arm member may be provided with a float instead of the spring member, and the arm member may be rotated upward by the buoyancy of the float.

  According to the first aspect of the present invention, the first toy body and the second toy body can be actuated in association with each other by rotating the arm member up and down, and the operation is merely a rotation while having a simple structure. Surprise and fun that cannot be obtained with toys can be provided to young people.

  According to the invention of claim 2, the first toy body is formed to imitate the parent of the animal, and the second toy body is formed to imitate the child of the animal, and a magnet is provided in each mouth portion. Therefore, it is possible to create a moving toy that creates a state where the parent and child of an animal are kissing a frog and sees it.

  According to the invention of claim 3, by providing a float on the base, the toy can be floated on the water so that it can be played in a bath or a pool, and the second toy body jumps out of the water. Since it appears, it is possible to provide a moving toy that attracts the attention of young people.

  According to the invention of claim 4, when the arm member is rotated downward with the action toy floating on the water, the arm member is rotated upward by the buoyancy of the float provided on the arm member. Instead, the first toy body and the second toy body can be operated.

  A first toy body is rotatably arranged on the upper surface of the base, a drive mechanism for rotating the first toy body is arranged inside the base, and a second mechanism is arranged at the tip of the base. An arm member provided with a toy body is attached to be pivotable up and down, and the arm member is biased by a spring member so as to always rotate upward, and when the arm member is rotated upward, the first toy body And the second toy body are in contact with each other, and the first toy body and the second toy body are each provided with a magnet, and when the arm member is rotated upward, the magnets are magnetized. The drive mechanism is operated in conjunction with the return rotation of the arm member rotated downward.

  FIG. 1 shows an operation toy according to the present invention, which operation toy is disposed on a top surface of a base 1 so as to be capable of rotating, and is disposed on a side surface of the base 1 so as to be rotatable up and down. In this embodiment, the first toy body 2 is formed to resemble a parent dolphin, and the second toy body 4 is used as a child. It is formed to imitate a dolphin and is operated so that a parent dolphin and a child dolphin kiss each other.

  The base 1 includes a lower member 10 formed in a substantially inverted truncated cone shape, and an upper member 11 formed by imitating a floating ring screwed so as to close the upper surface of the lower member 10. The member 11 is vertically divided into an upper cover 11a and a lower cover 11b in the horizontal direction, and a float 12 which is a hollow blow-molded product is accommodated therein so that the base 1 floats on water. The first toy body 2 is arranged so as to be able to rotate at the center of the upper member 11 which is the upper surface of the base 1, and the drive mechanism A for rotating the first toy body 2 is arranged inside the base 1. Has been.

  The arm member 3 is pivotally supported on a gear box 13 fixed inside the base 1 so as to be pivotable up and down by a shaft 14, and a hook 15 formed on the gear box 13 and a pin 16 formed on the arm member 3. A spring member (coil spring) 17 stretched between the engagement protrusion 18 and the engagement protrusion 18 is biased so as to rotate upward until it abuts against a rib 19a formed to protrude from the upper front of the gear box 13. The second toy body 4 formed to imitate a child dolphin is attached to the tip of the arm member 3. In addition, the rib 19b formed to protrude from the bottom of the gear box 13 is a limiter when the arm member 3 is rotated downward (see FIG. 2).

  The drive mechanism A is selectively connected to a lower end of the arm member 3 by a screwed arc-shaped rack gear 20, a planetary gear 21 that always meshes with the rack gear 20, and a spur gear 22 that is coaxially fixed to the planetary gear 21. The crown gear 23 meshes with the crown gear 23 and the pinion gear 24 meshes with the crown gear 23 at all times. When the arm member 3 is rotated downward against the coil spring 17, the rack gear 20 rotates upward. The shaft 25 moves upward through a long hole 26 formed in the gear box 13 so that the spur gear 22 and the crown gear 23 are disengaged, and the arm member 3 is biased by the coil spring 17 to rotate upward. When the rack gear 20 rotates downward, the planetary gear 21 has the shaft 25 moved downward through the long hole 26 and the spur gear 22 meshed with the crown gear 23. Fit as becomes, the rotation of the planetary gears 21 (the spur gear 22) is transmitted to the crown gear 23, it is adapted to rotate the pinion gear 24 meshing with the crown gear 23. The shaft 27 of the pinion gear 24 is fitted into the center pin 28. The upper portion of the center pin 28 penetrates the upper surface of the base 1 and is fixed in the first toy body 2. When the pinion gear 24 rotates, the first pin 24 is rotated. The toy body 2 is configured to rotate.

  Note that the planetary gear 21 is freely disposed between the spur gear 22 fixed to the shaft 25 and the stopper 31 and is pressed against the spur gear 22 by the coil spring 32, and a load is applied to the first toy body 2. In this case, slip occurs between the planetary gear 21 and the spur gear 22 so that troubles such as breakage of gears can be avoided.

  Furthermore, the first toy body 2 and the second toy body 4 are provided with magnets 35 and 36, respectively. The magnet 35 is fixed by a fixing member 37 so as to be positioned at the mouth 2a of the first toy body 2 formed to imitate a parent dolphin, and the magnet 36 is a second toy formed to imitate a child dolphin. The magnetic pole is set so that the magnet 35 and the magnet 36 are magnetically attached to each other.

  According to the operation toy having the above-described configuration, when the arm member 3 is rotated downward against the coil spring 17 as shown in FIG. 3, the arm member 3 has a lower end as shown in FIG. The planetary gear 21 meshed with the fixed rack gear 20 moves upward through the long hole 26 and the meshing between the spur gear 22 and the crown gear 23 is disengaged, so that only the arm member 3 rotates and the drive mechanism A operates. Therefore, the second toy body 4 does not rotate.

  When the arm member 3 is released, the arm member 3 is rotated upward by the elastic return force of the coil spring 17, so that the rack gear 20 fixed to the arm member 3 is moved downward as shown in FIG. Rotate to. The planetary gear 21 meshed with the rack gear 20 moves downward through the long hole 26 while rotating and meshes with the crown gear 23, so that the crown gear 23 rotates and rotates the pinion gear 24. Since the center pin 28 integrated with the shaft body 27 of the pinion gear 24 is fixed to the first toy body 2, the first toy body 2 starts to rotate.

  When the arm member 3 is forcibly rotated upward by the elastic return force of the coil spring 17 and the engagement projection 18 abuts against the rib 19a, the rotation of the arm member 3 stops, but the first toy body 2 Since the rotation of the pinion gear 24 rotates the crown gear 23, the crown gear 23 rotates the spur gear 22 (planetary gear 21) in the counterclockwise direction, but the rack gear 20 is stopped so that the planetary gear 23 is stopped. Since the gear 21 runs up the rack gear 20 and the meshing between the spur gear 22 and the crown gear 23 is disengaged, the rotation of the first toy body continues even if the rotation of the arm member 3 is stopped. When the magnet 35 of the first toy body 2 approaches the magnet 36, the first toy body 2 rotates in a state where the magnets 35 and 36 are magnetically attached and the parent dolphin and the child dolphin kiss each other. Stop To become.

  As shown in FIG. 5A, when the arm member 3 is rotated downward, the child dolphin is immersed in the water a, and when the arm member 3 is opened, the arm member 3 is moved by the elastic restoring force of the spring member 17. As shown in FIG. 5 (b), the child dolphin 4 appears to jump out of the water a and the parent dolphin 2 starts to rotate. As shown in FIG. 5 (c), Since the child dolphin 4 provided at the tip of the arm member 3 is in a state of kissing the parent dolphin 2, the toy body does not simply rotate on the base 1 but is linked with other toy bodies, It is expected that young people who see the movement of toy bodies 2 and 4 will be surprised and will be taking a bath.

  In addition, although the above-mentioned operation | movement toy formed the 1st toy body 2 and the 2nd toy body 4 imitating a parent dolphin and a child dolphin, you may form imitating animals, such as a penguin and a white bear. .

  6 (a) and 6 (b) show another embodiment of the moving toy. This moving toy is provided with a spherical float 40 in the middle of the arm member 3, and floats in a state where the moving toy floats on the water a. The arm member 3 is rotated upward by 40 buoyancy.

  According to this moving toy, as shown in FIG. 7A, when the arm member 3 is rotated downward, the child dolphin is immersed in the water a, and when the arm member 3 is opened, the buoyancy of the float 40 is caused. The arm member 3 starts to rotate upward, and as shown in FIG. 7 (b), the child dolphin 4 appears to jump out of the water a and the parent dolphin 2 starts to rotate. As shown, the child dolphin 4 and the parent dolphin 2 provided at the tip of the arm member 3 can be in a state of kissing.

The perspective view explaining an example of the action toy concerning the present invention (Example 1) Exploded perspective view of the above moving toy (Example 1) A perspective view of an operation toy showing a state in which a lever member is lowered (Example 1) (A) (b) is principal part sectional drawing of the base explaining the action | operation state of an operation | movement toy (Example 1). (A)-(c) is explanatory drawing of the use condition of an operation | movement toy (Example 1). (A) (b) is principal part sectional drawing of the base explaining the action | operation state of the operation | movement toy of another example (Example 2). (A)-(c) is explanatory drawing of the use condition of the operation | movement toy of another example (Example 2).

Explanation of symbols

DESCRIPTION OF SYMBOLS 1 Base 2 1st toy body 3 Arm member 4 2nd toy body 17 Spring member 35, 36 Magnet A Drive mechanism

Claims (4)

The first toy body is rotatably arranged on the upper surface of the operation toy (b) base characterized by the following requirements, and the first toy body is driven to rotate inside the base. (B) An arm member provided with a second toy body at the tip is attached to the side surface of the base so as to be pivotable up and down, and the arm member always pivots upward. And a part of the second toy body comes into contact with the side surface of the first toy body when it is rotated upward (c) A magnet is provided in each of the concrete and the second toy body, and when the arm member pivots upward and a part of the second toy body comes into contact with the side surface of the first toy body, the magnet (D) The drive mechanism is linked to the return rotation of the arm member rotated downward. It is activated Te   The first toy body is formed to resemble an animal parent, the second toy body is formed to resemble an animal child, and the magnets are respectively disposed at the mouth of the toy body. The operation toy according to claim 1.   The action toy according to claim 1 or 2, wherein a float is provided on the base so that the base floats on water.   4. The action toy according to claim 1, wherein the arm member is provided with a float instead of the spring member, and the arm member is rotated upward by the buoyancy of the float.

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