JPH0420477Y2 - - Google Patents

Description

[Detailed Description of the Invention] (Industrial Application Field) The present invention relates to a two-wheeled vehicle shape-changing toy, and more particularly to a two-wheeled vehicle shape-changing toy that can transform from a two-wheeled vehicle to a robot.

(Prior art and its problems) Conventionally, two-wheeled shape-changing toys that change into the shape of a robot have a too complicated structure, which limits miniaturization, and it is also difficult to change the shape. There are some drawbacks, and a solution to this problem has been desired.

(Problem to be solved by the invention) The present invention has been made in view of the above-mentioned viewpoint, and proposes a two-wheeled vehicle shape-changing toy that has a particularly simple structure but can easily perform complex shape changes. The purpose is to

(Technical means to solve the problem) As a technical means to solve the above problem,
The two-wheeled vehicle shape-changing toy according to the present invention is characterized by having the following requirements.

(a) The vehicle body is formed separately from the vehicle body, a front wheel holder, and a rear wheel holder. (b) The vehicle body, front wheel holder, and rear wheel holder are rotatable via a connecting body. (c) The above-mentioned connecting body includes a first bearing part whose part is formed into a hedrite shape, and a second bearing part which protrudes in a bifurcated shape from one end of the first bearing part to the opposite side. (d) The vehicle body is pivotally supported on both sides of a first bearing portion of the connecting body, and the front wheel holding portion is supported by a bifurcated second bearing of the connecting body. and the rear wheel holder is pivotally supported on the outside of the second holder. is the robot's back part,
The rear wheel holding parts each constitute a body part of the robot (function and effect of the invention). According to the above structure, since the connecting body is Y-shaped, the body main part and the front wheel holding part which constitute the vehicle body in the form of a two-wheeled vehicle are and the rear wheel holder, and by rotating each, the vehicle body can connect the robot's legs, the front wheel holder can connect the robot's back member, and the rear wheel holder can connect the robot's back member to the rear wheel holder. The shapes can be changed by forming the body of the robot. Therefore, it is possible to provide a toy that is compact and can change into completely different forms.

(Example) Hereinafter, an example of an embodiment of the present invention will be described with reference to the drawings.

In the figure, the symbol A indicates a two-wheeled vehicle shape-changing toy according to the present invention. This two-wheeled vehicle shape-changing toy A has a main body part 1a, a front wheel holding part 1b, and a rear wheel holding part 1c.
It is separated into three parts and connected via a connecting body 3.

The connecting body has a first part formed in the shape of a hedrite.
a bearing part 3a and a second bearing part 3b, 3b protruding in a bifurcated manner from one end of the first bearing part 3a to the opposite side.
It is formed into a substantially Y-shape.

The vehicle main body portion 1a has a fitting recess 2 formed by bearing portions 2a, 2a protruding from its tip, and a support member 4 that is bendable at its rear end via a support shaft 4a. It is attached. In addition, 4b
indicates a fitting recess formed in the center of the rear end surface of the vehicle body main body portion 1a. The vehicle main body portion 1a is the connecting body 3
The first bearing portion 3a is housed in the fitting recess 2a, and is supported by a support shaft 10a.

The front wheel holding part 1b rotatably supports the front wheel 5 on a support shaft 5a at the lower part thereof, and has a bearing part 6 at the upper part, and the bearing part 6 is connected to the bifurcated second part of the connecting body 3. It is supported by a support shaft 10b inserted into the bearing part 6 inside the bearing parts 3b, 3b.

Further, the rear wheel holding portion 1c has support shafts 7a, 7 on both sides.
The side fender parts 7, 7 are rotatably provided by a, and a rear wheel 9 is rotatably provided by a support shaft 9a on a support member 8 protruding from the center of the lower part. Formed fitting recess 1
A robot head 12 is housed in the robot head 1 in a manner that it can be raised and lowered freely, and bifurcated bearing parts 13, 13 are provided at the tip.
Then, a bifurcated bearing part 13 is provided on the outside of the second bearing part.
13, and is pivotally supported via the support shaft 10b. Note that the robot head 12 functions as an engaging protrusion for a combined element in the form of a combined robot, which will be described later.

Next, when changing the shape of the two-wheeled vehicle shape-changing toy A having the above configuration, first, as shown in FIGS.
The main body part 1a of the vehicle body is rotated 180° with the support shaft 10a as the fulcrum.
At the same time, the support member 4 attached to the rear end of the vehicle main body part 1a is rotated 180 degrees around the support shaft 4a.
Rotate it so that it is positioned on the back side and set it upright.
Next, the side fender parts 7, 7 attached to both sides of the rear wheel holding part 1c are rotated approximately 100 degrees forward about the support shafts 7a, 7a. Thereby, the vehicle main body portion 1a is a leg portion supported by the support member 4, the front wheel holding portion 1b is a shoulder member, and the rear wheel holding portion 1c is a leg portion supported by the support member 4.
It can be changed into a robot form in which the body is a body part, the connecting body 3 is a waist part, the side fender parts 7 are arm parts, and the robot head 12 is a head part.

In addition, when changing from a robot shape to a two-wheeled vehicle shape, each component may be rearranged in the opposite manner to the above.

As mentioned above, the two-wheeled vehicle shape-changing toy A has three divided parts: the main body part 1a, the front wheel holding part 1b, and the rear wheel holding part 1c, which are centrally connected via the connecting body 3 so that they can be folded and expanded. Even if they appear to be disjointed at first glance, a voluminous form can be obtained, and the form can be easily changed.

Next, another usage mode of the above-mentioned two-wheeled vehicle toy A will be explained in the fourth section.
Figures a and b will be explained. This figure shows a combined robot toy B that utilizes the two-wheeled vehicle shape-changing toy A as a combined element 50 constituting the right leg of the combined robot. This combined robot toy B has five combined elements 20, 30, 40, 50, 60 that constitute its body, both arms, and both legs, and a head member 73.
This combined element 20, 3
0, 40, 50, and 60 are a combined element 20 that constitutes a body when transformed into a robot, combined elements 30 and 40 that constitute both arms, combined elements 50 and 60 that constitute both legs, and a head. It is formed by attaching a head member 73 that is attached to the head member 73.

Next, each structure of the combined elements 20, 30, 40, 50, and 60 that constitute the combined robot toy B will be explained.

First, as shown in FIGS. 5a to 5c, the combined elements 20 constituting the fuselage are formed so as to change shape from an airplane to a cannon, and from a cannon to a robot. That is, in the airplane configuration, the fuselage member 21
Rotating members 22, 2 are attached to support shafts 23, 23 on both sides of the front end of the
2 is rotatably attached. Rotating member 22,
22 is a front member 22a, 22a and a rear member 22b, 2
2b are rotatably connected via support shafts 22c, 22c. Then, the rear members 22b, 2
2b is rotated approximately 45 degrees about the support shafts 22c, 22c to stand upright, and then the wing members 23b, 23b attached to the outer surfaces of the members 22b, 22b via the support shafts 23a, 23a are attached. It is configured to change into a cannon form by folding forward 90 degrees. Furthermore, in this state, the rear member 22b,
22b, the front members 22a, 22a are attached to the support shaft 22
c and 22c, the fuselage member 21 is rotated approximately 135° upwards about the support shaft 23, and the nose member 24 is bent on the back side of the fuselage member 21 via the support shaft 23. fold. Then, the cover member 25 provided on the upper part of the body member 21 is folded forward by 180 degrees to expose the robot head member 26, and the waist member 21b integrally connects the body member 21 to the lower part thereof.
By rotating the arm members 27, 27 on both sides horizontally by 90 degrees,
It is configured to change into a robot form.
In the robot form, the combined element 20 has engagement receiving portions 2 at the upper portions of the outer surfaces of the arm members 27, 27.
8, 28 are formed.

Next, the combined elements 30 and 40 forming both arms of the combined robot toy B change as shown in FIGS. 6 and 7. First, the combined element 30 forming the left arm is transferred from the automobile to the robot as shown in FIGS. 4a to 4c, and the combined element 40 forming the right arm is transferred from the fifth
As shown in Figures a to c, they are formed to change shape from an airplane to a robot.

The combining element 30 is the intermediate member 3 in the automobile configuration.
1, a front member 32 is attached to the front member 32 via connecting members 32a, 32a so that it can be expanded and contracted, and a rear member 33 is attached to the front member 32 so that it can be folded and expanded. A tip member 38 is attached to be foldable and unfoldable, and arm members 34 are attached to both sides of the intermediate member 31 so as to be rotatable about a support shaft 34a. Then, the front member 32 is extended with respect to the intermediate member 31, and the front member 32 is attached to the front member 32.
8, and further, the rear member 33 is bent 180° backward to expose the robot head 35, and then the arm members 34, 34 attached to the intermediate member 31 are made to protrude forward. Therefore, it is configured to change into a robot form. Note that the robot head 35 functions as an engaging protrusion. Further, a fitting recess 31a is formed on the back surface of the intermediate member 31, as shown in FIG. It is stored in.

Furthermore, as shown in FIGS. 7a to 7c, the combined element 40 has a fuselage section 41 formed by divisible front and rear members 42 and 43 in an airplane configuration, and arms are provided on both sides of the front member 42. Members 44, 4
4 is rotatably attached via spindles 44a, 44a, and horizontal wing members 45, 45 are attached to both sides of the rear member 43 via spindles 45a, 45a so as to be foldable and deployable, respectively. Then, the front member 42 is rotated 180 degrees forward and the robot head 4 is attached to the upper part.
6 is exposed, the arm members 44, 44 are rotated forward to protrude, and the horizontal wing members 45, 45 of the rear member 43 are folded 90 degrees rearward, thereby changing into a robot form. It is configured as follows. As shown in FIG. 10b, the robot head 46 can be folded around a support shaft 46a and expanded freely, and also functions as an engaging protrusion.

Next, the combined elements 50 and 60 forming both legs of the combined robot B change as shown in FIGS. 1 and 8. First, the combined element 50 forming the left leg
The combination element 60 forming the right leg is changed from the two-wheeled vehicle to the robot as shown in FIGS. 1a to 1c.
As shown in FIGS. 1 and 2c, they are formed so as to change shape from a drill vehicle to a robot.
As described above, in the two-wheeled vehicle mode, the combining element 50 expands the vehicle body section 1a by 180 degrees around the support shaft 10a with respect to the rear wheel holding section 1c, and is attached to the rear end of the vehicle body section 1a. The supporting member 4 attached to the rear wheel holding portion 1c is expanded 180 degrees around the support shaft 4a and positioned on the back side, and the arm members 7, 7 attached to both sides of the rear wheel holding portion 1c are moved around the support shafts 7a, 7a. It is configured to change into a robot form by rotating approximately 100 degrees forward about the fulcrum.

On the other hand, as shown in FIG.
The front member 62 attached via a is folded back approximately 180 degrees to expose the robot head 63 on the upper part thereof, and the rear member 64 is unfolded 180 degrees. Support shafts 65a and 65 are provided on both sides of the central member 61.
By protruding the wheel support members 65, 65 attached via a to the front, it is configured to change into a robot form. The robot head 63 is attached to the front part of the central member 61 via the support shaft 61a.
It can be expanded 90 degrees and also functions as an engagement protrusion.

70 is a hand member, 71 is a foot member, and 73 is a head member. Then, as shown in FIG. 9, this hand member 7
0, fitting convex portions 70a, 70a that fit into fitting receiving portions 33b, 43b formed at the lower parts of the rear members 33, 43 of the combining elements 30, 40 forming both arms of the combined robot, The leg member 71 has fitting convex portions 71a and 71a that fit into the vehicle body main body portion 1a of the combination elements 50 and 60 that combine both legs, and into the fitting receiving portions 1d and 64a formed at the lower part of the rear member 64, respectively. It is formed. In addition, the head member 73 has a combination element 2.
Robot head member 2 provided on the upper part of the body member 21 of 0
A fitting recess 73a that fits into the hole 6 is formed.

Each combined element 20, 30, 40, 5 having the above configuration
0 and 60 to form the combined robot shown in FIG. 4a, first, the combined elements 20 and
30, 40, 50, and 60 are transformed into robot shapes. And a combined element 20 that constitutes the body part
Arm members 27, 27 attached to both sides of the body member 21 of
By rotating the engaging protrusion 36 of the combining element 30 and the robot head 46 of the combining element 40 by 90 degrees to engage the engaging receiving parts 28, 28 formed on the outer surface of the This combined element 30, 40
Combine. Next, by engaging the robot heads 12, 63 of the combining elements 50, 60 with the engagement receiving parts 29, 29 formed on the bottom surfaces of the rear members 22b, 22b of the combining element 20 constituting the body part. , the combined elements 50 and 60 are combined. As a result, the combined robot toy B can be formed.

Since the above-mentioned combining elements 20, 30, 40, 50, and 60 are detachable from each other, the combination of the combined robot toy B can be easily released.

As mentioned above, the combined robot toy B has the combined element 2.
You can enjoy the shape change of 0, 30, 40, 50, 60 itself, and this combined element 20,
By combining 30, 40, 50, and 60 together with the head member 73, a completely different combined robot toy with a large scale is obtained, thereby expanding the play area.

In addition, in the above-mentioned combined robot toy B, the combined elements 30, 40 that constitute both arms and the combined elements 50, 60 that constitute both legs are not necessarily limited to these, for example, combined elements 50, 60.
The combined elements 30 and 40 may be configured as both arm portions and both leg portions.

[Brief explanation of the drawing]

1A to 1C are perspective views showing an example of the embodiment of the two-wheeled vehicle shape-changing toy according to the present invention in a state in which the shape changes; FIG. An explanatory diagram showing the rotating state of the robot head attached to the holding part, FIG. A perspective view of a combined robot toy using a shape-changing toy as a combined element constituting the legs, FIG.
Figures a to c, Figures 6 a to c, Figures 7 a to c, and Figures 8 a to c are explanatory diagrams showing variations of the combined element, respectively, Figures 9 a to c are hand members, foot members, and FIGS. 10a and 10b are explanatory diagrams showing how the head member is attached, and FIGS. 10A and 10B are explanatory diagrams showing the rotating state of the engaging protrusion and the head member. Code A...Two-wheeled vehicle shape-changing toy, 1...Vehicle body,
1a...Vehicle main body part, 1b...Front wheel holding part, 1c
... Rear wheel holding section, 3 ... Connecting body, 4, 8 ... Supporting member, 7 ... Side fender section.

Claims (1)

[Scope of Claim for Utility Model Registration] A two-wheeled vehicle shape-changing toy characterized by meeting the following requirements. (a) The vehicle body is formed by being divided into a vehicle body, a front wheel holder, and a rear wheel holder. (b) The vehicle body, front wheel holder, and rear wheel holder are rotatable via a continuous body. (c) The above-mentioned connecting body includes a first bearing part whose part is formed into a hedrite shape, and a second bearing part which protrudes in a bifurcated shape from one end of the first bearing part to the opposite side. (d) The vehicle body is pivotally supported on both sides of a first bearing portion of the connecting body, and the front wheel holding portion is supported by a bifurcated second bearing of the connecting body. and the rear wheel holder is pivotally supported on the outside of the second holder. is the robot's back part,
The above-mentioned rear wheel holding parts each constitute the body part of the robot.