KR20180086780A - Transformable Toy Car - Google Patents

Abstract

The present invention relates to a transformable toy car. According to one embodiment of the present invention, the transformable toy car can be transformed between a first mode of a car shape and a second mode of a robot shape. Moreover, the transformable toy car comprises: a fixing frame; an operating frame connected to the rear portion of the fixing frame and moving between a first position parallel to the ground in the first mode and a second position erect with respect to the ground in the second mode; and a first trigger connected to the rear portion of the operating frame, fixing the operating frame in the first position in a locked state, and moving the operating frame to the second position in a released state. Furthermore, the first trigger can be activated in the released state so as to move the operating frame to the second position.

Description

Transformable Toy Car

BACKGROUND OF THE INVENTION 1. Field of the Invention [0001] The present invention relates to a transformed automobile toy, and more particularly, to a transformed automobile toy that automatically transforms into an upper body of a robot by collision during a running process of the automobile.

The transforming toys have various toy bodies made of robots, automobiles, and the like, which are assembled into robots or automobile toys. Since they represent various shapes as one kind of toys, There is an advantage that various play can be enjoyed through.

For example, Patent Document 1 discloses a transforming automobile toy that automatically deforms a shape of a card when the card is attached to an automobile while the automobile is running.

In the case of Patent Document 1, since one automobile is transformed into one robot, various types of robots can not be realized as one automobile, so that interest is easily lost.

KR 10-1327305 B1

SUMMARY OF THE INVENTION It is an object of the present invention to provide an automobile toy in which one automobile can be transformed into an upper body of a robot or a lower body of a robot by collision with another vehicle in a traveling process.

The transformed automobile toy according to an embodiment of the present invention is capable of being transformed between a first mode of an automobile shape and a second mode of a robot shape and is connected to a fixed frame and a rear portion of the fixed frame, And a second position, which is upright with respect to the ground in the second mode, and a second housing connected to the rear of the actuating frame, the first housing being in the locked state, the actuating frame A first trigger configured to lock at said first position and configured to move said actuation frame to said second position in an unlocked state and a second trigger configured to be retracted from said first position when said first trigger is withdrawn, Wherein the first trigger is activated to the released state by a collision with the first actuating surface, It is formed so as to move the work frame to the second position.

The operation frame may include a first operation bar and a second operation bar, one end of which is connected to the lower portion and the upper portion of the fixed frame, and the other end is connected to the lower and upper portions of the first fastening portion, respectively.

A torsion spring is provided between the first actuating bar or the second actuating bar and the fixed frame, and in the released state to the first trigger, the torsion spring causes the first actuating bar and the second actuating bar to move upright on the ground .

The first actuating bar is formed with a guide slot, the first trigger protrudes upward from the first housing to form a protrusion moving along the guide slot, and a first step portion is formed at the rear end of the guide slot And a second stepped portion is formed at an end of the protruding portion so that the first step and the second stepped portion are engaged with each other to maintain the locked state when the protruding portion is located at the rear end of the guide slot .

And a head unit arranged in an upper direction in the fixed frame.

And a tail portion formed to cover the second operation bar in the first mode and the tail portion configured to rotate in the gravity direction in the second mode.

Wherein a pair of shafts on which a left arm frame and a right arm frame are mounted are disposed on both sides of the stationary frame, the shaft includes a slide portion connected to the inside of the stationary frame, And may include a left arm frame or a right arm arm mounted with the right arm frame.

The slide portion may include a fixing portion fixed to the leaf spring formed on the fixed frame and a sliding bar contacting the first actuating bar and sliding the shaft out of the fixed frame by the upright movement of the first actuating bar have.

Wherein the arm extending portion is inserted into the fixed frame at a position where the arm extending portion and the fixed pin are parallel to each other and fixed in position in the first mode, In the second mode, as the shaft is slid to an outer position of the fixed frame, the arm extending portion and the fixed pin may come out of the fixed frame, and the left arm frame or the right arm frame may be formed to rotate in the gravity direction .

Wherein the fixing frame includes a receiving groove for receiving the fixing pin in the first mode and a fixing pin for fixing the arm when the left arm frame or the right arm frame rotates in the gravity direction from the receiving groove to rotate the arm extending portion, And a second guide surface for guiding the developing unit to be spaced away from the developing unit at a predetermined angle.

And a bonnet part rotatably formed in front of the fixed frame, wherein the bonnet part can be formed to rotate in the gravity direction when the operation frame stands up.

A pair of arm frames may be rotatably connected to both sides of the fixed frame, and both sides of the bonnet may further include a third magnet portion coupled to the pair of arm frames by magnetism.

The fourth magnet portion may be configured to be magnetically coupled with a part of the fixed frame facing at a position where the bonnet portion rotates in the gravity direction.

According to another embodiment of the present invention, there is provided a transformed car toy for an upper body robot comprising a transformed car toy according to the above-described embodiment, wherein the transformed car toy for the upper body robot includes a second operation surface on the front side, The first trigger is displaced to a position corresponding to a first protrusion formed on the second operating surface on the first operating surface so as to be transformed with a transformed car toy for a lower body robot operated by a second trigger drawn to an operating surface And a second projection is formed at a position corresponding to the second trigger on the first operation surface so that the first trigger and the second trigger are operated by the collision of the first operation surface and the second operation surface .

And a first magnet portion may be formed on the first operation surface to apply a magnetic force to the second operation surface.

According to an embodiment of the present invention, it is possible to provide a transformed automobile toy in which one automobile can be transformed into a robot upright by collision during a driving process.

Specifically, it is possible to provide a transformed car toy for an upper body part in which one vehicle can be transformed into an upper body part of the robot by collision during a running process.

Further, it is possible to provide a transformed car toy for an upper body part, which can be combined with and transformed by collision with an automobile toy that can be transformed into a lower body part of the robot to form an integral humanoid robot.

And it is possible to provide a transformed car toy for upper body part which can be combined with the lower body parts of various robots by being able to engage with lower body parts of various robots having corresponding operation surfaces.

1 is a view showing a humanoid robot (c) in which a transformer car toy (a) for a body part, a transformer car toy (b) for a lower body part, and a transformed car toy for a body part and a transformed car toy for a lower body part according to an embodiment of the present invention to be.
FIG. 2A is a cross-sectional view showing a first mode of an automobile shape of a transformed car toy for an upper body according to an embodiment of the present invention, and FIG. 2B is a diagram showing a process of collision with a transformed toy for a lower body.
FIGS. 3A and 3B are diagrams showing a process in which the operation frame is changed to stand upright immediately after the collision. FIG.
4 is a view showing a process of operating the arm frame in the process of erecting the operation frame.
FIGS. 5A and 5B are diagrams showing an operation process of the arm frame shown in FIG. 4 and the subsequent drawings.
FIG. 6 is a view of the operation of the arm frame shown in FIG. 4 and the other views.
7 is a view schematically showing the operation process of the bonnet portion.
8 is a view showing an automobile toy turned into an upper body part of the robot.

These embodiments are capable of various modifications and various embodiments, and specific embodiments will be described in detail with reference to the drawings. It is to be understood, however, that it is not intended to limit the scope of the specific embodiments but includes all transformations, equivalents, and alternatives falling within the spirit and scope of the disclosure disclosed. DETAILED DESCRIPTION OF THE PREFERRED EMBODIMENTS In the following description of the embodiments of the present invention,

DETAILED DESCRIPTION OF THE PREFERRED EMBODIMENTS Hereinafter, embodiments of the present invention will be described in detail with reference to the accompanying drawings. Referring to the accompanying drawings, the same or corresponding elements are denoted by the same reference numerals, and a duplicate description thereof will be omitted.

1 is a view showing a humanoid robot (c) in which a transformed car toy (a) for a body part, a transformed car toy (b) for a lower body part, and a transformed car toy for a body part and a transformed car toy for a lower body part according to an embodiment of the present invention to be.

Fig. 1 (a) shows the transformed car toy 10 for the upper body part, and Fig. 1 (b) shows the transformed car toy 20 for the lower body part. The transformed car toy 10 for the upper body part and the transformed car toy 20 for the lower body part are transformed to constitute the upper body part and the lower body part of the humanoid robot 30 by the collision and are combined at the same time to constitute an integrated robot.

According to an embodiment of the present invention, various types of humanoid toy for upper body 10 and various types of humanoid toy 20 for lower body can be interchangeably combined to realize various humanoid robots .

According to the embodiment of the present invention, the first operation surface disposed on the rear side of the transformed car toy for upper body part 10 and the second operation surface disposed forwardly on the transformed car toy for lower body part 20 collide with each other during running So that the transformed automobile toy is transformed, and at the same time, the first operation surface and the second operation surface are coupled with each other, thereby realizing an integrated humanoid robot.

FIG. 2A is a cross-sectional view showing a first mode of an automobile shape of a transformed car toy for an upper body according to an embodiment of the present invention, and FIG. 2B is a diagram showing a process of collision with a transformed toy for a lower body.

Referring to FIG. 2A, according to an embodiment of the present invention, a transformed car toy transformable between a first mode of an automobile shape and a second mode of a robot shape is provided.

The transformed car toy includes a fixed frame (110), a first position connected to the rear of the fixed frame (110), a first position parallel to the ground in the first mode and a second position parallel to the ground in the second mode And a first fastening part 130 connected to the rear of the actuating frame 120. The first fastening part 130 includes a first fastening part 130,

The first fastening part 130 is formed to fix the operation frame in the first position in the locked state and to move the operation frame to the second position in the released state And a first actuating surface (X) disposed on the rear surface of the first housing (131) and from which the first trigger (133) is withdrawn.

The first trigger 133 is activated by the collision with the first actuating surface X to the released state to move the actuating frame 120 to the second position.

According to an embodiment of the present invention, the first magnet portion 137 may be formed on the first operation surface X to apply a magnetic force to the second operation surface Y. [

2B, the transformed car toy 10 for upper body part is formed to draw the first trigger 133 at a predetermined third position on the first operation surface X, and the first operation surface A first magnet portion 137 capable of providing a magnetic force at a predetermined fourth position on the X axis can be disposed.

A first protrusion 238 is formed at a position corresponding to the third position on a second operation surface Y disposed on the front surface of the transforming car toy 20 for the lower body so as to correspond to the first protrusion 238, And a second magnet portion 237 capable of providing a magnetic force at a position corresponding to the fourth position.

Various components for magnetically coupling the first working surface X and the second working surface Y may be applied thereto.

According to one embodiment, the first trigger 133 may further include an extension 135 extending adjacent to the first magnet portion 138, and the extension 135 may be formed as shown in FIG. (I.e., a surface opposite to the surface that applies a magnetic force to the second working surface Y) of the first magnet portion 137 in the locked state, And to fix the locked position of the locking member 133 to the locked state.

The first actuating surface X may further include a second protrusion 138 at a predetermined fifth position corresponding to the second trigger 235 drawn out from the second actuating surface Y. [

The first protrusion 238 actuates the first trigger 133 and the second protrusion 138 actuates the first trigger 133 by the impact of the first actuating surface X and the second actuating surface Y, The first magnet portion 137 and the second magnet portion 237 are magnetically coupled to each other so that the first operation surface X and the second operation surface Y are engaged with each other .

Accordingly, as shown in Fig. 1C, the first operation surface X and the second operation surface Y are brought into close contact with each other to constitute an integrated robot.

According to an embodiment of the present invention, the position of the first trigger 133, the first magnet portion 137, and the second protrusion 138 drawn to the first operating surface X of the transformed car toy for the upper body part, The positions of the first projecting portion 238, the second magnet portion 237 and the second trigger 235 drawn to the second operation surface Y of the transformed car toy of the lower body are correspondingly arranged, Can be combined at the same time. That is, by making the positions of the first operation surface X and the second operation surface Y correspond to each other, it is possible to interchange the various transformation vehicles for the upper body part and the transformation vehicles for the various lower body parts.

FIGS. 3A and 3B are diagrams showing a process in which the operation frame is changed to stand upright immediately after the collision. FIG.

Referring to FIGS. 3A and 3B, according to an embodiment of the present invention, the fixed frame 110 is composed of a first fixed frame 111. In the embodiment of FIG. 1, the first fixed frame 111 is shown. However, the first fixed frame 111 is not limited to the first fixed frame 111, and may be formed of a plurality of fixed frames according to the shape or configuration of the product.

In addition, according to one embodiment, the operation frame 120 is connected to the lower and upper portions of the fixed frame 111 at one end and to the lower and upper portions of the first coupling portion 130, respectively And may include a first actuating bar 123 and a second actuating bar 125.

Or " rear " refers to the " running direction " or " running " of a transforming vehicle The direction opposite to the direction ".

Accordingly, the actuating frame 120 is configured to move between a first position parallel to the paper plane of the first mode and a second position upright relative to the paper plane of the second mode. The first actuating bar 123 and the second actuating bar 125 of the first mode are in a first position (see Fig. 1 (a)) parallel to the ground and the first actuating bar 123 of the second mode, (See Fig. 1 (c)) in which the first operating bar 125 and the second operating bar 125 stand upright with respect to the paper.

The first fastening part 130 connected between the first actuating bar 123 and the second actuating bar 125 includes a first housing 131. When the first fastening part 130 is locked in the first housing 131 And a first trigger (133) configured to lock the actuation frame in the first position and configured to move the actuation frame to the second position in an unlocked state.

2A is a diagram showing a locked state arrangement in a first mode of a transformed car toy of an embodiment of the present invention.

Referring to FIG. 2A, a guide slot 127 is formed in the second actuating bar 125, and a first step S ₁ is formed at a rear end of the slot 127. The first trigger 133 has a protrusion 134 protruding upward from the first housing 131 so that the protrusion 134 moves along the guide slot 127 of the second actuating bar 125 . A second step S ₂ may be formed at the end of the protrusion 134 so that when the first trigger 133 is located at the rear end of the protrusion 134, The first stepped portion S ₁ and the second stepped portion S ₂ are fastened to each other so that the second actuating bar 125 and the first fastening portion 130 move And to maintain the locked state.

The first actuating bar 123 and the second actuating bar 123 are fixed to each other by fixing the second actuating bar 125 and the first engaging part 130 by interlocking the first step S ₁ and the second step S ₂ , And the motion of the fixed frame 111 can be fixed at the same time. Accordingly, the transforming car toy is maintained in the first mode of the vehicle type, and the user can use the toy in the form of an automobile.

2B and 3A, the first trigger 133 is moved forward by a collision against the first operating surface, and the protrusion 134 is moved along the guide slot 127 When the fastening of the first stepped portion S ₁ and the second stepped portion S ₂ is released, the first operating bar 123 and the second operating bar 125 are released You can move it.

According to an embodiment of the present invention, a torsion spring (not shown) may be installed between the first actuating bar 123 or the second actuating bar 125 and the first securing frame 111, In the released state of the trigger 133, the first actuating bar 123 and the second actuating bar 125 can be caused to move upright on the ground as indicated by the arrow a1 in Fig. 3A by the torsion spring have.

In the embodiment of FIG. 3A, a torsion spring is installed between the first fixed frame 111 and the first actuating bar 123 connected to the lower portion. However, the present invention is not limited thereto. The torsion spring may be installed between the second actuating bar 125 and the first actuating bar 111, or between the first actuating bar 123 and the first actuating bar 111, (Not shown).

That is, one or more torsion springs may be disposed between the first fixed frame 111 and the first actuating bar 123 and / or the second actuating bar 125, according to one embodiment, A torsion spring having a female angle of the first operating bar 123 and the second operating bar 125 can be disposed so that the first operating bar 123 and the second operating bar 125 are in a second position It can move and maintain the state.

It goes without saying that various torsion springs may be used depending on the desired movement angle of the first position and the second position or the shape of the desired robot.

Thereby, the transformed car toy can be held in the state of the robot upper body standing upright with respect to the ground.

FIG. 3B is a cross-sectional view illustrating the operation of the first fixing frame 111 and the first actuating bar 123, the second actuating bar 125 and the first engaging part 130 in FIG. Fig.

3B, as the engagement between the first trigger 133 and the second actuating bar 127 is released, by the force exerted by the torsion spring, the first actuating bar 123 and the second actuating bar 127 The bar 127 is moved to a position standing upright with respect to the ground.

According to an embodiment of the present invention, the first actuating bar 123 and the second actuating bar 127 may rotate the first engaging part 130 by approximately 100 °. Accordingly, the first operating surface X of the first fastening portion 130 may be the lower surface of the robot upper body in the second mode.

According to one embodiment, the first operating surface X is a lower surface of the robot upper body, and is coupled to the upper surface of the robot underbody portion by fastening means such as the first magnet portion and the second magnet portion described above Can be maintained.

Referring to FIG. 3A, the head unit 115 may further include a head unit 115 disposed in an upper direction of the first stationary frame 111. In the first mode, the head part 115 constitutes a driver aboard the automobile. The head part 115 may include a seat-shaped frame behind the head part 115. In addition, the head unit 115 can configure the head of the robot in the second mode.

In addition, a tail portion 170 formed to cover the second actuating bar 127 may be rotatably connected to the first securing frame 111. In the first mode (see FIG. 2A), the frame 170 can be held stationary on the seat-shaped frame of the vehicle, and in the released state, the first actuating bar 123 and the second actuating bar 125 It can be rotated downward by the gravity as it stands up to constitute the back part of the robot upper body part.

For example, referring to FIG. 8, the upper portion 170 of the upper body of the robot may further include a wing portion 171 which can fold and unfold the inner portion of the cover 170 while covering the back. Accordingly, in the first mode, the wing portion 171 may be held in a folded state, and in the second mode, the wing portion may be opened.

It is needless to say that the frame part and the wing part are not necessarily limited to this, and various configurations may be further included or omitted depending on the shape of the robot and the shape of the vehicle.

4 is a view showing a process of operating an arm frame in the process of erecting the operation frame.

During the first operation bar 123, the second actuating bar 125 and the first coupling part 130 connected thereto for operating the frame 120 is moved to the second position from the first position as shown by the arrow a _2, arm Frames can be transformed together.

Shafts on which the left and right arm frames are mounted may be disposed on both sides of the first fixed frame 111. Hereinafter, the right arm frame of the robot will be described as a reference, but the present invention is not limited thereto and may be applied to the left arm frame.

Referring to Fig. 4, the right arm frame can be maintained in a state in which it extends in parallel with the ground in the first mode. In other words, the left and right arm frames can form both side frames of the vehicle in the first mode.

5A and 5B are views showing a state in which the right arm is deployed according to an embodiment of the present invention.

5A and 5B, a shaft 145 drawn through both sides of the first fixing frame 111 includes a slide part 141 connected to the inside of the first fixing frame 111, And an arm extension 147 connected to the outer side of the fixed frame 111 with a rotation axis perpendicular to the shaft 145. The arm extension 147 is formed to mount the left or right arm frame 151 on the arm extension 147. [

The slide part 141 is provided with a fixing part 141a which is fixed on a leaf spring 143 (see FIG. 4) formed on the first fixing frame 111 and a fixing part 141a of the first actuating bar 123 Figure 5b of the arrow a ₃₎ and a sliding bar (141b) that slides to the outer side of the first fixed frame 111 by the upright operation. The first actuating bar 123 may include a first guide surface 124 for guiding the sliding bar 141b in the outer direction of the first securing frame 111 on both sides.

Accordingly, in the locked state, since the fixing portion 141a is fixed on the leaf spring 143, the shaft 145 is held in the inward position of the first fixing frame 111. [

However, in the released state, the first operating bar 123 moves upward as indicated by an arrow a _{3 in} FIGS. 5A and 5B, so that the sliding bar 141b connected to the shaft 145 is moved to the first operating bar The shaft 145 is slid to the outward position of the first fixing frame 111 as indicated by an arrow a ₅ in FIG.

More specifically, according to one embodiment, the shaft 145 may be slid approximately 2.5 mm to the outward position of the first securing frame 111.

As the shaft 145 is slid to the outward position, the arm extension 147 is pulled out to the outside of the first fixed frame 111, the lock of the arm frame is released and the movement of the arm frame becomes free, The arm frame falls downward in the direction of the ground by the gravity like the position of the arm frame 151 in Fig.

6 is a diagram specifically showing the locked state and the unlocked state (or unfolded state) of the arm frame 151. As shown in Fig.

Referring to FIG. 6A, according to one embodiment, the arm deploying portion 147 includes a fixing pin 149 disposed in parallel to the arm extending portion 147 and configured to be opened at a predetermined angle. In the locked state, the arm extension 147 and the fixing pin 149 are inserted into the first fixing frame 111 at positions aligned with each other, and their positions are fixed.

In this case, since the arm extension 147 and the fixing pin 149 are fixed on the first fixed frame 111, the arm frame 151 is moved in a position parallel to the ground in the first mode )).

However, as described above, as the shaft 145 is slid to the outward position by the operation of the first actuating bar 123 (see Figs. 5A and 5B) while the lock is released to the second mode, The arm extension 147 and the fixing pin 149 are removed from the first fixing frame 111.

Then, in the rotation as shown by the arrow a ₆ of the cancer development section to fall to 147, the arm frame is ground in a position parallel to the ground by gravity direction mounted to the cancer development section 147 (b) of Fig. 6 do.

Here, the fixing pin 149 is moved along the second guide surface 126 formed on the outer surface of the first fixing frame 111 and extending to the arm extension 147 at a predetermined angle. More specifically, the second guide surface 126 is configured such that when the arm deploying portion 147 is rotated substantially perpendicular to the ground from the receiving groove 145 that receives the retaining pin 149 in the locked state, the retaining pin 149 ) it may have a curved shape in which the guide is positioned at a predetermined angle away from the group, such as cancer development section 147 and the arrow ₇ a.

Accordingly, as shown in FIG. 6 (c), it can be seen that the arm expanding portion 147 and the fixing pin 147 are kept open at a predetermined angle. Accordingly, the arm frame 151 fixed to the arm extension 147 can be inclined to the first fixed frame 111 by a predetermined angle?, And fall in the direction of the ground. More specifically, according to one embodiment, the arm frame 151 may be formed to fall away from the first fixed frame 111 at an angle of approximately 10 degrees in the direction of the ground.

Accordingly, even when the user does not adjust the position of the arm when the robot is automatically changed to a robot, it is possible to provide a robot shape in which the arm is open at a predetermined angle with respect to the first fixed frame, can do.

However, it should be understood that the present invention is not limited thereto, and may be modified into various forms depending on the shape of the robot and the shape of the automobile.

7 is a view schematically showing the operation process of the bonnet portion.

According to an embodiment of the present invention, a bonnet unit 161 rotatably formed in front of the first fixing frame 111 may be further included.

Referring to FIG. 7 (a), the bonnet unit 161 is positioned in front of the first fixed frame 111 in the first mode. A third magnet portion 163 (see Fig. 7 (b)) is disposed on both sides of the bonnet portion 161 and is fastened to the front end portion of the arm frame 151 to fix the position thereof Respectively.

And, by the release of the locked state, the shaft 145 is slide in the outer position (see Figs. 5a and 5b) as shown in the arrow a ₈ in (b) of Figure 7 (approximately 2.5 mm or so) when be earned , The position of the bonnet portion 161 is freed.

Then, the first operating bar and a second operating bar when the upright, Fig. 7 (c) and the bonnet 161 by gravity as in the rotates to come down along the arrows ₉ a.

7 (d), the bonnet portion 161 includes a fourth magnet portion 163 inside the bonnet portion 161 to fix the position of the first fixing frame in the second mode . For example, the front axle 113 formed on the first fixed frame 111 and the fourth magnet portion 163 are coupled to each other by the magnetic force, so that the position of the front axle 113 can be maintained unchanged in the second mode .

8 is a view showing an automobile toy turned into an upper body part of the robot.

The operation of the first trigger causes the first actuating bar 123 and the second actuating bar 125 to be successively erected in succession by the collision against the first actuating surface X, The tail portion 170 and the bonnet portion 161 can be automatically moved from the first mode to the second mode to form the robot body as shown in Fig.

According to various embodiments of the present invention, the transforming automobile toy may include configurations that are automatically transformed by actuation of the first trigger, and further may be configured to move manually after transformation, such as the rotatable elbow member 153 And < / RTI > Accordingly, it is possible to provide a transformed car toy that the user can freely transform into various forms.

As a result, according to the above-described embodiments of the present invention, the first trigger and the second trigger are operated by the collision against the first working surface X and the second working surface Y, It is possible to provide a robot which is transformed into a part.

At the same time, since the first working surface X and the second working surface Y are transformed into a state in which they are mutually coupled by magnetism, they are automatically transformed into a robot upper body portion and a robot lower body portion, respectively, It is possible to provide a transformed car toy transformed into a humanoid robot having an upper body portion and a lower body portion only by the process.

By providing the transformed car toy for the upper body and the transformed car toy for the lower body having the first working surface X and the second working surface Y of the corresponding shape, the user can select the desired body part and the desired lower body part Thereby providing a transformable car toy capable of embodying various types of humanoid robots by combining various lower body parts compatible with one upper body part.

10: Transformed car toy for upper body part
20: Undercarriage transformed car toy
30: Humanoid robot
110: stationary frame
111: first fixed frame
120: Operation frame
130: first fastening portion
X: first working surface

Claims (15)

1. A transformed car toy transformable between a first mode of an automobile shape and a second mode of a robot shape,
A fixed frame;
An actuating frame connected to the rear of the fixed frame and configured to move between a first position parallel to the ground in the first mode and a second position erect with respect to the ground in the second mode; And
A first housing coupled to a rear side of the actuating frame and configured to lock the actuating frame in the first position in a locked state and to move the actuating frame to the second position in an unlocked state, And a first engagement portion disposed on a rear surface of the first housing and including a first operation surface on which the first trigger is withdrawn,
Wherein the first trigger is configured to be activated to the released state by a collision with the first actuating surface to move the actuating frame to the second position.
The apparatus according to claim 1,
Wherein the first operation bar and the second operation bar are connected to the lower and upper portions of the fixed frame at one end and to the lower and upper portions of the first fastening portion at the other end, respectively.
3. The method of claim 2,
A torsion spring is provided between the first actuating bar or the second actuating bar and the fixed frame, and in the released state to the first trigger, the torsion spring causes the first actuating bar and the second actuating bar to move upright on the ground A transforming car toy characterized by.
3. The method of claim 2,
Wherein the second actuating bar is formed with a guide slot, the first trigger protrudes upward from the first housing to form a protrusion moving along the guide slot,
A first step portion is formed at a rear end portion of the guide slot, a second step portion is formed at an end portion of the protrusion portion,
Wherein when the protrusion is located at the rear end of the guide slot, the first step and the second step are engaged with each other to maintain a locked state.
The method according to claim 1,
Further comprising a head portion arranged in an upper direction in the fixed frame.
The method according to claim 1,
Further comprising a tail portion formed to cover the second operation bar in the first mode on the fixed frame, and the tail portion configured to rotate in the gravity direction in the second mode.
The method according to claim 1,
A pair of shafts on which a left arm frame and a right arm frame are mounted, respectively, are disposed on both sides of the fixed frame,
The shaft includes a slide portion connected to the inside of the fixed frame,
And a rocker arm connected to the outer side of the fixed frame with a rotation axis perpendicular to the shaft, the rocker arm having the left arm frame or the right arm frame mounted thereon.
8. The method of claim 7,
The slide unit includes a fixing part fixed to the leaf spring formed on the fixed frame,
And a sliding bar which is brought into contact with the first actuating bar by an upright movement of the first actuating bar and slides the shaft outward of the fixed frame.
9. The method of claim 8,
Wherein the arm deployment portion includes a fixing pin formed to be opened at a predetermined angle with respect thereto,
In the first mode, the arm extending portion and the fixing pin are inserted into the fixed frame at positions parallel to each other,
In the second mode, as the shaft is slid to an outer position of the fixed frame, the arm extending portion and the fixed pin are pulled out of the fixed frame, and the left arm frame or the right arm frame is configured to rotate in the gravity direction Transformed car toys.
10. The method of claim 9,
The fixing frame includes a receiving groove for receiving the fixing pin in the first mode,
And a second guide surface for guiding the fixing pin to be spaced apart from the arm extending portion by a predetermined angle when the left arm frame or the right arm frame rotates in the gravity direction from the receiving groove to rotate the arm extending portion Wherein the token car toy comprises:
The method according to claim 1,
Further comprising a bonnet portion rotatably formed in front of the fixed frame,
Wherein the bonnet portion is formed to rotate in the gravity direction when the operating frame is upright.
12. The method of claim 11,
A pair of arm frames are rotatably connected to both sides of the fixed frame,
Further comprising: a third magnet portion coupled to the pair of arm frames by magnetism on both sides of the bonnet portion.
12. The method of claim 11,
Further comprising a fourth magnet portion inside the bonnet portion,
Wherein the fourth magnet portion is configured to be magnetically coupled with a part of the fixed frame facing at a position where the bonnet portion rotates in the gravity direction.
14. A toaster transformer toy for an upper body robot comprising the transforming toy of any one of claims 1 to 13,
Wherein the transformed car toy for the upper body robot is transformed into a transformed car toy for a lower body robot which is operated by a second trigger including a second operation surface on the front side and drawn to the second operation surface,
The first trigger is pulled out at a position corresponding to the first projection formed on the second operation surface on the first operation surface,
Characterized in that a second projection is formed at a position corresponding to the second trigger on the first operation surface so that the first trigger and the second trigger are operated by the collision of the first operation surface and the second operation surface To-be-transformed car toy for upper body robot.
15. The method of claim 14,
And a first magnet part is formed on the first operation surface to apply a magnetic force to the second operation surface.

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