WO2011037417A2

WO2011037417A2 - Assembly toy component

Info

Publication number: WO2011037417A2
Application number: PCT/KR2010/006513
Authority: WO
Inventors: 윤이식
Original assignee: Yun Isik
Priority date: 2009-09-24
Filing date: 2010-09-24
Publication date: 2011-03-31
Also published as: WO2011037417A3; KR20110032831A; KR101127424B1

Abstract

The assembly toy component according to the present invention comprises assembly pieces having fastening holes, and fastening pins which are passed through and inserted into the fastening holes so as to fasten the assembly pieces together; and the fastening holes of the assembly pieces have engaging protrusions with walls at an angle which is not parallel to the direction of insertion of the fastening pins; the fastening pins comprise first pins which are inserted directly into the fastening holes, and second pins which are inserted into the first pins; and the first pins are formed in the shape of pipes having central holes passing through both ends in line with the direction of insertion, and are formed, towards both ends, with bracing protrusions which are provided projecting in the outer circumferential direction and have a structure such that they engage with the engaging protrusions, and also are formed with at least one cut recess extending from at least one of the two ends, while the second pins are constituted such that their outside surfaces can make tight contact against the inside surfaces of the central holes of the first pins by insertion into the central holes, thereby allowing a dramatically more stable state of fastening to be achieved than with assembly toy components having fastening structures using fastening pins of the prior art.

Description

Assembling Toy Components

The present invention relates to an assembly toy component, and more particularly, to provide an assembly toy component that can be assembled in a variety of forms according to the user's intention by providing each component in a standardized form including a structure or means that can be fastened together. will be.

Blocks composed of simple and standard three-dimensional figures can be built into a specific structure to create a more robust structure by including blocks or fastening parts that can be interlocked, as well as traditional block toys that create the desired structure. Various types of assembled toy components are provided, ranging from a detachable block toy to an assembled toy using a bolt nut coupling method.

The components constituting the assembly toy components, the assembly pieces provided in the form of a frame, a plate, a three-dimensional figure, etc. to make a specific structure is a basic, although each of them may be provided in a structure in which the fastening structure is integrated. In some cases, a fastening means for fastening the assembly pieces is provided as a separate component.

An example of a conventional assembled toy component constructed in such a way as to fasten the assembly pieces using separate fastening means is shown in FIG. 11.

11 is a perspective view illustrating a state in which two superimposed two-dimensional block-shaped assembly pieces 30 are fastened to each other by using fastening pins 100 as fastening means.

The two assembly pieces 30 each have fastening holes 35 of the same size, and when these two fastening holes 35 are arranged in a straight line to form a close contact to form one through path, By fastening the fastening pin 100 in the direction indicated, the two assembly pieces 30 are mutually fastened.

For this fastening, each assembly piece 30 is provided with a locking jaw 300 in the inlet portion of the fastening hole 35, the fastening pin 100 has a brace jaw 13 of the structure that corresponds to the locking jaw By being provided at both ends, when the assembly pieces 30 are interposed between the both braces 13, the assembly pieces 30 are not caught by the braces 13 of the fastening pin 100, and thus the fastening is made. .

At this time, when inserting the fastening pin 100, in order to pass through the fastening hole 35 of the inner diameter narrower than the diameter of the brace 13, any one end of both ends of the fastening pin 100, at least the insertion end portion A cutting groove 11 is formed in the cutting groove 11, and when an external force is applied by the cutting groove 11, the diameter of the tip of the fastening pin 100 is reduced by narrowing the gap of the cutting groove 11. Insertion into the fastening hole 35 is made, and is restored to its original diameter by elasticity as soon as it exits the fastening hole 35, the above-described fastening is made.

As described above, in the case of the assembled toy component including the fastening pin 100, it is possible to firmly maintain the fastening state between the assembly pieces and realize a more diverse structure than the conventional block toys, as well as the removable block toy. By using it alone or in combination, it is possible to realize a wider range of fastening structures, and to realize a wider range of fastening structures such as the formation of a movable joint part, the formation of a rotatable connection part such as a wheel, and the realization of a spaced apart state. There is an advantage that it can.

In addition, even when compared to the assembled toy components applying the bolt nut coupling method, it is possible to freely fasten without a separate fastening tool (driver, wrench, spanner, etc.) for easy use, and the risk of safety accidents due to the use of the tool. There is also an advantage that can be significantly lowered.

However, in the conventional assembly toy configuration consisting of the fastening pin, the assembly piece in the illustrated manner, when the external force acts in the opposite process as the fastening pin is inserted by the external force, the fastening of the fastening pin can be released, There is a high possibility of inadvertent release of the clamping force due to gravity or other force applied to the assembly piece, and the joints such as the cutting groove 11 and the brace 13 may be worn or damaged due to repeated use. Or the possibility that the elastic force is lowered and the fastening function is not properly performed cannot be excluded.

In order to overcome the above problems, an object of the present invention is to provide an assembly toy component that can secure a significantly improved fastening state stability compared to the conventional fastening pin fastening method, using a fastening method using a fastening pin. .

Still another object of the present invention is to provide an assembly toy component capable of maximizing convenience and expandability associated with assembly.

In order to achieve the above object, the assembly toy component according to the present invention, the assembly comprising a fastening hole and the fastening pins to fasten the assembly pieces by fitting through the fastening holes are assembled In the toy configuration, the fastening hole of the assembly piece has a locking jaw having a wall of an angle that is not parallel to the insertion direction of the fastening pin, the fastening pin is a first pin which is inserted directly into the fastening hole; And a second pin inserted into the first pin, wherein the first pin is formed in a pipe shape having a hollow penetrating both ends in parallel with an insertion direction and protrudes in an outer circumferential direction. The support jaw of the structure which is caught on the jaw is formed at both end sides, and from at least one of the both ends, the diameter can be reduced or restored by the addition or removal of external pressure. That the lock at least one cutting groove extends the other hand, the second pin being inserted in the hollow part of the first fin comprises a structure in which the outer surface to be in close contact with the inner surface of the hollow.

At this time, the assembly piece is formed in the form of a block having a thickness in the longitudinal direction of the fastening hole, the fastening hole, the two outer engaging jaw provided in a symmetrical form adjacent to both inlet portions of the fastening hole and It may include a plurality of locking jaws, including two inner locking jaw provided in an symmetrical form on the inner side adjacent to each of the two outer locking jaws.

Furthermore, the assembly piece may be formed in the form of a block having a three-dimensional structure that can be formed by a combination of one cube of a predetermined size or a cube unit having the cube as a minimum unit.

In this case, the assembly piece, at least two fastening holes having a structure passing through the center of the surface and the opposing face of the cube unit is the minimum unit of the block shape, each of the relative angle is n × 90 ° By being arranged to (n is an integer), it can be configured so that the through direction of the fastening holes can have a maximum of three directions.

The distance between the two braces formed on the first pin is one in which at least two or more of the assembly pieces are closely arranged such that a through direction of each of the fastening holes forms a straight line to form one through path. It is preferable that the length corresponding to the interval between any one of the locking jaw in the fastening hole of the assembly piece and the other of the locking jaws in the fastening hole of the other assembly piece.

At this time, the distance between the two braces formed in the first pin, the two assembly pieces are in close contact with each other so that the through direction of each of the fastening holes are arranged in a straight line to form one through path, The length corresponding to the distance between the two inner engaging jaw adjacent to, wherein the cutting groove may be formed extending from both ends of the first pin.

On the outer circumferential surface of the central portion in the longitudinal direction of the first pin, a blocking jaw of a structure interposed between two outer locking jaws adjacent to the close contact surfaces of the assembled pieces may be protruding.

A female thread is formed inside the hollow of the first pin, and a male thread corresponding to the hollow inner female thread is formed on an outer surface of the second pin inserted into the hollow.

At this time, at one end of the second pin, a fastening tool corresponding end for convenience of application of a fastening tool such as a Phillips screwdriver, a flat head screwdriver, a hexagon wrench, and a spanner may be formed.

On the inner surface of the fastening hole, the anti-rotation tab of the structure that can be inserted into the gap formed by the cutting groove of the first pin may be protruding.

By the configuration as described above, the assembled toy component according to the present invention has the following effects.

First, it is possible to secure a dramatically stable fastening state compared to the assembled toy component having a fastening structure using a conventional fastening pin.

Second, due to the special structure of the fastening hole, diversification of the penetration angle, etc., the structure and the fastening method of the corresponding fastening pins can be diversified, thereby enabling the dramatic expansion of the number of assembly pieces involved in the fastening and the fastening structure.

Third, the traditional advantages of the fastening pin fastening method can be realized as it is, and it is easy to expand additional functions by adding a small configuration.

Fourth, due to the structure of the unique fastening pin composed of two or more parts and their fastening method, the fastening and dismantling work can be performed more easily than in the related art.

1 to 3 are perspective views showing a first preferred embodiment of the present invention,

4 to 7 are cross-sectional views sequentially illustrating a fastening process of the assembled toy components of FIGS.

8 is a perspective view showing a second preferred embodiment of the present invention;

9 is a cross-sectional view of the assembled toy component of FIG. 8, FIG.

10 is a perspective view showing a modification of the assembled toy configuration according to the invention,

11 is a perspective view illustrating the assembled toy configuration using a conventional fastening pin.

In the assembled toy component according to the present invention, the assembly toy having a fastening hole and a fastening pin for fastening the assembly pieces to each other by being fitted through the fastening holes, the assembly toy component in the assembly The fastening hole has a locking jaw having a wall of an angle that is not parallel to the insertion direction of the fastening pin, the fastening pin, the first pin is inserted directly into the fastening hole, and the first pin is inserted into It is configured to include a second pin, wherein the first pin is formed in the form of a pipe having a hollow penetrating both ends in parallel with the insertion direction, protruding in the outer circumferential direction, the brace of the structure that is caught on the locking jaw At least one cutting groove is formed on both end sides, and from at least one of the ends, at least one of the cutting grooves can reduce or restore the diameter by adding or removing external pressure. While the extension is formed, the second pin has a structure in which an outer surface can be in close contact with the inner surface of the hollow by being inserted into the hollow of the first pin.

Hereinafter, the configuration of the assembled toy configuration according to the present invention described above, with reference to the accompanying drawings showing preferred embodiments of the present invention will be described in more detail.

On the other hand, among the components of the embodiment of the present invention corresponding to the configuration of the prior art described above, the same or similar components are described with the same reference numerals as possible.

In addition, in order not to obscure the subject matter of the present invention, a part overlapping with the description in the related art or a fact apparent to those skilled in the art will be briefly described or omitted.

1 is an exploded perspective view illustrating a state in which two assembly pieces 30 constituting the assembled toy component according to the first embodiment of the present invention are first fastened by the first pin 10 among the fastening pins. .

According to a first preferred embodiment of the present invention, the assembly piece 30 included in the prefabricated toy component of the present invention may be formed in the form of a three-dimensional figure block having a predetermined thickness in the longitudinal direction of the fastening hole 35 as shown. Can be.

Furthermore, the block-shaped assembly 30 may be formed in the form of a three-dimensional figure of a structure in which a cube unit forming one unit is extended as shown, firstly, the advantages of such a structure are first, face centers facing each other in one unit. Since the fastening holes 35 formed to penetrate each other may have a standardized structure for each unit, expansion and applicability are increased. Second, as shown in three directions of 90 ° angles, which form an axis of three-dimensional coordinates. This is because it is easy to form the fastening hole 35, which enables the assembly 30 to be mutually coupled in the maximum six directions.

In addition, the fastening holes 35 are provided with engaging jaws at the inlet to make a fastening fixed state by abutting the brace jaw of the fastening pin as in the conventional example described above.

In the first embodiment, the locking step is divided into an outer locking step 31 and an inner locking step 32. In FIG. 1, only the outer locking step 31 can be confirmed, and a detailed description thereof will be described later. do.

On the other hand, in order to perform the fastening function, the locking jaws including the outer locking jaw 31 should have a wall structure that is not parallel to the insertion direction of the fastening pin, in the case of the outer locking jaw 31 according to the first embodiment, As shown in the figure, it can be seen that the inner diameter is narrowed toward the inner side.

Unlike the conventional fastening pin 100 described with reference to FIG. 11, the fastening pin 100 according to the present invention is directly inserted into the fastening hole 35, the first pin 10 shown in FIG. 2, the second pin is inserted into the first pin 10.

That is, by having a structure in which the second pin 20 is inserted into the first pin 10, it is possible to secure a 'dramatically improved fastening state stability' which is the most basic object of the present invention. The description will be described later in detail with reference to FIGS. 4 to 7.

1 illustrates a structure and a mounting method of the first pin 10 among the components of the fastening pin 100.

The first pin has a hollow 15 penetrating the front end-rear end in the insertion direction to have a shape of a pipe as a whole, and a brace corresponding to the locking step of the assembly piece 30 such as the outer locking step 31 ( 13) at both ends.

In the case of the brace 13 shown, it is a structure protruding in an annular shape with a slope formed to engage the slope-shaped outer locking jaw 31 of the assembly piece 30, the diameter of which is fastening of the portion where the locking jaw is formed. Of course, it should be formed larger than the inner diameter of the ball (35).

Meanwhile, as shown in the drawing, the cutting groove 11 extending from one end of the first pin 10 is provided, so that when the first pin 10 is pushed into the fastening hole 35 in the form of an interference fit, the cutting is performed. The gap formed by the groove 11 is narrowed and the overall diameter is reduced to be able to pass through the interior of the fastening hole 35. The structure of the illustrated slope also serves to help such work more smoothly.

FIG. 2 shows the hollow 15 of the first pin 10 in a state in which the first pin 10 shown in FIG. 1 is completely inserted through two assembly pieces 30 to form a primary fastening state. 2 is a perspective view showing a state in which the second pin 20 is fitted.

The first fastening state in which only the first pin 10 is fastened does not provide a better state than the fastening state using the conventional fastening pins described with reference to FIG. 11.

Rather, in the illustrated first embodiment, since the angle of the contact surface between the engaging jaw and the support jaw forms a slope that is gentler than the right angle to the traveling direction of the fastening pin, the possibility of departure may be higher.

However, in the first fastening state, by inserting the second pin filling the inner surface of the hollow 15 of the first pin, the function of the end elastic contraction by the cutting groove 11 is prevented to ensure an extremely improved fastening state This is possible, which will be described later.

On the other hand, in the case of the second pin inserted into the hollow 15 of the first pin 10, unlike the first pin 10, the structure limitation such as the through-hole should be formed, but the elasticity is preferably not It is desirable to be made of less material.

Further, in order to secure a stable insertion state, by forming the male screw thread 21 on the outer circumferential surface as shown, the female screw thread 16 and the screw coupling applied to the inner surface of the hollow 15 of the first pin 10 are applied. It may be configured to.

At this time, the fastening tool corresponding end 25, such as the hexagonal groove corresponding to the hexagon wrench, as shown in order to apply a fastening tool such as a screwdriver, a spanner, a hexagon wrench, and the like, for easier engagement and release, It is preferably formed.

3 is a view showing a state in which the fastening between the assembly pieces 30 using the fastening pin 100 of the assembly toy component according to the first embodiment is completed, it can be confirmed that a stable fastening can be secured through this. .

In the above, the specific structure of each constituent means of the first embodiment has been described with reference to Figs. 1 to 3, and with reference to Figs. 4 to 7, below, the process of fastening made through the above-described structure, Through the following will be described in more detail.

4 to 7 are cross-sectional views of the above-described components of the first embodiment in a front direction, and FIG. 4 shows a first pin into two assembly pieces 30 overlapping each fastening hole 35 to form a straight line. It is sectional drawing which shows the state in which 10 starts inserting.

As shown, although the diameter of the portion of the brace 13 formed in the insertion tip of the first pin 10 shown is larger than the diameter of the inlet 35, the function of the above-described cutting groove 11 This makes it possible to pass through the pressure by force.

On the other hand, through Figure 4, inside the assembly piece 30 fastening hole 35, there is formed an internal locking jaw 32, which is another type of locking jaw that was not identified through FIGS. You can check it.

The inner locking jaw 32 has slopes in opposite directions of the adjacent outer locking jaw 31, respectively, and may be formed in symmetrical shapes up and down at both inlets of the fastening hole 35, which are fastening pins 100. As a part of contributing to the structural change and diversification state of the, the synergistic effect thereof will be clearly shown through the description with reference to FIGS. 8 to 9 showing the second embodiment.

The first pin 10 inserted in the interference fit manner is seated in the fastening hole 35 in the state shown in FIG.

1 and 4, the blocking jaw 17 protrudes from the outer circumferential surface of the length center of the first pin 10, and the blocking jaw 17 is in close contact with the two assembled pieces 30 fastened to each other. By forming a structure interposed between each outer engaging jaw 31 adjacent to the surface, it serves to easily limit the fastening depth.

On the other hand, the distance between the two braces 13 formed on both ends of the first pin 10 is close to each other by the length between any two latching jaw formed on the two assembled pieces 30 fastened In order to maintain the state tightly, the first exemplary embodiment is set to correspond to the length between the outermost latching jaw 31 and the outermost latching jaw 31 of the longest distance, but is not limited thereto. For example, it may be adjusted to have a length between the inner locking jaw 32 of the one assembly piece 30 and the outer locking jaw 31 of the other assembly piece (30).

As such, the second pin 20 is inserted into the hollow of the first pin 15 in the first fastening state in which the first pin 10 is seated, so that the second pin ( 20) can completely block the contraction of the end of the first pin (10), thereby ensuring a secure fastening state.

At this time, the first pin 10 and the second pin 20, by forming the threads (16, 21) to be engaged with each other on the inner surface and the outer peripheral surface of the hollow 15, it is possible to achieve a more stable coupling of the screw method. .

On the other hand, such screw coupling may also provide a useful function even when the fastening state is released. If the screw coupling method is not applied, it is very difficult to separate the second pin 20 deeply coupled to the first pin 10 from the first pin 10, but as shown in FIG. When the second pin 20 is turned in the release direction of the screw coupling by applying a hexagon wrench or the like to the fastening tool corresponding end 25 of the second pin 20, the first pin 10 is easily protruded by the head part. It is easy to remove the second pin 20 from the.

8 to 9 are views illustrating the assembled toy component according to the second preferred embodiment of the present invention.

8 is a perspective view showing the assembled toy component according to the second embodiment, wherein the basic structure of the assembled pieces 30 is the same as in the first embodiment.

On the other hand, the fastening pin consisting of the first pin 10 and the second pin 20 can be seen that the length is relatively short.

That is, as briefly mentioned above, the distance between the brace 13 of the fastening pin according to the present invention, the position, the number of the latching jaw (31, 32) formed in the fastening hole 35 of the assembly piece 30 It may be arbitrarily selected according to, etc., in the case of having a fastening hole 35 structure as in the embodiment illustrated through the cross-sectional view of FIGS. 4 to 7, 9, the close contact surface of the two assembly pieces 30 to be fastened In the configuration that allows the first pin 10 and the second pin 20 to be mounted between the two closest inner engaging jaw (32).

In this case, the entirety of the first pin 10, that is, the insertion tip of the first pin 10 as well as the rear end positioned opposite to the insertion direction, pass through the locking

jaws

31 and 32 of the inlet of the fastening hole 35. In order to be able to do so, it is preferable that the cutting groove 11 is formed to extend from both ends, not one as shown.

On the other hand, since the structure, coupling method, etc. of the second pin 20 are not significantly different from those in the above-described first embodiment, redundant description thereof will be omitted.

9 is a cross-sectional view of the second embodiment will be described in more detail the manner in which the assembly pieces 30 of the assembled toy component having the above-described configuration is fastened.

As shown, the fastening pin 100 composed of the first pin 10 and the second pin 20 has a compact structure between the adjacent inner locking jaw 32 of the two assembly pieces 30 in a fastened state. Is mounted.

Accordingly, unlike the fastening pin 100 illustrated in the second embodiment, unlike the structure in which the fastening operation 35 can not be performed by using the fastening hole 35 in the first embodiment, the fastening operation is performed once. In the case of using, the locking

jaws

31 and 32 opposite to the locking

jaws

31 and 32 used for the fastening in one fastening hole 35 are still available.

Thus, as shown in the upper part of the two assembly pieces 30 fastened to share the fastening hole 35 already used for fastening, so that one assembly piece 30 can be additionally mounted to perform additional fastening work. In theory, this operation is infinitely repeatable as long as the fastening pin 100 having the same structure is used.

That is, when configuring the fastening pin 100 or the like in the structure shown in the second embodiment, the number and fastening structure of the assembly piece 30 that can be fastened in one structure can be extremely up and diversified.

FIG. 10 is a diagram illustrating a modification of the first and second embodiments illustrated in FIGS. 1 to 9 and illustrates a configuration for adding additional functions.

In the case of the fastening structure of the assembly piece 30 using the fastening pin, as described above, there is an advantageous side to secure the movement in the connection part, such as the configuration of the rotary connection.

However, in certain situations, such as when the fastening angle of the assembly piece 30 must be stably maintained at a certain angle, such a structure may be rather disadvantageous.

At this time, in order to prevent relative rotational movement between the plurality of assembly pieces 30 via the fastening pin 100, unlike the illustrated structure, the fastening pin is formed in the form of a rotationally asymmetrical pillar like a polygonal column instead of a cylinder. May be considered.

On the other hand, as shown in Figures 1 to 8 by utilizing the structure of the cutting groove 11 formed in the past to the first pin 10 may be considered a structure to give the above-described anti-rotation function, such as in Figure 10 As in the case of the assembly 30 shown, by providing the anti-rotation tab 38 protruding from the outer engaging jaw 31 of the fastening hole 35, the gap of the cutting groove 11 of the first pin (10). When the anti-rotation tab 38 is interposed, and the crimping of the end of the first pin 10 is prevented by the second pin 20 in this state, the fastening pin 100 including the first pin 10 is included. Relative rotation of can be limited.

The assembled toy component according to the present invention is configured as described above, it is possible to secure a dramatically stable fastening state compared to the assembled toy component having a fastening structure using a conventional fastening pin, the special structure of the fastening hole, By diversification, it is possible to diversify the structure of the fastening pin and the corresponding fastening method, which enables the number of assembly pieces involved in the fastening, the dramatic expansion of the fastening structure, and to realize the traditional advantages of the fastening pin fastening method. Of course, adding a small configuration makes it easy to expand additional functions.

As described above, the present invention has been described with reference to the preferred embodiments and drawings, but the present invention is not limited to the configuration and operation according to the illustrated and described embodiments. Rather, those skilled in the art will appreciate that many modifications and variations of the present invention are possible without departing from the spirit and scope of the appended claims. Accordingly, all such suitable changes and modifications and equivalents should be considered to be within the scope of the present invention.

Claims

Assembly toy 30 including a fastening hole (35) and a fastening pin (100) fastening the assembly pieces (30) by fitting through the fastening holes (35). In the composition,

The fastening hole 35 of the assembly piece 30 is provided with a locking jaw having a wall of an angle that is not parallel to the insertion direction of the fastening pin 100,

The fastening pin 100 includes a first pin 10 directly inserted into the fastening hole 35 and a second pin 20 inserted into the first pin 10.

The first pin 10 is formed in the shape of a pipe having a hollow 15 penetrating both ends in parallel with the insertion direction, and the brace jaw 13 of the structure which is hung in the outer circumferential direction and caught on the locking jaw is formed. At least one cutting groove 11 is formed on both end sides, and at least one of the two ends extends from at least one of the ends so that the diameter can be reduced and restored by the addition or removal of external pressure.

The second pin 20, the assembly is characterized in that the outer surface is configured to be in close contact with the inner surface of the hollow 15 by being inserted into the hollow 15 of the first pin 10, assembly Toy composition.
The said assembly piece 30 is formed in the block shape which has a thickness in the longitudinal direction of the said fastening hole 35, The said fastening hole 35 is the inlet of the said fastening hole 35. Two outer locking jaw 31 provided in a symmetrical form adjacent to the portion, and two inner locking jaw 32 provided in a symmetrical form on the inner side adjacent to each of the two outer locking jaw (31) Comprised of, comprising a plurality of locking jaws, characterized in that the assembled toy component.
3. The block assembly according to claim 1 or 2, wherein the assembly piece 30 has a three-dimensional structure that can be formed by a combination of one cube of a predetermined size or a cube unit having the cube as a minimum unit. Characterized in that, formed toy assembly.
According to claim 3, The assembly piece 30 is provided with at least two fastening holes 35 of the structure passing through the center of the surface and the opposing face of the cube unit is the minimum unit of the block shape, Wherein each of the relative angles is arranged at n × 90 ° (n is an integer), so that the through direction of the fastening holes 35 can be up to three directions.
The method of claim 2, wherein the distance between the two braces 13 formed in the first pin 10, at least two or more of the assembly pieces 30, the direction of penetration of each of the fastening holes 35 Fastening of one of the engaging jaws in the fastening hole 35 of one of the assembling pieces 30 and the other of the assembling pieces 30 in a state in which the straight line is arranged to form one through path. Characterized in that the length corresponding to the interval with any one of the locking jaws in the ball (35), assembled toy component.
The method of claim 5, wherein the distance between the two braces 13 formed in the first pin 10, the two assembly pieces 30, the penetration direction of each of the fastening holes 35 is a straight line In a state in which it is closely arranged to form one through-path, the length corresponding to the distance between the two inner engaging jaw 32 adjacent to the contact surface, wherein the cutting groove 11 is the first pin An assembled toy component, characterized in that it extends from both ends of (10).
According to claim 2, 5 or 6, the outer peripheral surface of the central portion in the longitudinal direction of the first pin 10, the two outer locking jaw 31 adjacent to the close contact surface of the assembly pieces 30 are fastened to each other Blocking jaw (17) of the structure interposed between, characterized in that the protrusion, assembled toy component.
The method of claim 1, 2, 4, 5 or 6, wherein the female thread 16 is formed inside the hollow 15 of the first pin 10, the hollow 15 The outer surface of the second pin 20 is inserted into the male thread corresponding to the male thread (16) inside the hollow (15) is formed, characterized in that the assembled toy component.
The method of claim 8, wherein one end of the second pin 20, characterized in that the fastening tool corresponding end 25 for the convenience of application of the fastening tool, such as a Phillips screwdriver, flat head screwdriver, hex wrench, spanner is formed , Assembly toy components.
The gap formed by the cutting groove 11 of the first pin 10 in the inner surface of the fastening hole 35 according to claim 1, 2, 4, 5 or 6. An anti-rotation tab (38) of the structure that can be inserted into the protrusion, assembly toy component.