JPS635751Y2 - - Google Patents

Description

[Detailed description of the invention] (Industrial field of application and purpose of the invention) The present invention is an assembly running path, more specifically, an assembly running path for running a lightweight traveling toy using a spring as a power reducer. are connected in series and a sheet member is supported on the upper part, and it is especially easy to form slopes, undulating surfaces, etc. on the running road surface, and it is easy to assemble and disassemble, and can be rearranged as needed. The purpose is to propose a route.

(Means for Achieving the Object) In order to achieve the above object, the assembly running path according to the present invention is characterized by comprising a running path base body and a sheet-like member configured as follows.

(a) The running path base body is made up of a plurality of support members connected in the longitudinal direction, each of which has sheet member support portions of different heights on its upper part.

(b) The seat member shall be made of soft synthetic resin or synthetic rubber that has a relatively high coefficient of surface friction with the wheels of the traveling toy.

(c) The running road surface is formed by placing the sheet member on the sheet member support portion of the running road base.

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

In the figure, symbol A is an assembly travel path. The assembly travel path A includes supporting members p, p which are divided in advance.
are successively connected to form a running path base 1, and a sheet member 5 forming a road surface is supported on sheet member supporting parts 2, 2, 2 provided on the running track base 1, and the above-mentioned The toy is played by running a lightweight traveling toy 6 using a spring as a power source on an assembly traveling path A.

The support member p is made by connecting aggregates 10, 10 of a predetermined length made of metal, synthetic resin, etc. via a joint 11, and can also be attached to and detached from other support members p in the longitudinal direction via the joint 11. It is freely inherited. The joint 11 has receiving arms 11a, 11a, . ing.

In addition, the horizontal aggregates constituting the sheet member support section 2 are configured to be movable up and down, like the horizontal aggregate 10a at the farthest side in the drawing, so that the height relative to other sheet member support sections can be adjusted. You can also change it. In this case, it can be easily moved up and down by using a T-shaped joint 11' that is slidable along the vertical beam 10b. In normal cases, the horizontal aggregate 10a provided on the upper part of the support member p is configured as sheet member support parts 2, 2, 2, and these sheet member support parts 2, 2, 2 are connected to other adjacent sheet member support parts. It is configured to have different heights. In this case, upper and lower horizontal aggregates 2a, 2a',
2b, 2b' and 2c, 2c' may be appropriately selected as the sheet member support portions. However, the sheet member support portion 2 is not necessarily limited to being formed of horizontal aggregates connected as described above.
For example, as shown in FIG. 3, a roll body 1 of foamed resin, etc.
3 may be sandwiched between the aggregates 10, 10 on both sides of the support member p, or may be placed over the aggregates to serve as a sheet member support part, and as shown in FIG. 2, the box bodies q, It can also be constructed by successively concatenating q, q... In short, it is sufficient that the support members are capable of being connected to each other and that sheet support portions having different heights are formed on the top of the support members in the connected state.

Next, the sheet member 5 is placed on the sheet member support part 2 to cover the upper part of the support member p, thereby forming a running road surface with changes in elevation. The sheet member 5 is made of soft vinyl chloride that has a relatively large coefficient of surface friction with the wheels of the traveling toy 6.
It is made of soft synthetic resin such as polyethylene or synthetic rubber. Incidentally, the surface friction can be adjusted not only by the material but also by the shape of the sheet member surface and the wheel tread that are in contact with each other.
Thereby, the running toy 6 can run smoothly on the road surface without slipping.

When forming a road surface using the sheet member 5, the road surface can be appropriately sloped, undulated, or the end portions can be rolled up to create various changes in the running road surface. For example, as shown in FIG.
c and 2b and the lower sheet member support portion 2a at the other end
By placing the wave-shaped running path base 14 on top, the wave running performance of the running toy 6 can be made to compete. In addition, such a wave running road surface is constructed by disposing roll bodies 13 at appropriate intervals on the support member p as shown in FIG. It can also be constructed by placing the sheet member 5 on.

Further, as shown in FIG. 4, a part of the sheet member 5 is placed on the lower sheet member support parts 2c' and 2b' at one end and the center part to form a horizontal road surface, and the other end By placing the other part of the sheet member 5 on the upper sheet member support portion 2a', a running path including an uphill slope 15 can be constructed,
If the slope of the uphill slope 15 is relatively gentle, it is possible to play by jumping the traveling toy 6 and compare the flight distances, and if the slope is steep, it is possible to have children compete in their climbing ability.

Further, as shown in FIG. 5, the sheet member support portion 2a' at one end of the support member p is
If the lower end of the seat member 5 is placed on the upper seat member supporting portion 2c at the other end to form a jump stand 17, the traveling toy 6 In addition to the driving force, it is accelerated when going down the downhill slope 16, so that a longer flight distance than the above can be obtained.

Furthermore, as shown in FIG. 6, the end portion 5a of the sheet member 5 is wound up in a curved shape using the upper and lower sheet member support portions 2a, 2a' of the end portion of the support member p. It is possible to perform somersaults at the edge of the road. The running road surface with such a rolled-up configuration is constructed by connecting the same soft sheet member 20 as above to one end of the hard plate members 18 and 19 connected to appropriate lengths, and connecting the same soft sheet member 20 to the other end with hard synthetic resin or metal. A second sheet member 5 made of the same soft synthetic resin or synthetic rubber as above is placed on a first sheet member 5' formed by connecting mesh-like sheet members 21 such as the above and bending the mesh-like sheet members 21 into a roll-up shape.
The end portion of the first sheet member 5' is fixed to the curved portion of the first sheet member 5' with a clip or the like, and both sheet members 5' are held on the sheet member supporting portion of the traveling path base. In this way, the running road surface may be composed of not only one sheet member but also a plurality of sheet members.

The running path base 1 can be adjusted in length by changing the number of supporting members p, or can be freely rearranged into a jump path, a wave path, a somersault path, etc.
It is possible to make it continuous.

(Effects of the invention) As described above, the assembly running track can be easily assembled to a desired length by connecting a plurality of supporting members, and the running track surface can also be constructed by simply placing sheet members on the running track base. Assembly is very easy because it can be constructed by simply placing it on the formed sheet member support portion. Since the above-mentioned running road surface is a sheet member, by placing it on the sheet member support part of the support member, a running road surface with a gentle wave surface can be easily constructed. It can be formed into various shapes with changes in height and height. Furthermore, since the sheet material is made of soft synthetic resin or synthetic rubber, a running road surface is formed just by placing it on the sheet member support part, making it easy to work with and easy to fold or roll up for storage. A lightweight traveling toy powered by a spring (e.g. 10
In this case, the coefficient of friction between the wheels of the traveling toy is large, so the wheels can run smoothly even on roads with height differences without spinning, making it a versatile vehicle. You can also fully enjoy driving on the road. Furthermore, since the assembly track is very easy to assemble and disassemble, it can be played with indoors or assembled and played with in the toy section of a department store.

[Brief explanation of the drawing]

FIG. 1 is an exploded view of an assembled running road according to the present invention, and FIGS. 2, 3, 4, 5, and 6 are exploded views showing other aspects of the running road surface. Code, A...assembly running path, p...support member,
1, 14... Running path base, 2, 2a, 2a', 2
b, bc', 2c, 2c'... Sheet member support section, 5
... Seat member, 6... Traveling toy.

Claims (1)

[Claims for Utility Model Registration] An assembled running track characterized by comprising a running track base and a sheet member configured as follows. (a) The track base shall consist of a plurality of supporting members connected in the longitudinal direction. (b) Seat support portions having different heights are formed above the support members in a continuous state. (c) The seat member shall be made of soft synthetic resin or synthetic rubber that has a relatively high coefficient of surface friction with the wheels of the traveling toy. (d) The running road surface is formed by placing the sheet member on the sheet member support portion of the running road base.