RU183666U1 - Constructor element - Google Patents

Abstract

The proposed utility model relates to the field of toys, namely, to children's building designers containing building elements and intended for assembling any structures, for example: models of a house, furniture, swings, a ship, a car, a crane and other structures and structures. The design element of the designer in the form of a square bar having through holes made along the length of the bar in accordance with the calculated dimensional ratios, allows to expand the range of such products. 5 ill.

Description

The utility model relates to the field of toys, namely to children's building designers that contain building elements and are intended for the assembly of any structures, for example: models of a house, furniture, swings, a ship, a car, a crane and other structures and structures.

A toy constructor is known, the main details of which are made in the form of bars with a square cross section, and the auxiliary parts are in the form of pins with a circular cross section, while at the ends of the bars along the axial lines of the side faces at a distance of half the thickness of the bar and through the middle of the side faces, through holes are drilled, and in the middle of the ends of the bars, holes were drilled along the direction of the bars with a depth equal to the length of the pins minus the thickness of the bar / RU 1634 U1, MPK6 A63N 33/10, publ. 02/10/1996 /.

The technical problem to which the claimed utility model is directed is to expand the assortment of toy designers, while providing a convenient connection of designer elements to complex three-dimensional structures.

The essence of the utility model: A toy constructor contains sets of basic and auxiliary parts, while the main details - designer elements are made in the form of bars with a square section, and auxiliary in the form of rods, on the one hand a hat is made on the rod, and the thread is cut on the other hand (bolt ) A nut product is also used to fix the rods when connecting the bars. The length of the rods varies depending on the number of connected bars. Through the construction element of the bar with a square section, through holes are drilled at the same distance along the entire length, on all lateral faces, along the axis of the bar, along the entire length of the bar, with the condition that the hole on the adjacent side face (side) is exactly in the middle between the holes of this side faces (or holes for the entire thickness of the bar are between the holes for the entire height of the bar). The bar is characterized by the following size ratio:

X = Z = B = Y / 2 = A * 2 = F / n,

where X is the distance between the through holes located next to each other, located in different lateral faces of the bar, mm; Z is the height of the bar, mm; In - the thickness of the bar, mm; Y is the distance between the through holes located next to each other, located on one side of the bar, mm; A is the distance from the extreme hole on the side of the bar with a large number of holes to the end of the bar; F is the length of the bar, mm; where n is the total number of holes in the bar. The bar can be made of wood or plastic with rounded ends.

The utility model is illustrated by drawings, where in FIG. 1 shows a design element in the form of a square bar, front view in FIG. 2 is the same side view, in FIG. 3 is the same, top view, in FIG. 4 - a design element, a perspective view, in FIG. 5 - product - a chair assembled from the elements of the designer.

The design element is a bar 1 in the form of a square section, which can be made with rounded ends 2. Along the length F of the bar 1, through holes 3 are made on the side faces, for example, round or square.

The distance X between the through holes 3 located next to each other, located in different lateral faces of the bar, is equal to:

bar height Z;

bar thickness B;

half the distance Y between adjacent through holes 3 located on one of the faces (sides) of the bar 1;

the distance A from the extreme through hole 3, from the side of the bar 1 with a large number of through holes 3, to the end face 2 of the bar 1, multiplied by two;

the total length F of the bar 1 divided by the total number of through holes 3 in all faces of the bar 1.

The length of the bar 1F can be any, in particular up to 1300 mm.

The bar 1 is characterized by the following size ratio:

X = Z = B = Y / 2 = A * 2 = F / n,

where n is the total number of through holes 3 in the bar 1.

For example, when a bar 1 is made with a total number of through holes equal to five and three through holes are made on the long edge of the bar 1 (shown in Fig. 4) with a bar length F of 150 mm, the bar has the following dimensions:

X (30) = Z (30 = B (30) = Y (60/2) = A (15 * 2) = F (150) / 5 (n),

the distance X between the through holes 3 located next to each other, located in different lateral faces of the bar is 30 mm;

the height Z of the bar is 30 mm;

thickness B of the bar is 30 mm;

the distance Y between adjacent holes located on one of the faces of the bar is 60 mm;

the distance A from the extreme hole on the side of the bar with a large number of holes to the end of the bar is 15 mm

When performing the bar 1 with the number of holes 5 with a length F of the bar equal to 160 mm, the dimensional ratio is as follows:

32 = 32 = 32 = 64/2 = 16 * 2 = 160/5

When performing the bar 1 with the number of holes 11 with the lengths F of the bar equal to 330 mm or 352 mm, the ratio is as follows:

30 = 30 = 30 = 60/2 = 15 * 2 = 330/11

32 = 32 = 32 = 64/2 = 16 * 2 = 352/11

When performing the bar 1 with the number of holes 15 with the lengths F of the bar equal to 450 mm or 480 mm, the ratio is as follows:

30 = 30 = 30 = 60/2 = 15 * 2 = 450/15

32 = 32 = 32 = 64/2 = 16 * 2 = 480/15

When performing the bar 1 with the number of holes 21 with the lengths F of the bar equal to 630 mm or 672 mm, the ratio is as follows:

30 = 30 = 30 = 60/2 = 15 * 2 = 630/21

32 = 32 = 32 = 64/2 = 16 * 2 = 672/21

When performing the bar 1 with the number of holes 31 with the lengths F of the bar equal to 930 mm or 992 mm, the ratio is as follows:

30 = 30 = 30 = 60/2 = 15 * 2 = 930/31

32 = 32 = 32 = 64/2 = 16 * 2 = 992/31

When performing the bar 1 with the number of holes 37 with the lengths F of the bar equal to 1110 mm or 1184 mm, the ratio is as follows:

30 = 30 = 30 = 60/2 = 15 * 2 = 1110/37

32 = 32 = 32 = 64/2 = 16 * 2 = 1184/37

The material for making the bar is wood or plastic.

For connecting the elements to each other, it is possible, for example, by means of a rod with a hat and threaded thread, of various lengths depending on the number of connected parts (bolt), and a screw nut. Material of the rod and nut: metal, plastic.

Using only bars of various lengths and connecting elements (bolt, nut), you can create a huge number of different designs, their number is limited only by the creativity of children.

Thus, when using this constructor, children from engineering design, development of spatial thinking, creativity, may be introduced to children earlier than 3 years old.

In the future, this will help create a generation of creative people who can create new technologies and strengthen our country - Russia.

Thus, the claimed constructive implementation of the designer element allows you to expand the range of volumetric modules of the designer with the simultaneous ability to create complex volumetric structures, expand game properties, increase entertainment.

Claims (13)

1. The design element, made in the form of a square bar having through holes, characterized in that the through holes are made at the same distance between them along the entire length on all side faces along the axis of the bar, while the through hole on the adjacent side face is located exactly in the middle between the through holes of this face, and the dimensional ratio of the bar when making through holes is determined by the following ratio: X = Z = B = Y / 2 = A * 2 = F / n, Where  X is the distance between the through holes located next to each other, located in different lateral faces of the bar, mm; Z is the height of the bar, mm; In - the thickness of the bar, mm; Y is the distance between the through holes located next to each other, located on one side of the bar, mm; A is the distance from the extreme hole on the side of the bar with a large number of holes to the end of the bar; F is the length of the bar, mm; n is the total number of holes in the bar. 2. The designer element according to claim 1, characterized in that the bar is made of wood. 3. The designer element according to claim 1, characterized in that the bar is made of plastic. 4. The designer element according to claim 1, characterized in that the bar is made with rounded ends.

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