KR200375217Y1 - Portable rotary baduk machine - Google Patents

Abstract

The present invention is to eliminate the inconvenience of having to separately check the board, black board, white board, etc. when placing the Go, so that the board can be placed without sticking to the horizontal plane or place of the board, the present design is an equilateral triangle pillar 361 sieves (Fig. 1) are installed in two cases connected to each other by hinges 10 so that each row is 19 lines in length, and the checker board is formed by three sides (1), (2), and (3) of the square of the column body (1). To replace the black checkerboard and the white checkerboard, when the composition of the checkerboard is required, rotate the column (Fig. 1) to express the first side (1) of the three sides on the surface, and the second side ( When 2) is expressed on the surface and white checkerboard is needed, the third surface (3) is displayed on the surface by the checker board, black checkerboard, white checkerboard, etc., so that it is possible to place the checkerboard separately.

Description

Rotary mobile Go machine {PORTABLE ROTARY BADUK MACHINE}

The present invention eliminates the inconvenience of providing a checkerboard and a black and white checkerboard separately when placing a board, and easily places the board in a vehicle, aircraft, or ship that is traveling or moving without being bound by the level or place of the board. The purpose is to make it possible.

In general, go is a way to place the Go by placing the board on the horizontal board with a checker board and a checkerboard separately, so in the case of the conventional Go, it is inconvenient to provide a checkerboard and a checkerboard, and the volume and weight of the checkerboard and the checkerboard It is heavy and not easy to carry and store, and it is not easy to carry and keep the board and leveling board at the time of picnic or mountain climbing. The conventional board is mixed with the board when the board is shaken or inclined. There are many problems such as it is almost impossible to place Go in a moving vehicle or aircraft because it can not be put away or fall.

In order to solve such a problem, the present invention has a bad house (Fig. 4 to Fig. 8) on the first surface (1) of the three sides (1), (2), and (3) of the square of an equilateral triangle pillar (Fig. 1). The black go point (FIG. 9) on the second surface 2, the white go point (FIG. 9) on the third surface 3, and the insertion hole of the shaft rod in the center of the bottom 4 of the column body (Fig. 1) (5) ) Forms a column body (Fig. 1) such that an insertion hole 6 of a metal rod is formed on the inner side of the triangular corner lines of the three surfaces (1), (2) and (3), and the pillar body (Fig. 1) 361 Rotate the column body (FIG. 1) so that the column body (FIG. 1) can be rotated as shown in FIG. The column body (Fig. 1) generated at the time of rotation of the column body (Fig. 1) so that each of the square faces (1), (2), and (3) of the column body (Fig. 1) displayed on the surface can be kept horizontal. It is installed to prevent the friction between the bottom 4 and the bottom 4 of 1), and as shown in Fig. 13 rotates the columnar body (Fig. 1) to be displayed on the surface. The Go house (Fig. 4 to Fig. 8) of the first side (1) is used as the board, the black go point (Fig. 9) of the second side (2) is made of black, and the white go point (3) of the third side (3) ) Is used as a white chessboard to allow for playing chess.

The present invention is a square of three sides (1), (2), (3) of the equilateral triangle columnar body (Fig. 1) on the first side (1) of the Go (Fig. 4 to Fig. 8), the second side (2) The black go (Fig. 9), the third go (3), the white go (Fig. 9), the insertion hole (5) of the shaft 7 in the center of the column (Fig. 1) bottom 4, three sides The pillar body (Fig. 1) is formed by injection molding or pressing with a synthetic resin material so that the insertion hole 6 of the metal rod is formed inside the triangular edge line of the pillar, and the pillar body (Fig. 1) can be rotated as shown in Fig. 13. 12 is inserted into the shaft 7 as shown in FIG. 12, and when the structure of the checker board is required, the column body (Fig. 1) is rotated as shown in Fig. 13 to express the first surface 1 on the surface and to select the black checkerboard. When the second face 2 is exposed and the white checkerboard is selected, the checkerboard, the black checkerboard and the white checkerboard can be selected by a method such as the display of the third face 3. In addition, two cases as shown in FIG. 14 are connected by hinges 10 so as to be folded as shown in FIG. 15, and ten shafts 7 are fixed to each case so as to be parallel to the connection surface of both cases. The 19 shafts 7 of the shafts 7 each have a go home (Fig. 4 to Fig. 8) of the first side, a black go point (Fig. 9) of the second side, and a white go point of the third side (Fig. 9). By inserting and installing 19 marked pillars (FIG. 1), it was possible to form a checkerboard with 361 pillars (FIG. 1), each of 19 rows in length and width, as shown in FIG. Nine columns having only black black dots (FIG. 10) on the second and second surfaces 2 and 3 of FIG. 1 and white dots on the second and second surfaces 2 and 3 (FIG. 1). 11 pillars marked only 11 are installed on the left and right sides of one pillar (Fig. 1) in the center of the shaft 7, and each of the nine black monarch points (Fig. 10) and the white monarch points (Fig. 11). Of the case interviewed with a pillar of the 16, 1, 2, 3, 4, 5, 10, 20, 30, 40, etc. are displayed on the surface sequentially from both ends of the shaft 7 so that the stone can be settled. Insert the metal rod attached to the magnet into the insertion hole 6 inside the triangular edge line of the three surfaces (1), (2) and (3) of the sieve (Fig. 1), and the bottom of the case where the edge line part touches. A permanent magnet rod 9 is mounted on the surface so that the exposed surface can be leveled when each surface of the three surfaces 1, 2, and 3 of the pillar body is exposed to the surface. A rotating friction preventing plate 8 was installed between the bottom 4 and the bottom 4 of the pillar (FIG. 1) to prevent rotational friction between the floor and the floor.

The present invention is a square of three sides (1), (2), (3) of the equilateral triangle columnar body (Fig. 1) on the first side (1) of the Go (Fig. 4 to Fig. 8), the second side (2) The black go (Fig. 9), the third go (3), the white go (Fig. 9), the insertion hole (5) of the shaft 7 in the center of the column (Fig. 1) bottom 4, three sides The pillar body (Fig. 1) is formed by injection molding or pressing with a synthetic resin material so that the insertion hole 6 of the metal rod is formed inside the triangular edge line of the pillar, and the pillar body (Fig. 1) can be rotated as shown in Fig. 13. 12 is inserted into the shaft 7 as shown in FIG. 12, and when the structure of the checkerboard is required, the pillar body (FIG. 1) is manually rotated as shown in FIG. 13 to express the first surface 1 on the surface, and the black checkerboard is When selecting the second surface (2) to display the white checkerboard when selecting the third surface (3) by showing only the three sides (1) (2) (3) of the checker board, black board, It is effective to use whiteboard It was registered.

In addition, two cases as shown in FIG. 14 are connected by hinges 10 so as to be folded as shown in FIG. 15, and ten shafts 7 are fixed to each case so as to be parallel to the connection surface of both cases. The 19 shafts 7 of the shafts 7 each have a go home (Fig. 4 to Fig. 8) of the first side, a black go point (Fig. 9) of the second side, and a white go point of the third side (Fig. 9). By inserting and installing 19 marked pillars (Fig. 1), it is possible to place the Go with only the pillars (Fig. 1) rotation without separately providing a checker board, a black checkerboard, and a white checkerboard. There is an effect that can prevent the falling or mixing of, the remaining one of the 20 shafts (7) of the shaft (7) on the second surface (2) and the third surface (3) of the pillar (Fig. 1) In the center of the shaft (9), nine pillars with black dots (FIG. 10) on the left side and nine pillars with white dots (FIG. 11) on the second side (2) and third surface (3). It is installed on the left and right sides of one pillar (Fig. 1), and the surfaces of the cases interviewed with the pillars of the nine black mon points (Fig. 10) and the white mon points (Fig. 11) are shown in Figs. Likewise, numbers 1, 2, 3, 4, 5, 10, 20, 30, 40, etc. are sequentially displayed from both ends of the shaft 7, and the number of pillars corresponding to the number of sandstones is rotated and the numbers It is effective to settle the sandstone by exposing the surface to the surface. Also, the magnet is inserted into the insertion hole 6 inside the triangular edge line of the three surfaces 1, 2, and 3 of the column body (Fig. 1). Inserting a metal rod attached to the wall and attaching a permanent magnet rod (9) to the bottom surface of the case where the edge line touches, so that the Go house, black block, white block, etc. displayed on the surface can be leveled In addition, by installing a rotating anti-friction plate 8 between the bottom (4) and the bottom (4) of the column body (Fig. 1) and the bottom and bar There is an effect that can prevent the rotational friction between the Doc.

1: Front perspective view of an equilateral triangle pillar

Figure 2: Back perspective view of an equilateral triangle pillar

Figure 3: Cross section of the equilateral triangle pillar

Figure 4: Go house in the upper left corner of the board Perspective view of the first side of the equilateral triangle column that displays (Go house 집 for the bottom right corner)

Figure 5: Go house in the upper side of the board Perspective view of the first side of the equilateral triangle pillar that displays (the Go house ┴ combined use of the lower part)

Figure 6: Go house in the central part of the board Perspective view of a first surface of an equilateral triangle pillar

Figure 7: Go house in the upper right corner of the board Perspective view of the first side of the equilateral triangle column with the vice versa

Figure 8: Go house on the right side of the board (Go house of the left side part Perspective view of first surface of equilateral triangle columnar

Fig. 9 is a perspective view of the pillar with black black dots on the second face of the equilateral triangle pillar and white dots on the third face.

FIG. 10: Perspective view of a column with only black black dots on the second and third sides of the equilateral triangle column and no monarch on the first side

Fig. 11 is a perspective view of a pillar in which only white monarch marks are displayed on the second and third sides of the equilateral triangle pillar and no monarch is displayed on the first side.

12 is a perspective view of the equilateral triangle pillar and the rotation friction prevention plate inserted into the shaft

13 is an embodiment showing a state in which the square surface of the equilateral triangle pillar is rotated under pressure

14 is a perspective view of two cases connected by hinges

15: A perspective view showing the two cases folded

16: perspective view of a rotary mobile game machine

Figure 17: An internal perspective view of the upper left and lower left corners of a rotary portable go game machine

Fig. 18: Internal perspective view of the upper and lower side portions of the rotary portable monarch

Fig. 19: Internal perspective view of the upper right and lower right corners of the portable mobile game machine

* Explanation of symbols for the main parts of the drawings

1: first side of equilateral triangle body 2: second side of equilateral triangle body

3: third side of equilateral triangle body 4: bottom of equilateral triangle body

5: shaft insert hole 6: metal rod insert hole

7: shaft 8: anti-friction plate

9: permanent magnet rod 10: hinge

11: case

Claims (1)

A black house on the first side (1) of the three sides (1), (2), and (3) of the square of the equilateral triangle body (Fig. 1), and black dots on the second side (2). (Fig. 9), a white go point (Fig. 9) is displayed on the third surface (3), and the insertion hole (5) of the shaft is in the center of the bottom (4) of the pillar (Fig. 1), and the three sides (1), Columns (Fig. 1) are formed such that the insertion holes 6 of the metal rods are formed on the inner side of the triangular edge line of (2) and (3), and the metal rods are inserted into the insertion holes 6 of the metal rods (Fig. 1) is inserted into 19 shafts (7), 19 per shaft (7), the rotational friction preventing plate (8) is inserted between the bottom (4) and the bottom (4), the shaft (7) is shown in Figure 14 As shown in FIG. 10, two shafts connected by hinges 10 are fixedly installed in parallel with both case connection surfaces, but one shaft rod 7 installed on the outer surface of the case except 19 above is provided with a pillar body ( Nine columns having only black black dots (FIG. 10) on the second surface 2 and the third surface 3 of FIG. 1, and the second surface 2 and the third surface 3 9 pillars with only white check marks (Fig. 11) are installed on the left and right sides of one pillar (Fig. 1) at the center of the shaft, and each of the above nine black check marks (Fig. 10) and white On each surface of the case interviewed with the pillar of the go (Fig. 11), numbers 1, 2, 3, 4, 5, 10, 20, 30, and 40 are sequentially displayed from both ends of the shaft as shown in Fig. 16, Rotating portable game machine equipped with a permanent magnet rod 9 on the bottom surface of the case 11, where the edges of the three sides 1, 2, and 3 of the pillar body (Fig. 1) touch.