TWM481762U - Hexagonal building blocks and base thereof - Google Patents

Description

Hexagonal block and its base

The present invention relates to a hexagonal building block and a base thereof, which are constructed by using a plurality of different solid blocks of one to several hexagonal units, and the corresponding bases are provided for different positions and stacking orders of the hexagonal units. A variety of stacking methods can form a three-dimensional shape.

Commonly used in the common puzzle building blocks, the shape of the building blocks is roughly square, plate shape, sphere, etc., wherein the square is mainly formed by the six sides extending through the X, Y direction to form different shapes, but the building block structure is Corresponding combination of horizontal or vertical angles, because the human brain can easily combine the horizontal or vertical angles of the blocks, and it is easy to identify when combined, so it may be helpful for children, but the combination of blocks is too simple. The logical thinking and group concept is relatively weak; the latter has introduced a detachable group of square building blocks with different shapes to match the corresponding base, thereby improving the variability of the building block combination, but the horizontal and vertical angles of the base and the square building block are utilized. As long as the use of the edge of the base is easy to combine, although the building block structure has improved combination variability and difficulty, it is still a little lacking, such as the above-mentioned various defects still have room for further improvement.

This creation is a hexagonal building block and its base, which is made up of several different three-dimensional shapes. The plurality of building blocks are combined and stacked to the base, and the plurality of building blocks are respectively composed of one to several hexagonal units, and the horizontal and vertical layers are connected to each other to form each hexagonal unit, thereby using several building blocks. Corresponding to the base with the groove, the order of the arrangement and the stacking position are different, and the plurality of different stacking manners can form a three-dimensional shape.

Furthermore, the foregoing building blocks can be stacked on the base in a longitudinal direction to form a three-dimensional shape, and the blocks can be arranged in a horizontal direction by replacing the different shapes by the base. In summary, the present invention has the following advantages:

1. Each building block is composed of a fixed number of hexagonal units. When the matching bases are arranged and stacked, it has the training and inspiration to stimulate the user to think in the three-dimensional space, to imagine and try to stack the correct combination. effect.

2. The base can be replaced, and most of the commercially available related products are stacked vertically. This creation allows the user to select the blocks to be arranged vertically and horizontally, thereby inspiring the user to think about the combination of blocks in different directions. Innovative style, combination of thinking in different directions, and the arrangement of the blocks is composed of a fixed number of hexagonal units. When stacking, it is necessary to try more to stack the three-dimensional shape without leaving a gap.

Compared with the characteristics of the prior art, the creation utilizes the same number of building blocks, and the stacking combination can be changed in the vertical and horizontal directions corresponding to different bases, and each building block is mainly designed with a hexagonal shape, so the base is matched with the stack regardless of the direction. The three-dimensional shape formed by the synthetic base needs to be vacant for this purpose. It is difficult for the logical thinking training and stacking sorting combination, so that the reviewing committee can further understand the creation of the above-mentioned purpose. The technical means and the functions of the features are exemplified by the preferred embodiments and the following description.

10‧‧‧ unit

11~17‧‧‧Building Block A~Building G

18‧‧‧Base

181‧‧‧ Groove

182~188‧‧‧Location A~Location G

C1~C10 plane 1~plane 10

A1~a4‧‧‧1st unit~4th unit

B1~b4‧‧‧Unit 1~Unit 4

C1~c4‧‧‧Unit 1~Unit 4

D1~d4‧‧‧1st unit~4th unit

19‧‧‧Base

191‧‧‧ Groove

201~208‧‧‧Location A’~Location H’

E1~e4‧‧‧1st unit~4th unit

F1~f4‧‧‧1st unit~4th unit

G1~g4‧‧‧1st unit~4th unit

Figure 1 is a perspective view of each part of the creation.

Figure 2 is a three-dimensional combination diagram of the creation.

Figure 3 is a schematic diagram of the layers after the stacking of the creation.

Figure 4 is a schematic diagram of the layers after another stacking of the creation.

Figure 5 is a perspective view of another embodiment of the present creation.

Fig. 6 is a schematic cross-sectional view showing another embodiment A-A of the present invention.

Figure 7 is a schematic perspective view of another embodiment of the present invention.

Figure 8 is a schematic diagram of layers after stacking of another embodiment of the present invention.

Figure 9 is a schematic diagram of layers of another stacked combination of another embodiment of the present creation.

Generally, according to the present creation, the best feasible embodiment, together with the detailed description of the drawings, will increase the understanding of the creation; see Figure 1 to Figure 9, the creation is a hexagonal building block and its The base, and the blocks A~G (11~17) used are four hexagonal units (10). The hexagonal block combination of seven different three-dimensional shapes is formed by the shape of the horizontal and vertical layers. The positional relationship in the embodiment will be described based on the unit (10). The shape of each building block is as follows: the building block A (11) has a shape in which the first unit (a1) and the second unit (a2) are horizontally connected. The third unit (a3) and the fourth unit (a4) are connected to both sides of the joint; the block B (12) is formed in a shape in which the first unit (b1) and the second unit (b2) are horizontally connected, and are connected below. The third unit (b3) and the fourth unit (b4); the building block C (13) having the shape of the first unit (c1), the second unit (c2), and the third unit (c3) vertically connected Connected, the fourth unit (c4) is connected to the first unit (c1) side; the building block D (14) is shaped such that the first unit (d1) is vertically connected to the second unit (d2), and the third unit (d3) ) connected vertically to the fourth unit (d4), connected to the first unit (d1) side; and the building block E (15) having the shape of the first unit (e1), the second unit (e2), and the third unit ( E3) After the vertical connection, the fourth unit (e4) is connected to the second unit (e2) side; the building block F (16) has a shape in which the first unit (f1) and the second unit (f2) are vertically connected, and 3 unit (f3) is connected to the second unit (f2) side, fourth unit (f4) is connected to the first unit (f1) side; building block G (17) is shaped as the second unit (g2), After the three units (g3) and the fourth unit (g4) are connected to each other, the first unit (g1) is connected above the second unit (g2).

Referring to FIG. 1 to FIG. 3, a base (18) has a groove (181) for forming the shape of the groove (181) when the blocks A~G (11~17) are placed in the array. The three-dimensional shape, the combination of which contains several kinds of changes, the shape of the groove (181) in the base (18) can be seen from the figure, which is composed of a central hexagonal type with 6 sides connected with 6 hexagonal shapes, the groove (181) The inner part is position A (182), position B (183), position C (184), position D (185), position E (186), position F (187), and position G (188), which can be seen after stacking. The height is 4 layers, 7 units (10) per layer, a total of 28 units (10), and the stacking method is made up of the second unit (g2), the third unit (g3) and the 4 unit (g4) corresponds to position C (184), position D (185), position G (188); continue to stack the block F (16) using the lower unit 2 (f2) and the third unit (f3) corresponding position B (183) and position A (182), and the fourth unit (f4) is located above the third unit (g3); continue to stack the block E (15) using the third unit (e3) corresponding position F (187); continue stacking The building block C (13) uses the third unit (c3) corresponding to the position E (186), and the fourth unit (c4) is located above the first unit (g1); The stacking block D (14) is located above the fourth unit (g4) and the fourth unit (f4) using the second unit (d2) and the fourth unit (d4) below; the stacking block B (12) is continued to use the third unit ( B3) and 4th unit (b4) are located above the 4th unit (e4) and the 3rd unit (f3); continue to stack the building blocks A (11) using the 1st order The unit to the fourth unit (a1, a2, a3, a4) are located above the first unit (c1), the fourth unit (c4), the first unit (d1), and the first unit (e1), and have been stacked up to seven. The blocks A~G (11~17) are placed in the arrangement; the sorting combination of the blocks A~G (11~17) can be more clearly understood from the layers in Fig. 3.

Please refer to Figure 4, this figure is another combination method. First, the first unit to the fourth unit (a1~a4) of the building block A (11) correspond to the position G (188), the position B (183), and the position. C (184), position A (182); continue to stack the block B (12) using the first unit (b2) and the second unit (b2) corresponding position D (185), position E (186); continue to stack the building block D14 utilization The second unit (d2) corresponds to the position F (187), and the fourth unit (d4) is located above the third unit (a3); the stacking of the blocks C (13) continues with the first unit (c1) and the fourth unit (c4) Located above the second unit (a2) and the first unit (a1); continuing to stack the block E (15) with the first unit (e1) above the third unit (a3), and the fourth unit (e4) at the third Above the unit (b3); continue to stack the building block F (16) using the fourth unit (f4), the second unit (f2) and the third unit (f3) in the fourth unit (e4), the fourth unit (b4) and the 1 unit (d1) above; continue to stack the building block G (17) using the first unit (g1), the third unit (g3), and the fourth unit (g4) in the fourth unit (c4), the third unit (f3), Above the third unit (d3), the stacking of seven types of blocks A~G (11~17) has been placed to complete the arrangement.

Please refer to Figure 5 to Figure 8 to replace the base (19) with different designs. The base (19) can be placed in the horizontal direction by using the same building blocks A~G (11~17). The variability of the sorting combination of the building blocks A~G (11~17). The inside of the base (19) has a groove (191) having a plurality of planes 1~10 (C1~C10), wherein the plane 1 (C1) and the plane 2 (C2), plane 3 ( C3) and plane 4 (C4), plane 4 (C4) and plane 5 (C5), plane 6 (C6) and plane 7 (C7), plane 9 (C9) and plane 10 (C10) are intersected by two planes At an angle of 120 degrees; plane 2 (C2) and plane 3 (C3), plane 5 (C5) and plane 6 (C6), plane 8 (C8) and plane 9 (C9) exhibit an angle of 240 degrees, by complex plane 1~10 (C1~C10) forms an angle of 120 degrees and 240 degrees, which can make blocks A~G (11~17) is placed in the upper 3 layers, and the number of layers from bottom to top is 8, 12, 8 units (10), a total of 28 cells (10), and can be easily taken by fingers. The blocks A~G (11~17) used in this creation are hexagonal, so the inner angles are all 120 degrees. When placed on the base (19), the above-mentioned plane and hexagonal unit with an angle of 120 degrees ( 10) Cooperate, so that the blocks A~G (11~17) are placed firmly. For example, the angle between the plane 4 (C4) and the plane 5 (C5) shown in the figure is matched with the angle of 120 degrees. The hexagonal unit (10) is in this way. It is known from the above-mentioned base (19) that the main layer is three layers high, and the lowermost layer is a hexagonal unit (10). The relevant positions of the sorting combinations can be referred to in Fig. 7 to Fig. 8, respectively. Position A' (201), position B' (202), position C' (203), position D' (204), position E' (205), position F' (206), position G' (207), position H'(208), when sorting blocks A~G(11~17), first use the block G(17) with the corresponding position D'(204) of the third unit (g3); and then put it into the building block F(16) The second unit (f2) corresponds to the position H' (208), the first unit (f1) corresponds to the position G' (207), and the fourth unit (f4) corresponds to the position C' (203); and the built-in block D (14) The fourth unit (d4) corresponds to the position B' (202) and the third unit (d3) corresponds to the position A' (201); and the block B (12) is placed again by the third unit (b3) corresponding position F' (206) And the first unit (b1) corresponds to the position E' (205), at which time the lowermost layer is placed, and the building block C (13) is placed above the second unit (g2) by the third unit (c3), the second unit (c2) is located above the first unit (g1), and the fourth unit (c4) is located above the third unit (b3); and the building block E (15) is located in the third unit (f3) by using the third unit (e3) The upper unit, the second unit (e2), and the fourth unit (e4) are located on the right side of the second unit (c2) and the first unit (g1), and the first unit (e1) is located above the fourth unit (b4); The building block A (11) is placed above the third unit (d3), the first unit (b1), and the second unit (b2) by using the third unit (a3), the second unit (a2), and the fourth unit (a4). So far, 7 types of blocks A~G (11~17) have been placed in the base (19) to complete the arrangement.

Please refer to Figure 9, which is another sorting combination of the base (19) and the building blocks A~G (11~17). The building block A(11) uses the third unit (a3) corresponding position D' (204). ), unit 2 (a2) Corresponding position H' (208); nextly, the building block E (15) uses the first unit (e1) corresponding position C' (203), the second unit (e2) corresponds to position B' (202), and the third The unit (e3) corresponds to the position A' (201); the building block C (13) uses the first unit (c1) corresponding position G' (207), the second unit (c2) corresponds to the position F' (206), and the third The unit (c3) corresponds to the position E' (205), at which time the lowermost layer is placed; and the building block B (12) is located in the third unit (a3) and the second unit (b2) and the fourth unit (b4). Above the unit (e1), the first unit (b1) and the third unit (b3) are located above the first unit (a1) and the fourth unit (c4); and the building block D (14) is used in the third unit (d3) Located on the right side of the first unit (b1), the fourth unit (d4) and the first unit (d1) are located on the right side of the third unit (b3) and the fourth unit (c4); and the building block F (16) is utilized in the fourth unit ( F4) is located above the second unit (d2), and the third unit (f3) is located above the third unit (e3); finally, the building block G (17) is placed by the first unit (g1) and the second unit (g2) 2 units (c2) and 3rd unit (c3) are located above, and the 4th unit (g4) is located on the right side of the second unit (f2). The stacking has now placed 7 types of blocks A~G (11~17) into the base (19). ) Finish the arrangement. In summary, it can be seen that the hexagonal block and its base of the present invention have many different combinations, and the two bases can be replaced by vertical and horizontal two-way stacking, thereby different combinations of arrangements, even the types of building blocks and the number of units. The number of units that can be accommodated in the base can be increased or decreased, and a more diverse and diverse combination mode can be changed, so that the creation can more effectively stimulate the user to think and learn in a three-dimensional space.

10‧‧‧ unit

11~17‧‧‧Building Block A~Building G

A1~a4‧‧‧1st unit~4th unit

B1~b4‧‧‧Unit 1~Unit 4

C1~c4‧‧‧Unit 1~Unit 4

D1~d4‧‧‧1st unit~4th unit

E1~e4‧‧‧1st unit~4th unit

F1~f4‧‧‧1st unit~4th unit

G1~g4‧‧‧1st unit~4th unit

Claims (4)

A hexagonal building block and a base thereof are mainly composed of a plurality of different three-dimensional building blocks, the building blocks are composed of one to several units, and the shapes of the building blocks are as follows: building block A (11), the shape of which is the first The unit (a1) is horizontally connected to the second unit (a2), and the third unit (a3) and the fourth unit (a4) are connected to both sides of the joint; the building block B (12) is in the shape of the first unit (b1) ) is connected horizontally to the second unit (b2), and connects the third unit (b3) and the fourth unit (b4) to the lower side; the building block C (13) has the shape of the first unit (c1) and the second unit (c2). Connected to the third unit (c3) vertically, the fourth unit (c4) is connected to the first unit (c1) side; the building block D (14) is shaped like the first unit (d1) and the second unit (d2) Connected, the third unit (d3) is connected vertically to the fourth unit (d4), and is connected to the first unit (d1) side; the building block E (15) is in the shape of the first unit (e1) and the second unit. (e2) and the third unit (e3) are vertically connected, the fourth unit (e4) is connected to the second unit (e2) side; the building block F (16) is shaped as the first unit (f1) and the second unit (f2) After the vertical connection, the third unit (f3) is connected to the second unit (f2) side, and the fourth unit (f4) is connected to the first unit. Unit (f1) side; building block G (17), the shape of which is the second unit (g2), the third unit (g3), and the fourth unit (g4) are connected to each other, and the first unit (g1) is connected to the second unit Above the unit (g2); the blocks A~G can be connected to each other through the corresponding units. The hexagonal building block and the base thereof according to claim 1, further comprising: a base (18), provided with a groove, the groove having a position A~Z (182~188) for 7 units to be placed, Seven kinds of bricks (11~17) of different shapes are placed in the shape of the base in a longitudinal direction, and 7 layers of each unit are stacked in a height of 4 layers, for a total of 28 units. The hexagonal building block and the base thereof according to claim 1, further comprising: a base (19), provided with a A groove that allows seven types of blocks (11 to 17) to be placed laterally into the base, stacking three layers, each of which has 8, 12, and 8 units, for a total of 28 units. The hexagonal building block and the base thereof according to claim 3, the base further comprising: a complex plane A~J (C1~C10), the plane A (C1) and the plane B (C2), the plane C (C3) and Plane D (C4), plane D (C4) and plane E (C5), plane F (C6) and plane G (C7), plane I (C9) and plane J (C10) exhibit an angle of 120 degrees; C2) and plane C (C3), plane E (C5) and plane F (C6), plane H (C8) and plane I (C9) exhibit an angle of 240 degrees, formed by the complex plane (C1 ~ C10) 120 degrees And the angle of 240 degrees, can make the building blocks A~G (11~17) be stable and can be easily taken by fingers.