Rohmbus is a four sided figure (quadrilateral) that is made up of two equilateral triangles
Yes.
You have to specifically give the problem with the dots, but it can form all equilateral triangles.. .. . .. . . .
Because all other polygons are made from triangles as for example an 8 sided octagon has 6 triangles within it or a 6 sided hexagon has 4 triangles within it.
Using six equilateral triangles, you can construct various polygons, including a hexagon by arranging the triangles in a way that their edges align to form a continuous shape. Additionally, you can create composite shapes like a larger triangle or complex patterns, depending on how the triangles are oriented and connected. If arranged properly, they can also form a larger equilateral triangle or even more intricate tessellations. The versatility of the triangles allows for numerous creative configurations.
Cross two match sticks to bisect like X and place the other two match sticks at the base of the two equilateral triangles formed .
Yes.
You have to specifically give the problem with the dots, but it can form all equilateral triangles.. .. . .. . . .
A parallelogram.
Join the 6 triangles like pizza slices
Equilateral triangles are also equiangular.
Because all other polygons are made from triangles as for example an 8 sided octagon has 6 triangles within it or a 6 sided hexagon has 4 triangles within it.
Using six equilateral triangles, you can construct various polygons, including a hexagon by arranging the triangles in a way that their edges align to form a continuous shape. Additionally, you can create composite shapes like a larger triangle or complex patterns, depending on how the triangles are oriented and connected. If arranged properly, they can also form a larger equilateral triangle or even more intricate tessellations. The versatility of the triangles allows for numerous creative configurations.
Cross two match sticks to bisect like X and place the other two match sticks at the base of the two equilateral triangles formed .
Construct/make a tetrahedron, which is three-dimensional.
Any n-sided regular polygon, by joining a single vertex up to each of the others, will have a total of (n - 2) triangles inside. In this case, an 11-sided polygon will contain 11 - 2 = 9 triangles.
To determine how many triangles can fit into a 13-sided polygon, we can use the formula for the number of triangles that can be formed from the vertices of an n-sided polygon, which is given by ( \binom{n}{3} ). For a 13-sided polygon, this is ( \binom{13}{3} = \frac{13 \times 12 \times 11}{3 \times 2 \times 1} = 286 ). Therefore, 286 triangles can be formed using the vertices of a 13-sided polygon.
draw a big triangle then make a line halfway through it