Angles inside a hexagon = 6 Angles inside a pentagon = 5 Total = 11
In a six-sided polygon (hexagon), there are a total of four triangles that can be formed. Each triangle is formed by connecting three non-adjacent vertices of the hexagon. This can be calculated using the formula n(n-3)/2, where n represents the number of sides of the polygon. So, for a hexagon, the calculation would be 6(6-3)/2 = 4 triangles.
Oh, dude, a hexagon has six sides, right? So, you'd need to draw three triangles to make a hexagon. Each triangle would cover two sides of the hexagon, like a sneaky little puzzle piece fitting into place. So, like, three triangles would do the trick.
each internal angle of a hexagon is 120 degrees therefore angles in a hexagon add up to 720 degrees
i believe its 720 or 1080
To determine the number of triangles in a star inside a hexagon, we need to consider the number of triangles formed by the lines connecting the vertices of the hexagon and the points where the lines of the star intersect. Each intersection point forms a triangle with two adjacent vertices of the hexagon. Therefore, if the star has n points of intersection, the total number of triangles would be n multiplied by 2. Additionally, we need to consider the triangles formed by the lines of the star itself, which would add n triangles to the total count. So, the total number of triangles in a star inside a hexagon would be 3n.
Angles inside a hexagon = 6 Angles inside a pentagon = 5 Total = 11
Oh, dude, a hexagon has six sides, right? So, you'd need to draw three triangles to make a hexagon. Each triangle would cover two sides of the hexagon, like a sneaky little puzzle piece fitting into place. So, like, three triangles would do the trick.
each internal angle of a hexagon is 120 degrees therefore angles in a hexagon add up to 720 degrees
A hexagon has six sides. Subtract that by two and you get four. Multiply 180 by 4 and you get 720. That is the total number of degrees in a hexagon. Hope this helped! The Anonymous Answerer
i believe its 720 or 1080
A hexagon has 6 sides, and a pentagon has 5 sides. Thus, if you were to multiply the number of sides of a hexagon with the number of sides of a pentagon, you would get a total number of 30 sides.
Well, it just so happens that I figured this out for whoever was wondering... When n is even, and n+1 is odd (obviously) Sn+1 = Sn + (n+2)(3n+2)/4 When n is odd, and n+1 is even (obviously) Sn+1 = Sn + (n+1)(3n+5)/4 These formulas are for the total triangles in something that looks like this... /\ /_\ /\ /\ /_\ /_\ /\ /\ /\ /_\ /_\ /_\ This triangle has n=3 and has 13 total triangles. The general formula for total triangles is hard to find. And because this question doesn't ask for the general solution for any n, I won't post it. It is really fun to find though... The solution is shown below... Total Number of triangles = (n*n) + ( (n) * (n-1) * (4n+1) / 2 ) where n = (k+1) /2. K is the number of triangles on the each side. In the above example k is 3. k = 1 -> Total Triangles = 1 k = 2 -> Total Triangles = 4.875 ~ 5 k = 3 -> Total Triangles = 13 k = 4 -> Total Triangles = 26.875 ~ 27 k = 5 -> Total Triangles = 48 k = 6 -> Total Triangles = 77.875 ~ 78 and so on....
Well, honey, a hexagon has six sides, so technically you can fit six trapezoids in there if you get creative with your shapes. But if you're talking about how many trapezoids can fit perfectly inside a hexagon without overlapping, then the answer is zero. Hexagons and trapezoids are like apples and oranges, they just don't fit together like that.
360 degrees lad
The total number of diagonals for a convex (or concave) polygon, a hexagon being of the former type, is given by the equation (n2 - 3n)/2, where n is the number of sides of the polygon. A hexagon has 6 sides, so plugging the number 6 into the above equation for n, one finds that a hexagon has: [62 - 3(6)]/2 = (36 - 18)/2 = 18/2 = 9 diagonals.
2520 to get this. You must get the number of sides(16) subtract it by 2, then multiply it by 180. Subtracting it by two is actually the number of triangles inside the polygon showing the possible number of all available non-intersecting diagonals. so in general. The number of non-intersecting triangles multiplied by 180 degrees.( which is the number of degrees in one triangle.