An infinite number. Any parallelogram can be cut in half by a line parallel to one of its sides to increase the number by one. And there is no end to that process.
Not all parallelograms do but a rhombus does.
Nonagon = 9 sides Hexagon = 6 sides So answer = 3
a quadrilateral has 4 sides a hexagon has 6 sides so it's 6/4=1.5
3..
If two parallelograms are similar then the corresponding angles are EQUAL.
2
yes
The number of parallelograms that can fit into a hexagon depends on the size and orientation of the parallelograms relative to the hexagon. A regular hexagon can be divided into six equilateral triangles, and each triangle can accommodate a parallelogram, depending on its dimensions. In general, the maximum number of parallelograms that can fit into a hexagon can vary, but a common configuration is to fit two parallelograms in each triangular section, potentially allowing for a total of twelve parallelograms. However, this is contingent on the specific dimensions of the parallelograms used.
There can be any number (>=3) of parallelograms in a regular hexagon. If it is not a regular hexagon you may not have any.
No because a parallelogram is a 4 sided polygon whereas an hexagon is a 6 sided polygon.
Type your answer here... hexagon
No. A hexagon has 6 sides. There are parallelograms that do not have 6 sides.
Nope. A parallelogram has 4 sides, a hexagon has 6 (hex means six)
No, all parallelograms are quadrangles or quadrilaterals which have 4 sides. Hexagons have 6 sides.
They are a miscellaneous collection of polygons.
Very many if they are much smaller than the hexagon.If the square is to have the same length side as an equilateral hexagon and you are not allowed to cut the square then one.If you are allowed to cut the square but it (they) have to have the same length side as an equilateral hexagon then: about 2.6 [Exactly (3 * (Sqrt 3)) / 2 ]
A hexagon have three diamonds. Two perfect diamonds attach together and the third diamond cut into half to create a hexagon. I know it can be a bit confusing but that is the logic of have three diamonds in a hexagon.