No. In a regular polygon, all sides are congruent, and all angles are congruent. A parallelogram doesn't satisfy either of these conditions.
No. In a regular polygon, all sides are congruent, and all angles are congruent. A parallelogram doesn't satisfy either of these conditions.
No. In a regular polygon, all sides are congruent, and all angles are congruent. A parallelogram doesn't satisfy either of these conditions.
No. In a regular polygon, all sides are congruent, and all angles are congruent. A parallelogram doesn't satisfy either of these conditions.
Linear transformation is a function between vector spaces that will always map a parallelogram onto itself. Some examples are rectangles and regular polygons.
Concave is a property of [irregular] polygons. A parallelogram cannot be concave.
regular polygons are the ones that all sides are equal
all regular polygons
no. only regular polygons do
A parallelogram is a four-sided polygon.
It depends. Strictly speaking, a semi-regular tessellation uses two (or more) regular polygons and, since neither an isosceles triangle nor a parallelogram is regular, it cannot be a semi-regular tessellation. However, a less strict definition allows non-regular components.
Linear transformation is a function between vector spaces that will always map a parallelogram onto itself. Some examples are rectangles and regular polygons.
Concave is a property of [irregular] polygons. A parallelogram cannot be concave.
regular polygons are the ones that all sides are equal
all regular polygons
Yes.Yes.Yes.Yes.
They are both convex polygons.
theres_loads!_heres_just_1._square. If you want just quadrilaterals, then parallelogram (which rectangle, rhombus & square are part of). Other polygons are regular hexagon, regular octagon,... regular (any even sided polygon)
Regular polygons.
Squares and rectangles.
No because a triangle has 3 sides whereas a parallelogram has 4 sides but they are both types of polygons