It has both because it has 5 lines of symmetry and rotational symmetry to the order of 5
Yes it does. A regular hexagon will have both rotational and reflectional symmetry about its centre.
Yes, a regular pentagon has rotational symmetry.
This is a little bit like asking why a square has four sides. A regular pentagon is defined in such a way as to require that it has 5-fold rotational symmetry.
5, you may think 1 but its actually 5
true
Yes a pentagon does have reflection symmetry
Yes it does. A regular hexagon will have both rotational and reflectional symmetry about its centre.
Yes, a regular pentagon has rotational symmetry.
It has reflectional symmetry It has five lines of symmetry It is symmetrical
If it is a regular 5 sided pentagon then its order of rotational symmetry is 5
This is a little bit like asking why a square has four sides. A regular pentagon is defined in such a way as to require that it has 5-fold rotational symmetry.
a pentagon has rotational symmetry if its a regular pentagon. if you add all 5 sides together you will get 360 degrees
Yes, a regular pentagon has rotational symmetry. It can be rotated around its center by multiples of (72^\circ) (360° divided by 5) and still look the same. This means it has five distinct positions in which it can be rotated without appearing different. Thus, the regular pentagon exhibits rotational symmetry of order 5.
No, it's not true that only regular polygons with an even number of sides are symmetrical. Regular polygons, regardless of whether they have an even or odd number of sides, are symmetrical. They possess rotational symmetry and reflectional symmetry; for example, a regular triangle (3 sides) and a regular pentagon (5 sides) both exhibit symmetry.
A regular pentagon or a 5-pointed star have rotational symmetry of order 5.
5, you may think 1 but its actually 5
Yes, a regular n-gon has n reflectional symmetries and n rotational symmetries. The n reflectional symmetries correspond to the lines of symmetry that can be drawn through each vertex and the midpoint of the opposite side. The n rotational symmetries arise from the ability to rotate the n-gon by multiples of ( \frac{360^\circ}{n} ), returning it to an equivalent position. Thus, both types of symmetry are equal to n.