A kite has two pairs of sides with the same length, where each pair is connected by a corner. For example, a quadrilateral with sides 4-4-5-5 would be a kite. A rhombus is a special kind of kite, with all sides equal. And a square is a special kind of rhombus with four right angles. So every square is a kite, but not every kite is a square.
A quadrilateral
A kite, a rhombus (special case of a kite), a square (a special case of rhombus).
It is a rhombus or a kite
NO!!! If all four sides where equal , then you would have a 'Rhombus'. A Kite shape has four sides, two adjacent sides are of equal length.
A dart
A kite has two pairs of sides with the same length, where each pair is connected by a corner. For example, a quadrilateral with sides 4-4-5-5 would be a kite. A rhombus is a special kind of kite, with all sides equal. And a square is a special kind of rhombus with four right angles. So every square is a kite, but not every kite is a square.
A kite is a quadrilateral with two distinct pairs of adjacent sides that are congruent. In terms of triangles, a kite can be formed by two congruent right triangles sharing a hypotenuse, or by two congruent isosceles triangles sharing a base. Additionally, a kite can also be formed by combining two congruent scalene triangles with a shared side.
A quadrilateral
A kite, a rhombus (special case of a kite), a square (a special case of rhombus).
A quadrilateral.
A Rhombus * * * * * WRONG! A rhombus does not have equal diagonals. If it did it would be a square! The shape is a special case of a kite.
It's common, because kite is not something special, something that is unique. There are millions of kites out there.
It depend on what kind of kite you have. Two points are symmetric with respect to a point iff it is the midpoint of the line segment joining them. So if you have like a dragon kite, then probably not, but if you have a traditional dizmond kite, then yes.
Examples; square, kite etc
Parallelogram, rectangle, rhombus, trapezium, square, kite.
No, except in the special case where each was a square.