yes
Not all parallelograms do but a rhombus does.
Assuming that the figure qualifies as a polygon, then all figures in this category are parallelograms. If all sides are equal in length then the shape is also a rhombus.
When you add all four sides of a quadrilateral(all parallelograms are quadrilateral), It must equal 360 degrees. So what you do is you add up the three angles that are given, them subtract that sum from 360.
It has four sides of equal length and the corner angles are all equal.
It is still a rhombus if all four of its sides are of equal length.
No shape is a square but not a parallelogram as all squares are parallelograms: All parallelograms have opposite sides parallel and of equal length, and opposite angles are equal. All squares have opposite sides that are parallel and of equal length, and opposite angles are equal; thus all squares are parallelograms. However, all squares also have all angles equal to 90o and all four sides equal, but some parallelograms have angles not all 90o and/or not all four sides of equal length; thus not all parallelograms are squares.
A parallelogram is a four-sided figure with opposite sides parallel. Squares and rectangles are two examples of parallelograms. A square is a four-sided figure that has four equal sides, and opposite sides are parallel.
All "parallelograms" have opposite sides that are parallel. If all four sides have an equal length and the angles are not all right angles, it is a rhombus. If there is any right angle, then they are all right angles and the parallelogram is a square.(note : it is not possible for a quadrilateral to have four equal sides without being one of these parallelograms.)
In a rhombus all four sides are of equal length, while in a parallelogram opposing sides have the same length. Thus all rhombi are parallelograms, but all parallelograms are not rhombi.
Not all parallelograms do but a rhombus does.
A rhombus is a parallelogram with 4 equal sides. Many parallelograms do not have 4 equal sides. All parallelograms have 2 pairs of equal opposite sides.
Not all shapes with four sides are parallelograms. A parallelogram is a specific type of quadrilateral where opposite sides are parallel and equal in length. Other four-sided shapes, such as rectangles, squares, trapezoids, and rhombuses, can have different properties. Therefore, while all parallelograms are quadrilaterals, not all quadrilaterals are parallelograms.
No, a paralellogram is a four-sided polygon which has two sets of parallel lines. A square is a parallelogram, but most parallelograms do not have all equal sides.
Yes, all squares and rectangles are types of parallelograms since they have opposite sides that are equal and parallel. However, not all triangles are parallelograms, as triangles do not have opposite sides or angles. A parallelogram specifically requires four sides, while a triangle only has three.
Yes, squares are a specific type of rectangle and parallelogram. A rectangle is defined as a quadrilateral with four right angles, while a parallelogram has opposite sides that are equal and parallel. Since a square has all the properties of both rectangles and parallelograms—four right angles and equal sides—it fits into both categories. Thus, all squares are rectangles and parallelograms, but not all rectangles or parallelograms are squares.
Parallelograms and rectangles are both types of quadrilaterals, meaning they each have four sides. Both shapes have opposite sides that are parallel and equal in length. Additionally, the angles in rectangles are all right angles (90 degrees), while parallelograms have opposite angles that are equal but are not necessarily right angles. This means that all rectangles are parallelograms, but not all parallelograms are rectangles.
True. Squares are a special type of parallelogram because they have all the properties of parallelograms, including opposite sides being equal and parallel, as well as opposite angles being equal. Additionally, squares have all four sides of equal length and all angles equal to 90 degrees, distinguishing them from other parallelograms.