The lengths of the latitudes are unequal because they represent circles parallel to the Equator, which is the longest latitude line. As you move toward the poles, these circles decrease in circumference due to the Earth's spherical shape. Consequently, lines of latitude are widest at the Equator and gradually get shorter until they converge at the poles, making the distances between them unequal.
Two bases that are parallel to each other and two sides that are of unequal lengths unless it is an isosceles trapezoid whereas the sides will be equal in length.
In a trapezoid, the diagonals do not generally bisect each other. Unlike parallelograms, where the diagonals always bisect each other, trapezoids have a different geometric property due to their unequal side lengths. The only exception is in an isosceles trapezoid, where the diagonals are congruent but still do not bisect each other at the midpoint.
How about a rhombus or a kite
a right triangle whose sides are unequal to each other :D
To draw a quadrilateral with diagonals that bisect each other but do not intersect at right angles or serve as lines of symmetry, start by sketch a convex quadrilateral, such as a parallelogram. Ensure that the lengths of the diagonals are unequal and that they cross each other at a point that isn't the midpoint of the quadrilateral's sides. For example, you could create a rhombus where the diagonals are of different lengths, ensuring they meet at an angle other than 90 degrees. Finally, label the points and confirm that the diagonals intersect at their midpoints but do not create symmetrical halves of the shape.
Two bases that are parallel to each other and two sides that are of unequal lengths unless it is an isosceles trapezoid whereas the sides will be equal in length.
It is a kite or a rhombus both of which have unequal diagonals that are perpendicular to each other creating right angles.
In a trapezoid, the diagonals do not generally bisect each other. Unlike parallelograms, where the diagonals always bisect each other, trapezoids have a different geometric property due to their unequal side lengths. The only exception is in an isosceles trapezoid, where the diagonals are congruent but still do not bisect each other at the midpoint.
A trapezoid is a quadrilateral shape that has four sides of unequal lengths two of which are parallel to each other. An isosceles trapezoid also has two parallel sides but with two other sides being of equal length.
A congruent triangle is a triangle with all its sides being unequal to each other.
How about a rhombus or a kite
It is a rhombus or a kite
a right triangle whose sides are unequal to each other :D
To draw a quadrilateral with diagonals that bisect each other but do not intersect at right angles or serve as lines of symmetry, start by sketch a convex quadrilateral, such as a parallelogram. Ensure that the lengths of the diagonals are unequal and that they cross each other at a point that isn't the midpoint of the quadrilateral's sides. For example, you could create a rhombus where the diagonals are of different lengths, ensuring they meet at an angle other than 90 degrees. Finally, label the points and confirm that the diagonals intersect at their midpoints but do not create symmetrical halves of the shape.
The number of molecules has nothing to do with attraction or repulsion.
At the equinox day and night are of the same length all over the world because the Sun is in the plane of the Earth's equator, and that happens on March 21 and September 22 each year. At other times the Sun is above or below the Equator, and day and night have unequal lengths.
At the equinox day and night are of the same length all over the world because the Sun is in the plane of the Earth's equator, and that happens on March 21 and September 22 each year. At other times the Sun is above or below the Equator, and day and night have unequal lengths.