Yes; but in math, if you talk about "lines", that means one that stretches infinitely in both directions. If you are talking about limited-length "lines", those are called "segments".
Yes; but in math, if you talk about "lines", that means one that stretches infinitely in both directions. If you are talking about limited-length "lines", those are called "segments".
Yes; but in math, if you talk about "lines", that means one that stretches infinitely in both directions. If you are talking about limited-length "lines", those are called "segments".
Yes; but in math, if you talk about "lines", that means one that stretches infinitely in both directions. If you are talking about limited-length "lines", those are called "segments".
Then the alternate angles created would be equal in size.
If by parallel, you mean two lines that do not intersect, yes, it is possible to draw them on the surface of a sphere. They will end up being circles, and most pairs will not be equal in size. If you add the idea that the two lines also continue to infinity to the definition, then you cannot draw such things on the surface of a sphere.
The answer is any rectangle that is not a square: such a rectangle has two lines of symmetry, whereas a square has four.
A trapezoid is a quadrilateral with at least one pair of parallel sides. The parallel sides are called bases, and the non-parallel sides are called legs. The bases can be of different lengths, but they must be parallel to each other. The angles formed by the bases and the legs of a trapezoid can vary in size.
A cylinder has parallel discs bases that are congruent in size.
yes
Slope and some times size
They are alternate angles which are equal in size
The two wavy lines symbolizes that the shapes are congruent. This means that they are the same size as each other.
Then the alternate angles created would be equal in size.
Alternate angles are created when a transversal line cuts through parallel lines and they are equal in size
A rectangle.
If by parallel, you mean two lines that do not intersect, yes, it is possible to draw them on the surface of a sphere. They will end up being circles, and most pairs will not be equal in size. If you add the idea that the two lines also continue to infinity to the definition, then you cannot draw such things on the surface of a sphere.
A map with parallel lines of latitude and longitude is known as a Mercator projection map. This type of map is often used for navigation purposes due to its representation of straight lines of latitude and longitude, making it easier to measure distances and plot courses. However, the Mercator projection distorts the size of landmasses, especially near the poles.
If it is normal, in that it has finite size, then no. parallel lines never meet together in any way The answer is apparently yes, according to non-euclidian geometry. I do not know the specifics, but I am researching it now. It has to do with a triangle inside a sphere.
The answer is any rectangle that is not a square: such a rectangle has two lines of symmetry, whereas a square has four.
Latitude lines run parallel to the Equator while longitudinal lines (also called meridians) run north-south. The latitude angle ranges from 0 degrees at the Equator to 90 degrees at either the north or south pole.