A line segment would connect two points on a plane.
The set of all points in a plane that are equidistant from two points is called the perpendicular bisector of the line segment connecting those two points. This geometric construct is a straight line that divides the segment into two equal halves at a right angle.
A line in 2D and a plane in 3D A perpendicular bisector of the line connecting the 2 given points
No, two points define a line. It takes three points to define a plane.
Because a place can rotate around those two points as long as the line in on the plane. Two points defines a line. A plane requires 3 points.
If two points are in a plane, then the line that contains the points is in that plane
A line in 2D and a plane in 3D A perpendicular bisector of the line connecting the 2 given points
No, two points define a line. It takes three points to define a plane.
Because a place can rotate around those two points as long as the line in on the plane. Two points defines a line. A plane requires 3 points.
If two points are in a plane, then the line that contains the points is in that plane
A plane has an infinite number of points. It takes 3 points to fix a plane i.e. you need 3 points to identify one unique plane.
When a line segment connecting two points is horizontal the length of the segment can be found by finding the absolute value of the difference in x-coordinates of the two points.
No, 2 points define a line, 3 points define a plane.
Yes, if points P and Q are contained in a plane, then the line segment connecting P and Q, denoted as PQ, is also entirely contained in that plane. This is a fundamental property of planes in Euclidean geometry, where any line segment formed by two points within the same plane must lie entirely within that plane. Therefore, the assertion is correct.
No. Three points do. Two points determine a line.
In Euclidian or plane geometry, there can be only one line through two fixed points. Lines cannot actually be drawn; if you see it it is not a geometric line. If the points are on a curved surface as in a geometry that is non-Euclidian, then there can be infinitely many lines connecting two points.
Geometry Text book 1-1 Exercises question 35? Ha i was looking for the same answer too. LOL
A spherical path is a curve on the surface of a sphere, typically connecting two points on the sphere. It is analogous to a straight line in a two-dimensional plane. On a globe, the equator is an example of a spherical path.