There is exactly one line that can be drawn perpendicular to a given line at a specific point on that line in three-dimensional space. This is because a perpendicular line will intersect the original line at a right angle, and in three-dimensional geometry, any point on a line can have only one such unique perpendicular direction.
Only one line can be drawn perpendicular to a given line at a specific point on that line in a plane. This is based on the definition of perpendicular lines, which intersect at a right angle (90 degrees). The uniqueness of this perpendicular line arises from the geometric properties of Euclidean space.
Given a line, there are an infinite number of different planes that it lies in.
Yes, a single point can belong to multiple planes. In three-dimensional space, a point is defined by its coordinates and can be a part of any number of planes that intersect at that point. For example, if two planes intersect at a line, every point on that line, including the intersection point, is contained in both planes.
Infinitely many.
only 1
There is exactly one line that can be drawn perpendicular to a given line at a specific point on that line in three-dimensional space. This is because a perpendicular line will intersect the original line at a right angle, and in three-dimensional geometry, any point on a line can have only one such unique perpendicular direction.
Only one line can be drawn perpendicular to a given line at a specific point on that line in a plane. This is based on the definition of perpendicular lines, which intersect at a right angle (90 degrees). The uniqueness of this perpendicular line arises from the geometric properties of Euclidean space.
Given a line, there are an infinite number of different planes that it lies in.
one
Yes, a single point can belong to multiple planes. In three-dimensional space, a point is defined by its coordinates and can be a part of any number of planes that intersect at that point. For example, if two planes intersect at a line, every point on that line, including the intersection point, is contained in both planes.
Infinitely many.
A plane midway between the two given planes and parallel to them.
No, the two planes intersect at a line, which is an infinite number of points.
No, they intersect at a line.
A spherical surface, with its center at the given point, and its radius equal to the given distance.
They form the sphere whose center is the given point and whose radius is the given distance.