If you have one straight line, there are an infinite number of planes in which it lies.
no because the definition of a line says it will go onn forever so at any angle it will eventually go into a nother plane
Yes because a line can lie in many planes so one we add one point not on that line, we define a unique plane.
It is a Geometry Theorem. "A line and a point not on the line lie in exactly one place" means what it says.
Yes, a line and a point not on that line lie in one and only one plane. According to the geometric principle, a line and a point not on that line define a unique plane, as there is only one way to extend the line and include the point to create a flat surface. This plane contains all the points that can be connected to the line while also including the external point.
Two lines that coincide look and act exactly like a single line. If you have one straight line, there are an infinite number of planes in which it lies.
no because the definition of a line says it will go onn forever so at any angle it will eventually go into a nother plane
Yes because a line can lie in many planes so one we add one point not on that line, we define a unique plane.
It is a Geometry Theorem. "A line and a point not on the line lie in exactly one place" means what it says.
True.
Two lines that coincide look and act exactly like a single line. If you have one straight line, there are an infinite number of planes in which it lies.
When one line lies in a plane and another line does not lie in that plane, the two lines are referred to as "skew lines." Skew lines are non-parallel lines that do not intersect and are not coplanar. This means that, while one line exists entirely within the plane, the other line exists in a different three-dimensional space, making them distinct from parallel lines, which exist in the same plane.
Always; although that line can lie in infinitely many planes.
The fact is that if you have one straight line, there are an infinite number of planes in which it lies. One can see this by simply rotating the plane around the line. Thus, "a line lies in at least one plane" is a true statement.
>> Burger vector and dislocation line both not lie in single active slip plane in sessile dislocation.
There are one or infinitely many points.
A line that does not lie within a plane and intersects the plane does so at one point.A line that lies within a plane intersects the plane at all points.
No. A line can lie in many planes. A plane can be defined by three non-linear points. Since a line is defined by only two points, we need another point. (Note that point C alone, or line AB alone belong to an infinite number of planes.)