The angle of the line is a degrees from North so the angle from East is (90 - a) degrees. Therefore gradient of the line is tan(90-a) = 1/tan(a).
Then any point on the line has coordinates (x, y) = (Lx + ksina, Ly + kcosa).
The coordinates of any point on the circle satisfy (x - Cx)2 + (y - Cy)2 = r2
The points of intersection must satisfy both equations so that:
(Lx + ksina - Cx)2 + (Ly + kcosa - Cy)2 = r2
This equation needs to be solved for k - everything else has a known numeric value. Since it is a quadratic, in k, there will be 0, 1 or 2 solutions for k depending on the line not intersecting the circle at all, being tangent to it and going through the circle.
The angle of the line is a degrees from North so the angle from East is (90 - a) degrees. Therefore gradient of the line is tan(90-a) = 1/tan(a).
Then any point on the line has coordinates (x, y) = (Lx + ksina, Ly + kcosa).
The coordinates of any point on the circle satisfy (x - Cx)2 + (y - Cy)2 = r2
The points of intersection must satisfy both equations so that:
(Lx + ksina - Cx)2 + (Ly + kcosa - Cy)2 = r2
This equation needs to be solved for k - everything else has a known numeric value. Since it is a quadratic, in k, there will be 0, 1 or 2 solutions for k depending on the line not intersecting the circle at all, being tangent to it and going through the circle.
The angle of the line is a degrees from North so the angle from East is (90 - a) degrees. Therefore gradient of the line is tan(90-a) = 1/tan(a).
Then any point on the line has coordinates (x, y) = (Lx + ksina, Ly + kcosa).
The coordinates of any point on the circle satisfy (x - Cx)2 + (y - Cy)2 = r2
The points of intersection must satisfy both equations so that:
(Lx + ksina - Cx)2 + (Ly + kcosa - Cy)2 = r2
This equation needs to be solved for k - everything else has a known numeric value. Since it is a quadratic, in k, there will be 0, 1 or 2 solutions for k depending on the line not intersecting the circle at all, being tangent to it and going through the circle.
The angle of the line is a degrees from North so the angle from East is (90 - a) degrees. Therefore gradient of the line is tan(90-a) = 1/tan(a).
Then any point on the line has coordinates (x, y) = (Lx + ksina, Ly + kcosa).
The coordinates of any point on the circle satisfy (x - Cx)2 + (y - Cy)2 = r2
The points of intersection must satisfy both equations so that:
(Lx + ksina - Cx)2 + (Ly + kcosa - Cy)2 = r2
This equation needs to be solved for k - everything else has a known numeric value. Since it is a quadratic, in k, there will be 0, 1 or 2 solutions for k depending on the line not intersecting the circle at all, being tangent to it and going through the circle.
The intersection of a sphere with a plane is a point, or a circle.
locus * * * * * A more likely answer is "the centre of the circle".
6 maximum points of intersection
Definition: a tangent is a line that intersects a circle at exactly one point, the point of intersection is the point of contact or the point of tangency. a tangent is a line that intersects a circle at exactly one point, the point of intersection is the (point of contact) or the **point of tangency**.
It is a circle - or at its extreme, a point.
The intersection of a sphere with a plane is a point, or a circle.
The intersection of a line and a circle is called a chord if the line intersects the circle at two points. If the line touches the circle at exactly one point, it is referred to as a tangent. If the line does not intersect the circle at all, it is considered to be external to the circle.
A circle is a type of conic section, produced by the intersection of a plane and a cone.
locus * * * * * A more likely answer is "the centre of the circle".
A circle~
circumcenter
it is the intersection of the medians of two cords!
Pi can be used to calculate the area of a circle Pi can be used to calculate the circumference of a circle
If the circle is inside the square, four.
The point of intersection of a tangent line or plane with a circle on a sphere is the single point where the line or plane touches the circle. This point is unique because, by definition, a tangent line or plane only intersects a circle at one point without passing through it. If the tangent is from an external point, it signifies that the line or plane is just "touching" the circle at that specific location. In three-dimensional space, this concept illustrates the relationship between the geometry of the sphere and the properties of tangents.
great circle
A Circle.