The point that is equal distance from the endpoints of a line segment is the midpoint.
Reflection
parabola
In three dimensions, the solid defined as being bound by the set of points at a given distance form a point is a sphere. In two dimensions, the figure defined as being bound by the set of points at a given distance from a point is a circle. In one dimension, a line segment is bound by the two points at a given distance from a point.
The difference in the y-values of two points on a line is equal to the vertical distance between those points. This difference is also known as the "rise" or the "change in y." To calculate the difference in the y-values of two points (y₁, x₁) and (y₂, x₂) on a line, you simply subtract the y-coordinate of one point from the y-coordinate of the other: Difference in y-values = y₂ - y₁ This calculation gives you the vertical distance between the two points on the line.
One definition of a parabola is the set of points that are equidistant from a given line called the directrix and a given point called the focus. So, no. The distances are not different, they are the same. The distance between the directrix and a given point on the parabola will always be the same as the distance between that same point on the parabola and the focus. Any point where those two distances are equal would be on the parabola somewhere and all the points where those two distances are different would not be on the parabola. Note that the distance from a point to the directrix is definied as the perpendicular distance (also known as the minimum distance).
Yes, in a reflection, all points move the same distance from their original positions to their reflected positions. This distance is equal to the perpendicular distance from the point to the line of reflection. Each point is reflected across the line, resulting in a symmetrical arrangement relative to that line. Therefore, the transformation maintains consistent distance for all points involved.
the length of a perpendicular segment from the point to the line
Alternates are fill-in-the-blank version of this Q. are the same distance from a point and a line
A line equidistant from two points is a line that maintains the same distance from both points at all locations along its length. This line is typically the perpendicular bisector of the segment connecting the two points, meaning it divides the segment into two equal parts and forms right angles with it. In a two-dimensional plane, any point on this line is the same distance to both points.
The locus of points that are the same distance from a point and a line is a parabola. In this scenario, the point acts as the focus of the parabola, while the line serves as the directrix. The shape of the parabola opens away from the line, with all points on the curve equidistant from both the focus and the directrix.
Twice the distance between a point and halfway to the other point.
Reflection
parabola
Answer: The magnitude of displacement is equal to distance traveled when motion is in a straight line
The locus of points that are the same distance from a point and a line is a parabola. The fixed point is called the focus of the parabola, while the line is referred to as the directrix. Each point on the parabola is equidistant from the focus and the directrix, which defines its shape and properties.
The perpendicular bisector of a line segment RS is a line that is perpendicular to RS at its midpoint. This line consists of all points that are equidistant from both points R and S. Thus, any point on this bisector will have the same distance to R as it does to S. It serves as a geometric locus of points maintaining this equal distance property.
Distance is the total length of the path traveled between two points, while displacement is the direct line distance between those points. Distance can be equal to or greater than the magnitude of displacement if the path followed is not a straight line.