Point of intersection: (5/8, 5/2)
Square both sides of the first equation and merge it with the second equation to form a quadratic equation:-
4x2-5x+25/16 = 0
Solving the above using the quadratic equation formula gives x as having two poitive roots of 5/8 and substituting this into the linear equation gives y a value of 5/2.
They intersect at the point of: (-3/2, 11/4)
You need two, or more, curves for points of intersection.
If you mean a line of y = 2x+5/4 and a curve of y^2 = 10x Then it works out that the line touches the curve at: (5/8, 5/2)
1,6
The intersection is (-2, 6)
(2, -2)
They intersect at the point of: (-3/2, 11/4)
It is (-0.3, 0.1)
-2
You need two, or more, curves for points of intersection.
If you mean a line of y = 2x+5/4 and a curve of y^2 = 10x Then it works out that the line touches the curve at: (5/8, 5/2)
1,6
The intersection is (-2, 6)
It works out that the point of intersection is at (-4, -3.5) on the Cartesian plane.
when we look at the curve ,, we can see that before the peak point curve has greater slope as compared to the slope after the peak point .. the reason is PL is given as I^2RL ,,, current is a squared term here . before peak point current is greater so overall change in power is much greater but after peak point RL is greater and current is less now the load resistance is not a squared term... so slope will be less. therefore the curve is not symetrical
Combine the equations together and using the quadratic equation formula it works out that the point of contact is at (5/8, 5/2)
The normal intersects a curve at a right angle, forming a perpendicular line to the tangent of the curve at that point. This intersection is crucial for determining the rate of change or slope of a function at a specific point.