Find the equation of the normal at the point (am2, am3 ) for the curve ay2 = x3.
The equation of the given curve is ay2 = x3 .
On differentiating with respect to x, we have:
2ay\(\frac{dy}{dx}\)=3x2
\(\frac{dy}{dx}\)=\(\frac{3x^2}{2ay}\)
The slope of a tangent to the curve at (x0, y0) is \(\frac{dy}{dx}\)](x0,y0).
The slope of the tangent to the given curve at (am2 , am3 ) is
\(\frac{dy}{dx}\)(am2,am3)=\(\frac{3(m^2)^2}{2a(am^3)}\)=\(\frac{3a^2m^4}{2a^2m^3}\)=\(\frac{3m}{2}\).
Slope of normal at (am2 , am3 ) is given by,
y-am3=\(-\frac{2}{3}\)m(x-am2)
3my-3am4=-2x+2am2
2x+3my-am2(2+3m2)=0
If \( x = a(0 - \sin \theta) \), \( y = a(1 + \cos \theta) \), find \[ \frac{dy}{dx}. \]
Find the least value of ‘a’ for which the function \( f(x) = x^2 + ax + 1 \) is increasing on the interval \( [1, 2] \).
If f (x) = 3x2+15x+5, then the approximate value of f (3.02) is
m×n = -1