Solution :
The equation of the curve is y = \(2x^3 – 3\)
Differentiating with respect to x, we get
\(dy\over dx\) = \(6x^2\)
Now, \(m_1\) = (Slope of the tangent at x = 2) = \(({dy\over dx})_{x = 2}\) = \(6 \times (2)^2\) = 24
and, \(m_2\) = (Slope of the tangent at x = -2) = \(({dy\over dx})_{x = -2}\) = \(6 \times (-2)^2\) = 24
Clearly \(m_1\) = \(m_2\).
Thus, the tangents to the given curve at the points where x = 2 and x = -2 are parallel.
Similar Questions
Find the equation of the normal to the curve y = \(2x^2 + 3 sin x\) at x = 0.