If normals are drawn to the ellipse `x^2 + 2y^2 = 2` from the point `(2, 3).` then the co-normal points lie on the curve

The equation of normal to the ellipse 4x^2 +9y^2 = 72 at point (3,2) is:

The number of normals drawn to the parabola y^(2)=4x from the point (1,0) is

Find the normal to the ellipse (x^2)/(18)+(y^2)/8=1 at point (3, 2).

If three distinct normals can be drawn to the parabola y^(2)-2y=4x-9 from the point (2a, 0) then range of values of a is

Three normal are drawn to the curve y^(2)=x from a point (c, 0) . Out of three, one is always the x-axis. If two other normal are perpendicular to each other, then ‘c’ is:

Find the equations of the tangent drawn to the ellipse (x^(2))/(3) + y^(2) =1 from the point (2, -1 )

A normal is drawn to the ellipse (x^(2))/(9)+y^(2)=1 at the point (3cos theta, sin theta) where 0lt theta lt(pi)/(2) . If N is the foot of the perpendicular from the origin O to the normal such that ON = 2, then theta is equal to

The slope of the normal to the curve x^(2) + 3y + y^(2) = 5 at the point (1,1) is

The equation of normal to the ellipse x^(2)+4y^(2)=9 at the point wherr ithe eccentric angle is pi//4 is

Let from a point A (h,k) chord of contacts are drawn to the ellipse x^2+2y^2=6 such that all these chords touch the ellipse x^2+4y^2=4, then locus of the point A is