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JEE • MATHEMATICS • DIFFERENTIATION

Differentiation practice · Mixed difficulty

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Practice format and chapter quiz

These sets use single-correct-answer MCQs. They do not cover every JEE Main or JEE Advanced question format and are not full-length mock papers.

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571 Easy
571 of 932
Analyzing +4 | -1
If x=ey+ey+e y+ ...  to ∞,x = {e^{y + {e^{y + {e^{\,y + \,...\,\,{\text{to}}\,\infty }}}}}}, x>0,x > 0, then dydx,\frac{{dy}}{{dx}}, is
View answer and explanation
Correct option: C
1−xx\frac{1-x}{x}
Option C (1−xx\frac{1-x}{x}) is correct because it is derived by taking the logarithm of the given equation and then differentiating with respect to x.
572 Easy
572 of 932
Application +4 | -1
If sin⁡−1(x2−y2x2+y2)=log⁡a{\sin ^{ - 1}}\left( {\frac{{{x^2} - {y^2}}}{{{x^2} + {y^2}}}} \right) = \log a, then dydx\frac{{dy}}{{dx}} equals
View answer and explanation
Correct option: D
yx\frac{y}{x}
Option D (yx\frac{y}{x}) is correct because implicit differentiation leads to the relationship dydx=yx\frac{dy}{dx} = \frac{y}{x}.
573 Medium
573 of 932
Application +4 | -1
If y=1+x1‾+x22‾+x33‾+…,dydxy=1+\frac{x}{\underline{1}}+\frac{x^2}{\underline{2}}+\frac{x^3}{\underline{3}}+\ldots, \frac{d y}{d x} is equal to
View answer and explanation
Correct option: D
yy
Option D (yy) is correct because the given series is the expansion of exe^x, and the derivative of exe^x is exe^x, which is represented by yy in this case.
574 Medium
574 of 932
Application +4 | -1
If xy⋅yx=16x^{y} \cdot y^{x}=16, then dydx\frac{d y}{d x} at (2,2)(2,2) is
View answer and explanation
Correct option: A
-1
Option A (-1) is correct because by differentiating the given equation implicitly and substituting the point (2,2), we find dy/dx = -1.
575 Medium
575 of 932
Application +4 | -1
If variables xx and yy are related by the equation x=∫0y11+9u2dux = \int \limits_0^y \frac{1}{{\sqrt {1 + 9{u^2}} }}du, then dydx\frac{{dy}}{{dx}} is equal to
View answer and explanation
Correct option: B
1+9y2\sqrt {1 + 9{y^2}}
Option B (1+9y2\sqrt {1 + 9{y^2}}) is correct because it is the direct result of differentiating the inverse function and applying the Fundamental Theorem of Calculus.
576 Easy
576 of 932
Application +4 | -1
If 3f(x)−2f(1x)=x3 f(x)-2 f\left(\frac{1}{x}\right)=x, then f′(2)=……f^{\prime}(2)=\ldots \ldots
View answer and explanation
Correct option: B
12\frac{1}{2}
Option B (-a) is correct because the point P(a, f(a)) is nearest to (0,0) when the tangent at P is perpendicular to the line joining P and (0,0).
577 Easy
577 of 932
Application +4 | -1
If f(x)=cos⁡(x2−4[x])f(x)=\cos \left(x^2-4[x]\right) for 0<x<10 < x < 1, where [x][x] denotes the greatest integer ≤x\leq \mathrm{x}, then f′(π/2)f^{\prime}(\sqrt{\pi} / 2) is equal
View answer and explanation
Correct option: A
−π2-\sqrt{\frac{\pi}{2}}
Option A (−π2-\sqrt{\frac{\pi}{2}}) is correct because the derivative of the function is calculated and then evaluated at the given point.
578 Medium
578 of 932
Analyzing +4 | -1
Let f(x)=∫0g(x)dt1+t2f(x)=\int_0^{g(x)} \frac{d t}{\sqrt{1+t^2}}
where g(x)=∫0cos⁡x(1+sin⁡t2)dtg(x)=\int_0^{\cos x}\left(1+\sin t^2\right) d t. Also, h(x)=e−∣x∣h(x)=e^{-|x|} and f(x)=x2sin⁡1xf(x)=x^2 \sin \frac{1}{x}, if x≠0x \neq 0 and f(0)=0f(0)=0, then f′(π2)f^{\prime}\left(\frac{\pi}{2}\right) is equal to
View answer and explanation
Correct option: C
h′(0∗)h^{\prime}\left(0^*\right)
Option C (h′(0+)h^{\prime}(0^+)) is correct because the derivative of f(x) at π2\frac{\pi}{2} is equal to -1, which is also the right-hand derivative of h(x) at 0.
579 Easy
579 of 932
Analyzing +4 | -1
The derivative of sec⁡−1(12x2−1)\sec ^{-1}\left(\frac{1}{2 x^2-1}\right) with respect to 1−x2\sqrt{1-x^2} at x=12x=\frac{1}{2}, is
View answer and explanation
Correct option: B
4
Option B (4) is correct because by substituting x=cos(θ)x = cos(\theta), we can simplify the inverse trigonometric function and then find the derivative with respect to 1−x2\sqrt{1-x^2}.
580 Medium
580 of 932
Application +4 | -1
If y=cos⁡−1(2x1+x2)y = {\cos ^{ - 1}}\left( {\frac{{2x}}{{1 + {x^2}}}} \right), then dydx\frac{{dy}}{{dx}} is
View answer and explanation
Correct option: D
None of these
Option D (None of these) is correct because the derivative depends on the value of x, specifically whether |x| > 1 or |x| < 1, due to the absolute value that arises during simplification.
581 Medium
581 of 932
Application +4 | -1
If f(9)=9f(9)=9 and f′(9)=4f^{\prime}(9)=4, then lim⁡x→9f(x)−3x−3\lim _{x \rightarrow 9} \frac{\sqrt{f(x)}-3}{\sqrt{x}-3} equals
View answer and explanation
Correct option: B
4
Option B (4) is correct because applying L'Hopital's rule and using the given values yields 4.
582 Medium
582 of 932
Application +4 | -1
d2xdy2\frac{d^{2} x}{d y^{2}} equals
View answer and explanation
Correct option: D
−(d2ydx2)(dydx)−3-\left(\frac{d^{2} y}{d x^{2}}\right)\left(\frac{d y}{d x}\right)^{-3}
The correct answer is D (−(d2ydx2)(dydx)−3-\left(\frac{d^{2} y}{d x^{2}}\right)\left(\frac{d y}{d x}\right)^{-3}) because it represents the second derivative of x with respect to y in terms of derivatives of y with respect to x.
583 Medium
583 of 932
Application +4 | -1
The solution of the differential equation (xy2+x)dx+(yx2+y)dy=0\left(x y^2+x\right) d x+\left(y x^2+y\right) d y=0 is
View answer and explanation
Correct option: A
(x2+1)(y2+1)=c\left({x}^2+1\right)\left({y}^2+1\right)={c}
Option A ((x2+1)(y2+1)=c\left({x}^2+1\right)\left({y}^2+1\right)={c}) is correct because separating variables and integrating leads to the given solution.
584 Easy
584 of 932
Analyzing +4 | -1
If f(x)=∣xnsin⁡xcos⁡xn!sin⁡nπ2cos⁡nπ2aa2a3∣f(x)=\left|\begin{array}{ccc}x^n & \sin x & \cos x \\ n ! & \sin \frac{n \pi}{2} & \cos \frac{n \pi}{2} \\ a & a^2 & a^3\end{array}\right|, then the value of dndxn(f(x))\frac{d^n}{d x^n}(f(x)) at x=0x=0 for n=2m+1n=2 m+1, is
View answer and explanation
Correct option: B
0
Option B (0) is correct because the nth derivative of f(x) at x=0 is a determinant with two identical rows, making the determinant equal to zero.
585 Hard
585 of 932
Analyzing +4 | -1
Function f(x)=∣x−1∣+∣x−2∣,x∈Rf\left( x \right) = \left| {x - 1} \right| + \left| {x - 2} \right|,x \in R is
View answer and explanation
Correct option: B
Except x=1x = 1 and x=2x = 2 differentiable everywhere in RR
Option B (Except x = 1 and x = 2 differentiable everywhere in R) is correct because the function is not differentiable at x=1 and x=2 due to the absolute value functions.
586 Easy
586 of 932
Analyzing +4 | -1
If f(x+y)=2f(x)f(y),f′(5)=1024(log⁡2)f\left( {x + y} \right) = 2f\left( x \right)f\left( y \right),f'\left( 5 \right) = 1024\left( {\log 2} \right) and f(2)=8,f\left( 2 \right) = 8, then the value of f′(3)f'\left( 3 \right) is
View answer and explanation
Correct option: A
64(log⁡2)64\left( {\log 2} \right)
Option A (64(log⁡2)64\left( {\log 2} \right)) is correct because it is the value of f′(3)f'(3) obtained after using the given functional equation and derivative information.
587 Easy
587 of 932
Application +4 | -1
If z(t)=t3+1z(t)=\sqrt{t^3+1}, then z′(2)z^{\prime}(2) is equal to
View answer and explanation
Correct option: C
2
Option C (2) is correct because it is the value of the derivative of the given function at t=2, calculated using the chain rule.
588 Easy
588 of 932
Application +4 | -1
If y={f(x)}ϕ(x)y=\{f(x)\}^{\phi(x)}, then dydx\frac{d y}{d x} is
View answer and explanation
Correct option: A
fϕlog⁡f{ϕfdfdx+log⁡f⋅dϕdx}f^{\phi \log f}\left\{\frac{\phi}{f} \frac{d f}{d x}+\log f \cdot \frac{d \phi}{d x}\right\}
Option A (f^{\phi \log f}\left{\frac{{\phi}}{{f}} \frac{{d f}}{{d x}}+\log f \cdot \frac{{d \phi}}{{d x}}\right\}f^{\phi \log f}\left{\frac{{\phi}}{{f}} \frac{{d f}}{{d x}}+\log f \cdot \frac{{d \phi}}{{d x}}\right\}) is correct because it is the result of applying logarithmic differentiation to the function y={f(x)}ϕ(x)y = \{f(x)\} ^{\phi(x)}.
589 Easy
589 of 932
Application +4 | -1
If f(x)=xn+4f\left( x \right) = {x^n} + 4, then the value of f(1)+f′(1)1!+f′′(1)2!+...+fn(1)n!f\left( 1 \right) + \frac{{f'\left( 1 \right)}}{{1!}} + \frac{{f''\left( 1 \right)}}{{2!}} + ... + \frac{{{f^n}\left( 1 \right)}}{{n!}} is
View answer and explanation
Correct option: B
2n+4{2^n} + 4
Option B (2n+4{2^n} + 4) is correct because it is the result of applying Taylor's theorem and the binomial theorem.
590 Easy
590 of 932
Application +4 | -1
For the curves x=acos⁡2θcos⁡θ,y=acos⁡2θsin⁡θx=a \sqrt{\cos 2 \theta} \cos \theta, y=a \sqrt{\cos 2 \theta} \sin \theta, the tangent at θ=π6\theta=\frac{\pi}{6} is ......
View answer and explanation
Correct option: A
Parallel to X\mathrm{X}-axis or X\mathrm{X}-axis itself.
Option A (Parallel to X-axis or X-axis itself) is correct because at θ=π6\theta = \frac{\pi}{6}, the derivative dydx\frac{dy}{dx} is 0, indicating a horizontal tangent.
591 Easy
591 of 932
Application +4 | -1
Let ff and gg be differentiable functions satisfying g′(a)=2,g(a)=bg^{\prime}(a)=2, g(a)=b and fog=Ifog = I (identity function). Then, f′(b)f^{\prime}(b) is equal to
View answer and explanation
Correct option: C
01-Feb
Option C (01-Feb), which translates to 1/2, is correct because by differentiating f(g(x))=xf(g(x)) = x and substituting the given values, we find f′(b)=1/2f'(b) = 1/2.
592 Hard
592 of 932
Application +4 | -1
If f(x)=xnf(x)=x^n, then the value of f(1)−f′(1)1!+f′′(1)2!−f′′′(1)3!+fiv(1)4!…+(−1)nfn(1)n!f(1)-\frac{f^{\prime}(1)}{1 !}+\frac{f^{\prime \prime}(1)}{2 !}-\frac{f^{\prime \prime \prime}(1)}{3 !}+\frac{f^{i v}(1)}{4 !} \ldots+\frac{(-1)^n f^n(1)}{n !}, is
View answer and explanation
Correct option: D
0
Option D is correct because it correctly applies the binomial theorem to the given expression.
593 Medium
593 of 932
Application +4 | -1
If f(x)={ax2−b,∣x∣<11∣x∣,∣x∣≥1f\left( x \right) = \left\{ {\begin{array}{cccccccccccccccccccc} {a{x^2} - b,\left| x \right| < 1}\\ {\frac{1}{{\left| x \right|}},\left| x \right| \ge 1} \end{array}} \right. is differentiable at x=1x = 1, then
View answer and explanation
Correct option: B
a=−12,b=−32a = - \frac{1}{2},b = - \frac{3}{2}
Option B (a=−12,b=−32a = - \frac{{1}}{{2}},b = - \frac{{3}}{{2}}) is correct because it satisfies the conditions for differentiability at x=1, ensuring both continuity and equal derivatives from both sides.
594 Easy
594 of 932
Analyzing +4 | -1
The derivative of sin⁡−1(2x1+x2){\sin ^{ - 1}}\left( {\frac{{2x}}{{1 + {x^2}}}} \right) with respect to tan⁡−1(2x1−x2){\tan ^{ - 1}}\left( {\frac{{2x}}{{1 - {x^2}}}} \right) is
View answer and explanation
Correct option: B
1
Option B (1) is correct because both sin⁡−1(2x1+x2){\sin ^{ - 1}}\left( {\frac{{2x}}{{1 + {x^2}}}} \right) and tan⁡−1(2x1−x2){\tan ^{ - 1}}\left( {\frac{{2x}}{{1 - {x^2}}}} \right) are equal to 2tan⁡−1x2{\tan ^{ - 1}}x, so their derivatives with respect to each other is 1.
595 Easy
595 of 932
Application +4 | -1
If f(x)=xnf(x)=x^n, then the value of f(1)−f′(1)1!+f′′(1)2!−f′′′(1)3!+⋯+(−1)nfn(1)n!f(1)-\frac{f^{\prime}(1)}{1 !}+\frac{f^{\prime \prime}(1)}{2 !}-\frac{f^{\prime \prime \prime}(1)}{3 !}+\cdots+\frac{(-1)^n f^n(1)}{n !} is
View answer and explanation
Correct option: B
0
Option B (0) is correct because the given expression is the binomial expansion of (1-1)^n.
596 Medium
596 of 932
Analyzing +4 | -1
If ey+xy=e{e^y} + xy = e, then the value of d2ydx2\frac{{{d^2}y}}{{d{x^2}}} for x=0x = 0, is
View answer and explanation
Correct option: B
1e2\frac{1}{{{e^2}}}
Option B (1e2\frac{1}{{{e^2}}}) is correct because after differentiating the given equation twice and substituting x=0 and y=1, the second derivative is found to be 1e2\frac{1}{{{e^2}}}.
597 Easy
597 of 932
Analyzing +4 | -1
If y=(1+x)(1+x2)(1+x4)…(1+x2n),y = \left( {1 + x} \right)\left( {1 + {x^2}} \right)\left( {1 + {x^4}} \right) \ldots \left( {1 + {x^{2n}}} \right), then the value of (dydx)x=0{\left( {\frac{{dy}}{{dx}}} \right)_{x = 0}} is
View answer and explanation
Correct option: C
1
Option C (1) is correct because after expanding the product and differentiating, the value of the derivative at x=0 is 1.
598 Hard
598 of 932
Analyzing +4 | -1
If y=∣x−x2∣y=\left|x-x^2\right|, then dydx\frac{d y}{d x} at x=1x=1.
View answer and explanation
Correct option: C
Does not exist
Option C (Does not exist) is correct because the left-hand derivative and right-hand derivative at x=1 are not equal, indicating a non-differentiable point.
599 Hard
599 of 932
Analyzing +4 | -1
If y=log⁡nx,y = {\log ^n}x, where log⁡n{\log ^n} means log  log  log…log\,\,log\,\,log \ldots (repeated nn times), then xlog⁡x  log⁡2x  log⁡3x…log⁡n−1x  log⁡nx  dydxx\log x\,\,{\log ^2}x\,\,{\log ^3}x \ldots {\log ^{n - 1}}x\,\,{\log ^n}x\,\,\frac{{dy}}{{dx}} is equal to
View answer and explanation
Correct option: B
log⁡nx{\log ^n}x
The correct answer is B (log⁡nx{\log ^n}x) because it is obtained by repeatedly applying the chain rule to the logarithmic function.
600 Easy
600 of 932
Application +4 | -1
If y=sec⁡(tan⁡−1x)y=\sec \left(\tan ^{-1} x\right), then dydx\frac{d y}{d x} at x=1x=1 is equal to:
View answer and explanation
Correct option: A
12\frac{1}{\sqrt{2}}
Option A (12\frac{1}{\sqrt{2}}) is correct because it is the value of the derivative of y with respect to x at x=1.
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