

MCQOPTIONS
Saved Bookmarks
This section includes 20 Mcqs, each offering curated multiple-choice questions to sharpen your Engineering Mathematics knowledge and support exam preparation. Choose a topic below to get started.
1. |
Find the value of \(\int \frac{1}{4x^2+4x+5} dx\). |
A. | 1⁄8 sin(-1)(x + 1⁄2) |
B. | 1⁄4 tan(-1)(x + 1⁄2) |
C. | 1⁄8 sec(-1)(x + 1⁄2) |
D. | 1⁄4 cos(-1)(x + 1⁄2) |
Answer» C. 1⁄8 sec(-1)(x + 1⁄2) | |
2. |
Find the value of \(\int \frac{sec^4(x)}{\sqrt{tan(x)}} dx\). |
A. | \(\frac{2}{5}\sqrt{tan(x)}[5+sec^2(x)]\) |
B. | \(\frac{2}{5}\sqrt{sec(x)}[5+tan^2(x)]\) |
C. | \(\frac{2}{5}\sqrt{tan(x)}[6+tan^2(x)]\) |
D. | \(\frac{2}{5}\sqrt{tan(x)}[5+tan^2(x)]\) |
Answer» E. | |
3. |
Find the value of ∫ cot3(x) cosec4 (x). |
A. | –\([\frac{cot^4(x)}{4}+\frac{cosec^6(x)}{6}]\) |
B. | –\([\frac{cosec^4(x)}{4}+\frac{cosec^6(x)}{6}]\) |
C. | –\([\frac{cot^4(x)}{4}+\frac{cot^6(x)}{6}]\) |
D. | –\([\frac{cosec^4(x)}{4}+\frac{cot^6(x)}{6}]\) |
Answer» D. –\([\frac{cosec^4(x)}{4}+\frac{cot^6(x)}{6}]\) | |
4. |
Find the value of ∫t⁄(t+3)(t+2) dt, is? |
A. | 2 ln(t+3)-3 ln(t+2) |
B. | 2 ln(t+3)+3 ln(t+2) |
C. | 3 ln(t+3)-2 ln(t+2) |
D. | 3 ln(t+3)+2ln(t+2) |
Answer» D. 3 ln(t+3)+2ln(t+2) | |
5. |
Find the value of ∫ ln(x)⁄x dx. |
A. | 3a2 |
B. | a2 |
C. | a |
D. | 1 |
Answer» B. a2 | |
6. |
Integration of function y = f(x) from limit x1 < x < x2 , y1 < y < y2, gives ___________ |
A. | Area of f(x) within x1 < x < x2 |
B. | Volume of f(x) within x1 < x < x2 |
C. | Slope of f(x) within x1 < x < x2 |
D. | Maximum value of f(x) within x1 < x < x2 |
Answer» B. Volume of f(x) within x1 < x < x2 | |
7. |
If differentiation of any function is infinite at any point and constant at other points then it means ___________ |
A. | Function is parallel to x-axis at that point |
B. | Function is parallel to y-axis at that point |
C. | Function is constant |
D. | Function is discontinuous at that point |
Answer» B. Function is parallel to y-axis at that point | |
8. |
If differentiation of any function is zero at any point and constant at other points then it means? |
A. | Function is parallel to x-axis at that point |
B. | Function is parallel to y-axis at that point |
C. | Function is constant |
D. | Function is discontinuous at that point |
Answer» B. Function is parallel to y-axis at that point | |
9. |
Value of ∫ Cos2 (x) Sin2 (x)dx. |
A. | \(\frac{1}{8} [x-\frac{Cos(2x)}{2}]\) |
B. | \(\frac{1}{4} [x-\frac{Cos(2x)}{2}]\) |
C. | \(\frac{1}{8} [x-\frac{Sin(2x)}{2}]\) |
D. | \(\frac{1}{4} [x-\frac{Sin(2x)}{2}]\) |
Answer» D. \(\frac{1}{4} [x-\frac{Sin(2x)}{2}]\) | |
10. |
Integration of (Sin(x) – Cos(x))ex is ___________ |
A. | -ex Cos(x) |
B. | ex Cos(x) |
C. | -ex Sin(x) |
D. | ex Sin(x) |
Answer» B. ex Cos(x) | |
11. |
Integration of (Sin(x) + Cos(x))ex is______________ |
A. | ex Cos(x) |
B. | ex Sin(x) |
C. | ex Tan(x) |
D. | ex (Sin(x)+Cos(x)) |
Answer» C. ex Tan(x) | |
12. |
Integration of function is same as the ___________ |
A. | Joining many small entities to create a large entity |
B. | Indefinitely small difference of a function |
C. | Multiplication of two function with very small change in value |
D. | Point where function neither have maximum value nor minimum value |
Answer» B. Indefinitely small difference of a function | |
13. |
FIND_THE_AREA_INSIDE_A_FUNCTION_F(T)_=_T/(T+3)(T+2)_FROM_T_=_-1_TO_0?$ |
A. | 4 ln⁡(3) – 5ln⁡(2) |
B. | 3 ln⁡(3) |
C. | 3 ln⁡(3) – 4ln⁡(2) |
D. | 3 ln⁡(3) – 5 ln⁡(2) |
Answer» E. | |
14. |
Find the value of |
A. | <sup>1</sup>‚ÅÑ<sub>8</sub> sin<sup>-1</sup>(x + <sup>1</sup>‚ÅÑ<sub>2</sub>) |
B. | <sup>1</sup>‚ÅÑ<sub>8</sub> tan<sup>-1</sup>(x + <sup>1</sup>‚ÅÑ<sub>2</sub>) |
C. | <sup>1</sup>‚ÅÑ<sub>8</sub> sec<sup>-1</sup>(x + <sup>1</sup>‚ÅÑ<sub>2</sub>) |
D. | <sup>1</sup>‚ÅÑ<sub>4</sub> cos<sup>-1</sup>(x + <sup>1</sup>‚ÅÑ<sub>2</sub>) |
Answer» C. <sup>1</sup>‚Äö√Ñ√∂‚àö√ñ‚àö√´<sub>8</sub> sec<sup>-1</sup>(x + <sup>1</sup>‚Äö√Ñ√∂‚àö√ñ‚àö√´<sub>2</sub>) | |
15. |
Temperature of a rod is increased by moving x distance from origin and is given by equation T(x) = x2 + 2x , where x is the distance and T(x) is change of temperature w.r.t distance.If,at x = 0,temperature is 40 C,find temperature at,x=10 . |
A. | 473 C |
B. | 472 C |
C. | 474 C |
D. | 475 C |
Answer» B. 472 C | |
16. |
Find the area ln(x)‚ÅÑx from x = x = aeb to ?# |
A. | <sup>b<sup>2</sup></sup>‚ÅÑ<sub>2</sub> |
B. | <sup>b</sup>‚ÅÑ<sub>2</sub> |
C. | b |
D. | 1 |
Answer» B. <sup>b</sup>‚Äö√Ñ√∂‚àö√ñ‚àö√´<sub>2</sub> | |
17. |
Find the area of a function f(x) = x2 + xCos(x) from x = 0 to a, where , a>0, |
A. | <sup>a<sup>2</sup></sup>⁄<sub>2</sub> + aSin(a) + Cos(a) – 1 |
B. | <sup>a<sup>3</sup></sup>‚ÅÑ<sub>3</sub> + aSin(a) + Cos(a) |
C. | <sup>a<sup>3</sup></sup>⁄<sub>3</sub> + aSin(a) + Cos(a) – 1 |
D. | <sup>a<sup>3</sup></sup>⁄<sub>3</sub> + Cos(a) + Sin(a) – 1 |
Answer» D. <sup>a<sup>3</sup></sup>‚Äö√Ñ√∂‚àö√ñ‚àö√´<sub>3</sub> + Cos(a) + Sin(a) ‚Äö√Ñ√∂‚àö√ë‚àö¬® 1 | |
18. |
Find the value of ‚à´x3 Sin(x)dx$ |
A. | x<sup>3</sup> Cos(x) + 3x<sup>2</sup> Sin(x) + 6xCos(x) – 6Sin(x) |
B. | – x<sup>3</sup> Cos(x) + 3x<sup>2</sup> Sin(x) – 6Sin(x) |
C. | – x<sup>3</sup> Cos(x) – 3x<sup>2</sup> Sin(x) + 6xCos(x) – 6Sin(x) |
D. | – x<sup>3</sup> Cos(x) + 3x<sup>2</sup> Sin(x) + 6xCos(x) – 6Sin(x) |
Answer» E. | |
19. |
Integration of (Sin(x) + Cos(x))ex is |
A. | e<sup>x</sup> Cos(x) |
B. | e<sup>x</sup> Sin(x) |
C. | e<sup>x</sup> Tan(x) |
D. | e<sup>x</sup> (Sin(x) + Cos(x)) |
Answer» C. e<sup>x</sup> Tan(x) | |
20. |
Find the value of ∫tan-1⁡(x)dx |
A. | sec<sup>-1</sup> (x) – <sup>1</sup>⁄<sub>2</sub> ln⁡(1 + x<sup>2</sup>) |
B. | xtan<sup>-1</sup> (x) – <sup>1</sup>⁄<sub>2</sub> ln⁡(1 + x<sup>2</sup>) |
C. | xsec<sup>-1</sup> (x) – <sup>1</sup>⁄<sub>2</sub> ln⁡(1 + x<sup>2</sup>) |
D. | tan<sup>-1</sup> (x) – <sup>1</sup>⁄<sub>2</sub> ln⁡(1 + x<sup>2</sup>) |
Answer» C. xsec<sup>-1</sup> (x) ‚Äö√Ñ√∂‚àö√ë‚àö¬® <sup>1</sup>‚Äö√Ñ√∂‚àö√ñ‚àö√´<sub>2</sub> ln‚Äö√Ñ√∂‚àö√ñ¬¨‚àû(1 + x<sup>2</sup>) | |