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DefiniteIntegration
Total No.of questions in Definite Integration are -
Level # 1 .................................................................................. 129
Level # 2 ................................................................................... 62
Level # 3 ................................................................................... 39
Level # 4 ................................................................................... 60
Total No. of questions ............................................................ 290
Definition of definite Integration
Questions
based on
Q.1 
/4
0
2
dx
x
tan equals-
(A) /4 (B)1 + (/4)
(C) 1 – (/4) (D)1 – (/2)
Q.2 The value of 
e
1
dx
x
1
-
(A)  (B) 0
(C) 1 (D) log (1 + e)
Q.3 The value of
dx
ax x
a
2 2
0
2

z is-
(A)  (B)  /2
(C)  /4 (D) 2 
Q.4 The value of
sin cos
cos cos
/
x x
x x
2
0
2
3 2
 
z

dx is-
(A) log (9/8) (B) log (4/3)
(C) log (3/4) (D) None of these
Q.5
e
x
x
tan


z
1
2
0
1
dx equals-
(A) 1 (B) e/2 +1
(C) e/2 – 1 (D) None of these
Q.6 
2
0
dx
x
3 x
, equals-
(A) log3
2
1)
–
(3 2 (B) 0
(C)
log3
2
2
(D)
2
3 2
Q.7
sec
( tan )( tan )
/
2
0
4
1 2
x
x x
dx
 
z

equals-
(A) loge 3
2
(B) loge 3
(C)
1
2
loge
4
3
(D) loge
4
3
Q.8



2
/
0
sin sin 2d equals-
(A) /3 (B) 2/3 (C) 2/3 (D) 4/3
LEVEL # 1
Q.9 1 2
0
2

z sin
/
x dx

equals-
(A) 1/2 (B) 1
(C) 2 (D) None of these
Q.10
dx
x
1 2
0
4

z cos
/

equals-
(A) –1 (B) 1
(C) 1/2 (D) – 1/2
Q.11 
a
0
2
x sinx3dx equals-
(A) –
3
1
(1–cos a3) (B) 3 (1– cos a3)
(C) (1– cos a3) (D)
3
1
(1– cos a3)
Q.12 


0
x2
e
x dx equals-
(A) 1 (B) 2
(C) 1/2 (D) None of these
Q.13  
2
1
2
1
x
x
1
dx equals-
(A) /2 (B) /3 (C) /4 (D) 
Q.14 The value of x ex
3
0
1
3 4
 
z
e j(x2 + ex ) dx
is-
(A) (3e + 2)/6 (B) (3e – 2) /6
(C) (3e – 2)2/36 (D) None of these
Q.15  

3
2
2
x
6
x
5
dx
equals-
(A) –/2 (B) /2 (C) – (D) 
Q.16 


0
2
x
1
dx
equals-
(A)/4 (B) /2 (C)  (D) /8
Q.17 
 

0
2
2
1
)
x
1
(
x
tan
x
dx equals-
(A) /2 (B) /6
(C) /4 (D) /8
Q.18 
 4
/
0
log
x
sec (sec x + tan x) dx =
(A)
2
1
[log (1 + 2 )]2
(B) [log (1 + 2 )]2
(C)
2
1
[log ( 2 –1)]2
(D) [log ( 2 –1)]2
Q.19  

2
1
x
1
x
1
dx equals-
(A)(1/2) log (3/2) –1 (B) 2 log (3/2) –1
(C) log (3/2) – 1 (D) None of these
Q.20  

2
1
2
5
x
4
x
dx
equals-
(A) log ( 2 – 1) (B) log ( 2 +1)
(C) – log (2 2 –1) (D) – log (2 2 +1)
Q.21  








2
1
2
x
x
1
x
1
e dx equals-
(A) e
e
2
1

F
H
G I
K
J (B) 1
(C) e (e – 1) (D) None of these
Q.22

kb
ka
dx
)
x
(
f equals-
(A) k2

b
a
dx
)
x
(
f (B) k 
b
a
dx
)
x
(
f
(C) k f kx dx
a
b
( )
z (D) k3

b
a
dx
)
x
k
(
f
Q.23 f x c dx
a c
b c
( )



z equals-
(A)  
b
a
dx
)
c
x
(
f (B) 
b
a
dx
)
x
(
f
(C) 


c
2
b
c
2
a
dx
)
x
(
f (D)  
b
a
dx
)
c
2
x
(
f
Q.24 
2
1
x
e [f(x) + f (x)]dx equals-
(A) ef(2) + f(1)
(B) e [ef(2) – f(1)]
(C) e [ef(2) + f(1)]
(D) ef(2) – f(1)
Q.25 If
dx
d
f(x) = g(x), then the value of
a
b
f x g x
z( ) ( ) dx is -
(A) f(b) – f(a)
(B) g (b) – g(a)
(C)
2
1
[{g(b)}2 – {g(a)}2]
(D)
2
1
[{f(b)}2 – {f(a)}2]
Q.26  
3
1
2
dx
x
1
1
is equal to-
(A) /12 (B) /6 (C) /4 (D) /3
Q.27 
 2
/
0
(a cos2 x + b sin2 x) dx is equal to -
(A) (a + b) /4 (B) (a + b) /2
(C) (a + b) /3 (D) None of these
Q.28 


2
/
4
/
x
e (log sin x + cot x) dx =
(A) 4
/
e log 2 (B) – 4
/
e log 2
(C)
2
1
4
/
e log 2 (D) –
2
1
4
/
e log 2
Q.29



2
/
0 4
x
sin
1
x
cos
x
sin
dx =
(A)
2

(B)
4

(C)
6

(D)
8

Q.30 
2
1
x
)
x
cos(log
dx equals
(A) sin (log 2) (B) sin (log 3)
(C) sin (log 1/2) (D) None of these
Q.31  

2
1
)
x
2
)(
1
x
(
dx
equals -
(A) 1 (B) /2 (C)  (D) 2
Q.32 



2
/
0
x
cos
1
x
sin
x
dx =
(A) – log 2 (B) log 2
(C) /2 (D) 0
Q.33 
e
1
x
x
e
(1 + x log x) dx =
(A) ee (B) ee – e
(C) ee + e (D) None of these
Q.34



4
/
0
7
sec sin3d=
(A) 1/12 (B) 3/12
(C) 5/12 (D) None of these
Q.35
2
2
/
0 sin










d =
(A) log 2 (B) 2
log

(C)  (D) None of these
Q.36

 4
/
0
4
tan x dx equals -
(A)
3
2
4


(B)
3
2
4


(C)
3
1
4


(D)
3
1
4


Q.37 









 


3
1
2
1
2
1
dx
x
1
x
tan
1
x
x
tan ,equals-
(A) (B) 2 
(C) 3  (D) None of these
Q.38 




2
/
4
/
x
e sin x dx =
(A) –
2
1
e–/2 (B) –
2
2
e–/4
(C)– 2 (e–/4+e–/2)(D) 0
Q.39 
 4
/
0 x
cos
x
sin
x
tan
dx equals-
(A) 1 (B) 2 (C) 0 (D) 4
Q.40 






4
/
6
/
1
1
x
cot
x
tan
x
cot
x
tan
dx equals-
(A) 0 (B) ( 3 +1)/ 3
(C) (log 3)/ (D) None of these
Q.41 

1
0
1
dx
x
tan equals-
(A)
4

– log 2 (B)
4

+ log 2
(C)
4

– log 2 (D)
4

+ log 2
Q.42 


2
/
0
2
2
2
2
x
sin
b
x
cos
a
dx
equals-
(A) /ab (B) 2/ab
(C) ab/ (D) /2 ab
Q.43 



4
/
0
x
2
sin
3
x
cos
x
sin
dx is equal to
(A) log 2 (B) log 3
(C)
4
1
log 3 (D)
8
1
log 3
Q.44 
1
0
nx
2
e 
dx is equal to-
(A) 0 (B) 1/4 (C) 1/3 (D) 1/2
Q.45
x
x x
dx
2
2 2
0
4 9
 

z
e je j
is equal to-
(A) /20 (B) /40
(C) /10 (D) /80
Q.46 
 2
/
0
xcot x dx is equal to-
(A)
2

log 2 (B) –
2

log 2
(C) log 2 (D) –log 2
Q.47  

1
0 x
x
1
dx
is equal to-
(A)
3
2
2
(B)
3
2
4
(C)
2
2
8
(D) None of these
Q.48 




4
/
0 x
tan
1
x
tan
1
dx is equal to-
(A) –
2
1
log 2 (B)
4
1
log 2
(C)
3
1
log 2 (D) None of these
Q.49 
 2
/
0
x
sin2
e sin 2x dx equals-
(A) e (B) e + 1
(C) e – 1 (D) 2 e
Q.50 If 


3
/
0
x
sin
4
3
x
cos
dx = k log 






 
3
3
2
3
,
then k is equal to-
(A) 1/2 (B) 1/3
(C) 1/4 (D) 1/8
Property (P-3) of Definite integration
Questions
based on
Q.51 If f(x) =
x when x
x when x
2
0 1
1 2
,
,
 
 
R
S
|
T
| , then f x
( )
0
2
z dx
equals-
(A)
1
3
(4 2 – 1)
(B)
1
3
(4 2 + 1)
(C) 0
(D) does not exist
Q.52 | |
3 1
0
1
x dx

z equals-
(A) 5/6 (B) 5/3
(C) 10/3 (D) 5
Q.53 

0
|
x
cos
| dx equals -
(A) 1 (B) 2
(C) 0 (D) –1
Q.54 
e
e
/
1
|
x
log
| dx =
(A) e–1 – 1 (B) 2 (1–1/e)
(C) 1 – 1/e (D) None of these
Q.55  
1
0
|
x
2
sin
| dx is equal to-
(A) 0 (B) –1/
(C) 1/ (D) 2/
Q.56 If 


1
1
|
x
1
| dx is equal to-
(A) –2 (B) 0
(C) 2 (D) 4
Q.57 

3
3
dx
|
x
| equals-
(A) 0 (B) 9/2
(C) 6 (D) 9
Property (P-4) of Definite integration
Questions
based on
Q.58 The value of
sin
sin cos
/
x
x x
dx

z
0
2

is-
(A)  /2 (B)  /4
(C)  (D) 2 
Q.59
x x
x
dx
sin
cos
1 2
0 
z

equals-
(A) 0 (B)  /4 (C)  2/4 (D)  2/2
Q.60 


2
/
0 x
cot
1
dx
equals-
(A) 1 (B)  /4
(C) 1/2 (D)  /2
Q.61 


2
/
0
4
4
x
sin
x
cos
x
cos
x
sin
x
dx equals-
(A)  2/8 (B)  2/16
(C)  2/4 (D) 0
Q.62 
1
0
)
x
(
f dx equals-
(A)  
1
0
dx
)
x
1
(
f (B)  
1
0
dx
)
x
(
f
(C) 2 
2
/
1
0
dx
)
x
(
f (D) None of these
Q.63 Which of the following is correct ?
(A) 
a
0
dx
)
x
(
f = –  
a
0
dx
)
x
a
(
f
(B) 
a
0
dx
)
x
(
f = 2 
2
/
a
0
dx
)
x
(
f
(C) 
a
0
dx
)
x
(
f =  
a
0
dx
)
x
a
(
f
(D) 
a
0
dx
)
x
(
f = –  
a
0
dx
)
x
a
(
f
Q.64 


2
/
0
2
/
3
2
/
3
2
/
3
x
cos
x
sin
x
sin
dx equals-
(A) /2 (B) /4 (C)  (D) 2
Q.65 


2
/
0
x
tan
1
x
tan
dx equals-
(A)  (B) /3 (C) /4 (D) /2
Q.66 


2
/
0
x
cos
x
sin
x
cos
dx equals-
(A) 0 (B) /2 (C) /4 (D) /3
Q.67 The value of
x
x
1
0

z sin

dx is-
(A) (B)/2 (C)/4 (D) 2
Q.68 f x dx
a
( )
0
z is equal to-
(A)  
a
0
dx
)
x
a
(
f (B)  
a
0
dx
)
x
a
2
(
f
(C)  
a
0
dx
)
a
x
(
f (D)  
a
0
dx
)
x
a
(
f
Q.69
logx
x
1 2
0


z dx equals-
(A)  (B) 0
(C) log 2 (D) log 2
Q.70  

a
0
2
2
x
a
x
dx
equals
(A) /2 (B) /3 (C) /4 (D) 
Q.71 
 4
/
0
log(1 + tan )d =
(A)
4

log 2 (B)
4

log
2
1
(C)

8
log 2 (D)
4

log
2
1
Q.72 



2
/
0
2
x
cos
x
sin
2
x
cos
dx is equal to-
(A)
2
1
(tan–1
2 + cot –1 2 )/
(B)
2
1
(tan–1
2 – cot –1 2 )
(C)
2
1
(tan–1
2 – cot –1 2 )
(D) None of these
Property (P-5) of Definite integration
Questions
based on
Q.73

z 


/
/
( cos )
2
2
1
2
1 2x dx equals-
(A) 0 (B) 2
(C) 1/2 (D) None of these
Q.74
x x
x
dx
2
6
3
3
1
sin


z equals-
(A) 4 (B) 2
(C) 0 (D) None of these
Q.75













1
1
2
2
x
x
1
x
x
1 dx equals-
(A) 1 (B) 0
(C) 2 (D) 2
Q.76 The value of the integral | |
1 2
2
2


z x dx is-
(A) 0 (B) 4
(C) 2 (D) None of these
Q.77 If f : R R and g :R  R are two continuous
functions, then the value of the
integral [ ( ) ( )] ( )
/
/
f x f x g x g x
   

z


2
2
bg dx is-
(A)  (B) 1 (C) – 1 (D) 0
Q.78 


a
a
0
dx
)
x
(
f , if -
(A) f(–x) = f (x) (B) f(a–x) = – f(x)
(C)f (–x) = – f(x) (D) f(a+x) = – f(x)
Q.79 




2
/
2
/
3
3
)
x
cos
x
(sin dx equals-
(A) 0 (B) 1/3 (C) 4/3 (D) 2/3
Q.80 




2
/
2
/
x
cos
1
dx
equals-
(A) 0 (B) 2 (C) 1 (D) 3
Q.81 













2
/
2
/
sin
2
sin
2
log d equals-
(A) 0 (B) 1
(C) 2 (D) None of these
Q.82 





x
cos
1
)
x
sin
1
(
x
2
2
dx is -
(A)
4
2

(B) zero (C) 2 (D)
2

Q.83 



1
1
x
x
1
e
1
e
dx equals-
(A) log (ex + 1) (B) log (ex – 1)
(C) 1 (D) 0
Q.84 

1
1
2
3
dx
x
cos
x
sin equals-
(A) 0 (B) 1 (C) 1/2 (D)2
Q.85 

1
1
4
17
dx
x
cos
x is equal to -
(A) –2 (B) 2 (C) 0 (D) 1
Q.86 











1
1
2
1
x
1
x
sin dx is equal to -
(A) /4 (B) /2
(C)  (D) 0
Q.87 




2
/
2
/
3
cos (1 + sin )2 dis equal to -
(A) 8/5 (B) 5/8
(C) –8/5 (D) –5/8
Q.88 









1
1
x
1
x
1
log dx is equal to -
(A)  (B) 1 (C) 0 (D) 2
Q.89 

a
a
dx
)
x
(cos
f
x
sin is equal to-
(A) f(a) (B) – f(a) (C) 2 f(a) (D) 0
Q.90 

1
1
11
sin x dx is equal to-
(A)
10
11
.
8
9
.
6
7
.
4
5
.
2
3
(B)
10
11
.
8
9
.
6
7
.
4
5
.
2
3
.
2

(C) 1 (D) 0
Q.91 The value of dx
)
x
(
f
a
a


is equal to-
(A) 2 dx
)
x
(
f
a
a


if f(x) is an odd function
(B) 2 dx
)
x
(
f
a
0
 if f(x)is even function
(C) 2 dx
)
x
(
f
a
0
 if f(x+ a) = f (a)
(D) None of these
Q.92 



 )
x
1
( 2
sin x cos2 x dx is equal to-
(A) 0 (B)
3
3



(C) 2– 3 (D)
4
7
– 2 3
Property (P-6, P-7) of Definite integration
Questions
based on
Q.93 cos4
0
2
xdx

z equals-
(A) 3/8 (B) 3/4
(C) 3/2 (D) 3
Q.94
sin
cos
2
0
2




a b
d

z equals-
(A) 1 (B) 2
(C) /4 (D) 0
Q.95 1 2
0
400

z cos x dx

is equal to-
(A) 400 2 (B) 800 2
(C) 0 (D) None of these
Q.96 f x dx if
a
( ) 
z 0
0
2
-
(A) f (–x) = – f(x)
(B) f (2a – x) = f(x)
(C) f(–x) = f(x)
(D) f(2a–x) = –f(x)
Q.97 Which of the following is correct ?
(A) 
a
0
dx
)
x
(
f =  
a
0
dx
)
x
a
(
f
(B) 
a
2
0
dx
)
x
(
f = 
a
0
dx
)
x
(
f
(C) 
a
0
dx
)
x
(
f = 


a
0
dx
)
x
(
f
(D) f x dx
a
b
( )
z = – f t dt
b
a
( )
z
Property (P-8) of Definite integration
Questions
based on
Q.98
x
x x
3
1
2
 
z dx is equal to-
(A) 2/1 (B) 3/4
(C) 1/2 (D) None of these
Q.99

  

( )
( ) /
/
x
x x
 
z 2
0
2
b g
dx is equal to-
(A)  /4 (B)  /2
(C)  (D) None of these
Q.100 If f(x) = f(a+ b– x), then xf x dx
a
b
( )
z is equal
to -
(A) (a + b) 
b
a
dx
)
x
(
f (B)
2
1
(a + b) 
b
a
dx
)
x
(
f
(C) (b – a)

b
a
dx
)
x
(
f (D)
2
1
(b – a)

b
a
dx
)
x
(
f
Q.101




2
0
3
d
|
sin
| , equals-
(A) 0 (B) 3/8
(C) 8/3 (D) 
Q.102  


b
a
)
x
b
a
(
f
)
x
(
f
)
x
(
f
dx equals-
(A) b – a (B) a + b
(C)
2
1
(b – a) (D)
2
1
(a + b)
Some important formulae
Questions
based on
Q.103 
 2
/
0
dx
x
cos
log equals-
(A) (/2) log (1/2) (B) log 2
(C) –log 2 (D) 2log 2
Q.104 
 2
/
0
7
dx
x
cos
x
sin equals-
(A) 1/7 (B) 1/8
(C) /16 (D) /14
Q.105 




2
/
0
6
2
d
cos
sin equals-
(A) –/16 (B) /16
(C) 5/256 (D) –5/256
Q.106 sin
/
5
0
2
xdx

z equals-
(A) 8/15 (B) 4/15
(C)
15
8 
(D)
15
8
Q.107 
 2
/
0
logsin 2x dx equals-
(A) (/2) log 2 (B) – (/2) log 2
(C) (/4) log 2 (D) – (/4) log 2
Q.108  
3
0
3
x
3
x
dx equals-
(A) 3/16 (B) 27/8
(C) 3/32 (D) 9/8
Q.109 
 4
/
0
logsin 2x dx equals to -
(A) (/4) log 2 (B) (/2) log 2
(C) – (/4) log 2 (D) –(/2) log 2
Q.110 

0
log sin2 x dx is equal to -
(A) 2log (1/2) (B) log 2
(C) /2 log( 1/2) (D) None of these
Q.111 
 2
/
0
logsec x dx equals -
(A) log 2 (B) (/2) log 2
(C) –log 2 (D) –(/2) log 2
Q.112 
1
0
log sin 




 
x
2
dx equals -
(A) log 2 (B) –log 2
(C) log 2 (D) – log 2
Q.113 
 2
/
0
2
sin x cos5 x dx equals -
(A) 16/105 (B) 8/105
(C) (16/105)  (D) (8/105) 
Q.114 
 2
/
0
2
sin x cos2 x dx is equal to-
(A) //16 (B)/8 (C) 1/8 (D)1/16
Q.115 
 2
/
0
3
sin x dx equals-
(A)2/3 (B) 4/3 (C) 3/2 (D) 2/3
Q.116 



2
/
2
/
3
cos x dx equals-
(A) 0 (B) /2 (C) 3/2 (D) 4/3
Q.117  
1
0
2
3
x
1
x
dx equals-
(A) 2/3 (B) 2/3
(C) 3/2 (D) None of these
Q.118  
1
0
)
x
1
(
x dx equals-
(A) /4 (B) /8 (C) /2 (D) /3
Q.119 



0
2
2
x
1
)
x
1
log(
dx equals-
(A) log 2 (B) – log 2
(C) /2 log 2 (D) –/2log 2
Q.120  
1
0
2
/
3
2
2
)
x
1
(
x dx equals-
(A) /32 (B) /16 (C) /8 (D) /4
Q.121

 4
/
0
4
xdx
2
sin equals
(A) 2/32 (B) 3/32 (C) /32 (D) 3/16
Q.122 If f (x) = 
3
2
x
x
log t dt (x > 0), then f’ (x) is
equal to-
(A) (4x2–9x ) log x (B) (9 x2+4x) log x
(C) (9x2–4x) log x (D) (x2+x) log x
Q.123 The derivative of F(x) = 
3
2
x
x
dt
t
log
1
(x > 0)
is-
(A)
x
log
3
1
–
x
log
2
1
(B)
x
log
3
1
(C)
x
log
3
x
3 2
(D) (log x)–1.x (x – 1)
Summation of series by integration
Questions
based on
Q.124 lim
n
1 1
1
1
2
1
3
n n n n




 
F
H
G I
K
J
...... equals-
(A) log 2 (B) log 4
(C) 0 (D) loge3
Q.125
lim
n
1
1
2
2
1
2
2
3 3
2
3 3
2
3 3



 

 
L
N
M
M
O
Q
P
P
n n
r
r n n
..... ....
equals-
(A) (1/2) log 3 (B) (1/3) log 2
(C) 3 log 2 (D) (1/2) log 2
Q.126 

n
lim










 n
6
1
.......
2
n
1
1
n
1
is equal to-
(A) log 4 (B) log 6
(C) log 8 (D) log 2
Q.127 lim
n
1
1
2
1 1
2 2 2



 

L
N
M O
Q
P
n n
n
n
..... equals-
(A) 0 (B) – 1/2
(C) 1/2 (D) None of these
Q.128 100
99
99
99
n n
n
.....
2
1
lim





is equal to
(A)
99
100
(B)
1
100
(C)
1
99
(D)
1
101
Q.129 

n
lim
n
1

 
n
2
1
r
2
2
r
n
r
equal to-
(A) –1+ 2 (B) –1 + 5
(C) 1 + 5 (D) 1 + 2
LEVEL # 2
Q.1 

2
0
4
sin x cos6 x dx equals-
(A) 3/256 (B) 3/128
(C) 3/64 (D) None of these
Q.2 If 


0
k
xdx
sin
log ,then the value of



4
/
0
dx
)
x
tan
1
(
log is -
(A) –
4
k
(B)
4
k
(C) –
8
k
(D)
8
k
Q.3


0
dx
x
sin
log equals -
(A) (–/2) log 2 (B) (/2) log 2
(C) –log 2 (D)log 2
Q.4 [ ( ) ( )]
f x f a x dx
a
 
z
0
equals-
(A) 
a
2
0
dx
)
x
(
f (B) 2 
a
2
0
dx
)
x
(
f
(C) 2 
a
0
dx
)
x
(
f (D) None of these
Q.5
 
1
0
2
x
1
x
log
dx equals-
(A) –log (1/2) (B)log (1/2)
(C)
2

log (1/2) (D) –
2

log (1/2)
Q.6 


2
/
3
1
|
x
sin
x
| dx equals-
(A) (3/) + 1/2 (B) (3/) – 1 /2
(C) 1/(+1) (D) None of these
Q.7 If I = 
 4
/
0
sin2 x dx and J = 
 4
/
0
cos2 x dx
then I is equal to-
(A) /4 – J (B) 2 J
(C) J (D) J/2
Q.8 

0
sin mx sin nx dx equals (m,n Z, m  n)
(A) m – n (B) 0 (C) m + n (D) 1
Q.9 cos sin
mx nx dx 
z 0
0

, m,n  N
(A) always
(B) when (n – m) N
(C) when (n – m) is even
(D) when (n – m )is odd
Q.10 cos cos
/
/
3 2
0
4
2  

d
z equals-
(A)
16
3
(B)
2
16
3
(C)
2
8
3
(D) None of these
Q.11 If f(x) = |x| + |x – 1|, then 
2
0
dx
)
x
(
f equals-
(A) 3 (B) 2 (C) 0 (D) –1
Q.12  

5
log
0
x
x
x
dx
3
e
1
e
e
is equal to
(A) 3 + 2 (B) 4 – 
(C) 2 +  (D) None of these
Q.13 
1
0
x2
e (x – )dx = 0 , then-
(A) 1 < < 2 (B) < 0
(C) 0 < < 1 (D) = 0
Q.14 If I1 = 
2
e
e x
log
dx
and I2 = 
2
1
x
x
e
dx, then-
(A) I1 = I2 (B) I1 < I2
(C) I1 > I2 (D) None of these
Q.15 

0
log (1 – cos x) dx equals-
(A) log 2 (B) –log 2
(C) (/2) log 2 (D) – (/2) log 2
Q.16 

0
log (1 + cos x)dx equals-
(A)
2

log 2 (B) –log 2
(C) log 2 (D) –
2

log 2
Q.17 

0
x
sin
x cos4 x dx is equal to-
(A) 3/5 (B) 2/5
(C) /5 (D) None of these
Q.18 


2
/
0
x
cos
2
dx
is equal to-
(A)
3
1
tan–1








3
1
(B)
2
3
tan–1








3
1
(C) 3 tan–1 ( 3 ) (D) 2 3 tan–1( 3 )
Q.19 


0
x
cos
b
a
dx
is equal to -
(A) / 2
2
b
a  (B) / 2
2
b
a 
(C) /ab (D) (a + b)
Q.20 









2
/
1
2
/
1
dx
x
1
x
1
log
x
cos is equal to
(A) 0 (B) 1/2
(C) –1/2 (D) None of these
Q.21 If f (a – x) = f (x) and  
2
/
a
0
p
dx
)
x
(
f , then

a
0
dx
)
x
(
f is equal to -
(A) 2p (B) 0
(C) p (D) None of these
Q.22 

2
0
dx
|
x
sin
| =
(A) 2 (B) 1 (C) 0 (D) 4
Q.23 



 2
sinqx)
(cospx dx, where p and q are
integers, is equal to -
(A) – (B) 0 (C) 2 (D) 
Q.24  


5
1
|)
x
1
|
|
3
x
(| dx is equal to-
(A) 21 (B) 5/6 (C) 10 (D) 12
Q.25 The value of  which satisfy





2
/
2
sin
dx
x
sin ,(  [0, 2]) are equal
to-
(A) 7/6 (B) 3/2
(C) /2 (D) all of these
Q.26 If In = 



0
1
n
x
x
e dx then 




0
1
n
x
dx
x
e =
(A) In (B)

1
In
(C) n
n

I
(D)``n In`
Q.27 


37
e
1
x
)
nx
sin( 
dx is equal to-
(A) 1 (B) 2 (C) e (D) 37
Q.28 The value of integral 
1
0
x
dx
e
2
lies in the interval-
(A) (0, 1) (B) (–1, 0)
(C) (1, e) (D) None of these
Q.29 

n
lim
















1
n
2
n
3
1
...
4
n
4
1
1
n
4
1
n
2
1
2
2
2 is
equal to-
(A) /4 (B) /3 (C)/2 (D)/6
Q.30 If
x dx
x a x b x c
4
2 2 2 2 2 2
0 ( )( )( )
  

z =
)
a
c
)(
c
b
)(
b
a
(
2 



then




0
2
2
2
)
9
x
)(
4
x
(
dx
x
=
(A)
60

(B)
20

(C)
40

(D)
80

Q.31 Let I1 =  
2
1
2
x
1
dx
and I2 = 
2
1
x
dx
, then-
(A) I1 = I2 (B) I2 > I1
(C) I1 > I2 (D) I1 > 2 I2
Q.32 If [ ] denotes the greatest integer function,
then 
2
/
3
0
2
dx
]
x
[ is equal to-
(A) 2 – 2 (B) 2 + 2
(C) 1– 2 (D) 1 + 2
Q.33 

n
lim n
nn
l n
!
/
F
H
GI
K
J is equal to
(A) e (B) 1/e
(C) e (D) None of these
Q.34 If [x] denotes the greatest integer less than
or equal to x, then 
2
0
2
dx
]
x
[
x is equal to
(A) 5/3 (B) 7/3
(C) 8/3 (D) 4/3
Q.35 If f(x) is a function of x, then 



2
/
2
/
dx
)
x
(cos
f is
equal to
(A) 0 (B) 
 2
/
0
dx
)
x
(cos
f
(C) 4 
 2
/
0
dx
)
x
(cos
f (D)

 2
/
0
dx
)
x
(sin
f
2
Q.36 If 

4
1
)
x
(
f dx = 4 and  
4
2
)]
x
(
f
3
[ dx = 7, then

1
2
)
x
(
f dx is equal to-
(A) 2 (B) –2
(C) –5 (D) None of these
Q.37 



(x3 + x cosx + tan5 x + 2) dx is equal to
(A)  (B) 2 (C) 4 (D) 0
Q.38 



0 3
2
)
1
x
x
(
dx
=
(A) 3/8 (B) 1/8
(C) –3/8 (D) None of these
Q.39 


1
0
x
)
e
1
(
2
dx is equal to
(A) –1 (B) 2
(C) 1 + e–1 (D) None of these
Q.40  






1
0
1
dx
x
1
cot
x
1
equals
(A) 
 4
/
0
x cosec x dx (B) 
 2
/
0
x
2
1
cosec x dx
(C) 
 2
/
0
x cosec x dx (D) 
 4
/
0
x
2
1
cosec x dx
Q.41 


2
/
0
|
x
cos
x
sin
| dx equals
(A) 0 (B) 2 –1
(C) 2( 2 –1) (D) 2( 2 +1)
Q.42  
a
0
2
2
4
x
a
x dx =
(A) /32 (B)
6
a
32

(C)
6
a
16

(D)
6
a
8

Q.43 1 sin x 2 dx
0
2
+
z ( / )

equals
(A) 0 (B) 2 (C) 8 (D) 4
Q.44


1
1
|
x
|
dx
e equals
(A) 2(e – 1) (B) 2(e + 1)
(C) 0 (D) None of these
Q.45  
1
0 2
/
3
2
3
)
1
x
(
dx
x
=
(A) ( 2 – 1)2 (B)
( 2 –1)
2
2
(C)
2 –1
2
(D) None of these
Q.46 


0
x
cos
x
sec
x
tan
x
dx equals-
(A) 2/4 (B) 2/2 (C) 32/2 (D) 2/3
Q.47  
1
0
|
1
x
3
| dx equals-
(A) 5/6 (B) 5/3 (C) 10/3 (D) 5
Q.48 If

 2
/
0
sin 4 x cos2 x dx =

32
tthen

 2
/
0
cos 4 x sin2 x dx equals
(A)h  /32 (B) 3  /32
(C)  / 2 (D) None of these
Q.49

b
a
dx
x
|
x
|
, a < b is equal to
(A) b – a (B) a – b (C) b + a (D) |b| – |a|
Q.50 
 2
/
0 x
sin
x
cos
1
x
cos


dx =
(A)

4
+
1
2
log2 (B)

4
+ log 2
(C)

4
–
1
2
log 2 (D)

4
– log 2
Q.51 









1
1
x
1
x
1
log dx is equal to
(A) 2 (B) 1 (C)  (D) 0
Q.52 



0 2
2
2
2
2
)
b
x
)(
a
x
(
dx
x
=
(A)

2(a – b)
(B)

2(b – a)
(C)

a+b
(D)

2(a+b)
Q.53



2
2
3
dx
)
c
bx
ax
( , value depends upon:
(A) Value of a
(B) Value of b
(C) Value of c
(D) Value of a and b
Q.54 
 2
/
0
x
dx
x
sin
e =
(A)
1
2
(e/2 – 1) (B)
1
2
(e/2 + 1)
(C)
1
2
(1 – e/2) (D) 2 (e/2 + 1)
Q.55 
2
/
1
0
|sinx| dx is equal to
(A) 0 (B)  (C) –  (D) 1/
Q.56 



2
/
2
/
sin | x | dx is equal to
(A) 2 (B) 1
(C) 0 (D) None of these
Q.57 










2
1
0
1
x
1
x
2
sin dx is equal to
(A)

2
+ log 2 (B)

2
– log 2
(C)

4
+ log 2 (D)

4
– log 2
Q.58 
 2
/
0
x
2
cos
)
x
log(cot
x
8
sin
dx is equal to
(A) 0 (B) /4
(C) /2 (D) None of these
Q.59 Let I1 = 

0
x log sin x dx, I2 = 

0
log sin x dx,
then
(A) I1= I2 (B) I1 = I2
(C) 2I1= I2 (D) I1= I2
Q.60 If I1 = 

3
0
2
)
x
(cos
f dx and I2 = 

0
2
)
x
(cos
f dx,
then
(A) I1= I2 (B) I1 = 3I2
(C) I1 = 5I2 (D) 3 I1 = I2
Q.61 Assuming that a,b,c are non zero real
numbers are such:  


3
0
2
dx
)
c
bx
2
ax
3
(
 

3
1
2
dx
)
c
bx
2
ax
3
( then
(A) a + b + c = 3 (B) a + b + c = 1
(C) a + b + c = 0 (D) a + b + c = 2
Q.62 If  
( ) ( )
a x x
  , then x x dx
a
( )
0
z is equal to
(A) a 
a
0
dx
)
x
( (B)
2
1
a 
a
0
dx
)
x
(
(C) 2a 
a
0
dx
)
x
( (D) None of these
LEVEL # 3
Q.1 If f(x) = 
2
2
x
x
/
1
dt
t
cos then f '(1) =
(A) cos1 (B) 2 cos1
(C) 4 cos1 (D) None of these
Q.2 If In =

 4
/
0
n
tan x dx, N
n , then In + 2 + In equals-
(A)
n
1
(B)
1
n
1

(C)
1
n
1

(D)
2
n
1

Q.3 If I1 =  
1
x
2
t
1
1
dt and I2  
x
/
1
1
2
t
1
1
dt for
x > 0, then-
(A) I1 = I2 (B) I1 > I2
(C) I2 > I1 (D) None of these
Q.4 If [x] stands for the greatest integer function,
the value of  


10
4
2
2
2
]
x
[
]
196
x
28
x
[
]
x
[
dx is
(A) 0 (B) 1
(C) 3 (D) None of these
Q.5 The expression


n
0
n
0
dx
}
x
{
dx
]
x
[
, where [x] and {x}
are integral and fractional parts of x and N
n 
is equal to-
(A)
1
n
1

(B)
n
1
(C) n (D) n – 1
Q.6 The value of 
]
x
[
0
]
x
[
x
2
2
dx is
(A) [x] log 2 (B) 2
log
]
x
[
(C) 2
log
]
x
[
2
1
(D) none of these
Q.7 The value of 
 3
/
16
0
|
x
sin
| dx is
(A) 21 (B) 21/2 (C) 10 (D) 11
Q.8 If 

n
0
f (cos2 x) dx = k 

0
f (cos2 x) dx, then
the value of k is-
(A) 1 (B) n
(C) n/2 (D) none of these
Q.9 The value of the integral 
100
0
sin (x – [x])  dx
is-
(A)100/  (B)200/  (C)100  (D) 200 
Q.10 The value of the integral  
1
0
n
)
x
1
(
x dx is-
(A)
2
n
1
1
n
1



(B)
)
2
n
(
)
1
n
(
1


(C)
1
n
1
2
n
1



(D) (B) and (C)
Q.11 The greater value of F(x) = 
x
1
|t| dt on the
interval [–1/2, 1/2] is-
(A)
8
3
(B)
2
1
(C)
8
3
 (D)
2
1

Q.12 If  )
x
(
f dx = F (x), then  )
x
(
f
x 2
3
dx equals
(A)  

 2
2
2
2
dx
)
x
(
F
)
x
(
F
x
2
1
(B)  

 dx
)
x
(
F
)
x
(
F
x
2
1 2
2
2
(C) 





  dx
)
x
(
F
2
1
)
x
(
F
x
2
1 2
2
(D) none of these
Q.13 Let f be an odd function then



1
1
dx
)
x
cos
.
)
x
(
f
|
x
(| is equal to–
(A) 0 (B) 1
(C) 2 (D) None of these
Q.14 The value of 
 2
/
0
log 







x
cos
3
4
x
sin
3
4
dx is-
(A) 2 (B) 3/4
(C) 0 (D) None of these
Q.15 If I1 

1
0
x2
2 dx,I2 

1
0
x3
2 dx,I3 

2
1
x2
2 dx,
and I4 

2
1
x3
2 dx, then-
(A) I1 > I2 (B) I2 > I1
(C) I4 > I3. (D) (A) and (C)
Q.16 For any integer n, the integral


0
3
x
cos
cos
e
2
(2n + 1) x dx has the value-
(A)  (B) 1
(C) 0 (D)none of these
Q.17 If f (x) and g(x) are continuous functions
satisfying f(x) = f(a – x) and g (x) + g(a – x) = 2,
then 
a
0
)
x
(
g
)
x
(
f dx is equal to-
(A) 
a
0
dx
)
x
(
g (B) 
a
0
dx
)
x
(
f
(C) 0 (D) none of these
Q.18 If I = 

2
0
sin2 x dx, then
(A) I 


0
2
dx
x
sin
2
(B) I 


2
/
0
2
dx
x
sin
4
(C) I 


2
0
2
dx
x
cos
(D) (A) and (B)
Q.19 The value of 
x
sin
0
2
sin–1
t dt
+ 
x
cos
0
2
cos–1
t dt is-
(A)
2

(B) 1
(C)
4

(D) None of these
Q.20 If for every integer n, 
1
n
ni
f(x) dx = n2, then
the value of 
4
2
f(x) dx is-
(A) 16 (B) 14
(C) 19 (D) none of these
Q. 21 If an = 
 2
/
0
2
x
sin
nx
sin
dx then a2 – a1, a3 – a2, a4– a3
are in-
(A) A.P. (B) G.P.
(C) H.P. (D)A.G.P.
Q.22 The value of the integral



3
/
1
3
/
1
4
4
x
1
x
cos–1
2
x
1
x
2

dx
(A) 0
(B)
3

+ log
1
3
1
3


(C)
3
1
+
2

log
1
3
1
3


(D) None of these
Q.23 If f is a continuous periodic function with period
T, then 
T
a
a
)
x
(
f dx
(A) depends upon a
(B) is independent of T
(C) independent of a
(D) None of these
Q.24 

2
0
2
x
cos dx =
(A) 1/ (B) 2/ (C) 3/ (D) 4/
Q.25 The value of the integral




t
n
0
dx
|)
x
sin
|
|
x
cos
(| is
(A) 0 (B) 2 + sin t + cost
(C) cos 1 (D) 4n+ sint – cost + 1
Q.26 Given 



2
/
0
x
cos
x
sin
1
dx
= n2 then the value
of the definite integral 



2
/
0
x
cos
x
sin
1
x
sin
dx =
(A)
2
1
n2 (B)
2

– n2
(C)
4

–
2
1
n2 (D)
2

+n2
Q.27  
x
tan
e
/
1
2
t
1
t
dt +  
x
cos
e
/
1
2
)
t
1
(
t
dt
is equal to
(A) 1 (B) –1
(C) 0 (D) None of these
Q.28 Given 
2
1
x2
e dx = a, then the value of

4
e
e
)
x
(
n
 dx is
(A) e4 – e (B) e4 – a
(C) 2e4 – a` (D) 2e4 – e – a
Q.29 For x  R and a continuous function f, let
I1 = 
 t
cos
1
t
sin
2
2
f
x {x (2 – x)} dx and
I2 =

 t
cos
1
t
sin
2
2
f {x(2 –x) } dx. Then I1/I2 is
(A) 0 (B) 1
(C) 2 (D) 3
Assertion & Reason
(A) both S1 and S2 are true and S2 is the
correct reason of S1
(B) both S1 and S2 are true and S2 is not the
correct reason of S1
(C) S1 is true and S2 is false
(D) S1 is false and S2 is true
Q.30 Assertion (S1) 99
–
e
–
e
100
dx
e 2
/
1
5
.
100
0
])
x
[
–
x
(


Reason (S2) : x – [x] is a periodic function of
period 1. Therefore.
dx
e
dx
e
100
dx
e
5
.
100
100
]
x
[
–
x
1
0
]
x
[
–
x
5
.
100
0
]
x
[
–
x


 

Q.31 Assertion (S1) 





2
/
2
/
–
2
0
dx
)
x
1
x
sin(log)(–
Reason (S2) : 0
dx
)
x
(
f
a
a
–


Q.32 Assertion (S1) : If f(x) = 








2
x
1
,
x
1
x
0
,
x2
Then
)
1
–
2
(
3
4
dx
)
x
(
f
2
0

 .
Reason (S2) : f(x) is continuous in [0, 2].
Q.33 Assertion (S1) : 
 


2
/
0
6
6
16
5
dx
)
x
cos
x
(sin
Reason (S2) : sin6 x + cos6x is periodic with
period /2
Q.34 Assertion (S1) : 4
dx
x
|
x
|
2
2
–


Reason (S2) :
x
|
x
|
=








0
x
if
1
0
x
if
undefined
0
x
if
1
–
Q.35 Assertion (S1) : Let F(x) =  
3
2
x
x
e )
0
x
(
tdt
log
Then F' (x) = (9x2 – 4x) log x.
Reason (S2) : If F(x) = 
 )
x
(
)
x
(
u
,
dt
)
t
(
g then
F'(x) = g((x))' (x) – g (u(x)).u'(x).
Q.36 Assertion (S1) :  

8
2 2
2
2
]
x
[
]
100
x
20
–
x
[
dx
]
x
[
= 3,
where  
 = G.IF.
.
Reason (S2) : 
 

b
a
b
a
dx
)
x
–
b
a
(
f
dx
)
x
(
f .
Passage : -
A function f : R  R satisfies the equation
f(x + y) = f(x) + f(y) x, y R and is continuous
through out the domain. If I1 + I2 + ..... + I5 = 450
when In = n 
n
0
dx
)
x
(
f
Q.37 f(x) =
(A) 4x (B) logex
(C) e2x (D) None of these
Q.38 Area bounded by f(x), x-axis and x = 1 is
(A) 2 unit2 (B) 1 unit2
(C) 4 unit2 (D) None of these
Q.39 Interval in which f(x) increases
(A) (0, ) (B) (–, 0)
(C) (–, ) (D) None of these
LEVEL # 4
[PREVIOUSLY ASKED QUESTIONS IN AIEEE & IIT]
Section - A
Q.1 If In
= 
 4
/
0
n
dx
x
tan then the value of n(In–1
+ In+1
)
is-
(A) 1 (B)/2
(C)/4 (D) n
Q.2 





x
cos
1
)
x
sin
1
(
x
2
2 =
(A) 
(B)2
/4
(C)/8 (D)2
/8
Q.3 


10
dx
|
x
sin
| =
(A) 9 (B) 10
(C)18 (D)20
Q.4 
2
0
2
]
x
[ dx =
(A) 2 – 1
(B) 2 ( 2 –1)
(C) 2
(D) None of these
Q.5 

n
Lim
1
P
P
P
P
P
n
n
.......
3
2
1





equals-
(A) 1 (B)
1
P
1

(C)
2
P
1

(D) P2
Q.6 Let
dx
d
F(x) = 







x
e x
sin
, x > 0. If 
4
1
x
sin 3
e
x
3
dx = F(k) – F(1), then one of the possible val-
ues of k, is-
(A) 64 (B) 15
(C) 16 (D) 63
Q.7 If f(a + b – x) = f(x), then 
b
a
dx
)
x
(
f
x is equal
to-
(A)
2
b
a 
 

b
a
dx
)
x
b
a
(
f
(B)
2
b
a 
 
b
a
dx
)
x
b
(
f
(C)
2
b
a 

b
a
dx
)
x
(
f
(D)
2
a
b 

b
a
dx
)
x
(
f
Q.8 The value of the integral I =  
1
0
n
dx
)
x
1
(
x is
(C)
2
n
1

(D)
1
n
1

–
2
n
1

Q.9 The value of 0
x
lim

x
sin
x
dt
t
sec
2
x
0
2

is-
(A) 0 (B) 3
(C) 2 (D) 1
Q.10 

n
lim
5
4
4
4
n
n
.....
3
2
1 





n
lim
5
3
3
3
n
n
.....
3
2
1 



is equal to-
(A) 1/5 (B) 1/30
(C) zero (D) 1/4
Q.11 If f(y) = ey
, g(y) = y; y > 0 and F(t) =
 
t
0
dy
)
y
(
g
)
y
t
(
f , then
(A) F(t) = t e–t
(B) F(t) = 1 – e–1
(1+ t)
(C) F(t) = et
– (1 + t)
(D) F(t) = t et
Q.12 Let f(x) be a function satisfying f'(x) = f(x) with
f(0) = 1 and g(x) be a function that satisfies
f(x) + g(x) = x2
. Then the value of the integral

1
0
dx
)
x
(
g
)
x
(
f , is
(A) e +
2
e2
+
2
5
(B) e –
2
e2
–
2
5
(C) e +
2
e2
–
2
3
(D) e –
2
e2
–
2
3
Q.13 

n
lim 

n
1
r
n
r
e
n
1
is-
(A) e (B) e – 1
(C) 1 – e (D) e + 1
Q.14 The value of 


3
2
2
dx
x
1 is-
(A) 28/3 (B) 14/3
(C) 7/3 (D) 1/3
Q.15 The value of I = 



2
/
0
2
x
2
sin
1
)
x
cos
x
(sin
dx is-
(A) 0 (B) 1
(C) 2 (D) 3
Q.16 If 

0
dx
)
x
(sin
f
x = A
A 
 2
/
0
dx
)
x
(sin
f , then A is-
Q.17 If f(x) = x
x
e
1
e

, I1
=  
 dx
x
1
x
g
x
)
a
(
f
)
a
(
f


 and
I2
=  
 dx
x
1
x
g
)
a
(
f
)
a
(
f


 , then the value of
1
2
I
I
is-
(A) 2 (B) – 3 (C) – 1 (D) 1
Q.18 

n
Lim 







 1
sec
n
1
.....
n
4
sec
n
2
n
1
sec
n
1 2
2
2
2
2
2
2
equals -
(A)
2
1
sec 1 (B)
2
1
cosec 1
(C) tan 1 (D)
2
1
tan 1
Q.19 If I1 = 
1
0
x2
2 dx, I2 = 
1
0
x3
2 dx, I3 = 
2
1
x2
2 dx and
I4 = 
2
1
x3
2 dx then -
(A) I2 > I1 (B) I1 > I2
(C) I3 = I4 (D) I3 > I4
Q.20 Let f : R  R be a differentiable function having
f(2) = 6, f (2) = 





48
1
. Then 2
x
Lt
  
)
x
(
f
6
3
2
x
t
4
dt
equals -
(A) 24 (B) 36 (C) 12 (D) 18
Q.21 The value of 



 x
2
a
1
x
cos
dx, a > 0, is -
(A) a (B)
2

(C)
a

(D)2
Q.22 The value of the integral,  

6
3
x
x
9
x
dx is –
(A)
2
3
(B) 2
(C) 1 (D)
2
1
Q.23 




2
/
2
/
3
[(x + )3 + cos2(x + 3)] dx is equal to –
(A) (4/32) + (/2) (B) /2
(C) (/4) – 1 (D) 4/32
Q.24 

0
x f(sin x) dx is equal to–
(A)  

0
f(sin x) dx (B)
2


 2
/
0
f(sin x) dx
(C)  
 2
/
0
f(cos x) dx (D)  

0
f(cos x) dx
Q.25 The value of 
a
1
[x] f' (x) dx, a > 1, where [x]
denotesthe greatest integer not exceeding x is–
(A) [a] f(a) – {f(1) + f(2) + ... + f([a])}
(B) [a] f([a]) – {f(1) + f(2) + ... + f(a)}
(C) a f([a]) – {f(1) + f(2) + ... + f(a)}
(D) a f(a) – {f(1) + f(2) + ... + f([a])}
Q.26 Let F(x) = f(x) + f
x
1





 , where f x
t
t
dt
x
( )
log


 1
1
.
Then F(e) equals ( A )
1
2
(B) 0
(C) 1 (D) 2
Q.27 The solution for x of the equation




x
2
2 12
1
t
t
dt
is
(A) 2 (B) 
(C) 3 2
/ (D) 2 2
Q.28 Let I = 
1
0
x
x
sin
dx andJ = 
1
0
x
x
cos
dx. Then which
one of the following is true ?
(A) I <
3
2
and J < 2
(B) I <
3
2
and J > 2
(C) I >
3
2
and J < 2
(D) I >
3
2
and J > 2
Q.29 

0
]
x
[cot dx where [.] denotes the greatest
integer function, is equal to
(A)
2

(B) 1
(C) –1 (D)
2
–

Section - B
Q.1 The value of
0
2
/

dx
x
1 3
 tan
is
(A) 0 (B) 1
(C) /2 (D) /4
Q.2 The value of


/
/
4
3 4



1 sin
d is ......
(A) ( 2 –1) (B)  ( 2 +1)
(C)  ( 2 – 2) (D) None
Q.3
2
3

x
x x
( )
5  
dx =
(A) 1/2 (B) 1/3
(C) 1/5 (D) None
Q.4 If f (x) = A sin (x/2) + B, f'
1
2





 = 2 and
0
1
 f(x) dx =
2A

, then the constants A and
B are -
(A) /2 and /2 (B) 2/and 3
(C) 0 and – 4/ (D) 4/and 0
Q.5 The value of 


2
dx
]
x
sin
2
[ , where [ ]
represents the greatest integer function is -
(A) –
3
5
(B) – 
(C)
3
5
(D) – 2
Q.6 The function L (x) = 
x
1 t
dt
satisfies the
equation
(A) L(x + y) = L(x) + L(y)
(B) L 







y
x
= L(x) + L(y)
(C) L(xy) = L(x) + L(y)
(D) None of these
Q.7 If for a non- zero x, a f(x) + b f 





x
1
=
x
1
– 5,
where a b, then 
2
1
dx
)
x
(
f =
(A) 2
2
b
a
1









2
b
7
a
5
2
log
a
(B) 2
2
b
a
1









2
b
7
a
5
2
log
a
(C) – 2
2
b
a
1









2
b
7
a
5
2
log
a
(D) None of these
Q.8 Let
dx
d
F (x) =
x
e x
sin
, x > 0. If 
4
1
2
x
sin
x
e
2
dx
= F(K) – F (1), then one of the possible
values of K is-
(A) 2 (B) 4
(C) 8 (D) 16
Q.9 If g (x) =
0
x
zcos4 t dt, then g (x + ) equals -
(A) g (x) + g() (B) g (x) – g()
(C) g (x) g () (D) g(x)/g()
Q.10 Let f be a positive function, let I1 =
1
 k
k
x.
f [x (1 – x)] dx & I2 =
1
 k
k
f [x (1 – x)] dx,
where (2k–1) > 0, then
I
I
1
2
is
(A) 2 (B) k
(C) 1/2 (D) 1
Q.11 If
0
x
 f(t) dt = x +
x
1
 tf (t) dt, then the value of
f (1) is-
(A) 1/2 (B) 0
(C) 1 (D) – 1/2
Q.12  


1
0
2
1
)
x
x
1
(
tan dx =
(A) log 2 (B) log
2
1
(C)  log 2 (D)
2

log
2
1
Q.13 For n > 0 


2
0
n
2
n
2
n
2
x
cos
x
sin
x
sin
x
dx =
(A) 2
(B) 
(C) 2 (D) 3
Q.14 Let f(x) = x – [x], for every real number x,
where [x] is the integral part of x. Then


1
1
dx
)
x
(
f is-
(A) 1 (B) 2
(C) 0 (D)
2
1
Q.15 

 
4
/
3
4
/ x
cos
1
dx
is equal to-
(A) 2 (B) – 2
(C)
2
1
(D) –
2
1
Q.16 If for a real number y, [y] is the greatest
integer less than or equal to y, then the value
of the integral


/
/
2
3 2
z[2 sin x] dx is
(A) –  (B) 0
(C) – 2 (D) /2
Q.17 The value of the integral dx
x
x
log
2
e
1
e
e


is-
(A)
2
3
(B)
2
5
(C) 3 (D) 5
Q.18 If f(x) =




 
otherwise
;
2
2
|
x
|
;
x
sin
e x
cos
Then 

3
2
dx
)
x
(
f =
(A) 0 (B) 1
(C) 2 (D) 3
Q.19 Let f(x) =  )
2
–
x
)(
1
–
x
(
ex
dx. Then f
decreases in the interval
(A) (–,–2) (B) (–2, –1)
(C) (1, 2) (D) (2, +)
Q.20 Let f : (0 , )  R and F (x2
) = 
2
x
0
dt
)
t
(
f . If
F(x2
) = x2
(1+ x), then f(4) equals-
(A)
4
5
(B) 7 (C) 4 (D) 2
Q.21 The integral 


















2
1
2
1
x
1
x
1
n
]
x
[ 
dx equals-
(A) – 1/2 (B) 0
(C) 1 (D) 2 n(1/2)
Q.22 Let T > 0 be a fixed real number. Suppose f is
a continuous function such that for all x  R,
f(x+T) = f(x). If I = 
T
0
dx
)
x
(
f then the value of

 T
3
3
3
dx
)
x
2
(
f is-
(A) – 3/2 I (B) 2I
(C) 3I (D) 6I
Q.23 Let f(x) =  
x
1
2
t
2 dt. Then the real roots of
the equation x2
– f(x) = 0 are-
(A) ± 1 (B) ± 1/ 2
(C) ±
2
1
(D) 0 and 1
Q.24 If f(x) = dt
e
1
x
x
t
–
2
2
2


. Then f(x) increase in
(A) (–2, 2) (B) No value of x
(C) (0, ) (D) (–, 0)
Q.25 If 
2
t
0
dx
)
x
(
f
x =
5
2
t5
for t > 0, then f(4/25) is-
(A) –
5
2
(B) 0 (C)
5
2
(D) 1
Q.26  

1
0
x
1
x
1
dx equals to-
(A)
2

+ 1 (B)
2

– 1 (C) 1 (D) 
Q.27 






0
2
2
3
dx
)]
1
x
(
cos
)
1
x
(
3
x
3
x
3
x
[ =
(A) 4 (B) 0
(C) –1 (D) 1
Q.28
 

1
x
sin
2
x
sin
1
dt
)
t
(
f
t
2
x
0


 , then f 







3
1
is-
(A) 3 (B)
3
1
(C) 1 (D) 3
Q.29 
 2
/
0
(sinx)cosx (cos x.cotx – log(sinx)sinx)dx
(A) 2 (B) 1
(C) 3 (D) 4
Q.30
4
x
lim


16
x
dt
)
t
(
f
2
2
x
sec
2
2



equals-
(A)

8
f(2) (B)

2
f(2)
(C)

2
f 





2
1
(D) 4f(2)
Q.31 Match the integrals in Column I with the
values in Column II and indicate your answer
by darkening the appropriate bubbles in the
4 × 4 matrix given in the ORS
Column I Column II
(A) 
 
1
1
2
x
1
dx
(P)
2
1
log 





3
2
(B) 

1
0
2
x
1
dx
(Q) 2log 





3
2
(C)  
3
2
2
x
1
dx
(R)
3

(D) 

2
1
2
1
x
x
dx
(S)
2

LEVEL # 2
ANSWER KEY
LEVEL # 1
LEVEL # 3
Ques. 1 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17 18 19 20
Ans. C C A C D B B B B D C A B C D C B D C C
Ques. 21 22 23 24 25 26 27 28 29 30 31 32 33 34 35 36 37 38 39
Ans. C D C D D C A D B D C D B B A A A A C
Q.No. 1 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17 18 19 20
Ans. C C A A C A D C C C D C B D D B D A B B
Q.No. 21 22 23 24 25 26 27 28 29 30 31 32 33 34 35 36 37 38 39 40
Ans. A C B B D A A C D A C C A C A B B A B C
Q.No. 41 42 43 44 45 46 47 48 49 50 51 52 53 54 55 56 57 58 59 60
Ans. A D C C C A B A C C A A B B D C D B C B
Q.No. 61 62 63 64 65 66 67 68 69 70 71 72 73 74 75 76 77 78 79 80
Ans. B A C B C C A D B C C B B C B B D C C B
Q.No. 81 82 83 84 85 86 87 88 89 90 91 92 93 94 95 96 97 98 99 100
Ans. A C D A C D A C D D B A B D B D D C A B
Q.No. 101 102 103 104 105 106 107 108 109 110 111 112 113 114 115 116 117 118 119 120
Ans. C C A B C A B B C A B D B A A D B B A A
Q.No. 121 122 123 124 125 126 127 128 129
Ans. B C D D B B B B B
Q.No. 1 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17 18 19 20
Ans. B C C C C A A B C B A B C A B B C B A A
Q.No. 21 22 23 24 25 26 27 28 29 30 31 32 33 34 35 36 37 38 39 40
Ans. A D C D D C B C D A B A B B D C C A D B
Q.No. 41 42 43 44 45 46 47 48 49 50 51 52 53 54 55 56 57 58 59 60
Ans. C B C A B A A A D C D D C B D A B A C B
Q.No. 61 62
Ans. C B
LEVEL # 4
Section - A
Section - B
Qus. 1 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17 18 19 20
Ans. A A C A B A C D D A C D B A C B A D B D
Qus. 21 22 23 24 25 26 27 28 29
Ans. B A B C A A A A D
(31) A  S; B  S ; C  P; D R
Qus. 1 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17 18 19 20
Ans. D A A D A C B D A C A A A A A C B C C C
Qus. 21 22 23 24 25 26 27 28 29 30
Ans. A C A A C B A A B A

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02 definite Intergration Ex. Module-5.pdf

  • 1. DefiniteIntegration Total No.of questions in Definite Integration are - Level # 1 .................................................................................. 129 Level # 2 ................................................................................... 62 Level # 3 ................................................................................... 39 Level # 4 ................................................................................... 60 Total No. of questions ............................................................ 290
  • 2. Definition of definite Integration Questions based on Q.1  /4 0 2 dx x tan equals- (A) /4 (B)1 + (/4) (C) 1 – (/4) (D)1 – (/2) Q.2 The value of  e 1 dx x 1 - (A)  (B) 0 (C) 1 (D) log (1 + e) Q.3 The value of dx ax x a 2 2 0 2  z is- (A)  (B)  /2 (C)  /4 (D) 2  Q.4 The value of sin cos cos cos / x x x x 2 0 2 3 2   z  dx is- (A) log (9/8) (B) log (4/3) (C) log (3/4) (D) None of these Q.5 e x x tan   z 1 2 0 1 dx equals- (A) 1 (B) e/2 +1 (C) e/2 – 1 (D) None of these Q.6  2 0 dx x 3 x , equals- (A) log3 2 1) – (3 2 (B) 0 (C) log3 2 2 (D) 2 3 2 Q.7 sec ( tan )( tan ) / 2 0 4 1 2 x x x dx   z  equals- (A) loge 3 2 (B) loge 3 (C) 1 2 loge 4 3 (D) loge 4 3 Q.8    2 / 0 sin sin 2d equals- (A) /3 (B) 2/3 (C) 2/3 (D) 4/3 LEVEL # 1 Q.9 1 2 0 2  z sin / x dx  equals- (A) 1/2 (B) 1 (C) 2 (D) None of these Q.10 dx x 1 2 0 4  z cos /  equals- (A) –1 (B) 1 (C) 1/2 (D) – 1/2 Q.11  a 0 2 x sinx3dx equals- (A) – 3 1 (1–cos a3) (B) 3 (1– cos a3) (C) (1– cos a3) (D) 3 1 (1– cos a3) Q.12    0 x2 e x dx equals- (A) 1 (B) 2 (C) 1/2 (D) None of these Q.13   2 1 2 1 x x 1 dx equals- (A) /2 (B) /3 (C) /4 (D)  Q.14 The value of x ex 3 0 1 3 4   z e j(x2 + ex ) dx is- (A) (3e + 2)/6 (B) (3e – 2) /6 (C) (3e – 2)2/36 (D) None of these Q.15    3 2 2 x 6 x 5 dx equals- (A) –/2 (B) /2 (C) – (D)  Q.16    0 2 x 1 dx equals- (A)/4 (B) /2 (C)  (D) /8
  • 3. Q.17     0 2 2 1 ) x 1 ( x tan x dx equals- (A) /2 (B) /6 (C) /4 (D) /8 Q.18   4 / 0 log x sec (sec x + tan x) dx = (A) 2 1 [log (1 + 2 )]2 (B) [log (1 + 2 )]2 (C) 2 1 [log ( 2 –1)]2 (D) [log ( 2 –1)]2 Q.19    2 1 x 1 x 1 dx equals- (A)(1/2) log (3/2) –1 (B) 2 log (3/2) –1 (C) log (3/2) – 1 (D) None of these Q.20    2 1 2 5 x 4 x dx equals- (A) log ( 2 – 1) (B) log ( 2 +1) (C) – log (2 2 –1) (D) – log (2 2 +1) Q.21           2 1 2 x x 1 x 1 e dx equals- (A) e e 2 1  F H G I K J (B) 1 (C) e (e – 1) (D) None of these Q.22  kb ka dx ) x ( f equals- (A) k2  b a dx ) x ( f (B) k  b a dx ) x ( f (C) k f kx dx a b ( ) z (D) k3  b a dx ) x k ( f Q.23 f x c dx a c b c ( )    z equals- (A)   b a dx ) c x ( f (B)  b a dx ) x ( f (C)    c 2 b c 2 a dx ) x ( f (D)   b a dx ) c 2 x ( f Q.24  2 1 x e [f(x) + f (x)]dx equals- (A) ef(2) + f(1) (B) e [ef(2) – f(1)] (C) e [ef(2) + f(1)] (D) ef(2) – f(1) Q.25 If dx d f(x) = g(x), then the value of a b f x g x z( ) ( ) dx is - (A) f(b) – f(a) (B) g (b) – g(a) (C) 2 1 [{g(b)}2 – {g(a)}2] (D) 2 1 [{f(b)}2 – {f(a)}2] Q.26   3 1 2 dx x 1 1 is equal to- (A) /12 (B) /6 (C) /4 (D) /3 Q.27   2 / 0 (a cos2 x + b sin2 x) dx is equal to - (A) (a + b) /4 (B) (a + b) /2 (C) (a + b) /3 (D) None of these Q.28    2 / 4 / x e (log sin x + cot x) dx = (A) 4 / e log 2 (B) – 4 / e log 2 (C) 2 1 4 / e log 2 (D) – 2 1 4 / e log 2
  • 4. Q.29    2 / 0 4 x sin 1 x cos x sin dx = (A) 2  (B) 4  (C) 6  (D) 8  Q.30  2 1 x ) x cos(log dx equals (A) sin (log 2) (B) sin (log 3) (C) sin (log 1/2) (D) None of these Q.31    2 1 ) x 2 )( 1 x ( dx equals - (A) 1 (B) /2 (C)  (D) 2 Q.32     2 / 0 x cos 1 x sin x dx = (A) – log 2 (B) log 2 (C) /2 (D) 0 Q.33  e 1 x x e (1 + x log x) dx = (A) ee (B) ee – e (C) ee + e (D) None of these Q.34    4 / 0 7 sec sin3d= (A) 1/12 (B) 3/12 (C) 5/12 (D) None of these Q.35 2 2 / 0 sin           d = (A) log 2 (B) 2 log  (C)  (D) None of these Q.36   4 / 0 4 tan x dx equals - (A) 3 2 4   (B) 3 2 4   (C) 3 1 4   (D) 3 1 4   Q.37               3 1 2 1 2 1 dx x 1 x tan 1 x x tan ,equals- (A) (B) 2  (C) 3  (D) None of these Q.38      2 / 4 / x e sin x dx = (A) – 2 1 e–/2 (B) – 2 2 e–/4 (C)– 2 (e–/4+e–/2)(D) 0 Q.39   4 / 0 x cos x sin x tan dx equals- (A) 1 (B) 2 (C) 0 (D) 4 Q.40        4 / 6 / 1 1 x cot x tan x cot x tan dx equals- (A) 0 (B) ( 3 +1)/ 3 (C) (log 3)/ (D) None of these Q.41   1 0 1 dx x tan equals- (A) 4  – log 2 (B) 4  + log 2 (C) 4  – log 2 (D) 4  + log 2 Q.42    2 / 0 2 2 2 2 x sin b x cos a dx equals- (A) /ab (B) 2/ab (C) ab/ (D) /2 ab Q.43     4 / 0 x 2 sin 3 x cos x sin dx is equal to (A) log 2 (B) log 3 (C) 4 1 log 3 (D) 8 1 log 3
  • 5. Q.44  1 0 nx 2 e  dx is equal to- (A) 0 (B) 1/4 (C) 1/3 (D) 1/2 Q.45 x x x dx 2 2 2 0 4 9    z e je j is equal to- (A) /20 (B) /40 (C) /10 (D) /80 Q.46   2 / 0 xcot x dx is equal to- (A) 2  log 2 (B) – 2  log 2 (C) log 2 (D) –log 2 Q.47    1 0 x x 1 dx is equal to- (A) 3 2 2 (B) 3 2 4 (C) 2 2 8 (D) None of these Q.48      4 / 0 x tan 1 x tan 1 dx is equal to- (A) – 2 1 log 2 (B) 4 1 log 2 (C) 3 1 log 2 (D) None of these Q.49   2 / 0 x sin2 e sin 2x dx equals- (A) e (B) e + 1 (C) e – 1 (D) 2 e Q.50 If    3 / 0 x sin 4 3 x cos dx = k log          3 3 2 3 , then k is equal to- (A) 1/2 (B) 1/3 (C) 1/4 (D) 1/8 Property (P-3) of Definite integration Questions based on Q.51 If f(x) = x when x x when x 2 0 1 1 2 , ,     R S | T | , then f x ( ) 0 2 z dx equals- (A) 1 3 (4 2 – 1) (B) 1 3 (4 2 + 1) (C) 0 (D) does not exist Q.52 | | 3 1 0 1 x dx  z equals- (A) 5/6 (B) 5/3 (C) 10/3 (D) 5 Q.53   0 | x cos | dx equals - (A) 1 (B) 2 (C) 0 (D) –1 Q.54  e e / 1 | x log | dx = (A) e–1 – 1 (B) 2 (1–1/e) (C) 1 – 1/e (D) None of these Q.55   1 0 | x 2 sin | dx is equal to- (A) 0 (B) –1/ (C) 1/ (D) 2/ Q.56 If    1 1 | x 1 | dx is equal to- (A) –2 (B) 0 (C) 2 (D) 4 Q.57   3 3 dx | x | equals- (A) 0 (B) 9/2 (C) 6 (D) 9
  • 6. Property (P-4) of Definite integration Questions based on Q.58 The value of sin sin cos / x x x dx  z 0 2  is- (A)  /2 (B)  /4 (C)  (D) 2  Q.59 x x x dx sin cos 1 2 0  z  equals- (A) 0 (B)  /4 (C)  2/4 (D)  2/2 Q.60    2 / 0 x cot 1 dx equals- (A) 1 (B)  /4 (C) 1/2 (D)  /2 Q.61    2 / 0 4 4 x sin x cos x cos x sin x dx equals- (A)  2/8 (B)  2/16 (C)  2/4 (D) 0 Q.62  1 0 ) x ( f dx equals- (A)   1 0 dx ) x 1 ( f (B)   1 0 dx ) x ( f (C) 2  2 / 1 0 dx ) x ( f (D) None of these Q.63 Which of the following is correct ? (A)  a 0 dx ) x ( f = –   a 0 dx ) x a ( f (B)  a 0 dx ) x ( f = 2  2 / a 0 dx ) x ( f (C)  a 0 dx ) x ( f =   a 0 dx ) x a ( f (D)  a 0 dx ) x ( f = –   a 0 dx ) x a ( f Q.64    2 / 0 2 / 3 2 / 3 2 / 3 x cos x sin x sin dx equals- (A) /2 (B) /4 (C)  (D) 2 Q.65    2 / 0 x tan 1 x tan dx equals- (A)  (B) /3 (C) /4 (D) /2 Q.66    2 / 0 x cos x sin x cos dx equals- (A) 0 (B) /2 (C) /4 (D) /3 Q.67 The value of x x 1 0  z sin  dx is- (A) (B)/2 (C)/4 (D) 2 Q.68 f x dx a ( ) 0 z is equal to- (A)   a 0 dx ) x a ( f (B)   a 0 dx ) x a 2 ( f (C)   a 0 dx ) a x ( f (D)   a 0 dx ) x a ( f Q.69 logx x 1 2 0   z dx equals- (A)  (B) 0 (C) log 2 (D) log 2 Q.70    a 0 2 2 x a x dx equals (A) /2 (B) /3 (C) /4 (D)  Q.71   4 / 0 log(1 + tan )d = (A) 4  log 2 (B) 4  log 2 1 (C)  8 log 2 (D) 4  log 2 1
  • 7. Q.72     2 / 0 2 x cos x sin 2 x cos dx is equal to- (A) 2 1 (tan–1 2 + cot –1 2 )/ (B) 2 1 (tan–1 2 – cot –1 2 ) (C) 2 1 (tan–1 2 – cot –1 2 ) (D) None of these Property (P-5) of Definite integration Questions based on Q.73  z    / / ( cos ) 2 2 1 2 1 2x dx equals- (A) 0 (B) 2 (C) 1/2 (D) None of these Q.74 x x x dx 2 6 3 3 1 sin   z equals- (A) 4 (B) 2 (C) 0 (D) None of these Q.75              1 1 2 2 x x 1 x x 1 dx equals- (A) 1 (B) 0 (C) 2 (D) 2 Q.76 The value of the integral | | 1 2 2 2   z x dx is- (A) 0 (B) 4 (C) 2 (D) None of these Q.77 If f : R R and g :R  R are two continuous functions, then the value of the integral [ ( ) ( )] ( ) / / f x f x g x g x      z   2 2 bg dx is- (A)  (B) 1 (C) – 1 (D) 0 Q.78    a a 0 dx ) x ( f , if - (A) f(–x) = f (x) (B) f(a–x) = – f(x) (C)f (–x) = – f(x) (D) f(a+x) = – f(x) Q.79      2 / 2 / 3 3 ) x cos x (sin dx equals- (A) 0 (B) 1/3 (C) 4/3 (D) 2/3 Q.80      2 / 2 / x cos 1 dx equals- (A) 0 (B) 2 (C) 1 (D) 3 Q.81               2 / 2 / sin 2 sin 2 log d equals- (A) 0 (B) 1 (C) 2 (D) None of these Q.82       x cos 1 ) x sin 1 ( x 2 2 dx is - (A) 4 2  (B) zero (C) 2 (D) 2  Q.83     1 1 x x 1 e 1 e dx equals- (A) log (ex + 1) (B) log (ex – 1) (C) 1 (D) 0 Q.84   1 1 2 3 dx x cos x sin equals- (A) 0 (B) 1 (C) 1/2 (D)2 Q.85   1 1 4 17 dx x cos x is equal to - (A) –2 (B) 2 (C) 0 (D) 1 Q.86             1 1 2 1 x 1 x sin dx is equal to - (A) /4 (B) /2 (C)  (D) 0 Q.87      2 / 2 / 3 cos (1 + sin )2 dis equal to - (A) 8/5 (B) 5/8 (C) –8/5 (D) –5/8
  • 8. Q.88           1 1 x 1 x 1 log dx is equal to - (A)  (B) 1 (C) 0 (D) 2 Q.89   a a dx ) x (cos f x sin is equal to- (A) f(a) (B) – f(a) (C) 2 f(a) (D) 0 Q.90   1 1 11 sin x dx is equal to- (A) 10 11 . 8 9 . 6 7 . 4 5 . 2 3 (B) 10 11 . 8 9 . 6 7 . 4 5 . 2 3 . 2  (C) 1 (D) 0 Q.91 The value of dx ) x ( f a a   is equal to- (A) 2 dx ) x ( f a a   if f(x) is an odd function (B) 2 dx ) x ( f a 0  if f(x)is even function (C) 2 dx ) x ( f a 0  if f(x+ a) = f (a) (D) None of these Q.92      ) x 1 ( 2 sin x cos2 x dx is equal to- (A) 0 (B) 3 3    (C) 2– 3 (D) 4 7 – 2 3 Property (P-6, P-7) of Definite integration Questions based on Q.93 cos4 0 2 xdx  z equals- (A) 3/8 (B) 3/4 (C) 3/2 (D) 3 Q.94 sin cos 2 0 2     a b d  z equals- (A) 1 (B) 2 (C) /4 (D) 0 Q.95 1 2 0 400  z cos x dx  is equal to- (A) 400 2 (B) 800 2 (C) 0 (D) None of these Q.96 f x dx if a ( )  z 0 0 2 - (A) f (–x) = – f(x) (B) f (2a – x) = f(x) (C) f(–x) = f(x) (D) f(2a–x) = –f(x) Q.97 Which of the following is correct ? (A)  a 0 dx ) x ( f =   a 0 dx ) x a ( f (B)  a 2 0 dx ) x ( f =  a 0 dx ) x ( f (C)  a 0 dx ) x ( f =    a 0 dx ) x ( f (D) f x dx a b ( ) z = – f t dt b a ( ) z Property (P-8) of Definite integration Questions based on Q.98 x x x 3 1 2   z dx is equal to- (A) 2/1 (B) 3/4 (C) 1/2 (D) None of these Q.99      ( ) ( ) / / x x x   z 2 0 2 b g dx is equal to- (A)  /4 (B)  /2 (C)  (D) None of these
  • 9. Q.100 If f(x) = f(a+ b– x), then xf x dx a b ( ) z is equal to - (A) (a + b)  b a dx ) x ( f (B) 2 1 (a + b)  b a dx ) x ( f (C) (b – a)  b a dx ) x ( f (D) 2 1 (b – a)  b a dx ) x ( f Q.101     2 0 3 d | sin | , equals- (A) 0 (B) 3/8 (C) 8/3 (D)  Q.102     b a ) x b a ( f ) x ( f ) x ( f dx equals- (A) b – a (B) a + b (C) 2 1 (b – a) (D) 2 1 (a + b) Some important formulae Questions based on Q.103   2 / 0 dx x cos log equals- (A) (/2) log (1/2) (B) log 2 (C) –log 2 (D) 2log 2 Q.104   2 / 0 7 dx x cos x sin equals- (A) 1/7 (B) 1/8 (C) /16 (D) /14 Q.105      2 / 0 6 2 d cos sin equals- (A) –/16 (B) /16 (C) 5/256 (D) –5/256 Q.106 sin / 5 0 2 xdx  z equals- (A) 8/15 (B) 4/15 (C) 15 8  (D) 15 8 Q.107   2 / 0 logsin 2x dx equals- (A) (/2) log 2 (B) – (/2) log 2 (C) (/4) log 2 (D) – (/4) log 2 Q.108   3 0 3 x 3 x dx equals- (A) 3/16 (B) 27/8 (C) 3/32 (D) 9/8 Q.109   4 / 0 logsin 2x dx equals to - (A) (/4) log 2 (B) (/2) log 2 (C) – (/4) log 2 (D) –(/2) log 2 Q.110   0 log sin2 x dx is equal to - (A) 2log (1/2) (B) log 2 (C) /2 log( 1/2) (D) None of these Q.111   2 / 0 logsec x dx equals - (A) log 2 (B) (/2) log 2 (C) –log 2 (D) –(/2) log 2 Q.112  1 0 log sin        x 2 dx equals - (A) log 2 (B) –log 2 (C) log 2 (D) – log 2 Q.113   2 / 0 2 sin x cos5 x dx equals - (A) 16/105 (B) 8/105 (C) (16/105)  (D) (8/105) 
  • 10. Q.114   2 / 0 2 sin x cos2 x dx is equal to- (A) //16 (B)/8 (C) 1/8 (D)1/16 Q.115   2 / 0 3 sin x dx equals- (A)2/3 (B) 4/3 (C) 3/2 (D) 2/3 Q.116     2 / 2 / 3 cos x dx equals- (A) 0 (B) /2 (C) 3/2 (D) 4/3 Q.117   1 0 2 3 x 1 x dx equals- (A) 2/3 (B) 2/3 (C) 3/2 (D) None of these Q.118   1 0 ) x 1 ( x dx equals- (A) /4 (B) /8 (C) /2 (D) /3 Q.119     0 2 2 x 1 ) x 1 log( dx equals- (A) log 2 (B) – log 2 (C) /2 log 2 (D) –/2log 2 Q.120   1 0 2 / 3 2 2 ) x 1 ( x dx equals- (A) /32 (B) /16 (C) /8 (D) /4 Q.121   4 / 0 4 xdx 2 sin equals (A) 2/32 (B) 3/32 (C) /32 (D) 3/16 Q.122 If f (x) =  3 2 x x log t dt (x > 0), then f’ (x) is equal to- (A) (4x2–9x ) log x (B) (9 x2+4x) log x (C) (9x2–4x) log x (D) (x2+x) log x Q.123 The derivative of F(x) =  3 2 x x dt t log 1 (x > 0) is- (A) x log 3 1 – x log 2 1 (B) x log 3 1 (C) x log 3 x 3 2 (D) (log x)–1.x (x – 1) Summation of series by integration Questions based on Q.124 lim n 1 1 1 1 2 1 3 n n n n       F H G I K J ...... equals- (A) log 2 (B) log 4 (C) 0 (D) loge3 Q.125 lim n 1 1 2 2 1 2 2 3 3 2 3 3 2 3 3         L N M M O Q P P n n r r n n ..... .... equals- (A) (1/2) log 3 (B) (1/3) log 2 (C) 3 log 2 (D) (1/2) log 2 Q.126   n lim            n 6 1 ....... 2 n 1 1 n 1 is equal to- (A) log 4 (B) log 6 (C) log 8 (D) log 2 Q.127 lim n 1 1 2 1 1 2 2 2       L N M O Q P n n n n ..... equals- (A) 0 (B) – 1/2 (C) 1/2 (D) None of these Q.128 100 99 99 99 n n n ..... 2 1 lim      is equal to (A) 99 100 (B) 1 100 (C) 1 99 (D) 1 101 Q.129   n lim n 1    n 2 1 r 2 2 r n r equal to- (A) –1+ 2 (B) –1 + 5 (C) 1 + 5 (D) 1 + 2
  • 11. LEVEL # 2 Q.1   2 0 4 sin x cos6 x dx equals- (A) 3/256 (B) 3/128 (C) 3/64 (D) None of these Q.2 If    0 k xdx sin log ,then the value of    4 / 0 dx ) x tan 1 ( log is - (A) – 4 k (B) 4 k (C) – 8 k (D) 8 k Q.3   0 dx x sin log equals - (A) (–/2) log 2 (B) (/2) log 2 (C) –log 2 (D)log 2 Q.4 [ ( ) ( )] f x f a x dx a   z 0 equals- (A)  a 2 0 dx ) x ( f (B) 2  a 2 0 dx ) x ( f (C) 2  a 0 dx ) x ( f (D) None of these Q.5   1 0 2 x 1 x log dx equals- (A) –log (1/2) (B)log (1/2) (C) 2  log (1/2) (D) – 2  log (1/2) Q.6    2 / 3 1 | x sin x | dx equals- (A) (3/) + 1/2 (B) (3/) – 1 /2 (C) 1/(+1) (D) None of these Q.7 If I =   4 / 0 sin2 x dx and J =   4 / 0 cos2 x dx then I is equal to- (A) /4 – J (B) 2 J (C) J (D) J/2 Q.8   0 sin mx sin nx dx equals (m,n Z, m  n) (A) m – n (B) 0 (C) m + n (D) 1 Q.9 cos sin mx nx dx  z 0 0  , m,n  N (A) always (B) when (n – m) N (C) when (n – m) is even (D) when (n – m )is odd Q.10 cos cos / / 3 2 0 4 2    d z equals- (A) 16 3 (B) 2 16 3 (C) 2 8 3 (D) None of these Q.11 If f(x) = |x| + |x – 1|, then  2 0 dx ) x ( f equals- (A) 3 (B) 2 (C) 0 (D) –1 Q.12    5 log 0 x x x dx 3 e 1 e e is equal to (A) 3 + 2 (B) 4 –  (C) 2 +  (D) None of these Q.13  1 0 x2 e (x – )dx = 0 , then- (A) 1 < < 2 (B) < 0 (C) 0 < < 1 (D) = 0 Q.14 If I1 =  2 e e x log dx and I2 =  2 1 x x e dx, then- (A) I1 = I2 (B) I1 < I2 (C) I1 > I2 (D) None of these Q.15   0 log (1 – cos x) dx equals- (A) log 2 (B) –log 2 (C) (/2) log 2 (D) – (/2) log 2
  • 12. Q.16   0 log (1 + cos x)dx equals- (A) 2  log 2 (B) –log 2 (C) log 2 (D) – 2  log 2 Q.17   0 x sin x cos4 x dx is equal to- (A) 3/5 (B) 2/5 (C) /5 (D) None of these Q.18    2 / 0 x cos 2 dx is equal to- (A) 3 1 tan–1         3 1 (B) 2 3 tan–1         3 1 (C) 3 tan–1 ( 3 ) (D) 2 3 tan–1( 3 ) Q.19    0 x cos b a dx is equal to - (A) / 2 2 b a  (B) / 2 2 b a  (C) /ab (D) (a + b) Q.20           2 / 1 2 / 1 dx x 1 x 1 log x cos is equal to (A) 0 (B) 1/2 (C) –1/2 (D) None of these Q.21 If f (a – x) = f (x) and   2 / a 0 p dx ) x ( f , then  a 0 dx ) x ( f is equal to - (A) 2p (B) 0 (C) p (D) None of these Q.22   2 0 dx | x sin | = (A) 2 (B) 1 (C) 0 (D) 4 Q.23      2 sinqx) (cospx dx, where p and q are integers, is equal to - (A) – (B) 0 (C) 2 (D)  Q.24     5 1 |) x 1 | | 3 x (| dx is equal to- (A) 21 (B) 5/6 (C) 10 (D) 12 Q.25 The value of  which satisfy      2 / 2 sin dx x sin ,(  [0, 2]) are equal to- (A) 7/6 (B) 3/2 (C) /2 (D) all of these Q.26 If In =     0 1 n x x e dx then      0 1 n x dx x e = (A) In (B)  1 In (C) n n  I (D)``n In` Q.27    37 e 1 x ) nx sin(  dx is equal to- (A) 1 (B) 2 (C) e (D) 37 Q.28 The value of integral  1 0 x dx e 2 lies in the interval- (A) (0, 1) (B) (–1, 0) (C) (1, e) (D) None of these Q.29   n lim                 1 n 2 n 3 1 ... 4 n 4 1 1 n 4 1 n 2 1 2 2 2 is equal to- (A) /4 (B) /3 (C)/2 (D)/6 Q.30 If x dx x a x b x c 4 2 2 2 2 2 2 0 ( )( )( )     z = ) a c )( c b )( b a ( 2     then     0 2 2 2 ) 9 x )( 4 x ( dx x = (A) 60  (B) 20  (C) 40  (D) 80 
  • 13. Q.31 Let I1 =   2 1 2 x 1 dx and I2 =  2 1 x dx , then- (A) I1 = I2 (B) I2 > I1 (C) I1 > I2 (D) I1 > 2 I2 Q.32 If [ ] denotes the greatest integer function, then  2 / 3 0 2 dx ] x [ is equal to- (A) 2 – 2 (B) 2 + 2 (C) 1– 2 (D) 1 + 2 Q.33   n lim n nn l n ! / F H GI K J is equal to (A) e (B) 1/e (C) e (D) None of these Q.34 If [x] denotes the greatest integer less than or equal to x, then  2 0 2 dx ] x [ x is equal to (A) 5/3 (B) 7/3 (C) 8/3 (D) 4/3 Q.35 If f(x) is a function of x, then     2 / 2 / dx ) x (cos f is equal to (A) 0 (B)   2 / 0 dx ) x (cos f (C) 4   2 / 0 dx ) x (cos f (D)   2 / 0 dx ) x (sin f 2 Q.36 If   4 1 ) x ( f dx = 4 and   4 2 )] x ( f 3 [ dx = 7, then  1 2 ) x ( f dx is equal to- (A) 2 (B) –2 (C) –5 (D) None of these Q.37     (x3 + x cosx + tan5 x + 2) dx is equal to (A)  (B) 2 (C) 4 (D) 0 Q.38     0 3 2 ) 1 x x ( dx = (A) 3/8 (B) 1/8 (C) –3/8 (D) None of these Q.39    1 0 x ) e 1 ( 2 dx is equal to (A) –1 (B) 2 (C) 1 + e–1 (D) None of these Q.40         1 0 1 dx x 1 cot x 1 equals (A)   4 / 0 x cosec x dx (B)   2 / 0 x 2 1 cosec x dx (C)   2 / 0 x cosec x dx (D)   4 / 0 x 2 1 cosec x dx Q.41    2 / 0 | x cos x sin | dx equals (A) 0 (B) 2 –1 (C) 2( 2 –1) (D) 2( 2 +1) Q.42   a 0 2 2 4 x a x dx = (A) /32 (B) 6 a 32  (C) 6 a 16  (D) 6 a 8  Q.43 1 sin x 2 dx 0 2 + z ( / )  equals (A) 0 (B) 2 (C) 8 (D) 4 Q.44   1 1 | x | dx e equals (A) 2(e – 1) (B) 2(e + 1) (C) 0 (D) None of these
  • 14. Q.45   1 0 2 / 3 2 3 ) 1 x ( dx x = (A) ( 2 – 1)2 (B) ( 2 –1) 2 2 (C) 2 –1 2 (D) None of these Q.46    0 x cos x sec x tan x dx equals- (A) 2/4 (B) 2/2 (C) 32/2 (D) 2/3 Q.47   1 0 | 1 x 3 | dx equals- (A) 5/6 (B) 5/3 (C) 10/3 (D) 5 Q.48 If   2 / 0 sin 4 x cos2 x dx =  32 tthen   2 / 0 cos 4 x sin2 x dx equals (A)h  /32 (B) 3  /32 (C)  / 2 (D) None of these Q.49  b a dx x | x | , a < b is equal to (A) b – a (B) a – b (C) b + a (D) |b| – |a| Q.50   2 / 0 x sin x cos 1 x cos   dx = (A)  4 + 1 2 log2 (B)  4 + log 2 (C)  4 – 1 2 log 2 (D)  4 – log 2 Q.51           1 1 x 1 x 1 log dx is equal to (A) 2 (B) 1 (C)  (D) 0 Q.52     0 2 2 2 2 2 ) b x )( a x ( dx x = (A)  2(a – b) (B)  2(b – a) (C)  a+b (D)  2(a+b) Q.53    2 2 3 dx ) c bx ax ( , value depends upon: (A) Value of a (B) Value of b (C) Value of c (D) Value of a and b Q.54   2 / 0 x dx x sin e = (A) 1 2 (e/2 – 1) (B) 1 2 (e/2 + 1) (C) 1 2 (1 – e/2) (D) 2 (e/2 + 1) Q.55  2 / 1 0 |sinx| dx is equal to (A) 0 (B)  (C) –  (D) 1/ Q.56     2 / 2 / sin | x | dx is equal to (A) 2 (B) 1 (C) 0 (D) None of these Q.57            2 1 0 1 x 1 x 2 sin dx is equal to (A)  2 + log 2 (B)  2 – log 2 (C)  4 + log 2 (D)  4 – log 2 Q.58   2 / 0 x 2 cos ) x log(cot x 8 sin dx is equal to (A) 0 (B) /4 (C) /2 (D) None of these
  • 15. Q.59 Let I1 =   0 x log sin x dx, I2 =   0 log sin x dx, then (A) I1= I2 (B) I1 = I2 (C) 2I1= I2 (D) I1= I2 Q.60 If I1 =   3 0 2 ) x (cos f dx and I2 =   0 2 ) x (cos f dx, then (A) I1= I2 (B) I1 = 3I2 (C) I1 = 5I2 (D) 3 I1 = I2 Q.61 Assuming that a,b,c are non zero real numbers are such:     3 0 2 dx ) c bx 2 ax 3 (    3 1 2 dx ) c bx 2 ax 3 ( then (A) a + b + c = 3 (B) a + b + c = 1 (C) a + b + c = 0 (D) a + b + c = 2 Q.62 If   ( ) ( ) a x x   , then x x dx a ( ) 0 z is equal to (A) a  a 0 dx ) x ( (B) 2 1 a  a 0 dx ) x ( (C) 2a  a 0 dx ) x ( (D) None of these
  • 16. LEVEL # 3 Q.1 If f(x) =  2 2 x x / 1 dt t cos then f '(1) = (A) cos1 (B) 2 cos1 (C) 4 cos1 (D) None of these Q.2 If In =   4 / 0 n tan x dx, N n , then In + 2 + In equals- (A) n 1 (B) 1 n 1  (C) 1 n 1  (D) 2 n 1  Q.3 If I1 =   1 x 2 t 1 1 dt and I2   x / 1 1 2 t 1 1 dt for x > 0, then- (A) I1 = I2 (B) I1 > I2 (C) I2 > I1 (D) None of these Q.4 If [x] stands for the greatest integer function, the value of     10 4 2 2 2 ] x [ ] 196 x 28 x [ ] x [ dx is (A) 0 (B) 1 (C) 3 (D) None of these Q.5 The expression   n 0 n 0 dx } x { dx ] x [ , where [x] and {x} are integral and fractional parts of x and N n  is equal to- (A) 1 n 1  (B) n 1 (C) n (D) n – 1 Q.6 The value of  ] x [ 0 ] x [ x 2 2 dx is (A) [x] log 2 (B) 2 log ] x [ (C) 2 log ] x [ 2 1 (D) none of these Q.7 The value of   3 / 16 0 | x sin | dx is (A) 21 (B) 21/2 (C) 10 (D) 11 Q.8 If   n 0 f (cos2 x) dx = k   0 f (cos2 x) dx, then the value of k is- (A) 1 (B) n (C) n/2 (D) none of these Q.9 The value of the integral  100 0 sin (x – [x])  dx is- (A)100/  (B)200/  (C)100  (D) 200  Q.10 The value of the integral   1 0 n ) x 1 ( x dx is- (A) 2 n 1 1 n 1    (B) ) 2 n ( ) 1 n ( 1   (C) 1 n 1 2 n 1    (D) (B) and (C) Q.11 The greater value of F(x) =  x 1 |t| dt on the interval [–1/2, 1/2] is- (A) 8 3 (B) 2 1 (C) 8 3  (D) 2 1  Q.12 If  ) x ( f dx = F (x), then  ) x ( f x 2 3 dx equals (A)     2 2 2 2 dx ) x ( F ) x ( F x 2 1 (B)     dx ) x ( F ) x ( F x 2 1 2 2 2 (C)         dx ) x ( F 2 1 ) x ( F x 2 1 2 2 (D) none of these
  • 17. Q.13 Let f be an odd function then    1 1 dx ) x cos . ) x ( f | x (| is equal to– (A) 0 (B) 1 (C) 2 (D) None of these Q.14 The value of   2 / 0 log         x cos 3 4 x sin 3 4 dx is- (A) 2 (B) 3/4 (C) 0 (D) None of these Q.15 If I1   1 0 x2 2 dx,I2   1 0 x3 2 dx,I3   2 1 x2 2 dx, and I4   2 1 x3 2 dx, then- (A) I1 > I2 (B) I2 > I1 (C) I4 > I3. (D) (A) and (C) Q.16 For any integer n, the integral   0 3 x cos cos e 2 (2n + 1) x dx has the value- (A)  (B) 1 (C) 0 (D)none of these Q.17 If f (x) and g(x) are continuous functions satisfying f(x) = f(a – x) and g (x) + g(a – x) = 2, then  a 0 ) x ( g ) x ( f dx is equal to- (A)  a 0 dx ) x ( g (B)  a 0 dx ) x ( f (C) 0 (D) none of these Q.18 If I =   2 0 sin2 x dx, then (A) I    0 2 dx x sin 2 (B) I    2 / 0 2 dx x sin 4 (C) I    2 0 2 dx x cos (D) (A) and (B) Q.19 The value of  x sin 0 2 sin–1 t dt +  x cos 0 2 cos–1 t dt is- (A) 2  (B) 1 (C) 4  (D) None of these Q.20 If for every integer n,  1 n ni f(x) dx = n2, then the value of  4 2 f(x) dx is- (A) 16 (B) 14 (C) 19 (D) none of these Q. 21 If an =   2 / 0 2 x sin nx sin dx then a2 – a1, a3 – a2, a4– a3 are in- (A) A.P. (B) G.P. (C) H.P. (D)A.G.P. Q.22 The value of the integral    3 / 1 3 / 1 4 4 x 1 x cos–1 2 x 1 x 2  dx (A) 0 (B) 3  + log 1 3 1 3   (C) 3 1 + 2  log 1 3 1 3   (D) None of these Q.23 If f is a continuous periodic function with period T, then  T a a ) x ( f dx (A) depends upon a (B) is independent of T (C) independent of a (D) None of these Q.24   2 0 2 x cos dx = (A) 1/ (B) 2/ (C) 3/ (D) 4/
  • 18. Q.25 The value of the integral     t n 0 dx |) x sin | | x cos (| is (A) 0 (B) 2 + sin t + cost (C) cos 1 (D) 4n+ sint – cost + 1 Q.26 Given     2 / 0 x cos x sin 1 dx = n2 then the value of the definite integral     2 / 0 x cos x sin 1 x sin dx = (A) 2 1 n2 (B) 2  – n2 (C) 4  – 2 1 n2 (D) 2  +n2 Q.27   x tan e / 1 2 t 1 t dt +   x cos e / 1 2 ) t 1 ( t dt is equal to (A) 1 (B) –1 (C) 0 (D) None of these Q.28 Given  2 1 x2 e dx = a, then the value of  4 e e ) x ( n  dx is (A) e4 – e (B) e4 – a (C) 2e4 – a` (D) 2e4 – e – a Q.29 For x  R and a continuous function f, let I1 =   t cos 1 t sin 2 2 f x {x (2 – x)} dx and I2 =   t cos 1 t sin 2 2 f {x(2 –x) } dx. Then I1/I2 is (A) 0 (B) 1 (C) 2 (D) 3 Assertion & Reason (A) both S1 and S2 are true and S2 is the correct reason of S1 (B) both S1 and S2 are true and S2 is not the correct reason of S1 (C) S1 is true and S2 is false (D) S1 is false and S2 is true Q.30 Assertion (S1) 99 – e – e 100 dx e 2 / 1 5 . 100 0 ]) x [ – x (   Reason (S2) : x – [x] is a periodic function of period 1. Therefore. dx e dx e 100 dx e 5 . 100 100 ] x [ – x 1 0 ] x [ – x 5 . 100 0 ] x [ – x      Q.31 Assertion (S1)       2 / 2 / – 2 0 dx ) x 1 x sin(log)(– Reason (S2) : 0 dx ) x ( f a a –   Q.32 Assertion (S1) : If f(x) =          2 x 1 , x 1 x 0 , x2 Then ) 1 – 2 ( 3 4 dx ) x ( f 2 0   . Reason (S2) : f(x) is continuous in [0, 2]. Q.33 Assertion (S1) :      2 / 0 6 6 16 5 dx ) x cos x (sin Reason (S2) : sin6 x + cos6x is periodic with period /2 Q.34 Assertion (S1) : 4 dx x | x | 2 2 –   Reason (S2) : x | x | =         0 x if 1 0 x if undefined 0 x if 1 –
  • 19. Q.35 Assertion (S1) : Let F(x) =   3 2 x x e ) 0 x ( tdt log Then F' (x) = (9x2 – 4x) log x. Reason (S2) : If F(x) =   ) x ( ) x ( u , dt ) t ( g then F'(x) = g((x))' (x) – g (u(x)).u'(x). Q.36 Assertion (S1) :    8 2 2 2 2 ] x [ ] 100 x 20 – x [ dx ] x [ = 3, where    = G.IF. . Reason (S2) :     b a b a dx ) x – b a ( f dx ) x ( f . Passage : - A function f : R  R satisfies the equation f(x + y) = f(x) + f(y) x, y R and is continuous through out the domain. If I1 + I2 + ..... + I5 = 450 when In = n  n 0 dx ) x ( f Q.37 f(x) = (A) 4x (B) logex (C) e2x (D) None of these Q.38 Area bounded by f(x), x-axis and x = 1 is (A) 2 unit2 (B) 1 unit2 (C) 4 unit2 (D) None of these Q.39 Interval in which f(x) increases (A) (0, ) (B) (–, 0) (C) (–, ) (D) None of these
  • 20. LEVEL # 4 [PREVIOUSLY ASKED QUESTIONS IN AIEEE & IIT] Section - A Q.1 If In =   4 / 0 n dx x tan then the value of n(In–1 + In+1 ) is- (A) 1 (B)/2 (C)/4 (D) n Q.2       x cos 1 ) x sin 1 ( x 2 2 = (A)  (B)2 /4 (C)/8 (D)2 /8 Q.3    10 dx | x sin | = (A) 9 (B) 10 (C)18 (D)20 Q.4  2 0 2 ] x [ dx = (A) 2 – 1 (B) 2 ( 2 –1) (C) 2 (D) None of these Q.5   n Lim 1 P P P P P n n ....... 3 2 1      equals- (A) 1 (B) 1 P 1  (C) 2 P 1  (D) P2 Q.6 Let dx d F(x) =         x e x sin , x > 0. If  4 1 x sin 3 e x 3 dx = F(k) – F(1), then one of the possible val- ues of k, is- (A) 64 (B) 15 (C) 16 (D) 63 Q.7 If f(a + b – x) = f(x), then  b a dx ) x ( f x is equal to- (A) 2 b a     b a dx ) x b a ( f (B) 2 b a    b a dx ) x b ( f (C) 2 b a   b a dx ) x ( f (D) 2 a b   b a dx ) x ( f Q.8 The value of the integral I =   1 0 n dx ) x 1 ( x is (C) 2 n 1  (D) 1 n 1  – 2 n 1  Q.9 The value of 0 x lim  x sin x dt t sec 2 x 0 2  is- (A) 0 (B) 3 (C) 2 (D) 1 Q.10   n lim 5 4 4 4 n n ..... 3 2 1       n lim 5 3 3 3 n n ..... 3 2 1     is equal to- (A) 1/5 (B) 1/30 (C) zero (D) 1/4 Q.11 If f(y) = ey , g(y) = y; y > 0 and F(t) =   t 0 dy ) y ( g ) y t ( f , then (A) F(t) = t e–t (B) F(t) = 1 – e–1 (1+ t) (C) F(t) = et – (1 + t) (D) F(t) = t et Q.12 Let f(x) be a function satisfying f'(x) = f(x) with f(0) = 1 and g(x) be a function that satisfies
  • 21. f(x) + g(x) = x2 . Then the value of the integral  1 0 dx ) x ( g ) x ( f , is (A) e + 2 e2 + 2 5 (B) e – 2 e2 – 2 5 (C) e + 2 e2 – 2 3 (D) e – 2 e2 – 2 3 Q.13   n lim   n 1 r n r e n 1 is- (A) e (B) e – 1 (C) 1 – e (D) e + 1 Q.14 The value of    3 2 2 dx x 1 is- (A) 28/3 (B) 14/3 (C) 7/3 (D) 1/3 Q.15 The value of I =     2 / 0 2 x 2 sin 1 ) x cos x (sin dx is- (A) 0 (B) 1 (C) 2 (D) 3 Q.16 If   0 dx ) x (sin f x = A A   2 / 0 dx ) x (sin f , then A is- Q.17 If f(x) = x x e 1 e  , I1 =    dx x 1 x g x ) a ( f ) a ( f    and I2 =    dx x 1 x g ) a ( f ) a ( f    , then the value of 1 2 I I is- (A) 2 (B) – 3 (C) – 1 (D) 1 Q.18   n Lim          1 sec n 1 ..... n 4 sec n 2 n 1 sec n 1 2 2 2 2 2 2 2 equals - (A) 2 1 sec 1 (B) 2 1 cosec 1 (C) tan 1 (D) 2 1 tan 1 Q.19 If I1 =  1 0 x2 2 dx, I2 =  1 0 x3 2 dx, I3 =  2 1 x2 2 dx and I4 =  2 1 x3 2 dx then - (A) I2 > I1 (B) I1 > I2 (C) I3 = I4 (D) I3 > I4 Q.20 Let f : R  R be a differentiable function having f(2) = 6, f (2) =       48 1 . Then 2 x Lt    ) x ( f 6 3 2 x t 4 dt equals - (A) 24 (B) 36 (C) 12 (D) 18 Q.21 The value of      x 2 a 1 x cos dx, a > 0, is - (A) a (B) 2  (C) a  (D)2 Q.22 The value of the integral,    6 3 x x 9 x dx is – (A) 2 3 (B) 2 (C) 1 (D) 2 1 Q.23      2 / 2 / 3 [(x + )3 + cos2(x + 3)] dx is equal to – (A) (4/32) + (/2) (B) /2 (C) (/4) – 1 (D) 4/32 Q.24   0 x f(sin x) dx is equal to– (A)    0 f(sin x) dx (B) 2    2 / 0 f(sin x) dx (C)    2 / 0 f(cos x) dx (D)    0 f(cos x) dx Q.25 The value of  a 1 [x] f' (x) dx, a > 1, where [x]
  • 22. denotesthe greatest integer not exceeding x is– (A) [a] f(a) – {f(1) + f(2) + ... + f([a])} (B) [a] f([a]) – {f(1) + f(2) + ... + f(a)} (C) a f([a]) – {f(1) + f(2) + ... + f(a)} (D) a f(a) – {f(1) + f(2) + ... + f([a])} Q.26 Let F(x) = f(x) + f x 1       , where f x t t dt x ( ) log    1 1 . Then F(e) equals ( A ) 1 2 (B) 0 (C) 1 (D) 2 Q.27 The solution for x of the equation     x 2 2 12 1 t t dt is (A) 2 (B)  (C) 3 2 / (D) 2 2 Q.28 Let I =  1 0 x x sin dx andJ =  1 0 x x cos dx. Then which one of the following is true ? (A) I < 3 2 and J < 2 (B) I < 3 2 and J > 2 (C) I > 3 2 and J < 2 (D) I > 3 2 and J > 2 Q.29   0 ] x [cot dx where [.] denotes the greatest integer function, is equal to (A) 2  (B) 1 (C) –1 (D) 2 –  Section - B Q.1 The value of 0 2 /  dx x 1 3  tan is (A) 0 (B) 1 (C) /2 (D) /4 Q.2 The value of   / / 4 3 4    1 sin d is ...... (A) ( 2 –1) (B)  ( 2 +1) (C)  ( 2 – 2) (D) None Q.3 2 3  x x x ( ) 5   dx = (A) 1/2 (B) 1/3 (C) 1/5 (D) None Q.4 If f (x) = A sin (x/2) + B, f' 1 2       = 2 and 0 1  f(x) dx = 2A  , then the constants A and B are - (A) /2 and /2 (B) 2/and 3 (C) 0 and – 4/ (D) 4/and 0 Q.5 The value of    2 dx ] x sin 2 [ , where [ ] represents the greatest integer function is - (A) – 3 5 (B) –  (C) 3 5 (D) – 2 Q.6 The function L (x) =  x 1 t dt satisfies the equation (A) L(x + y) = L(x) + L(y) (B) L         y x = L(x) + L(y) (C) L(xy) = L(x) + L(y) (D) None of these
  • 23. Q.7 If for a non- zero x, a f(x) + b f       x 1 = x 1 – 5, where a b, then  2 1 dx ) x ( f = (A) 2 2 b a 1          2 b 7 a 5 2 log a (B) 2 2 b a 1          2 b 7 a 5 2 log a (C) – 2 2 b a 1          2 b 7 a 5 2 log a (D) None of these Q.8 Let dx d F (x) = x e x sin , x > 0. If  4 1 2 x sin x e 2 dx = F(K) – F (1), then one of the possible values of K is- (A) 2 (B) 4 (C) 8 (D) 16 Q.9 If g (x) = 0 x zcos4 t dt, then g (x + ) equals - (A) g (x) + g() (B) g (x) – g() (C) g (x) g () (D) g(x)/g() Q.10 Let f be a positive function, let I1 = 1  k k x. f [x (1 – x)] dx & I2 = 1  k k f [x (1 – x)] dx, where (2k–1) > 0, then I I 1 2 is (A) 2 (B) k (C) 1/2 (D) 1 Q.11 If 0 x  f(t) dt = x + x 1  tf (t) dt, then the value of f (1) is- (A) 1/2 (B) 0 (C) 1 (D) – 1/2 Q.12     1 0 2 1 ) x x 1 ( tan dx = (A) log 2 (B) log 2 1 (C)  log 2 (D) 2  log 2 1 Q.13 For n > 0    2 0 n 2 n 2 n 2 x cos x sin x sin x dx = (A) 2 (B)  (C) 2 (D) 3 Q.14 Let f(x) = x – [x], for every real number x, where [x] is the integral part of x. Then   1 1 dx ) x ( f is- (A) 1 (B) 2 (C) 0 (D) 2 1 Q.15     4 / 3 4 / x cos 1 dx is equal to- (A) 2 (B) – 2 (C) 2 1 (D) – 2 1 Q.16 If for a real number y, [y] is the greatest integer less than or equal to y, then the value of the integral   / / 2 3 2 z[2 sin x] dx is (A) –  (B) 0 (C) – 2 (D) /2 Q.17 The value of the integral dx x x log 2 e 1 e e   is- (A) 2 3 (B) 2 5 (C) 3 (D) 5 Q.18 If f(x) =       otherwise ; 2 2 | x | ; x sin e x cos Then   3 2 dx ) x ( f = (A) 0 (B) 1 (C) 2 (D) 3 Q.19 Let f(x) =  ) 2 – x )( 1 – x ( ex dx. Then f decreases in the interval (A) (–,–2) (B) (–2, –1) (C) (1, 2) (D) (2, +)
  • 24. Q.20 Let f : (0 , )  R and F (x2 ) =  2 x 0 dt ) t ( f . If F(x2 ) = x2 (1+ x), then f(4) equals- (A) 4 5 (B) 7 (C) 4 (D) 2 Q.21 The integral                    2 1 2 1 x 1 x 1 n ] x [  dx equals- (A) – 1/2 (B) 0 (C) 1 (D) 2 n(1/2) Q.22 Let T > 0 be a fixed real number. Suppose f is a continuous function such that for all x  R, f(x+T) = f(x). If I =  T 0 dx ) x ( f then the value of   T 3 3 3 dx ) x 2 ( f is- (A) – 3/2 I (B) 2I (C) 3I (D) 6I Q.23 Let f(x) =   x 1 2 t 2 dt. Then the real roots of the equation x2 – f(x) = 0 are- (A) ± 1 (B) ± 1/ 2 (C) ± 2 1 (D) 0 and 1 Q.24 If f(x) = dt e 1 x x t – 2 2 2   . Then f(x) increase in (A) (–2, 2) (B) No value of x (C) (0, ) (D) (–, 0) Q.25 If  2 t 0 dx ) x ( f x = 5 2 t5 for t > 0, then f(4/25) is- (A) – 5 2 (B) 0 (C) 5 2 (D) 1 Q.26    1 0 x 1 x 1 dx equals to- (A) 2  + 1 (B) 2  – 1 (C) 1 (D)  Q.27        0 2 2 3 dx )] 1 x ( cos ) 1 x ( 3 x 3 x 3 x [ = (A) 4 (B) 0 (C) –1 (D) 1 Q.28    1 x sin 2 x sin 1 dt ) t ( f t 2 x 0    , then f         3 1 is- (A) 3 (B) 3 1 (C) 1 (D) 3 Q.29   2 / 0 (sinx)cosx (cos x.cotx – log(sinx)sinx)dx (A) 2 (B) 1 (C) 3 (D) 4 Q.30 4 x lim   16 x dt ) t ( f 2 2 x sec 2 2    equals- (A)  8 f(2) (B)  2 f(2) (C)  2 f       2 1 (D) 4f(2) Q.31 Match the integrals in Column I with the values in Column II and indicate your answer by darkening the appropriate bubbles in the 4 × 4 matrix given in the ORS Column I Column II (A)    1 1 2 x 1 dx (P) 2 1 log       3 2 (B)   1 0 2 x 1 dx (Q) 2log       3 2 (C)   3 2 2 x 1 dx (R) 3  (D)   2 1 2 1 x x dx (S) 2 
  • 25. LEVEL # 2 ANSWER KEY LEVEL # 1 LEVEL # 3 Ques. 1 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17 18 19 20 Ans. C C A C D B B B B D C A B C D C B D C C Ques. 21 22 23 24 25 26 27 28 29 30 31 32 33 34 35 36 37 38 39 Ans. C D C D D C A D B D C D B B A A A A C Q.No. 1 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17 18 19 20 Ans. C C A A C A D C C C D C B D D B D A B B Q.No. 21 22 23 24 25 26 27 28 29 30 31 32 33 34 35 36 37 38 39 40 Ans. A C B B D A A C D A C C A C A B B A B C Q.No. 41 42 43 44 45 46 47 48 49 50 51 52 53 54 55 56 57 58 59 60 Ans. A D C C C A B A C C A A B B D C D B C B Q.No. 61 62 63 64 65 66 67 68 69 70 71 72 73 74 75 76 77 78 79 80 Ans. B A C B C C A D B C C B B C B B D C C B Q.No. 81 82 83 84 85 86 87 88 89 90 91 92 93 94 95 96 97 98 99 100 Ans. A C D A C D A C D D B A B D B D D C A B Q.No. 101 102 103 104 105 106 107 108 109 110 111 112 113 114 115 116 117 118 119 120 Ans. C C A B C A B B C A B D B A A D B B A A Q.No. 121 122 123 124 125 126 127 128 129 Ans. B C D D B B B B B Q.No. 1 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17 18 19 20 Ans. B C C C C A A B C B A B C A B B C B A A Q.No. 21 22 23 24 25 26 27 28 29 30 31 32 33 34 35 36 37 38 39 40 Ans. A D C D D C B C D A B A B B D C C A D B Q.No. 41 42 43 44 45 46 47 48 49 50 51 52 53 54 55 56 57 58 59 60 Ans. C B C A B A A A D C D D C B D A B A C B Q.No. 61 62 Ans. C B
  • 26. LEVEL # 4 Section - A Section - B Qus. 1 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17 18 19 20 Ans. A A C A B A C D D A C D B A C B A D B D Qus. 21 22 23 24 25 26 27 28 29 Ans. B A B C A A A A D (31) A  S; B  S ; C  P; D R Qus. 1 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17 18 19 20 Ans. D A A D A C B D A C A A A A A C B C C C Qus. 21 22 23 24 25 26 27 28 29 30 Ans. A C A A C B A A B A