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Worksheets

BC Unit 6 Test Review

Total questions: 78

Worksheet time: 4hrs 32mins

Name
Class
Date
1.
a)
A
b)
B
c)
C
d)
E
2.
a)
A
b)
B
c)
C
d)
D
3.
a)
B
b)
C
c)
D
d)
E
4.
a)
A
b)
B
c)
D
d)
E
5.
a)
A
b)
C
c)
D
d)
E
6.
a)
A
b)
B
c)
C
d)
D
7.
a)
B
b)
C
c)
D
d)
E
8.
a)
A
b)
B
c)
C
d)
E
9.
Find the antiderivative of
x2
a)
(1/3)x3+C
b)
x3
c)
(1/3)x3
d)
2x
10.
Find the antiderivative of
4x-7
a)
4 +C
b)
2x2-7x+C
c)
x2-7x + C
d)
8x+ C
11.
What is an antiderivative?
a)
The opposite of a derivative
b)
The same as a derivative
c)
A second derivative
d)
It always represents velocity.
12.
What does C represent in an antiderivative?
a)
A variable
b)
A constant
c)
None of these
d)
Unknown
13.
Find the antiderivative of
(1/3)x3-5x
a)
(1/12)x4-(5/2)x2+C
b)
(1/4)x4-(1/2)x2+C
c)
(1/12)x3-(5)x2+C
d)
(12)x4-(5)x2+C
14.
∫(4 - 18x)dx
a)
F(x) = -18
b)
F(x) = 4x - 9x2
c)
F(x) = 4x - 9x+ C
d)
F(x) = (4 - 18x)2 /2 + C
15.
INTEGRATE
a)
A
b)
B
c)
C
d)
D
16.
∫ 6 x (x2 +1 )2 dx
a)
( x2 + 1)3 + C
b)
3 ( x2 + 1)3 + C
c)
( x2 + 1)1 + C
d)
6 ( x2 + 1)3 + C
17.

∫ 2x cos(x2) dx

a)

sin(x2) + C

b)

2 sin ( 2x ) + C

c)

(1/2) sin(x2) + C

d)

4 cos(2x ) + C

18.
a)
ln(2x2+6) + C
b)
ln(2x2+6)(4x) + C
c)
1/(2x2+6) + C
d)
1/(2x2+6)+ C
19.
What should be used for u in the integral?
a)
no u needed
b)
4t2
c)
t3
d)
1/4t2
20.

What should be assigned to u in the integral?

a)

2x2

b)

sin (2x2)

c)

5x

d)

no u needed

21.
∫ 2 x (x2- 3)(1/2) dx
a)
(x2- 3)(3/2)+C
b)
(3/2)(x2- 3)(3/2)+C
c)
(2/3)(x2- 3)(3/2)+C
d)
(2/3)(x2- 3)(-1/2)+C
22.
∫ x (x2 + 7 )(1/3) dx 
a)
(3/4) ( x2+ 7 )(4/3) + C
b)
(3/8) ( x2+ 7 )(4/3) + C 
c)
 ( x2+ 7 )(4/3) + C 
d)
(3/2) ( x2+ 7 )(4/3) + C 
23.
∫ g ' ( x ) f (u) dx,    u = g ( x )
a)
∫ f ( u ) du
b)
g ( x ) + C 
c)
( 1/ g ( x ) ) g ( x)4 + C 
d)
cannot be determined
24.
Solve for u-substitution: ∫x(x²-2)15 dx
a)
((x²-2)¹⁶)/32 + C
b)
(x²-2)¹⁶ + C
c)
(x³-3)¹⁵ + C
25.

What is the choice of u for ∫ ex(1+ex)(1/2) dx?

a)

ex

b)

1+ex

c)

(1+ex)(1/2)

d)

(ex)(1/2)

26.
What should "du" equal in this integral?
a)
tanxsecx dx
b)
secx dx
c)
sec2x dx
d)
tanx dx
27.
What should "u" equal in this integral?
a)
x
b)
(lnx)/x
c)
lnx
d)
sin(lnx)
28.

What is the Integration by Parts Formula?

a)
b)
c)
d)
29.

What would you choose for your u here if you used integration by parts?

a)

t

b)

3t

c)

e2t

d)

et

e)

don't use IBP, let u = 2t

30.

Evaluate the indefinite integral using integration by parts. 
 3x e2x dx \int3x\ e^{2x}\ dx\   

a)

 xe2x2+e2x4+C-\frac{xe^{2x}}{2}+\frac{e^{2x}}{4}+C  

b)

 3xe2x23e2x4+C\frac{3xe^{2x}}{2}-\frac{3e^{2x}}{4}+C  

c)

 xe2x+(1x2)2+Cxe^{-2x}+\frac{\left(1-x^2\right)^{ }}{2}+C  

d)

 xe2x2+lne2x4+C-\frac{xe^{2x}}{2}+\frac{\ln e^{2x}}{4}+C  

31.

Evaluate the indefinite integral using integration by parts. 
 t2lnt dt \int t^2\ln t\ dt\   

a)

 2t2ln2tt24+C\frac{2t^2\ln2t-t^2}{4}+C  

b)

 t3 ln33t39+C\frac{t^3\ \ln3}{3}-\frac{t^3}{9}+C  

c)

 et2t+2+C\frac{e^t}{2t+2}+C  

d)

 2t14e2t+C\frac{-2t-1}{4e^{2t}}+C  

32.

Evaluate the indefinite integral using integration by parts. u and  v' are provided.
 x4 lnx dx ;  u=lnx, v =x4\int x^{4\ }\ln x\ dx\ ;\ \ u=\ln x,\ v\ '=x^4  

a)

 ex4x+4+C\frac{e^x}{4x+4}+C  

b)

 2x32ln4x34x329+C\frac{2x^{\frac{3}{2}}\ln4x}{3}-\frac{4x^{\frac{3}{2}}}{9}+C  

c)

 (4x21)e4x232+C\frac{\left(4x^2-1\right)\cdot e^{4x^2}}{32}+C  

d)

 x5lnx5x525+C\frac{x^5\ln x}{5}-\frac{x^5}{25}+C  

33.

Evaluate the indefinite integral using integration by parts. u and v ' are provided.
 tsint dt ;   u=t, v =sint \int t\sin t\ dt\ ;\ \ \ u=t,\ v\ '=\sin t\   

a)

 tcos1t(1t2)12+Ct\cos^{-1}t-\left(1-t^2\right)^{\frac{1}{2}}+C  

b)

 tcost+sint+C-t\cos t+\sin t+C  

c)

 tsin1t+(1t2)12+Ct\sin^{-1}t+\left(1-t^2\right)^{\frac{1}{2}}+C  

d)

 tsint+cost+Ct\sin t+\cos t+C  

34.

What would you choose for your u here if you used integration by parts?

a)

x

b)

sin(x)

c)

cos(x)

d)

ex

35.

What method would you use here?

a)

antiderivative rules.

b)

u-substitution

c)

integration by parts

d)

Stare at the question... forever.

36.
What would you choose for your u here if you used integration by parts?
a)
x
b)
x4
c)
e-x
d)
ex
37.

Use substitution to evaluate the integral 4sec24x tan4x dx\int4\sec^24x\ \sqrt{\tan4x}\ dx

a)

2(tan4x)32+c2\left(\tan4x\right)^{\frac{3}{2}}+c

b)

154(tan4x)43+c\frac{15}{4}\left(\tan4x\right)^{\frac{4}{3}}+c

c)

43(tan4x)32+c\frac{4}{3}\left(\tan4x\right)^{\frac{3}{2}}+c

d)

23(tan4x)32+c\frac{2}{3}\left(\tan4x\right)^{\frac{3}{2}}+c

38.

Break this into partial fractions.

a)
b)
c)
d)
39.

 3x+2x21dx\int_{ }^{ }\frac{3x+2}{x^2-1}dx  

a)

 lnx21+c\ln\left|x^2-1\right|+c  

b)

 12lnx+1+52lnx1+c\frac{1}{2}\ln\left|x+1\right|+\frac{5}{2}\ln\left|x-1\right|+c  

c)

 32lnx+1+12lnx1+c\frac{3}{2}\ln\left|x+1\right|+\frac{1}{2}\ln\left|x-1\right|+c  

d)

 52lnx+1+12ln(x1)2+c\frac{5}{2}\ln\left|x+1\right|+\frac{1}{2}\ln\left|\left(x-1\right)^2\right|+c  

40.

 1x2+2x15dx\int_{ }^{ }\frac{1}{x^2+2x-15}dx  

a)

 18lnx3x+5+C\frac{1}{8}\ln\left|\frac{x-3}{x+5}\right|+C  

b)

 14lnx3x+5+C\frac{1}{4}\ln\left|\frac{x-3}{x+5}\right|+C  

c)

 18lnx+3x5+C\frac{1}{8}\ln\left|\frac{x+3}{x-5}\right|+C  

d)

 14lnx+3x5+C\frac{1}{4}\ln\left|\frac{x+3}{x-5}\right|+C  

41.

We're interested in calculating the area under the curve for x between -6 and 6. Order the areas from LEAST to GREATEST.

a)

left-hand, right-hand, midpoint

b)

right-hand, left-hand, midpoint

c)

right-hand, midpoint, left-hand

d)

left-hand, midpoint, right-hand

42.

What kind of Riemann sum is described by the diagram?

a)

Left-hand

b)

Right-hand

c)

Midpoint

43.

What is the correct description of the subdivisions in the Riemann sum?

a)

five uniform subdivisions

b)

five nonuniform subdivisions

c)

six uniform subdivisions

d)

six nonuniform subdivisions

44.

Approximate the area under y=h(x) from x=-2 to x=4 using a Right-hand sum and three equal subdivision

a)

20 units2

b)

26.5 units2

c)

28 units2

45.

What method would you use here?

a)

inverse trig

b)

u-substitution

c)

integration by parts

d)

partial fractions

46.
What method would you use here?
a)
antiderivatives
b)
u-substitution
c)
integration by parts
d)
slope fields
47.

 5x4(x57)3dx\int5x^4\left(x^5-7\right)^3dx  can be solved by

a)

integration by parts

b)

u-substitution

c)

partial fractions

d)

natural log pattern

48.

Which technique should be used to integrate this:

a)

natural log pattern

b)

u-substitution

c)

integration by parts

d)

partial fractions

49.

Find the partial fraction decomposition...

a)
b)
c)
d)
50.

  dx4+9x2  \int\ \frac{dx}{4+9x^{2\ }\ }  can be solved by

a)

natural log pattern

b)

inverse trig integration

c)

partial fractions

d)

u-substitution

51.

  x2x2x+1dx\int\ \frac{x^2}{x^2-x+1}dx  must be solved by first 

a)

completing the square

b)

finding the partial fractions

c)

using u-substitution

d)

performing long division

52.

  3x1x2+1dx\int\ \frac{3x-1}{x^2+1}dx  can be solved by first

a)

using inverse trig

b)

separating the integral into two fractions

c)

completing the square in the denominator

d)

using the natural log pattern

53.

What does this picture represent?

a)

Left Riemann Sum

b)

Right Riemann Sum

c)

Middle Riemann Sum

d)

Trapezoidal Sum

54.

What does picture represent?

a)

Left Riemann Sum

b)

Right Riemann Sum

c)

Middle Riemann Sum

d)

Trapezoidal Sum

55.
For a function that is strictly decreasing, a right hand Riemann Sum is which of the following:
a)
Overestimate
b)
Underestimate
c)
Exact Solution
d)
Unable to Determine
56.
For a function that is strictly increasing, a right hand Riemann Sum is which of the following:
a)
Overestimate
b)
Underestimate
c)
Unable to Determine
d)
Exact Solution
57.
For a function that is strictly decreasing, a trapezoidal approximation will be which of the following:
a)
Underestimate
b)
Overestimate
c)
Exact Solution
d)
Unable to Determine
58.
Based on the table, use a left Riemann sum and 4 sub-intervals to estimate the Area under the curve. (Choose the correct set-up.) 
a)
5(3) + 1(4) + 2(5) + 1(7)
b)
5(4) + 1(5) + 2(7) + 1(6)
c)
5(3) + 6(4) + 8(5) + 9(7)
d)
0(3) + 5(4) + 6(5) + 8(7)
59.

Use a midpoint Riemann Sum to approximate the area between 0 to 3 with 3 subintervals.

a)

14

b)

7

c)

26

d)

11

60.

Find the Left-hand Riemann Sum, with three sub-intervals indicated by the table.

a)

28

b)

16

c)

34

d)

23

61.
Find the area under the curve y =3x2-2x from x= 1 to x =5.
a)
100
b)
99
c)
150
d)
152
62.
a)
Distance
b)
Displacement
c)
Velocity
d)
Acceleration
63.

Use 3 trapezoids to determine the approximate area of the shaded area.

a)

12

b)

9

c)

10

d)

5

64.

Based on the table, use a trapezoidal sum of 4 sub-intervals to estimate the area under the curve.

a)

32.5

b)

40.5

c)

78

d)

160

65.

Determine  08x2dx\int_0^8x^2dx  using an estimate of 4 equivalent based trapezoids

a)

176

b)

352

c)

420

d)

488

66.

If  25 f(x)dx=5 and  45 f(x)dx=π, find 55 f(x)dx.\int_2^5\ f\left(x\right)dx=5\ and\ \ \int_4^5\ f\left(x\right)dx=\pi,\ find\ \int_5^5\ f\left(x\right)dx.  

a)

 π-\pi  

b)

 00  

c)

 0-0  

d)

 π\pi  

67.

 If25 f(x)dx=5 and  45 f(x)dx=π, find 54 f(x)dx.If\int_2^5\ f\left(x\right)dx=5\ and\ \ \int_4^5\ f\left(x\right)dx=\pi,\ find\ \int_5^4\ f\left(x\right)dx.  

a)

 00  

b)

 1-1  

c)

 π-\pi  

d)

 π\pi  

68.

 25 f(x)dx=5 and  45 f(x)dx=π, find 24 f(x)dx.\int_2^5\ f\left(x\right)dx=5\ and\ \ \int_4^5\ f\left(x\right)dx=\pi,\ find\ \int_2^4\ f\left(x\right)dx.  If

a)

 π5\pi-5  

b)

 22  

c)

 5π5-\pi  

d)

 (5π)-\left(5-\pi\right)  

69.

020C(n)dn =

a)

1000

b)

250

c)

750

d)

1125

70.

410f(x)dx =

a)

2π + 3

b)

4π + 3

c)

2π - 3

d)

π - 3

71.

 25(x3+3)dx\int_2^5\left(x^3+3\right)dx  as limit of a sum is equivalent to 

a)

 limni=1n[(2+3in)3+3]1n\lim_{n\rightarrow\infty}\sum_{i=1}^n\left[\left(2+\frac{3i}{n}\right)^3+3\right]\cdot\frac{1}{n}  

b)

 limni=1n[(3in)3+3]3n\lim_{n\rightarrow\infty}\sum_{i=1}^n\left[\left(\frac{3i}{n}\right)^3+3\right]\cdot\frac{3}{n}  

c)

 limni=1n[(2+3in)3+3]3in\lim_{n\rightarrow\infty}\sum_{i=1}^n\left[\left(2+\frac{3i}{n}\right)^3+3\right]\cdot\frac{3i}{n}  

d)

 limni=1n[(2+3in)3+3]3n\lim_{n\rightarrow\infty}\sum_{i=1}^n\left[\left(2+\frac{3i}{n}\right)^3+3\right]\cdot\frac{3}{n}  

72.

 0πcosxdx\int_0^{\pi}\cos xdx  as limit of a sum is equivalent to 

a)

 limni=1n[cos(πin)]in\lim_{n\rightarrow\infty}\sum_{i=1}^n\left[\cos\left(\frac{\pi i}{n}\right)\right]\cdot\frac{i}{n}  

b)

 limni=1n[cos(in)]in\lim_{n\rightarrow\infty}\sum_{i=1}^n\left[\cos\left(\frac{i}{n}\right)\right]\cdot\frac{i}{n}  

c)

 limni=1n[cos(πin)]πn\lim_{n\rightarrow\infty}\sum_{i=1}^n\left[\cos\left(\frac{\pi i}{n}\right)\right]\cdot\frac{\pi}{n}  

d)

 limni=1n[cos(in)]πn\lim_{n\rightarrow\infty}\sum_{i=1}^n\left[\cos\left(\frac{i}{n}\right)\right]\cdot\frac{\pi}{n}  

73.

 limni=1n[(5in)2+5in+1]5n\lim_{n\rightarrow\infty}\sum_{i=1}^n\left[\left(\frac{5i}{n}\right)^2+\frac{5i}{n}+1\right]\cdot\frac{5}{n}  in integral notation would be

a)

 05(x2+x+1)dx\int_0^5\left(x^2+x+1\right)dx  

b)

 56(x2+x+1)dx\int_5^6\left(x^2+x+1\right)dx  

c)

 01((5x)2+5x+1)dx\int_0^1\left(\left(5x\right)^2+5x+1\right)dx  

d)

 010(x22+x2+1)dx\int_0^{10}\left(\frac{x^2}{2}+\frac{x}{2}+1\right)dx  

74.
a)
1 ⁄ (1+x3
b)
(3x2) ⁄ (1+x3
c)
x3  ⁄ (1+x3
d)
HELP
75.
a)
-cos(x6)
b)
sin(x6)
c)
2x sin(x3)
d)
2x sin(x6)
76.
a)
-8x cos(8x2)
b)
-8x sin(8x2)
c)
8x cos(8x2)
d)
8x sin(8x2)
77.

Find the antiderivative of

f'(x) = x2 when f(3) = 11.

a)

(1/3)x3+ 2

b)

x3 + 29

c)

(1/3)x3 + 9

d)

x3 + 11

78.
a)

10

b)

20

c)

23

d)

35